CN109786802A - A kind of electrochemical reaction implementation method - Google Patents
A kind of electrochemical reaction implementation method Download PDFInfo
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- CN109786802A CN109786802A CN201910107816.7A CN201910107816A CN109786802A CN 109786802 A CN109786802 A CN 109786802A CN 201910107816 A CN201910107816 A CN 201910107816A CN 109786802 A CN109786802 A CN 109786802A
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- XTEGARKTQYYJKE-UHFFFAOYSA-N chloric acid Chemical compound OCl(=O)=O XTEGARKTQYYJKE-UHFFFAOYSA-N 0.000 description 1
- 229940005991 chloric acid Drugs 0.000 description 1
- ASENRGFQFJSWMN-UHFFFAOYSA-N chloric acid zinc Chemical compound [Zn].Cl(=O)(=O)O ASENRGFQFJSWMN-UHFFFAOYSA-N 0.000 description 1
- 239000000460 chlorine Substances 0.000 description 1
- 229910052801 chlorine Inorganic materials 0.000 description 1
- KRVSOGSZCMJSLX-UHFFFAOYSA-L chromic acid Substances O[Cr](O)(=O)=O KRVSOGSZCMJSLX-UHFFFAOYSA-L 0.000 description 1
- 229910052804 chromium Inorganic materials 0.000 description 1
- 239000011651 chromium Substances 0.000 description 1
- 229940117975 chromium trioxide Drugs 0.000 description 1
- WGLPBDUCMAPZCE-UHFFFAOYSA-N chromium trioxide Inorganic materials O=[Cr](=O)=O WGLPBDUCMAPZCE-UHFFFAOYSA-N 0.000 description 1
- GAMDZJFZMJECOS-UHFFFAOYSA-N chromium(6+);oxygen(2-) Chemical compound [O-2].[O-2].[O-2].[Cr+6] GAMDZJFZMJECOS-UHFFFAOYSA-N 0.000 description 1
- 239000002817 coal dust Substances 0.000 description 1
- 239000003034 coal gas Substances 0.000 description 1
- 229910017052 cobalt Inorganic materials 0.000 description 1
- 239000010941 cobalt Substances 0.000 description 1
- GUTLYIVDDKVIGB-UHFFFAOYSA-N cobalt atom Chemical compound [Co] GUTLYIVDDKVIGB-UHFFFAOYSA-N 0.000 description 1
- 239000000571 coke Substances 0.000 description 1
- 229910052802 copper Inorganic materials 0.000 description 1
- 239000010949 copper Substances 0.000 description 1
- 229910000431 copper oxide Inorganic materials 0.000 description 1
- IJCCOEGCVILSMZ-UHFFFAOYSA-L copper;dichlorate Chemical compound [Cu+2].[O-]Cl(=O)=O.[O-]Cl(=O)=O IJCCOEGCVILSMZ-UHFFFAOYSA-L 0.000 description 1
- 238000005520 cutting process Methods 0.000 description 1
- 238000000151 deposition Methods 0.000 description 1
- SOCTUWSJJQCPFX-UHFFFAOYSA-N dichromate(2-) Chemical compound [O-][Cr](=O)(=O)O[Cr]([O-])(=O)=O SOCTUWSJJQCPFX-UHFFFAOYSA-N 0.000 description 1
- 239000002283 diesel fuel Substances 0.000 description 1
- 238000007599 discharging Methods 0.000 description 1
- VTIIJXUACCWYHX-UHFFFAOYSA-L disodium;carboxylatooxy carbonate Chemical compound [Na+].[Na+].[O-]C(=O)OOC([O-])=O VTIIJXUACCWYHX-UHFFFAOYSA-L 0.000 description 1
- 238000006073 displacement reaction Methods 0.000 description 1
- 239000000428 dust Substances 0.000 description 1
- 235000013399 edible fruits Nutrition 0.000 description 1
- 238000005868 electrolysis reaction Methods 0.000 description 1
- 238000005370 electroosmosis Methods 0.000 description 1
- 150000002148 esters Chemical class 0.000 description 1
- 239000011790 ferrous sulphate Substances 0.000 description 1
- 235000003891 ferrous sulphate Nutrition 0.000 description 1
- 239000003063 flame retardant Substances 0.000 description 1
- 239000011737 fluorine Substances 0.000 description 1
- 229910052731 fluorine Inorganic materials 0.000 description 1
- 239000000295 fuel oil Substances 0.000 description 1
- AWJWCTOOIBYHON-UHFFFAOYSA-N furo[3,4-b]pyrazine-5,7-dione Chemical compound C1=CN=C2C(=O)OC(=O)C2=N1 AWJWCTOOIBYHON-UHFFFAOYSA-N 0.000 description 1
- 239000003502 gasoline Substances 0.000 description 1
- 150000008282 halocarbons Chemical class 0.000 description 1
- 229910000041 hydrogen chloride Inorganic materials 0.000 description 1
- IXCSERBJSXMMFS-UHFFFAOYSA-N hydrogen chloride Substances Cl.Cl IXCSERBJSXMMFS-UHFFFAOYSA-N 0.000 description 1
- 229910000037 hydrogen sulfide Inorganic materials 0.000 description 1
- QWPPOHNGKGFGJK-UHFFFAOYSA-N hypochlorous acid Chemical compound ClO QWPPOHNGKGFGJK-UHFFFAOYSA-N 0.000 description 1
- 229910052738 indium Inorganic materials 0.000 description 1
- 239000012212 insulator Substances 0.000 description 1
- 230000003993 interaction Effects 0.000 description 1
- PNDPGZBMCMUPRI-UHFFFAOYSA-N iodine Chemical compound II PNDPGZBMCMUPRI-UHFFFAOYSA-N 0.000 description 1
- 229910052742 iron Inorganic materials 0.000 description 1
- FBAFATDZDUQKNH-UHFFFAOYSA-M iron chloride Chemical compound [Cl-].[Fe] FBAFATDZDUQKNH-UHFFFAOYSA-M 0.000 description 1
- ZICFUFGMZGWZMA-UHFFFAOYSA-L iron(2+) diiodate Chemical compound [Fe+2].[O-]I(=O)=O.[O-]I(=O)=O ZICFUFGMZGWZMA-UHFFFAOYSA-L 0.000 description 1
- BAUYGSIQEAFULO-UHFFFAOYSA-L iron(2+) sulfate (anhydrous) Chemical compound [Fe+2].[O-]S([O-])(=O)=O BAUYGSIQEAFULO-UHFFFAOYSA-L 0.000 description 1
- 229910000359 iron(II) sulfate Inorganic materials 0.000 description 1
- 239000003350 kerosene Substances 0.000 description 1
- 229910052744 lithium Inorganic materials 0.000 description 1
- MHCFAGZWMAWTNR-UHFFFAOYSA-M lithium perchlorate Chemical compound [Li+].[O-]Cl(=O)(=O)=O MHCFAGZWMAWTNR-UHFFFAOYSA-M 0.000 description 1
- 229910001486 lithium perchlorate Inorganic materials 0.000 description 1
- 238000011068 loading method Methods 0.000 description 1
- 229910052749 magnesium Inorganic materials 0.000 description 1
- 239000011777 magnesium Substances 0.000 description 1
- NNNSKJSUQWKSAM-UHFFFAOYSA-L magnesium;dichlorate Chemical compound [Mg+2].[O-]Cl(=O)=O.[O-]Cl(=O)=O NNNSKJSUQWKSAM-UHFFFAOYSA-L 0.000 description 1
- LBSANEJBGMCTBH-UHFFFAOYSA-N manganate Chemical compound [O-][Mn]([O-])(=O)=O LBSANEJBGMCTBH-UHFFFAOYSA-N 0.000 description 1
- WPBNNNQJVZRUHP-UHFFFAOYSA-L manganese(2+);methyl n-[[2-(methoxycarbonylcarbamothioylamino)phenyl]carbamothioyl]carbamate;n-[2-(sulfidocarbothioylamino)ethyl]carbamodithioate Chemical compound [Mn+2].[S-]C(=S)NCCNC([S-])=S.COC(=O)NC(=S)NC1=CC=CC=C1NC(=S)NC(=O)OC WPBNNNQJVZRUHP-UHFFFAOYSA-L 0.000 description 1
- QSHDDOUJBYECFT-UHFFFAOYSA-N mercury Chemical compound [Hg] QSHDDOUJBYECFT-UHFFFAOYSA-N 0.000 description 1
- 229910052753 mercury Inorganic materials 0.000 description 1
- WSFSSNUMVMOOMR-NJFSPNSNSA-N methanone Chemical compound O=[14CH2] WSFSSNUMVMOOMR-NJFSPNSNSA-N 0.000 description 1
- JKQOBWVOAYFWKG-UHFFFAOYSA-N molybdenum trioxide Chemical compound O=[Mo](=O)=O JKQOBWVOAYFWKG-UHFFFAOYSA-N 0.000 description 1
- 230000005404 monopole Effects 0.000 description 1
- 239000003345 natural gas Substances 0.000 description 1
- 229910052757 nitrogen Inorganic materials 0.000 description 1
- JCXJVPUVTGWSNB-UHFFFAOYSA-N nitrogen dioxide Inorganic materials O=[N]=O JCXJVPUVTGWSNB-UHFFFAOYSA-N 0.000 description 1
- 229910000510 noble metal Inorganic materials 0.000 description 1
- 238000005457 optimization Methods 0.000 description 1
- 235000006408 oxalic acid Nutrition 0.000 description 1
- QNGNSVIICDLXHT-UHFFFAOYSA-N para-ethylbenzaldehyde Natural products CCC1=CC=C(C=O)C=C1 QNGNSVIICDLXHT-UHFFFAOYSA-N 0.000 description 1
- VLTRZXGMWDSKGL-UHFFFAOYSA-M perchlorate Inorganic materials [O-]Cl(=O)(=O)=O VLTRZXGMWDSKGL-UHFFFAOYSA-M 0.000 description 1
- 150000002989 phenols Chemical class 0.000 description 1
- 229910052698 phosphorus Inorganic materials 0.000 description 1
- 239000011574 phosphorus Substances 0.000 description 1
- 235000019396 potassium bromate Nutrition 0.000 description 1
- 229940094037 potassium bromate Drugs 0.000 description 1
- VKJKEPKFPUWCAS-UHFFFAOYSA-M potassium chlorate Chemical compound [K+].[O-]Cl(=O)=O VKJKEPKFPUWCAS-UHFFFAOYSA-M 0.000 description 1
- KMUONIBRACKNSN-UHFFFAOYSA-N potassium dichromate Chemical compound [K+].[K+].[O-][Cr](=O)(=O)O[Cr]([O-])(=O)=O KMUONIBRACKNSN-UHFFFAOYSA-N 0.000 description 1
- 239000004323 potassium nitrate Substances 0.000 description 1
- 235000010333 potassium nitrate Nutrition 0.000 description 1
- 239000012286 potassium permanganate Substances 0.000 description 1
- 229910052761 rare earth metal Inorganic materials 0.000 description 1
- 238000004064 recycling Methods 0.000 description 1
- 230000008929 regeneration Effects 0.000 description 1
- 238000011069 regeneration method Methods 0.000 description 1
- 229910052710 silicon Inorganic materials 0.000 description 1
- 239000010703 silicon Substances 0.000 description 1
- SDLBJIZEEMKQKY-UHFFFAOYSA-M silver chlorate Chemical compound [Ag+].[O-]Cl(=O)=O SDLBJIZEEMKQKY-UHFFFAOYSA-M 0.000 description 1
- 229910001923 silver oxide Inorganic materials 0.000 description 1
- 229910000033 sodium borohydride Inorganic materials 0.000 description 1
- 239000012279 sodium borohydride Substances 0.000 description 1
- MSFGZHUJTJBYFA-UHFFFAOYSA-M sodium dichloroisocyanurate Chemical compound [Na+].ClN1C(=O)[N-]C(=O)N(Cl)C1=O MSFGZHUJTJBYFA-UHFFFAOYSA-M 0.000 description 1
- SUKJFIGYRHOWBL-UHFFFAOYSA-N sodium hypochlorite Chemical compound [Na+].Cl[O-] SUKJFIGYRHOWBL-UHFFFAOYSA-N 0.000 description 1
- 229960005076 sodium hypochlorite Drugs 0.000 description 1
- 239000004317 sodium nitrate Substances 0.000 description 1
- 235000010344 sodium nitrate Nutrition 0.000 description 1
- KKCBUQHMOMHUOY-UHFFFAOYSA-N sodium oxide Chemical compound [O-2].[Na+].[Na+] KKCBUQHMOMHUOY-UHFFFAOYSA-N 0.000 description 1
- 229910001948 sodium oxide Inorganic materials 0.000 description 1
- 229960001922 sodium perborate Drugs 0.000 description 1
- 229940045872 sodium percarbonate Drugs 0.000 description 1
- BAZAXWOYCMUHIX-UHFFFAOYSA-M sodium perchlorate Chemical compound [Na+].[O-]Cl(=O)(=O)=O BAZAXWOYCMUHIX-UHFFFAOYSA-M 0.000 description 1
- 229910001488 sodium perchlorate Inorganic materials 0.000 description 1
- PFUVRDFDKPNGAV-UHFFFAOYSA-N sodium peroxide Chemical compound [Na+].[Na+].[O-][O-] PFUVRDFDKPNGAV-UHFFFAOYSA-N 0.000 description 1
- 235000010265 sodium sulphite Nutrition 0.000 description 1
- YKLJGMBLPUQQOI-UHFFFAOYSA-M sodium;oxidooxy(oxo)borane Chemical compound [Na+].[O-]OB=O YKLJGMBLPUQQOI-UHFFFAOYSA-M 0.000 description 1
- 235000011150 stannous chloride Nutrition 0.000 description 1
- 239000001119 stannous chloride Substances 0.000 description 1
- 238000003786 synthesis reaction Methods 0.000 description 1
- 229910052716 thallium Inorganic materials 0.000 description 1
- BKVIYDNLLOSFOA-UHFFFAOYSA-N thallium Chemical compound [Tl] BKVIYDNLLOSFOA-UHFFFAOYSA-N 0.000 description 1
- 229910052718 tin Inorganic materials 0.000 description 1
- 239000011135 tin Substances 0.000 description 1
- 230000009466 transformation Effects 0.000 description 1
- GPPXJZIENCGNKB-UHFFFAOYSA-N vanadium Chemical compound [V]#[V] GPPXJZIENCGNKB-UHFFFAOYSA-N 0.000 description 1
- 229910052725 zinc Inorganic materials 0.000 description 1
- 239000011701 zinc Substances 0.000 description 1
- TUDPEWOTGHYZBQ-UHFFFAOYSA-L zinc;dibromate Chemical compound [Zn+2].[O-]Br(=O)=O.[O-]Br(=O)=O TUDPEWOTGHYZBQ-UHFFFAOYSA-L 0.000 description 1
Classifications
-
- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
- Y02E60/00—Enabling technologies; Technologies with a potential or indirect contribution to GHG emissions mitigation
- Y02E60/30—Hydrogen technology
- Y02E60/50—Fuel cells
Landscapes
- Electric Double-Layer Capacitors Or The Like (AREA)
- Physical Or Chemical Processes And Apparatus (AREA)
- Fixed Capacitors And Capacitor Manufacturing Machines (AREA)
- Organic Low-Molecular-Weight Compounds And Preparation Thereof (AREA)
- Battery Electrode And Active Subsutance (AREA)
Abstract
The invention discloses a kind of electrochemical reaction implementation methods, electrochemistry region is set alternately to contact or make reducing agent and oxidant alternately to contact with electrochemistry region with reducing agent and oxidant, and then the necessity that the two kinds of charged particles generated in the electrochemistry region are removed from the electrochemistry region is eliminated, making the electrochemistry region, there are the export of electronics importings.Electrochemical reaction implementation method disclosed in this invention is by termination Conventional electrochemical method and electrochemical appliance (such as fuel cell etc.) with the history for existing for necessary condition of electrolyte (such as proton exchange membrane and solid oxide electrolyte etc.), the Conventional electrochemical method and device that terminates also can not be used securely and reliably to the history of oxidant reduction agent composition, exploitation for efficient, long-life, Low-cost electric chemical devices provides new approach, and will redefine engine.
Description
Technical field
The present invention relates to electricity field, electrochemical field more particularly to a kind of electrochemical reaction implementation methods.
Background technique
Conventional electrochemical method is required to non-electronic charged particle (such as ion or proton) and transmits between two electrodes, that is, needs
Positive charged particle and negative charged particles that electrochemistry region (electrode) generates are removed, non-electronic charged particle is in two interpolars
Transmission not only consume electric energy, but also be required to conduct non-electronic charged particle non-conducting electronics and there are many particular/special requirements
Electrolyte (such as proton exchange membrane and solid oxide electrolyte etc. of hydrogen fuel cell), because of its complexity, this electrolysis
The manufacturing technology of matter is unqualified always, and has become and restrict electrochemical method and be efficiently widely applied and its electrochemical appliance (example
Such as fuel cell) improved efficiency, the basic reason of life-span upgrading and cost reduction, also have become and hinders electrochemical appliance (example
Such as fuel cell) efficiently industrialization problem the most serious.If can invent a kind of not non-to be removed from electrochemistry region
Electronics charged particle is that the model electrochemical of necessary condition reacts implementation method, and termination Conventional electrochemical method and electrochemistry are filled
It sets (such as fuel cell etc.) and necessary item is existed for electrolyte (such as proton exchange membrane and solid oxide electrolyte etc.)
The history of part, also will termination Conventional electrochemical method and device can not safe and reliable going through using oxidant reduction agent composition
History provides new approach for efficient, long-life, Low-cost electric chemical devices exploitation, and will redefine engine.Therefore,
Need to invent a kind of model electrochemical reaction implementation method.
Summary of the invention
To solve the above-mentioned problems, technical solution proposed by the present invention is as follows:
Scheme 1: a kind of electrochemical reaction implementation method makes electrochemistry region alternately contact or make with reducing agent and oxidant
Reducing agent and oxidant are alternately contacted with electrochemistry region, and then are eliminated and removed from the electrochemistry region in the electrochemical school district
The necessity for two kinds of charged particles that domain generates, making the electrochemistry region, there are the export of electronics importings;
Or, making electrochemistry region contact with each other with reducing agent and connecing the electrochemistry region mutually discontinuously with oxidant
Touching, or electrochemistry region and oxidant is made to contact with each other and make the electrochemistry region and the mutual makes discontinuous contact of reducing agent;In turn
The necessity for removing the two kinds of charged particles generated in the electrochemistry region from the electrochemistry region is eliminated, the electrification is made
There are the export of electronics importings in school district domain.
Scheme 2: a kind of electrochemical reaction implementation method makes electrochemistry region alternately contact or make with reducing agent and oxidant
Reducing agent and oxidant are alternately contacted with electrochemistry region, and then are eliminated and removed from the electrochemistry region in the electrochemical school district
The necessity for two kinds of charged particles that domain generates, the export for making the electrochemistry region and region B there is electronics import;
Or, making electrochemistry region contact with each other with reducing agent and connecing the electrochemistry region mutually discontinuously with oxidant
Touching, or electrochemistry region and oxidant is made to contact with each other and make the electrochemistry region and the mutual makes discontinuous contact of reducing agent, in turn
The necessity for removing the two kinds of charged particles generated in the electrochemistry region from the electrochemistry region is eliminated, the electrification is made
The export that school district domain and region B have electronics imports;
Or, electrochemistry region is made alternately to contact or make reducing agent and oxidant and electrochemistry region with reducing agent and oxidant
It alternately contacts, and then eliminates the necessity for removing the two kinds of charged particles generated in the electrochemistry region from the electrochemistry region
Property, so that the electrochemistry region and region B is there is the export importing of electronics, the electrochemistry region is corresponding with the region B
Setting;
Or, making electrochemistry region contact with each other with reducing agent and connecing the electrochemistry region mutually discontinuously with oxidant
Touching, or electrochemistry region and oxidant is made to contact with each other and make the electrochemistry region and the mutual makes discontinuous contact of reducing agent, in turn
The necessity for removing the two kinds of charged particles generated in the electrochemistry region from the electrochemistry region is eliminated, the electrification is made
The export that school district domain and region B have electronics imports, and the electrochemistry region is correspondingly arranged with the region B;
Or, electrochemistry region is made alternately to contact or make reducing agent and oxidant and electrochemistry region with reducing agent and oxidant
It alternately contacts, and then eliminates the necessity for removing the two kinds of charged particles generated in the electrochemistry region from the electrochemistry region
Property, so that the electrochemistry region and region B is there is the export importing of electronics, the electrochemistry region is empty through insulation, isolation
Between, in electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electronic conduction area at least
It is a kind of that there is non-electronic conducting electrical relation with the region B;
Or, making electrochemistry region contact with each other with reducing agent and connecing the electrochemistry region mutually discontinuously with oxidant
Touching, or electrochemistry region and oxidant is made to contact with each other and make the electrochemistry region and the mutual makes discontinuous contact of reducing agent, in turn
The necessity for removing the two kinds of charged particles generated in the electrochemistry region from the electrochemistry region is eliminated, the electrification is made
The export that school district domain and region B have electronics imports, and the electrochemistry region is situated between through insulation, isolation space, electrolyte, electricity
At least one of matter, capacitor, plasma, ionic liquid, ionized gas, solion and electronic conduction area and the region
B has non-electronic conducting electrical relation.
Scheme 3: a kind of electrochemical reaction implementation method, make electrochemistry region A and reducing agent and oxidant alternately contact or
It contacts reducing agent and oxidant alternately with electrochemistry region A, hands over electrochemistry region B and the oxidant and the reducing agent
It is contacted for contacting or replacing Oxidizing and Reducing Agents with electrochemistry region B, and then eliminates to remove from the electrochemistry region A and exist
The necessity for two kinds of charged particles that the electrochemistry region A is generated and eliminating is removed from the electrochemistry region B in the electricity
The necessity for two kinds of charged particles that chemical regions B is generated, has the electrochemistry region A and the electrochemistry region B
The export of electronics imports;
Or, making electrochemistry region A contact with each other with reducing agent and connecing the electrochemistry region A mutually discontinuously with oxidant
Touch and make electrochemistry region B and reducing agent to contact with each other and make the electrochemistry region B and the mutual makes discontinuous contact of oxidant, or
So that electrochemistry region A and oxidant is contacted with each other and makes the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electricity
Chemical regions B and oxidant contact with each other and make the electrochemistry region B and the mutual makes discontinuous contact of reducing agent, or make electrochemical school district
Domain A and oxidant contact with each other and make the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electrochemistry region B
It contacts with each other with reducing agent and makes the electrochemistry region B and the mutual makes discontinuous contact of oxidant, and then eliminate from the electrochemistry
Region A removes the necessity in the electrochemistry region A two kinds of charged particles generated and eliminates from the electrochemistry region B
The necessity in the electrochemistry region B two kinds of charged particles generated is removed, the electrochemistry region A and the electrochemistry are made
The export that region B has electronics imports;
Or, electrochemistry region A is made alternately to contact or make reducing agent and oxidant and electrochemical school district with reducing agent and oxidant
Domain A is alternately contacted, and electrochemistry region B is made alternately to contact or make Oxidizing and Reducing Agents with the oxidant and the reducing agent
It is alternately contacted with electrochemistry region B, and then eliminates from the electrochemistry region A and remove two generated in the electrochemistry region A
It plants the necessity of charged particle and eliminates from the electrochemistry region B and remove the two kinds of electrifications generated in the electrochemistry region B
The necessity of particle, the export for making the electrochemistry region A and the electrochemistry region B there is electronics import, the electrification
School district domain A is correspondingly arranged with the electrochemistry region B;
Or, making electrochemistry region A contact with each other with reducing agent and connecing the electrochemistry region A mutually discontinuously with oxidant
Touch and make electrochemistry region B and reducing agent to contact with each other and make the electrochemistry region B and the mutual makes discontinuous contact of oxidant, or
So that electrochemistry region A and oxidant is contacted with each other and makes the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electricity
Chemical regions B and oxidant contact with each other and make the electrochemistry region B and the mutual makes discontinuous contact of reducing agent, or make electrochemical school district
Domain A and oxidant contact with each other and make the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electrochemistry region B
It contacts with each other with reducing agent and makes the electrochemistry region B and the mutual makes discontinuous contact of oxidant, and then eliminate from the electrochemistry
Region A removes the necessity in the electrochemistry region A two kinds of charged particles generated and eliminates from the electrochemistry region B
The necessity in the electrochemistry region B two kinds of charged particles generated is removed, the electrochemistry region A and the electrochemistry are made
The export that region B has electronics imports, and the electrochemistry region A is correspondingly arranged with the electrochemistry region B;
Or, electrochemistry region A is made alternately to contact or make reducing agent and oxidant and electrochemical school district with reducing agent and oxidant
Domain A is alternately contacted, and electrochemistry region B is made alternately to contact or make Oxidizing and Reducing Agents with the oxidant and the reducing agent
It is alternately contacted with electrochemistry region B, and then eliminates from the electrochemistry region A and remove two generated in the electrochemistry region A
It plants the necessity of charged particle and eliminates from the electrochemistry region B and remove the two kinds of electrifications generated in the electrochemistry region B
The necessity of particle, the export for making the electrochemistry region A and the electrochemistry region B there is electronics import, the electrification
School district domain A is molten through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, ion
At least one of liquid and electronic conduction area have non-electronic conducting electrical relation with the electrochemistry region B;
Or, making electrochemistry region A contact with each other with reducing agent and connecing the electrochemistry region A mutually discontinuously with oxidant
Touch and make electrochemistry region B and reducing agent to contact with each other and make the electrochemistry region B and the mutual makes discontinuous contact of oxidant, or
So that electrochemistry region A and oxidant is contacted with each other and makes the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electricity
Chemical regions B and oxidant contact with each other and make the electrochemistry region B and the mutual makes discontinuous contact of reducing agent, or make electrochemical school district
Domain A and oxidant contact with each other and make the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electrochemistry region B
It contacts with each other with reducing agent and makes the electrochemistry region B and the mutual makes discontinuous contact of oxidant, and then eliminate from the electrochemistry
Region A removes the necessity in the electrochemistry region A two kinds of charged particles generated and eliminates from the electrochemistry region B
The necessity in the electrochemistry region B two kinds of charged particles generated is removed, the electrochemistry region A and the electrochemistry are made
The export that region B has electronics imports, and the electrochemistry region A is through insulation, isolation space, electrolyte, dielectric, electricity
At least one of appearance, plasma, ionic liquid, ionized gas, solion and electronic conduction area and the electrochemical school district
Domain B has non-electronic conducting electrical relation.
Scheme 4: a kind of electrochemical reaction implementation method contacts electrochemistry region and the mixture of reducing agent and oxidant
Or contact the mixture of reducing agent and oxidant with electrochemistry region, and then eliminate and remove from the electrochemistry region described
The necessity for two kinds of charged particles that electrochemistry region generates, making the electrochemistry region, there are the export of electronics importings;
Or, making the mixture makes discontinuous contact of electrochemistry region and reducing agent and oxidant or making the mixed of reducing agent and oxidant
Object and electrochemistry region makes discontinuous contact are closed, and then eliminates from the electrochemistry region and removes two generated in the electrochemistry region
The necessity of kind charged particle, making the electrochemistry region, there are the export of electronics importings.
Scheme 5: a kind of electrochemical reaction implementation method contacts electrochemistry region and the mixture of reducing agent and oxidant
Or contact the mixture of reducing agent and oxidant with electrochemistry region, and then eliminate and remove from the electrochemistry region described
The necessity for two kinds of charged particles that electrochemistry region generates, makes the electrochemistry region and region B there is the export of electronics
It imports;
Or, making the mixture makes discontinuous contact of electrochemistry region and reducing agent and oxidant or making the mixed of reducing agent and oxidant
Object and electrochemistry region makes discontinuous contact are closed, and then eliminates from the electrochemistry region and removes two generated in the electrochemistry region
The necessity of kind charged particle, the export for making the electrochemistry region and region B there is electronics import;
Or, making electrochemistry region that the mixture of reducing agent and oxidant is contacted or made with the mixture of reducing agent and oxidant
It is contacted with electrochemistry region, and then eliminates from the electrochemistry region and remove the two kinds of band electrochondrias generated in the electrochemistry region
The necessity of son, the export for making the electrochemistry region and region B there is electronics import, the electrochemistry region and the area
Domain B is correspondingly arranged;
Or, making the mixture makes discontinuous contact of electrochemistry region and reducing agent and oxidant or making the mixed of reducing agent and oxidant
Object and electrochemistry region makes discontinuous contact are closed, and then eliminates from the electrochemistry region and removes two generated in the electrochemistry region
The necessity of kind charged particle, the export for making the electrochemistry region and region B there is electronics import, the electrochemistry region
It is correspondingly arranged with the region B;
Or, making electrochemistry region that the mixture of reducing agent and oxidant is contacted or made with the mixture of reducing agent and oxidant
It is contacted with electrochemistry region, and then eliminates from the electrochemistry region and remove the two kinds of band electrochondrias generated in the electrochemistry region
The necessity of son, the export for making the electrochemistry region and region B there is electronics import, and the electrochemistry region is through completely cutting off
Body, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electronic conduction
At least one of area has non-electronic conducting electrical relation with the region B;
Or, making the mixture makes discontinuous contact of electrochemistry region and reducing agent and oxidant or making the mixed of reducing agent and oxidant
Object and electrochemistry region makes discontinuous contact are closed, and then eliminates from the electrochemistry region and removes two generated in the electrochemistry region
The necessity of kind charged particle, the export for making the electrochemistry region and region B there is electronics import, the electrochemistry region
Through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electricity
At least one of son conducting area has non-electronic conducting electrical relation with the region B.
Scheme 6: a kind of electrochemical reaction implementation method meets electrochemistry region A and the mixture of reducing agent and oxidant
It touches or makes the mixture of reducing agent and oxidant to contact with electrochemistry region A, make electrochemistry region B and reducing agent and oxidant
Mixture contacts or contacts the mixture of reducing agent and oxidant with electrochemistry region B, and then eliminates from the electrochemical school district
Domain A removes the necessity in the electrochemistry region A two kinds of charged particles generated and eliminates from the electrochemistry region B and moves
Out in the necessity of the electrochemistry region B two kinds of charged particles generated, make the electrochemistry region A and the electrochemical school district
The export that domain B has electronics imports;
Or, making electrochemistry region A that the mixing of reducing agent and oxidant is contacted or made with the mixture of reducing agent and oxidant
Object is contacted with electrochemistry region A, makes electrochemistry region B that reducing agent and oxidation are contacted or made with the mixture of reducing agent and oxidant
The mixture of agent is contacted with electrochemistry region B, and then is eliminated to remove from the electrochemistry region A and be produced in the electrochemistry region A
It the necessity of two kinds of raw charged particles and eliminates from the electrochemistry region B and removes two generated in the electrochemistry region B
The necessity of kind charged particle, the export for making the electrochemistry region A and the electrochemistry region B there is electronics import, institute
The electrochemistry region A and electrochemistry region B is stated to be correspondingly arranged;
Or, making electrochemistry region A that the mixing of reducing agent and oxidant is contacted or made with the mixture of reducing agent and oxidant
Object is contacted with electrochemistry region A, makes electrochemistry region B that reducing agent and oxidation are contacted or made with the mixture of reducing agent and oxidant
The mixture of agent is contacted with electrochemistry region B, and then is eliminated to remove from the electrochemistry region A and be produced in the electrochemistry region A
It the necessity of two kinds of raw charged particles and eliminates from the electrochemistry region B and removes two generated in the electrochemistry region B
The necessity of kind charged particle, the export for making the electrochemistry region A and the electrochemistry region B there is electronics import, institute
State electrochemistry region A through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas,
At least one of solion and electronic conduction area have non-electronic conducting electrical relation with the electrochemistry region B;
Or, making the mixture makes discontinuous contact of electrochemistry region A and reducing agent and oxidant or making reducing agent and oxidant
Mixture and electrochemistry region A makes discontinuous contact make the mixture makes discontinuous contact of electrochemistry region B and reducing agent and oxidant or make
The mixture of reducing agent and oxidant and electrochemistry region B makes discontinuous contact, and then eliminate and remove from the electrochemistry region A in institute
It states the necessity of two kinds of charged particles of electrochemistry region A generation and eliminates and remove from the electrochemistry region B in the electrification
The necessity for two kinds of charged particles that school district domain B is generated, makes the electrochemistry region A and the electrochemistry region B there is electricity
The export of son imports;
Or, making the mixture makes discontinuous contact of electrochemistry region A and reducing agent and oxidant or making reducing agent and oxidant
Mixture and electrochemistry region A makes discontinuous contact make the mixture makes discontinuous contact of electrochemistry region B and reducing agent and oxidant or make
The mixture of reducing agent and oxidant and electrochemistry region B makes discontinuous contact, and then eliminate and remove from the electrochemistry region A in institute
It states the necessity of two kinds of charged particles of electrochemistry region A generation and eliminates and remove from the electrochemistry region B in the electrification
The necessity for two kinds of charged particles that school district domain B is generated, makes the electrochemistry region A and the electrochemistry region B there is electricity
The export of son imports, and the electrochemistry region A is correspondingly arranged with the electrochemistry region B;
Or, making the mixture makes discontinuous contact of electrochemistry region A and reducing agent and oxidant or making reducing agent and oxidant
Mixture and electrochemistry region A makes discontinuous contact make the mixture makes discontinuous contact of electrochemistry region B and reducing agent and oxidant or make
The mixture of reducing agent and oxidant and electrochemistry region B makes discontinuous contact, and then eliminate and remove from the electrochemistry region A in institute
It states the necessity of two kinds of charged particles of electrochemistry region A generation and eliminates and remove from the electrochemistry region B in the electrification
The necessity for two kinds of charged particles that school district domain B is generated, makes the electrochemistry region A and the electrochemistry region B there is electricity
Son export import, the electrochemistry region A through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, from
At least one of sub- liquid, ionized gas, solion and electronic conduction area have non-electronic lead with the electrochemistry region B
Logical electrical relation.
Scheme 7: a kind of electrochemical reaction implementation method makes the X class charged particle generated in electrochemistry region be stored in institute
Electrochemistry region is stated, is imported by the electronics generated in the electrochemistry region from the export in the electrochemistry region and realizes output
Electric energy and/or absorption electric energy;
Or, the X class charged particle generated in electrochemistry region is made to be stored in the electrochemistry region, pass through the electrochemistry
The electronics in region is imported from the export in the electrochemistry region realizes output electric energy and/or absorption electric energy.
Scheme 8: a kind of electrochemical reaction implementation method makes the X class charged particle generated in electrochemistry region be stored in institute
Electrochemistry region is stated, is imported by export of the electronics in the electrochemistry region between the electrochemistry region and region B real
It now exports electric energy and/or absorbs electric energy;
Or, the X class charged particle generated in electrochemistry region is made to be stored in the electrochemistry region, pass through the electrochemistry
Export of the electronics in region between the electrochemistry region and region B, which imports, to be realized output electric energy and/or absorbs electric energy, described
Electrochemistry region and the region B are correspondingly arranged;
Or, the X class charged particle generated in electrochemistry region is made to be stored in the electrochemistry region, pass through the electrochemistry
Export of the electronics in region between the electrochemistry region and region B, which imports, to be realized output electric energy and/or absorbs electric energy, described
Electrochemistry region through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, from
At least one of sub- solution and electronic conduction area have non-electronic conducting electrical relation with the region B;
Or, making the X class charged particle generated in electrochemistry region be stored in the electrochemistry region, by the electrification
Export of the electronics that school district domain generates between the electrochemistry region and region B, which imports, realizes output electric energy and/or absorption electricity
Energy;
Or, making the X class charged particle generated in electrochemistry region be stored in the electrochemistry region, by the electrification
Export of the electronics that school district domain generates between the electrochemistry region and region B, which imports, realizes output electric energy and/or absorption electricity
Can, the electrochemistry region and the region B are correspondingly arranged;
Or, making the X class charged particle generated in electrochemistry region be stored in the electrochemistry region, by the electrification
Export of the electronics that school district domain generates between the electrochemistry region and region B, which imports, realizes output electric energy and/or absorption electricity
Can, the electrochemistry region is through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ion
At least one of gas, solion and electronic conduction area have non-electronic conducting electrical relation with the region B.
Scheme 9: a kind of electrochemical reaction implementation method makes the X class charged particle generated in electrochemistry region A be stored in institute
Electrochemistry region A is stated, so that the X class charged particle generated in electrochemistry region B is stored in the electrochemistry region B, by described
The export of electronics, which imports, between electrochemistry region A and the electrochemistry region B realizes output electric energy and/or absorption electric energy;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The X class charged particle that domain B is generated is stored in the electrochemistry region B, passes through the electrochemistry region A and the electrochemical school district
The export of electronics, which imports, between the B of domain realizes output electric energy and/or absorption electric energy, the electrochemistry region A and the electrochemical school district
Domain B is correspondingly arranged;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The X class charged particle that domain B is generated is stored in the electrochemistry region B, passes through the electrochemistry region A and the electrochemical school district
The export of electronics, which imports, between the B of domain realizes output electric energy and/or absorbs electric energy, and the electrochemistry region A is through insulation, isolation
In space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electronic conduction area extremely
A kind of few and electrochemistry region B has non-electronic conducting electrical relation;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The X class charged particle that domain B is generated is stored in the electrochemistry region B, by the electronics that is generated in the electrochemistry region A with
It is imported in export of the electronics that the electrochemistry region B is generated between the electrochemistry region A and the electrochemistry region B real
It now exports electric energy and/or absorbs electric energy;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The X class charged particle that domain B is generated is stored in the electrochemistry region B, by the electronics that is generated in the electrochemistry region A with
It is imported in export of the electronics that the electrochemistry region B is generated between the electrochemistry region A and the electrochemistry region B real
It now exports electric energy and/or absorbs electric energy, the electrochemistry region A and the electrochemistry region B are correspondingly arranged;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The X class charged particle that domain B is generated is stored in the electrochemistry region B, by the electronics that is generated in the electrochemistry region A with
It is imported in export of the electronics that the electrochemistry region B is generated between the electrochemistry region A and the electrochemistry region B real
Now export electric energy and/or absorb electric energy, the electrochemistry region A through insulation, isolation space, electrolyte, dielectric, capacitor,
At least one of plasma, ionic liquid, ionized gas, solion and electronic conduction area and the electrochemistry region B
With non-electronic conducting electrical relation.
Scheme 10: a kind of electrochemical reaction implementation method is stored in the X class charged particle generated in electrochemistry region A
The electrochemistry region A makes the Z class charged particle generated in electrochemistry region B be stored in the electrochemistry region B, makes in electricity
The Z class charged particle that chemical regions A is generated is stored in the electrochemistry region A, makes the X class electrification generated in electrochemistry region B
Particle is stored in the electrochemistry region B, passes through the export of electronics between the electrochemistry region A and the electrochemistry region B
It imports and realizes output electric energy and/or absorption electric energy;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The Z class charged particle that domain B is generated is stored in the electrochemistry region B, deposits the Z class charged particle generated in electrochemistry region A
Storage makes the X class charged particle generated in electrochemistry region B be stored in the electrochemistry region B in the electrochemistry region A, leads to
The export for crossing electronics between the electrochemistry region A and the electrochemistry region B, which imports, to be realized output electric energy and/or absorbs electric
Can, the electrochemistry region A is correspondingly arranged with the electrochemistry region B;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The Z class charged particle that domain B is generated is stored in the electrochemistry region B, deposits the Z class charged particle generated in electrochemistry region A
Storage makes the X class charged particle generated in electrochemistry region B be stored in the electrochemistry region B in the electrochemistry region A, leads to
The export for crossing electronics between the electrochemistry region A and the electrochemistry region B, which imports, to be realized output electric energy and/or absorbs electric
Can, the electrochemistry region A is through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ion
At least one of gas, solion and electronic conduction area have non-electronic conducting electrical relation with the electrochemistry region B;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The Z class charged particle that domain B is generated is stored in the electrochemistry region B, deposits the Z class charged particle generated in electrochemistry region A
Storage makes the X class charged particle generated in electrochemistry region B be stored in the electrochemistry region B in the electrochemistry region A, leads to
The electronics in electrochemistry region A generation and the electronics in electrochemistry region B generation are crossed in the electrochemistry region A
Export between the electrochemistry region B, which imports, realizes output electric energy and/or absorption electric energy;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The Z class charged particle that domain B is generated is stored in the electrochemistry region B, deposits the Z class charged particle generated in electrochemistry region A
Storage makes the X class charged particle generated in electrochemistry region B be stored in the electrochemistry region B in the electrochemistry region A, leads to
The electronics in electrochemistry region A generation and the electronics in electrochemistry region B generation are crossed in the electrochemistry region A
Export between the electrochemistry region B, which imports, realizes output electric energy and/or absorption electric energy, the electrochemistry region A and institute
Electrochemistry region B is stated to be correspondingly arranged;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The Z class charged particle that domain B is generated is stored in the electrochemistry region B, deposits the Z class charged particle generated in electrochemistry region A
Storage makes the X class charged particle generated in electrochemistry region B be stored in the electrochemistry region B in the electrochemistry region A, leads to
The electronics in electrochemistry region A generation and the electronics in electrochemistry region B generation are crossed in the electrochemistry region A
Export between the electrochemistry region B, which imports, to be realized output electric energy and/or absorbs electric energy, the electrochemistry region A pass through every
Insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electronics are led
At least one of logical area and the electrochemistry region B have non-electronic conducting electrical relation.
Scheme 11: a kind of electrochemical reaction implementation method is stored in the U class charged particle generated in electrochemistry region A
The electrochemistry region A makes the W class charged particle generated in electrochemistry region B be stored in the electrochemistry region B, makes in electricity
The W class charged particle that chemical regions A is generated is stored in the electrochemistry region A, makes the U class electrification generated in electrochemistry region B
Particle is stored in the electrochemistry region B, passes through the export of electronics between the electrochemistry region A and the electrochemistry region B
It imports and realizes output electric energy and/or absorption electric energy;
Or, the U class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The W class charged particle that domain B is generated is stored in the electrochemistry region B, deposits the W class charged particle generated in electrochemistry region A
Storage makes the U class charged particle generated in electrochemistry region B be stored in the electrochemistry region B in the electrochemistry region A, leads to
The export for crossing electronics between the electrochemistry region A and the electrochemistry region B, which imports, to be realized output electric energy and/or absorbs electric
Can, the electrochemistry region A is correspondingly arranged with the electrochemistry region B;
Or, the U class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The W class charged particle that domain B is generated is stored in the electrochemistry region B, deposits the W class charged particle generated in electrochemistry region A
Storage makes the U class charged particle generated in electrochemistry region B be stored in the electrochemistry region B in the electrochemistry region A, leads to
The export for crossing electronics between the electrochemistry region A and the electrochemistry region B, which imports, to be realized output electric energy and/or absorbs electric
Can, the electrochemistry region A is through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ion
At least one of gas, solion and electronic conduction area have non-electronic conducting electrical relation with the electrochemistry region B;
Or, the U class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The W class charged particle that domain B is generated is stored in the electrochemistry region B, deposits the W class charged particle generated in electrochemistry region A
Storage makes the U class charged particle generated in electrochemistry region B be stored in the electrochemistry region B in the electrochemistry region A, leads to
The electronics in electrochemistry region A generation and the electronics in electrochemistry region B generation are crossed in the electrochemistry region A
Export between the electrochemistry region B, which imports, realizes output electric energy and/or absorption electric energy;
Or, the U class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The W class charged particle that domain B is generated is stored in the electrochemistry region B, deposits the W class charged particle generated in electrochemistry region A
Storage makes the U class charged particle generated in electrochemistry region B be stored in the electrochemistry region B in the electrochemistry region A, leads to
The electronics in electrochemistry region A generation and the electronics in electrochemistry region B generation are crossed in the electrochemistry region A
Export between the electrochemistry region B, which imports, realizes output electric energy and/or absorption electric energy, the electrochemistry region A and institute
Electrochemistry region B is stated to be correspondingly arranged;
Or, the U class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemical school district
The W class charged particle that domain B is generated is stored in the electrochemistry region B, deposits the W class charged particle generated in electrochemistry region A
Storage makes the U class charged particle generated in electrochemistry region B be stored in the electrochemistry region B in the electrochemistry region A, leads to
The electronics in electrochemistry region A generation and the electronics in electrochemistry region B generation are crossed in the electrochemistry region A
Export between the electrochemistry region B, which imports, to be realized output electric energy and/or absorbs electric energy, the electrochemistry region A pass through every
Insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electronics are led
At least one of logical area and the electrochemistry region B have non-electronic conducting electrical relation.
Scheme 12: it in scheme 7 to 11 on the basis of either a program, is selectively chosen the electrochemical reaction is real
Existing method is as the method for exchanging electric energy for chemical energy, reducing agent and oxidation used in the electrochemical reaction implementation method
Agent in the form of the mixture of the reducing agent and the oxidant to exist, or with mole of the reducing agent and the oxidant
Form than mixture exists, or to deposit in the form of the mixture of the explosion limit reducing agent below and the oxidant
, or to exist in the form of the mixture of the local explosion limit reducing agent below and the oxidant, or with pole of exploding
The form of the mixture of above reducing agent of limit and the oxidant exists, or with described in more than local explosion limit also
The form of the mixture of former agent and the oxidant exists.
Scheme 13: in scheme 1 to 3 and 7 to 11 on the basis of either a program, the electrochemical reaction implementation method is made
For the method for exchanging electric energy for chemical energy, and further can selectively select to use in the electrochemical reaction implementation method
Reducing agent and oxidant between be inserted into inert substance and/or dead band duration.
The aforementioned all schemes of the present invention are during exporting electric energy and/or absorbing electric energy, optionally using electricity
Effect.
The aforementioned all schemes of the present invention, can further selectively during exporting electric energy and/or absorbing electric energy
Select specifically used capacitor, DC power supply, AC power source, alternating source, inductor conductor, inductance coil, charged particle pump, phase
Converter, reversing switch circuit, rectifier, electric field, oscillating circuit, motor, reversible electric machine, the motor with additional rotation inertia
Or its two conjunction, its three conjunction, its four conjunction, its five conjunction, its six conjunction, its seven conjunction, its eight it
Conjunction, its nine conjunction, its ten conjunction, its 11 conjunction, the conjunction of its ten binomial, its 13 conjunction, its 14 conjunction,
Its 15 conjunction.
The aforementioned all schemes of the present invention further can selectively select to apply electricity to the region for participating in electrochemical reaction
Effect, so that the substance for participating in electrochemical reaction is difficult to directly carry out redox reaction.
The aforementioned all schemes of the present invention further can selectively select the export for making electronics to import as work normality.
The aforementioned all schemes containing the electrochemistry region of the present invention further selectively can make electronics described
It is work normality that export between electrochemistry region and electric conductor, which imports,.
The aforementioned all schemes containing the electrochemistry region and the region B of the present invention further can be selected selectively
It is work normality that the export that selecting makes electronics between the electrochemistry region and the region B, which imports,.
The aforementioned all schemes containing the electrochemistry region A and the electrochemistry region B of the present invention can be selected further
The export for making electronics between the electrochemistry region A and the electrochemistry region B is selected to selecting property to import as work normality.
In the present invention, the electric conductor, which is selectively chosen, is set as electrode.And it further can selectively select to set
For three-diemsnional electrode.
The aforementioned all schemes of the present invention further can selectively select to apply electricity to the region for participating in electrochemical reaction
Effect, so that the substance for participating in electrochemical reaction is difficult to directly carry out redox reaction.
In the present invention, so-called " inductor conductor " refers to all externally output magnetic force energy and leading from outer absorption magnetic force energy
Body.Such as transformer coil, electrical-coil, conductor bars for dynamoelectric machines etc..
In the present invention, so-called " phase converter " is the direction vector and the angled dress of its voltage for instigating electric current
It sets, the circuit for example including capacitor, the circuit including inductance and also include circuit of inductance etc. including capacitor.
In the present invention, the principle of electrochemical method disclosed in this invention is carried out as described below:
Through detailed analysis, it can be found that there is the basic logic of universality using the process of redox reaction power generation, specifically
Be analyzed as follows: the process to be generated electricity using redox reaction, is exported from reducing agent by electronics, forms reducing agent cation, then
By electronics derived from institute imported into reducing agent cation and oxidant coexistence make three react generate the reducing agent and
The product of the oxidizing reduction reaction externally exports electric energy on the path that electronics export and electronics import.In tradition
In hydrogen-oxygen fuel cell, such as PEMFC, under the effect of the catalyst, hydrogen molecule is separated into proton and electronics, and proton is made to pass through matter
Proton exchange enters the oxygen side with catalyst, and electronics is loaded from hydrogen side and imported into proton and what oxygen coexisted has catalyst
Oxygen side, proton (H+), oxygen (O2) and electronics (e-) reaction generation water.This means that the process to be generated electricity using redox reaction
With following basic logic: electronics is made into reducing agent positively ionized from reducing agent export, then by electronics imported into reducing agent just from
The coexistence of son and oxidant makes reducing agent cation, oxidant and electronics three react the generation reducing agent and the oxidation
The product of agent redox reaction, this overall process is external output electric energy, and the output of electric energy is leading by electronics
Realization is imported out.This basic logic is it is meant that we can not be by the constraint of conventional fuel cell concrete form, as long as full
The requirement of this basic logic of foot, so that it may externally export electric energy using the redox reaction of Oxidizing and Reducing Agents.And this
The basic process of the disclosed method including electrochemistry region of invention is exactly to make to restore dosage form from electrochemistry region export electronics
At reducing agent cation, then so that electronics is imported into the electrochemistry region and coexisted with oxidant and the reducing agent cation, from
And so that electronics and Oxidizing and Reducing Agents cation three is reacted and generate the oxidant and the reducing agent redox
The product of reaction, so it is real there are no under the premise of by necessity derived from the reducing agent cation, also it is being not present
Under the premise of by necessity derived from other non-electronic charged particles, electric energy is externally exported.And disclosed in this invention includes electricity
The basic process of chemical regions and the method for region B be exactly electrochemistry region from reducing agent export electronically form reducing agent just from
Son makes electronics export to region B, then so that electronics is imported into the electrochemistry region from the region B, and make electronics, oxidant
It is coexisted with the reducing agent cation three, so that so that electronics and Oxidizing and Reducing Agents cation three is reacted generates institute
The product of oxidant and the reducing agent redox reaction is stated, and then there are no export the reducing agent cation in fact
Necessity under the premise of, also there is no by necessity derived from other non-electronic charged particles under the premise of, externally output
Electric energy.And the basic process of the method disclosed in this invention including electrochemistry region A and electrochemistry region B is exactly from electrochemistry
A export electronics in region makes reducing agent form reducing agent cation, and Xiang Suoshu electrochemistry region B imports electronics, then makes electronics from institute
State electrochemistry region B and imported into the electrochemistry region A, the electrochemistry region A electronics, oxidant and the reducing agent just
Ion three coexists, and coexists in the electrochemistry region B electronics, oxidant and the reducing agent cation three, to make electricity
Son reacts with Oxidizing and Reducing Agents cation three generates the oxidant and the reducing agent redox reaction
Product, and then real there are no under the premise of by necessity derived from the reducing agent cation, also there is no will be other
Under the premise of necessity derived from non-electronic charged particle, electric energy is externally exported.
Disclosed in this invention include reducing agent, oxidant alternating action method principle it is as follows: make electrochemical school district
Domain alternately contacts or makes reducing agent and oxidant alternately to contact with electrochemistry region with reducing agent and oxidant, makes reducing agent in institute
It states electrochemistry region and generates positive charged particle and electronics, export electronics from the electrochemistry region, make electronics to the electrification
School district domain imports, and positive charged particle, the oxidant described in the electrochemistry region and electron reaction generate the reducing agent
The product to react with the oxidant is imported using the export of electronics and realizes output electric energy and/or absorb electric energy, so
Circulation, realization continues working process, and (when importing electronics to the electrochemistry region, in some cases, electronics is in the electricity
Chemical regions and oxidant reaction generate negative charged particles C, and the negative charged particles C and the positive charged particle reaction generate institute
The product that reducing agent and the oxidant react is stated, is imported using the export of electronics and realizes output electric energy and/or absorption
Electric energy so recycles, and realization continues working process).In realizing this electrochemical process, being selectively chosen makes the electricity
Chemical regions, external circuit, capacitor and reception and circuit is constituted for the region of electron, and/or makes the electrochemistry region, dispatch from foreign news agency
Road, non-electronic charged particle vibrate area and reception and constitute circuit for the region of electron.It in this approach, can be to described
Electro ultrafiltration is implemented in electrochemistry region, and electro ultrafiltration can control export and/or importing with strengthening electronic, thus can effectively keep away
Exempt from reducing agent and redox reaction directly occurs for oxidant mixing, improves safety, reliability and efficiency.In this method
In, it can also first implement electro ultrafiltration to it before the electrochemistry region and material effect, purpose is also to avoid reducing agent
Redox reaction directly occurs with oxidant mixing, improves safety, reliability and efficiency.
Disclosed in this invention include reducing agent and oxidant mixture effect method principle it is as follows: make electrification
School district domain contacts with the mixture of reducing agent and oxidant or makes the mixture of reducing agent and oxidant to contact with electrochemistry region,
Electronics is exported from the electrochemistry region using electro ultrafiltration, and then the reducing agent is made to form positive charged particle, to the electricity
Chemical regions import electronics, the positive charged particle and the oxidant and electron reaction generates the reducing agent and the oxidation
The reaction product of agent, next step, Xiang Suoshu electrochemistry region import electronics, export electronics from the electrochemistry region,
Under the action of electronics imports and exports, the reducing agent and the oxidant reaction generate the reducing agent and the oxidant
Reaction product absorbs electric energy and/or output electric energy on the channel that electronics exports and/or imports, so recycles, realize and continue
(in some cases, when importing electronics to the electrochemistry region, the oxidant and electron reaction are generated and are born the course of work
Charged particle C, the positive charged particle described in the electrochemistry region and negative charged particles C reaction generate the reducing agent and
The reaction product of the oxidant absorbs electric energy and/or output electric energy, so on the channel that electronics exports and/or imports
Circulation, realization continue working process).In realizing this electrochemical process, it is selectively chosen, the electrochemistry region,
External circuit, capacitor and reception and circuit and/or the electrochemistry region, external circuit, non-electronic band are constituted for the region of electron
Charged particle vibrates area and receives and constitute circuit for the region of electron.In this approach, to be effectively prevented from the reduction
Redox reaction directly occurs for agent and oxidant mixing, can be before the electrochemistry region and material effect, first
Electro ultrafiltration is implemented to it.
Disclosed in this invention include reducing agent and oxidant the principle of method that discontinuously acts on of mixture it is as follows: remove
Outside the influence discontinuously acted on, the principle of this method and the principle of the method for the mixture effect for including reducing agent and oxidant are complete
It is identical, and interrupted function is that can be better protected from or eliminate reducing agent described in mixture and the oxidant in electricity
Pole participates in directly carrying out the ability that redox reaction loses output electric energy in the case where (the i.e. described electrochemistry region participates in),
And then the efficiency of the method disclosed in the present is improved, such as following reducing agents and oxidant mixture discontinuously act on working principle diagram
It is shown, under the influence of mixture discontinuously acts on, a certain electrode may be implemented and only exist reducing agent (non-electronic charged particle removes
It functions outside), and another electrode only exists the state that oxidant (except non-electronic charged particle) functions, or realizes certain
The high concentration object (except non-electronic charged particle) that one electrode only exists reducing agent functions, and another electrode only exists oxidation
The state that the high concentration object (except non-electronic charged particle) of agent functions, any state either among these have
Conducive to the efficiency for promoting electrochemical reaction.Certainly as described above, being selectively chosen using external means (such as external electrical
Stream, external electrical field etc.) control electronics export import step, promote the efficiency of electrochemical reaction.Similarly, this electrification is being realized
It during, is selectively chosen, the electrochemistry region, external circuit, capacitor and reception and the region for electron are constituted
Circuit and/or the electrochemistry region, external circuit, non-electronic charged particle oscillation area and reception and the region structure for electron
At circuit.
Disclosed in this invention include reducing agent, oxidant alternating action method principle it is as follows: make electrochemical school district
Domain alternately contacts or makes reducing agent and oxidant alternately to contact with electrochemistry region with reducing agent and oxidant, makes reducing agent in institute
It states electrochemistry region and generates positive charged particle and electronics, so that electronics is exported to region B from the electrochemistry region, make electronics from institute
It states region B to import to the electrochemistry region, positive charged particle, the oxidant and electron back described in the electrochemistry region
The product that the reducing agent and the oxidant react should be generated, using the electrochemistry region and the region B it
Between the export of electronics import and realize output electric energy and/or absorb electric energy, so recycle, realization continues working process (from institute
State region B to the electrochemistry region import electronics when, in some cases, electronics is anti-in the electrochemistry region and oxidant
Negative charged particles C should be generated, the negative charged particles C and the positive charged particle reaction generate the reducing agent and the oxidation
The product that agent reacts is imported using the export of the electronics between the electrochemistry region and the region B and realizes output
Electric energy and/or absorption electric energy, so recycle, realization continues working process).It is alternative in realizing this electrochemical process
Ground selection makes the electrochemistry region, external circuit, capacitor and the region B constitute circuit and/or the electrochemistry region, outer
Circuit, non-electronic charged particle oscillation area and the region B constitute circuit.It in this approach, can be to the electrochemical school district
Electro ultrafiltration is implemented in domain, and electro ultrafiltration can control export and/or importing with strengthening electronic, thus it is possible to prevente effectively from reducing agent
Redox reaction directly occurs with oxidant mixing, improves safety, reliability and efficiency.It in this approach, can also be with
First implement electro ultrafiltration to it before the electrochemistry region and material effect, purpose is also to avoid reducing agent and oxidant mixed
It closes and redox reaction directly occurs, improve safety, reliability and efficiency.
Disclosed in this invention include reducing agent and oxidant mixture effect method principle it is as follows: make electrification
School district domain contacts with the mixture of reducing agent and oxidant or makes the mixture of reducing agent and oxidant to contact with electrochemistry region,
So that electronics is exported to region B from the electrochemistry region using electro ultrafiltration, and then the reducing agent is made to form positive charged particle, from
The region B imports electronics, the positive charged particle and the oxidant to the electrochemistry region and electron reaction generates institute
The reaction product of reducing agent and the oxidant is stated, next step imports electricity from the region B to the electrochemistry region
Son makes electronics export to the region B from the electrochemistry region, the electricity between the electrochemistry region and the region B
Under the action of son imports and exports, the reducing agent and the oxidant reaction generate reacting for the reducing agent and the oxidant
Product, between the electrochemistry region and the region B electronics export and/or import channel on absorb electric energy and/
Or output electric energy, it so recycles, realization continues working process (in some cases, from the region B to the electrochemical school district
When domain imports electronics, the oxidant and electron reaction generate negative charged particles C, the positive band electrochondria described in the electrochemistry region
The sub and described negative charged particles C reaction generates the reaction product of the reducing agent and the oxidant, in the electrochemical school district
Electric energy and/or output electric energy are absorbed on the channel of electronics export and/or importing between domain and the region B, are so recycled, in fact
Now continue working process).In realizing this electrochemical process, be selectively chosen, the electrochemistry region, external circuit,
Capacitor and the region B constitute circuit and/or the electrochemistry region, external circuit, non-electronic charged particle oscillation area and described
Region B constitutes circuit.In this approach, it is directly aoxidized to be effectively prevented from the reducing agent and oxidant mixing
Reduction reaction first can implement electro ultrafiltration to it before the electrochemistry region and material effect.
Disclosed in this invention include reducing agent and oxidant the principle of method that discontinuously acts on of mixture it is as follows: remove
Outside the influence discontinuously acted on, the principle of this method and the principle of the method for the mixture effect for including reducing agent and oxidant are complete
It is identical, and interrupted function is that can be better protected from or eliminate reducing agent described in mixture and the oxidant in electricity
Pole participates in directly carrying out the ability that redox reaction loses output electric energy in the case where (the i.e. described electrochemistry region participates in),
And then the efficiency of the method disclosed in the present is improved, such as following reducing agents and oxidant mixture discontinuously act on working principle diagram
It is shown, under the influence of mixture discontinuously acts on, a certain electrode may be implemented and only exist reducing agent (non-electronic charged particle removes
It functions outside), and another electrode only exists the state that oxidant (except non-electronic charged particle) functions, or realizes certain
The high concentration object (except non-electronic charged particle) that one electrode only exists reducing agent functions, and another electrode only exists oxidation
The state that the high concentration object (except non-electronic charged particle) of agent functions, any state either among these have
Conducive to the efficiency for promoting electrochemical reaction.Certainly as described above, being selectively chosen using external means (such as external electrical
Stream, external electrical field etc.) control electronics export import step, promote the efficiency of electrochemical reaction.Similarly, this electrification is being realized
During, being selectively chosen makes the electrochemistry region, external circuit, capacitor and the region B constitute circuit, and/or
The electrochemistry region, external circuit, non-electronic charged particle oscillation area and the region B constitute circuit.
Disclosed in this invention include reducing agent, oxidant alternating action method principle it is as follows: make electrochemical school district
Domain A alternately contacts or makes reducing agent and oxidant alternately to contact with electrochemistry region A with reducing agent and oxidant, makes electrochemistry
Region B is alternately contacted with Oxidizing and Reducing Agents or is contacted Oxidizing and Reducing Agents alternately with electrochemistry region B, makes to restore
Agent generates positive charged particle and electronics in the electrochemistry region A, and electronics is made to export to the electrification from the electrochemistry region A
School district domain B, the oxidant described in the electrochemistry region B coexist with electronics, produce the reducing agent in the electrochemistry region B
The raw positive charged particle and electronics, make electronics imported into the electrochemistry region A from the electrochemistry region B, in the electricity
Positive charged particle, the oxidant and electron reaction described in chemical regions A generate the reducing agent and the oxidant reaction
Product, positive charged particle, the oxidant described in the electrochemistry region B and electron reaction generate the reducing agent and institute
The product for stating oxidant reaction is imported using the export of the electronics between the electrochemistry region A and the electrochemistry region B
It realizes output electric energy and/or absorbs electric energy, so recycle, realization continues working process (from the electrochemistry region A to described
When electrochemistry region B imports electronics, in some cases, electronics generates negative band in the electrochemistry region B and oxidant reaction
Charged particle C, the negative charged particles C the electrochemistry region B and the positive charged particle reaction generate the reducing agent and
The product that the oxidant reacts utilizes leading for the electronics between the electrochemistry region A and the electrochemistry region B
It imports out and realizes output electric energy and/or absorb electric energy, so recycle, realization continues working process).Realizing this electrochemistry mistake
Cheng Zhong is selectively chosen, the electrochemistry region A, external circuit, capacitor and electrochemistry region B composition circuit, and/
Or the electrochemistry region A, external circuit, non-electronic charged particle oscillation area and the electrochemistry region B constitute circuit.At this
In kind of method, electro ultrafiltration can be implemented to the electrochemistry region A and electrochemistry region B, electro ultrafiltration can control and by force
Change the export and/or importing of electronics, thus it is possible to prevente effectively from reducing agent and oxidant mixing directly generation redox are anti-
It answers, improves safety, reliability and efficiency.It in this approach, can also be in the electrochemistry region A and the electrochemical school district
First implement electro ultrafiltration to it before domain B and material effect, purpose is also to avoid reducing agent and oxidant from mixing oxygen directly occurs
Change reduction reaction, improves safety, reliability and efficiency.
Disclosed in this invention include reducing agent and oxidant mixture effect method principle it is as follows: make electrification
School district domain A contacts with the mixture of reducing agent and oxidant or makes the mixture of reducing agent and oxidant to connect with electrochemistry region A
Touching makes electrochemistry region B that the mixture of reducing agent and oxidant and electrification are contacted or made with the mixture of reducing agent and oxidant
School district domain B contact, makes electronics export to the electrochemistry region B from the electrochemistry region A using electro ultrafiltration, and then makes described
Reducing agent forms positive charged particle in the electrochemistry region A, imports from the electrochemistry region B to the electrochemistry region A
Electronics, the reducing agent generate the positive charged particle, the positive band described in the electrochemistry region A in the electrochemistry region B
Charged particle, the oxidant and electron reaction generate the reducing agent and the oxidant reaction product, in the electrochemistry
Positive charged particle, the oxidant described in the B of region and electron reaction generate the reducing agent and the oxidant reaction product,
Between the electrochemistry region A and the electrochemistry region B electronics export and/or import channel on absorb electric energy and/
Or output electric energy, it so recycles, realization continues working process (in some cases, from the electrochemistry region A to the electricity
The oxidant and electron reaction generate negative charged particles C when chemical regions B imports electronics, from the electrochemistry region B to institute
It states oxidant described in the A of electrochemistry region and electron reaction and generates negative charged particles C, just charging described in the electrochemistry region A
Particle and negative charged particles C reaction generate the reaction product of the reducing agent and the oxidant, in the electrochemistry
Positive charged particle described in the B of region and negative charged particles C reaction generate the reducing agent and the reaction of the oxidant generates
Object, between the electrochemistry region A and the electrochemistry region B electronics export and/or import channel on absorb electric energy
And/or output electric energy, so recycle, realization continues working process).In realizing this electrochemical process, optionally select
Select, the electrochemistry region A, external circuit, capacitor and the electrochemistry region B constitute circuit and/or the electrochemistry region A,
External circuit, non-electronic charged particle oscillation area and the electrochemistry region B constitute circuit.It in this approach, is effectively to keep away
Exempt from the reducing agent and redox reaction directly occurs for oxidant mixing, it can be in the electrochemistry region A and described
Electrochemistry region B first implements electro ultrafiltration to it with before material effect.
Disclosed in this invention include reducing agent and oxidant the principle of method that discontinuously acts on of mixture it is as follows: remove
Outside the influence discontinuously acted on, the principle of this method and the principle of the method for the mixture effect for including reducing agent and oxidant are complete
It is identical, and interrupted function is that can be better protected from or eliminate reducing agent described in mixture and the oxidant in electricity
It is anti-that redox is directly carried out in the case where pole participation (the i.e. described electrochemistry region A and/or the electrochemistry region B are participated in)
The ability of output electric energy should be lost, and then improves the efficiency of the method disclosed in the present, such as following reducing agents and oxidant are mixed
It closes object discontinuously to act on shown in working principle diagram, under the influence of mixture discontinuously acts on, a certain electrode may be implemented and only exist also
Former agent (except non-electronic charged particle) functions, and another electrode only exist oxidant (except non-electronic charged particle) with
Its state acted on, or the high concentration object (except non-electronic charged particle) for realizing that a certain electrode only exists reducing agent are made with it
With, and another electrode only exists the state that the high concentration object (except non-electronic charged particle) of oxidant functions, either
Any state among these is all conducive to the efficiency for promoting electrochemical reaction.Certainly as described above, being selectively chosen makes
Step is imported with the export of external means (such as foreign current, external electrical field etc.) control electronics, promotes the effect of electrochemical reaction
Rate.Similarly, in realizing this electrochemical process, be selectively chosen make the electrochemistry region A, external circuit, capacitor and
The electrochemistry region B constitutes circuit, and/or make the electrochemistry region A, external circuit, non-electronic charged particle oscillation area and
The electrochemistry region B constitutes circuit.
In the present invention, the partial circuit working principle of the electrical return of disclosed method is to utilize non-electronic band electrochondria
Sub reciprocating vibration in the electrolyte, which is realized alternation conducting and/or stood facing each other using non-electronic charged particle with electronics, realizes that alternation is led
It is logical, and then interior circuit and external circuit is made to form closed circuit, realize electrochemical process.
In the present invention, it is work normality that the export of the electronics in the electrochemistry region, which imports,.
In the present invention, so-called " it is work normality that the export of the electronics in the electrochemistry region, which imports, " refers to from the electricity
It is to continue working process that chemical regions, which export electronics and import electronics to the electrochemistry region, i.e., using disclosed in this invention
The electrochemical appliance of electrochemical method exports electronics in working condition, from the electrochemistry region and to the electrochemistry region
Importing electronics is a kind of lasting process.In other words, the electrochemistry region electrochemistry corresponding and described with alternating current
Region is opposite with alternating current to should be the process of continuing working.
In the present invention, it is work normality that the export of the electronics between the electrochemistry region and the region B, which imports,.
In the present invention, so-called " it is that work is normal that the export of the electronics between the electrochemistry region and the region B, which imports,
State " refers to export of the electronics from the electrochemistry region to the region B and electronics from the region B to the electrochemistry region
It imports to continue working process, i.e., electrochemical appliance disclosed in this invention is led in working condition from the electrochemistry region
It is one that electronics, the region Xiang Suoshu B, which import electronics, electronics exported from the region B and imports electronics to the electrochemistry region, out
The lasting process of kind.In other words, the electrochemistry region and region B is corresponding with alternating current and the electrochemical school district
The domain and region B is opposite with alternating current should be the process of continuing working.
In the present invention, it is that work is normal that the export of the electronics between the electrochemistry region A and the electrochemistry region B, which imports,
State.
In the present invention, so-called " export of the electronics between the electrochemistry region A and the electrochemistry region B is imported
For the normality that works " refer to electronics from the electrochemistry region A to the electrochemistry region B and electronics from the electrochemistry region B
It is imported to the export of the electrochemistry region A to continue working process, i.e., electrochemical appliance disclosed in this invention is in work shape
When state, electronics is imported from electrochemistry region A export electronics, Xiang Suoshu electrochemistry region B, is led from the electrochemistry region B
Out electronics and to the electrochemistry region A import electronics be a kind of lasting process.In other words, the electrochemistry region A and
The electrochemistry region the B corresponding and described electrochemistry region A and electrochemistry region B and alternating current phase with alternating current
It corresponds to continue working process.
The method disclosed in the present is the electrochemical reaction implementation method at single electrode, in specific implementation, be may be selected
It selects using electrochemistry region as an electrode to property, using electric conductor as another electrode, two electrode cooperatings, completionization
Energy electric energy conversion is learned, is selectively chosen using an electrochemistry region as an electrode, another electrochemistry region is made
For another electrode, two electrode cooperatings complete the conversion of chemical energy electric energy.
In the present invention, disclosed method, which is selectively chosen, serves as half electrochemical appliance of manufacture (i.e. electrochemistry dress
Include the device region of an electrode in setting), it is also selectively chosen and serves as manufacture electrochemical appliance.
In the present invention, the method in only one disclosed electrochemistry region, which is selectively chosen, serves as half electricity of manufacture
Chemical devices (including the device region of an electrode i.e. in electrochemical appliance), are also selectively chosen and serve as manufacture electrification
Learn device.
In the present invention, when the reducing agent and the oxidant are certain two kinds of predetermined substance, electrochemical reaction is being realized
In the process, having the reaction of the third substance participation cyclicity, (so-called cyclicity reaction, which refers to, generates certain at an electrode
Substance, and the reaction that this substance is consumed at another electrode), such as the reducing agent is methanol, the oxidant is
When oxygen, in acid condition, water is had as the third substance and participates in cyclicity reaction, is i.e. water produces at the electrode for absorbing electronics
It is raw, and be consumed at the electrode of output electronics, and under alkaline condition, hydroxyl, which is had, as the third substance participates in recycling
Property reaction, hydroxyl absorb electronics electrode at generate, output electronics electrode at be consumed.For example, methanol fuel is electric
The electrochemical reaction process concrete condition in pond is as follows:
Overall reaction under alkaline condition: 2CH3OH+3O2+4OH-=2CO3 2-+6H2O
Anode reaction: O2+4e-+2H2O=4OH-
Negative reaction: CH3OH-6e-+8OH-=CO3 2-+6H2O
Overall reaction in acid condition: 2CH3OH+3O2=2CO2+4H2O
Anode reaction: O2+4e-+4H+=2H2O
Negative reaction: CH3OH-6e-+H2O=6H++CO2
For another example the electrochemical reaction process concrete condition of methane fuel cell is as follows:
Overall reaction under alkaline condition: CH4+2O2+2OH-=CO3 2-+3H2O
Anode reaction: 2O2+8e-+4H2O=8OH-
Negative reaction: CH4-8e-+10OH-=CO3 2-+7H2O
Overall reaction in acid condition: CH4+2O2=CO2+2H2O
Anode reaction: 2O2+8e-+8H+=4H2O
Negative reaction: CH4-8e-+2H2O=8H++CO2
In the present invention, according to the method disclosed in the present, substance and electrode (such as electrochemistry region, electrochemistry region
A, electrochemistry region B) effect prior to electricity and the effect of electrode, the due electrification of the present invention may be implemented in this form completely
Process, but reducing agent and oxidant will appear exist simultaneously at same electrode in many cases (especially with also
When the mixture of former agent and oxidant), if this state is precisely that startup stage or electrode did not had in the period of electro ultrafiltration,
At this moment the conversion process between redox reaction forfeiture and electric energy can directly occur for reducing agent and oxidant, in order to avoid this
State generate it is necessary in advance to electrode implement electro ultrafiltration, and it is so-called " to participate in electrochemical reaction region apply electro ultrafiltration,
So that participate in electrochemical reaction substance be difficult to directly carry out redox reaction " purpose be that this.
In the present invention, under certain temperature and/or pressure, so-called electrochemistry region, which is selectively chosen, to be set as not wrapping
The conductive region of catalyst is included, because it is anti-can still to carry out electrochemistry without using catalyst under certain temperature and/or pressure
It answers.
It in the present invention, is selectively chosen and electro ultrafiltration is applied to the electrochemistry region, to realize to the electrochemistry
Reducing agent and oxygen is reduced or avoided prior to the interaction between substance and the electrochemistry region in the electro ultrafiltration in region
Agent directly carries out the case where redox reaction loses output electric energy.
In the present invention, there is non-electronic electric conduction through electronic conduction area and the region B including the electrochemistry region
In the method for relationship, be selectively chosen make one in the electrochemistry region and the region B through capacitor or through non-
Electronic conduction area (such as the electrolyte such as proton exchange membrane) is again through external circuit and another electric communication, it is possible to realize normality
Work.
It is non-electronic having including the electrochemistry region A through electronic conduction area and the electrochemistry region B in the present invention
In the method that electrical relation is connected, it is selectively chosen one made in the electrochemistry region A and the electrochemistry region B
Through capacitor or through non-electronic conducting area (such as the electrolyte such as proton exchange membrane) again through external circuit and another electric communication, so
Normality work may be implemented.
In the present invention, so that charged particle is stored in the means in electrochemistry region as realizing, be selectively chosen and pass through
The alternating of the contact of two kinds of metabolies and electric current that make electrochemistry region and participation electrochemical reaction changes to realize, also optional
Select to selecting property to make that two kinds of substances for participating in electrochemical reaction alternately contacts with electrochemistry region and the alternating of electric current changes
It realizes, however two electrodes of electrochemical reaction are (for example, the electrochemistry region and electric conductor, the electrochemistry region and described
Region B, the electrochemistry region A and the electrochemistry region B) between the conducting of non-electronic charged particle then may exist
It can be not present.
In the present invention, charged particle is set to be stored in the means in electrochemistry region as realizing, being selectively chosen makes electricity
The mixture contact of two kinds of substances of chemical regions and participation electrochemical reaction and the alternating of electric current change to realize, may be selected
Property select to make electrochemistry region and participate in the mixture makes discontinuous contact of two kinds of substances of electrochemical reaction and the alternating of electric current
Variation is to realize, however two electrodes of electrochemical reaction are (for example, the electrochemistry region and electric conductor, the electrochemistry region
The conducting of non-electronic charged particle between the region B, the electrochemistry region A and the electrochemistry region B) then can be with
In the presence of can also be not present.
In the present invention, it is that the Q generated at P is instigated to be stored in institute that the so-called Q for making the generation at P, which is stored at the P,
The electrode zone represented at P is stated, including the Q to be unnecessarily transmitted to the electrode zone polarity with representative at the P
The process of opposite electrode zone.
In the present invention, in the method for realizing the chemical energy electric energy conversion, need certain charged particle being stored in certain
It is waited in one region and participates in reaction in the next step, the so-called Q for making the generation at P, which is stored at the P, to be instigated at P
The Q of generation is stored in the electrode zone represented at the P, including is unnecessarily transmitted to the Q and represents at the P
The opposite polarity electrode zone of electrode zone process.
In the present invention, the reducing agent used in the electrochemical reaction implementation method and oxidant with the reducing agent and
In the presence of the form of the mixture of the oxidant, further can selectively it select with the reducing agent and the oxygen
The form of the molar mixture of agent exists, or with the mixture of the explosion limit reducing agent and the oxidant below
Form exist, or by the form of the mixture of the local explosion limit reducing agent below and the oxidant exist, or
In the form of the mixture of more than the explosion limit reducing agent and the oxidant exist, or with local explosion limit more than
The reducing agent and the oxidant mixture form exist.
In the present invention, the mixture of so-called reducing agent and oxidant further can selectively select to be set as reducing agent and
Molar mixture, the explosion limit reducing agent below and the mixture of oxidant, local explosion limit of oxidant are below
It is more than the mixture of more than mixture of reducing agent and oxidant, explosion limit reducing agent and oxidant or local explosion limit
Reducing agent and oxidant mixture.
In the present invention, so-called molar mixture refers to that the molar concentration rate of mixture is positive and negative in chemical reaction molar ratio
Mixture within 10%.
In the present invention, the electrochemistry region, the electrochemistry region A and the electrochemistry region B charged particle
Export import refer to do not include charged particle in charged particle forming process appearance and accumulation.
In the present invention, the electrochemistry region, the electrochemistry region A and the electrochemistry region B electronics export
Import refer to do not include electronics during being electrically separated appearance and accumulation.
In the present invention, the export of the electronics in the electrochemistry region is imported to continue working process.
In the present invention, the export of the electronics of the electrochemistry region A is imported to continue working process.
In the present invention, the export of the electronics of the electrochemistry region B is imported to continue working process.
In the present invention, electrochemistry region state corresponding with alternating electromotive force and alternating current is to continue working
Journey.
In the present invention, electrochemistry region A state corresponding with alternating electromotive force and alternating current is to continue working
Process.
In the present invention, electrochemistry region B state corresponding with alternating electromotive force and alternating current is to continue working
Process.
The electrochemical reaction implementation method disclosed in this invention is corresponding with alternating electromotive force and alternating current, i.e., electric
Chemical regions are corresponding with alternating electromotive force and alternating current.
In the present invention, relationship is connected for the electricity that non-electronic charged particle is formed, is selectively chosen through non-electronic
Relationship is connected in the direct electricity that charged particle is formed, and relationship, warp is connected in the electricity formed through non-electronic charged particle reciprocating vibration
One of electricity conducting relationship that capacitance relation is formed, secondly conjunction or thirdly conjunction.
In the present invention, relationship is connected for the electricity that non-electronic charged particle is formed, is selectively chosen including through exhausted
The electrical relation that alternating current can be made to be connected of edge body, dielectric and the conducting body isolation of non-electronic charged particle.
In the present invention, in two electrodes (for example, the electrochemistry region and electric conductor, the electrochemistry region and the area
Domain B, the electrochemistry region A and the electrochemistry region B) between there are in the method for electrolyte, non-electronic charged particle both may be used
Electrolyte is passed through, reaches another electrode from an electrode, can also realize alternating current conducting by reciprocating vibration in the electrolyte
Effect.
In the present invention, electrochemistry region corresponding with alternating electromotive force and alternating current is essence feature of the invention,
In the present invention, two kinds of substances due to participating in electrochemical reaction exist with electrochemistry region to be contacted, and electrochemistry region and friendship
Power transformation kinetic potential and alternating current are corresponding, i.e., the electromotive force in electrochemistry region in the present invention is alternating electromotive force, absorb and/or
The electric current for exporting electric energy is alternating current, and this is through the lasting sex work normality of whole work process, this duration
Work normality eliminates the necessity of non-electronic charged particle transmission between two electrodes, thus no matter make between two electrodes in electronics every
Exhausted state, non-electronic charged particle state of isolation have the state for the electrolyte that non-electronic charged particle is connected between two electrodes, also
It is that can be worked normally in other states as long as can be realized the Oscillating flow of electronics.There are electrolyte between two electrodes
In method, non-electronic charged particle can both pass through electrolyte, reach another electrode from an electrode, can also be past in the electrolyte
Complex oscillation realizes the effect of alternating current conducting.This provides fine for the manufacture and use of electrochemical appliance especially fuel cell
New method.
In the present invention, the alternation of electric current and substance replace and the effect of the alternation and mixture of substances of electric current is formed by
Alternation process is a kind of lasting course of work, is a kind of work normality, and its purpose is to eliminate non-electronic band
Charged particle two interelectrode transmitting necessity, to promote the science that chemical energy exchanges the electrochemical method of electric energy for, in turn
Promote service life, reliability, low cost and the efficiency of electrochemical appliance corresponding with the method disclosed in the present.This electricity
The purpose of principle and purpose of chemical method and conventional fuel cell are catalyst regeneration is temporary to exchange Oxidizing and Reducing Agents
Feed channel, which forms the principle of temporary electrode change in polarity and purpose, has essential distinction, also and to prevent, weaken and remove
The principle and purpose of the frequently pole-reversing electroosmosis of electrode attachment have essential distinction.
In the present invention, from a certain region export electronic processes duration with to this region import electronic processes duration it
Than between 1/6 and 6, between 1/5 and 5, between 1/4 and 4, between 1/3 and 3, between 1/2.5 and 2.5,1/2
And between 2, between 1/1.5 and 1.5, between 1/1.3 and 1.3, between 1/1.2 and 1.2 or 1/1.1 and 1.1 it
Between, or it is equal with the duration of electronic processes is imported to this region from the duration of a certain region export electronic processes.
In the present invention, during the export of electronics imports, electro ultrafiltration can be used;Or, the export in electronics imports
During, it is selectively chosen using capacitor, DC power supply, AC power source, alternating source, inductor conductor, inductor wire
Circle, motor, reversible electric machine, has charged particle pump, phase converter, reversing switch circuit, rectifier, electric field, oscillating circuit
The motor of additional rotation inertia or its two conjunction, its three conjunction, its four conjunction, its five conjunction, its six conjunction, its
Seven conjunctions, its eight conjunction, its nine conjunction, its ten conjunction, its 11 conjunction, the conjunction of its ten binomial, its 13
Conjunction, its 14 conjunction, its 15 conjunction.
In the present invention, during exporting electric energy and/or absorbing electric energy, selectively selection uses electro ultrafiltration;Or,
During exporting electric energy and/or absorbing electric energy, selectively selection uses capacitor, DC power supply, AC power source, alternation electricity
Source, inductor conductor, inductance coil, charged particle pump, phase converter, reversing switch circuit, rectifier, electric field, oscillating circuit,
Motor, reversible electric machine, the motor with additional rotation inertia or its two conjunction, its three conjunction, its four conjunction, its five
Conjunction, its six conjunction, its seven conjunction, its eight conjunction, its nine conjunction, its ten conjunction, its 11 conjunction, its ten
The conjunction of binomial, its 13 conjunction, its 14 conjunction, its 15 conjunction.
In the present invention, the purpose of so-called " during exporting electric energy and/or absorbing electric energy, using electro ultrafiltration " is benefit
The process of output electric energy is controlled or strengthened with electro ultrafiltration and/or absorbs the process of electric energy, in this way can with the efficiency of lifting process and
Safety, such as an electrochemical process may take a long time to complete, but if can be made using electro ultrafiltration
The reaction rate of the slower procedure segment of electrochemical reaction rates is promoted, and then is improved efficiency.
In the present invention, so-called electro ultrafiltration, which refers to, brings it about displacement and/or stream to electronics application using electric field, electric current etc.
Dynamic effect.
In the present invention, it is more big more be conducive to electrochemistry that capacitance is formed by between the electrochemistry region and the region B
The promotion of reaction density, therefore when being electrochemically reacted using the method disclosed in the present, the electrochemical school district should be made
Capacitance between domain and the region B increases as much as possible.
It, can be in the electrochemical school district in order to increase the capacitance between the electrochemistry region and the region B in the present invention
Plasma, ionic liquid, ionized gas or solion are set between domain and the region B, and make ion in the electrification
It is vibrated between school district domain and the region B, and/or vibrates in the electrochemistry areas adjacent and oscillated around in the region B,
To realize the purpose for increasing the capacitance between the electrochemistry region and the region B.
In the present invention, it is more big more be conducive to electricity that the electrochemistry region A and the electrochemistry region B are formed by capacitance
The promotion of density is chemically reacted, therefore when being electrochemically reacted using the method disclosed in the present, the electrification should be made
Capacitance between school district domain A and the electrochemistry region B increases as much as possible.
It, can be described in order to increase the capacitance between the electrochemistry region A and the electrochemistry region B in the present invention
Plasma, ionic liquid, ionized gas or solion are set between electrochemistry region A and the electrochemistry region B, and made
Ion vibrates between the electrochemistry region A and the electrochemistry region B, and/or oscillates around in the electrochemistry region A
And oscillated around in the electrochemistry region B, to realize the electricity between increasing the electrochemistry region A and electrochemistry region B
The purpose of capacity.
In the present invention, between the electrochemistry region and the region B and in the electrochemistry region A and the electrification
It is more big more be conducive to the promotion of electrochemical reaction density that capacitance is formed by between the B of school district domain, therefore public using present invention institute
When the method opened is electrochemically reacted, should make between the electrochemistry region and the region B and the electrochemistry region A and
Capacitance between the electrochemistry region B increases as much as possible.
In the present invention, to realize that specific charged particle is stored in electrochemistry region, need to join the electrochemistry region
Alternate change physical environment or make the electrochemistry region between the different material of electrochemical reaction and participate in electrochemical reaction
The mixture of different material contacts, and is just able to achieve.Fundamentally, as long as the electrochemistry region is made to participate in electrochemical reaction
Different material between alternate change physical environment or make the electrochemistry region and participate in the mixed of the different material of electrochemical reaction
Object contact is closed, can be achieved with the purpose that the specific charged particle is stored in electrochemistry region, no matter the electrochemistry region has
There are two types of the conductive channel of charged particle, (such as one of is proton conductive channel, i.e. there is conducting certain band between two electrodes
The electrolyte of charged particle, another kind be electronic conduction channel) or the electrochemistry region there was only electronic conduction channel, change sentence
It talks about, as long as making the electrochemistry region alternate change physical environment or described between the different material for participating in electrochemical reaction
Electrochemistry region is contacted with the mixture for the different material for participating in electrochemical reaction, can be achieved with the specific charged particle storage
It participates in electrochemistry region and in the next step reacting the purpose for realizing electrochemical reaction, no matter two electrodes are (for example, the electricity
Chemical regions and electric conductor, the electrochemistry region and the region B, the electrochemistry region A and the electrochemistry region B)
Between whether there is electrolyte.The course of work for the method that the export of electrochemistry region imports charged particle is similar with this.
In the present invention, in electrochemistry region, tool there are two types of the conductive channel of charged particle, (such as lead for proton by one of which
, i.e. there is the electrolyte that specific charged particle is connected between two electrodes in circulation passage, another kind is electronic conduction channel) electrochemistry side
In method, alternate change physical environment or made described between the different material for participating in electrochemical reaction by making the electrochemistry region
Electrochemistry region is contacted with the mixture for the different material for participating in electrochemical reaction, can be achieved to eliminate from the electrochemistry region
The necessity for removing the non-electronic charged particle generated in the electrochemistry region, can also realize that non-electronic charged particle is stored in
The electrochemistry region and the purpose for participating in reaction realization electrochemical reaction in the next step.The alternate change of physical environment or
The electrochemistry region and the mixture for the different material for participating in electrochemical reaction are contacted, can make to be stored in the electrochemical school district
Non-electronic charged particle in domain participates in reacting in the next step, realizes electrochemical process, therefore from the electrochemical school district
The necessity that non-electronic charged particle is exported in domain completely disappears.The case where necessity derived from non-electronic charged particle disappears
Under, although some non-electronic charged particle that ought to be stored in the electrochemistry region is exported, also have non-electronic
Charged particle is stored in the electrochemistry region and waits next reaction step, in other words, if the electrochemistry region
The alternate change physical environment between the different material for participating in electrochemical reaction, or it is mixed with the different material of participation electrochemical reaction
Close object contact, although two electrodes (for example, the electrochemistry region and electric conductor, the electrochemistry region and the region B,
The electrochemistry region A and electrochemistry region B) between there are electrolyte, also have non-electronic charged particle and be stored in institute
Stating electrochemistry region waits participation reaction in the next step to realize electrochemical reaction process.
Electrochemical reaction implementation method disclosed in this invention, there are can reduce in the case where electrolyte between two electrodes
Electrolyte load extends its service life and is conducive to the balance and stability operation of system.
In the present invention, in the method that electrochemistry region only has electronic conduction channel (such as the electrochemistry region and lead
Interior circuit between electric body, between the electrochemistry region and the region B, between the electrochemistry region A and the electrochemistry region B
Or external circuit is in electronics and non-electronic charged particle state of isolation), the electrochemistry region is participating in electrochemical reaction not
Alternate change physical environment and the electrochemistry region and the mixture for the different material for participating in electrochemical reaction connect between commaterial
Touching can make non-electronic charged particle be stored in the electrochemistry region, the change of physical environment or make the electrochemistry region
The non-electronic band electrochondria that can make to be stored in the electrochemistry region is contacted with the mixture for the different material for participating in electrochemical reaction
Son participates in reaction in the next step and realizes electrochemical process, that is, eliminates from electrochemistry region and remove non-electronic charged particle
Necessity.Express herein, in Conventional electrochemical method, electrochemistry region (i.e. electrode) includes at least two kinds of charged particles and lead
It is logical, for example, an electronic conduction channel, a proton conductive channel.
Electrochemical reaction implementation method disclosed in this invention include exchanged for electric energy chemical energy electrochemical method (such as
Electrochemical method for synthesizing etc.) and exchange with chemical energy the electrochemical method (such as fuel cell etc.) of electric energy for, it is closed as electrochemistry
At method in use, the different step that the export of electronics imports, which may exist, exports the case where electric energy is with electric energy is absorbed, but its
Summation is to absorb electric energy, as the method (such as fuel cell etc.) for exchanging electric energy for chemical energy in use, the export of electronics
The case where different step of importing may exist output electric energy and absorb electric energy, but its summation is output electric energy.
Electrochemical reaction implementation method disclosed in this invention self-evidently includes the participation of substance.
Electrochemical reaction implementation method disclosed in this invention is as the method for exchanging electric energy for chemical energy in use, participating in
The substance of electrochemical reaction, the oxidant alternative selection are set as: oxygen, compressed air, oxygen, liquid oxygen, air, liquefaction are empty
Gas, fluorine, chlorine, bromine, iodine, ozone, nitric acid, the concentrated sulfuric acid, hypochlorous acid, chromic acid, Peracetic acid, perchloric acid, chlorate, nitrate, height
Manganate, perchlorate, bichromate, Calcium perchlorate, ammonium perchlorate, sodium perchlorate, potassium hyperchlorate, lithium perchlorate, perchloric acid
Magnesium, barium perchlorate, perchloric acid strontium, silver perchlorate, ammonium chlorate, sodium chlorate, potassium chlorate, magron, calcium chlorate, copper chlorate, chloric acid
Zinc, chloric acid thallium, silver chlorate, potassium permanganate, acerdol, barium permanganate, lithium nitrate, sodium nitrate, potassium nitrate, calcium nitrate, nitric acid
Caesium, beryllium nitrate, potassium bromate, zinc bromate, ammonium periodate, calcium iodate, iron iodate, sodium dichromate, potassium bichromate, iron chloride, nitric acid
Cerium ammonium, sodium hypochlorite, SODIUM PERCARBONATE, sodium perborate, calcium hypochlorite, sodium dichloro cyanurate, copper oxide, di-iron trioxide, mistake
Sodium oxide molybdena, manganese dioxide, nitrogen dioxide, potassium peroxide, magnesium dioxide, calcium dioxide, hydrogen peroxide, chromium trioxide, titanium dioxide
Strontium, sodium dioxide, silver oxide, acetone, acrylonitrile, benzaldehyde, dibenzoyl peroxide, benzoquinones, carbon tetrabromide are set as chloramines
One or more of Deng;Reducing agent alternative selection is set as: hydrogen, alkane, alkene, alkynes, aromatic hydrocarbon, halogenated
Hydrocarbon, alcohol compound, phenolic compound, aldehyde compound, ketone compounds, hydroxyl acid compounds, ester type compound, sodium, aluminium,
Zinc, lithium, potassium, magnesium, manganese, carbon, calcium, barium, vanadium, chromium, iron, cobalt, copper, boron, silicon, phosphorus, tin, mercury, lead, carbon dust, coal dust end, sulphur, hydrogen
Change aluminium lithium, diethyl aluminium hydride sodium, sodium borohydride, potassium borohydride, carbon monoxide, hydrogen sulfide, hydrazine, ammonia, hydrogen chloride, iodate
Hydrogen, sulfur dioxide, hydrogen peroxide, vulcanized sodium, stannous chloride, formaldehyde, sulfurous acid, sulfuric acid, oxalic acid, ethyl alcohol, sodium sulfite, sulfurous
Sour hydrogen sodium, ferrous sulfate, methanol, natural gas, coal gas, methane, coke, diesel oil, dimethyl ether, kerosene, gasoline, hydrogen carbon monoxide are mixed
One or more of close object or be set as heavy oil etc..
It more than some numerical value include this number, such as two or more includes two kinds in the present invention.
In the present invention, electrochemical action may be present between the reducing agent and the oxidant.
In the present invention, the item of the reducing agent and the oxidant in electrochemical reaction implementation method disclosed in this invention
Under part, electrochemical reaction can occur.
In the present invention, the reducing agent is simple substance, compound or mixture, and ion or solion are not belonging to the reduction
Agent.
In the present invention, the oxidant is simple substance, compound or mixture, and ion or solion are not belonging to the oxidation
Agent.
Electrochemical reaction implementation method disclosed in this invention is in the nature chemical energy electric energy conversion method.
Electrochemical method disclosed in this invention is in the nature chemical energy electric energy conversion method.
It is so-called " during electronics exports and/or imports, to use capacitor, DC power supply, alternating current in the present invention
Source, alternating source, inductor conductor, inductance coil, charged particle pump, phase converter, reversing switch circuit, rectifier, electric field,
Oscillating circuit, motor, reversible electric machine, the motor with additional rotation inertia or its two conjunction, its three conjunction, its four it
Conjunction, its five conjunction, its six conjunction, its seven conjunction, its eight conjunction, its nine conjunction, its ten conjunction, its 11
Conjunction, its ten binomial conjunction, its 13 conjunction, its 14 conjunction, its 15 conjunction " purpose be by electro ultrafiltration control
The export of system and/or strengthening electronic imports.
It is so-called " during electronics exports and/or imports, to use capacitor, DC power supply, alternating current in the present invention
Source, alternating source, inductor conductor, inductance coil, charged particle pump, phase converter, reversing switch circuit, rectifier, electric field,
Oscillating circuit, motor, reversible electric machine, the motor with additional rotation inertia or its two conjunction, its three conjunction, its four it
Conjunction, its five conjunction, its six conjunction, its seven conjunction, its eight conjunction, its nine conjunction, its ten conjunction, its 11
Conjunction, its ten binomial conjunction, its 13 conjunction, its 14 conjunction, its 15 conjunction " purpose be by electro ultrafiltration control
The export of system and/or strengthening electronic imports, and control and/or the export of strengthening electronic importing can effectively avoid reducing agent and oxidation
Redox reaction directly occurs for agent mixing, improves safety, reliability and efficiency, and control and/or strengthening electronic are led
Safety, reliability and the effect that can be effectively promoted using reducing agent and oxidant existing method as a mixture are imported out
Rate.
Using disclosed in this invention a kind of electrochemical reaction implementation method as obtain electric energy method when, " in electricity
During son export and/or importing, capacitor, DC power supply, AC power source, alternating source, inductor conductor, inductor wire are used
Circle, motor, reversible electric machine, has charged particle pump, phase converter, reversing switch circuit, rectifier, electric field, oscillating circuit
The motor of additional rotation inertia or its two conjunction, its three conjunction, its four conjunction, its five conjunction, its six conjunction, its
Seven conjunctions, its eight conjunction, its nine conjunction, its ten conjunction, its 11 conjunction, the conjunction of its ten binomial, its 13
Conjunction, its 14 conjunction, its 15 conjunction " purpose be by electro ultrafiltration control and/or strengthening electronic export import.
A certain step in this control process is power consumption, but whole process is power supply.
Using disclosed in this invention a kind of electrochemical reaction implementation method as obtain electric energy method and using also
When the mixture of former agent and oxidant, " during electronics exports and/or imports, capacitor, DC power supply, alternating current are used
Source, alternating source, inductor conductor, inductance coil, charged particle pump, phase converter, reversing switch circuit, rectifier, electric field,
Oscillating circuit, motor, reversible electric machine, the motor with additional rotation inertia or its two conjunction, its three conjunction, its four it
Conjunction, its five conjunction, its six conjunction, its seven conjunction, its eight conjunction, its nine conjunction, its ten conjunction, its 11
Conjunction, its ten binomial conjunction, its 13 conjunction, its 14 conjunction, its 15 conjunction " purpose be not only by electricity make
It is imported with control and/or the export of strengthening electronic, and is that reducing agent and oxidant are prevented by the export importing of strengthening electronic
Directly carry out the effective means of redox reaction.A certain step in this control process is power consumption, but whole process is
Power supply.
Using disclosed in this invention a kind of electrochemical reaction implementation method as obtain electric energy method when, " in electricity
During son export and/or importing, capacitor, DC power supply, AC power source, alternating source, inductor conductor, inductor wire are used
Circle, motor, reversible electric machine, has charged particle pump, phase converter, reversing switch circuit, rectifier, electric field, oscillating circuit
The motor of additional rotation inertia or its two conjunction, its three conjunction, its four conjunction, its five conjunction, its six conjunction, its
Seven conjunctions, its eight conjunction, its nine conjunction, its ten conjunction, its 11 conjunction, the conjunction of its ten binomial, its 13
Conjunction, its 14 conjunction, its 15 conjunction " purpose be not only by electro ultrafiltration control and/or strengthening electronic export
It imports, and is to prevent reducing agent and oxidant from directly carrying out the effective of redox reaction by the export importing of strengthening electronic
Means.A certain step in this control process is power consumption, but whole process is power supply.
It in the present invention, further can selectively select that catalyst corresponding with the reducing agent is made to be set as catalyst A, with
It is different that the corresponding catalyst of the oxidant is set as catalyst B, the catalyst A and the catalyst B, in this case,
Catalyst in the electrochemistry region, which is selectively chosen, is set as the random mixed of the catalyst A and catalyst B
Select the catalyst A for being set as contacting near catalytic domain with closing the catalyst choice in object or the electrochemistry region
The band electrochondria between the catalyst A and the catalyst B can be increased with the mixture of the catalyst B in order to improve efficiency
The mobility of son.
In the present invention, the purpose for being inserted into the inert substance is to evade the reducing agent and the oxidant described
Exist while at electrochemistry region, or the reduction reducing agent and the oxidant exist simultaneously at the electrochemistry region
Chance.
In the present invention, disclosed electrochemical reaction implementation method can be used for converting electric energy for chemical energy, it can also be used to
Chemical energy is converted electrical energy into, the method that can be used to fuel cell and electrochemistry formated.
In the present invention, electrochemistry region alternative selects one of the electrode for being set as electrochemical reaction or electrode
Point, the region B alternative selection is set as the electrode of electrochemical reaction or a part of electrode, and the electrochemistry region A can
Selectivity selection is set as the electrode of electrochemical reaction or a part of electrode, and the electrochemistry region B alternative selection is set as
The electrode of electrochemical reaction or a part of electrode.
In the present invention, disclosed method can not only make the reducing agent and the oxidant externally discharge electric energy to be formed
The reaction product of energy the rank low reducing agent and the oxidant, also can use the reducing agent and the oxidation
Agent absorbs the reaction product of electric energy synthesis energy the rank higher reducing agent and the oxidant.
It, can be according to the operating temperature of the property and the electrochemistry region of the reducing agent and the oxidant in the present invention
Select different catalyst.
In the present invention, Xiang Suoshu electrochemistry region import concentration proportion in the local explosion limit reducing agent below and
The mixture of the oxidant may include fire retardant, such as nitrogen, carbon dioxide etc. are added in the mixture of hydrogen and oxygen.
In the present invention, in the method that the electrochemistry region is under set temperature, the set temperature can be set as high
In equal to 100 DEG C.
In the present invention, in the method that the electrochemistry region is under set temperature, the set temperature can be set as low
In equal to 90 DEG C.
In the present invention, the reducing agent and the oxidant are to refer to that electrochemical reaction occurs in the electrochemistry region
Substance.
In the present invention, it can react after the reducing agent and oxidant absorption electric energy and generate compound, or right
It can react after outer feed electric energy and generate compound.
In the present invention, in the method for including AC power source, the reaction of the reducing agent and the oxidant can be suction
The reaction for receiving electric energy is also possible to export the reaction of electric energy.
In the present invention, in the method for including alternating source, the reaction of the reducing agent and the oxidant can be suction
The reaction for receiving electric energy is also possible to export the reaction of electric energy.
In the present invention, eliminating from the necessity that electrochemistry region removes non-electronic charged particle means only to need to remove electricity
Son, rather than electronics charged particle (such as proton) can store in the electrochemistry region that it is generated and the participation electricity during next
Chemical reaction, it means that It is not necessary to the interior circuit or outer that centainly there is non-electronic charged particle channel to constitute between two electrodes
Circuit, it is only necessary to which electrochemical process can be realized in electronic conduction circuit, in this approach, is selectively chosen electricity in it
The conducting on road is that the reciprocating vibration of charged particle in capacitor and/or its internal part by being formed between its internal part is realized
, and using external circuit output electric energy and/or absorb electric energy.
In the present invention, eliminating from the necessity that electrochemistry region removes two kinds of charged particles means only to need to remove electricity
Son, and another charged particle (such as proton) can store in the electrochemistry region that it is generated and the participation electricity during next
Chemical reaction, it means that It is not necessary to the interior circuit or outer that centainly there is non-electronic charged particle channel to constitute between two electrodes
Circuit, it is only necessary to which electrochemical process can be realized in electronic conduction circuit, and in this approach, the conducting of interior circuit is to pass through
The reciprocating vibration of charged particle is realized in the capacitor and/or its internal part formed between its internal part, and utilizes dispatch from foreign news agency
Road exports electric energy and/or absorbs electric energy.
In the present invention, the export importing of electronics is a kind of work normality, and the export importing of so-called electronics refers to through external circuit
The export of the electronics carried out imports.
In the present invention, the electrochemistry region, which is selectively chosen, is set as three-diemsnional electrode.
In the present invention, the electrochemistry region A, which is selectively chosen, is set as three-diemsnional electrode.
In the present invention, the electrochemistry region B, which is selectively chosen, is set as three-diemsnional electrode.
In the present invention, such as there is non-electronic conducting electrical relation using Y and X as synonym, Y and X, the electronics of the Y is led
The form of presentation imported out refers to that the Y, the X and electronics export import the composition that circuit three is same closed circuit
Part is selectively chosen electronics export importing circuit being set as external circuit, and non-electronic conducting electrical relation is formed
Circuit be set as interior circuit.
In the present invention, such as using U, W and V as synonym, U has non-electronic conducting electrical relation through W and V, and electronics is in institute
The form of presentation for exporting importing between U and the V is stated, refers to that the U, the W, the V and electronics export import circuit
It is the component part of same closed circuit, is selectively chosen and electronics export importing circuit is set as external circuit, and will be non-
Electronic conduction electrical relation is formed by circuit and is set as interior circuit.
In the present invention, so-called " alternating electromotive force " refers to that the changed electromotive force of electromotive force, such as direction become
The changed electromotive force of electromotive force or size of change.
In the present invention, so-called " alternating current " refers to the changed electric current of electric current, such as the changed electricity in direction
Stream, the changed electric current of size or alternating current.
In the present invention, so-called " alternating current " is selectively chosen the electric current for being set as the variation of electric current generating period,
Such as electric current or alternating current that electric current, the size generating period of direction generating period variation change.
In the present invention, so-called alternating current refers to the alternating current changed by sinusoidal rule.
In the present invention, so-called AC power source refers to the alternating source that electric current is changed by sinusoidal rule.
In the present invention, there is so-called A and B non-electronic conducting electrical relation to refer to having on interior circuit between A and B
Non-electronic conducting electrical relation, and its external circuit is selectively chosen electronic conduction relationship;Or, so-called A and B has non-electrical
Son conducting electrical relation, which refers to, has non-electronic conducting electrical relation on external circuit between A and B, and its interior circuit may be selected
Select electronic conduction relationship to property.
In the present invention, it is so-called " the electrochemistry region through insulation, isolation space, electrolyte, dielectric, capacitor, etc.
At least one of gas ions, ionic liquid, ionized gas, solion and electronic conduction area have non-electrical with the region B
Son conducting electrical relation " include the electrochemistry region and the region B through electronic conduction area, insulator, dielectric and/or from
The non-electronic conducting electrical relation that two solion ponds of son conducting body isolation have.In this approach, it optionally selects
Selecting makes at least one in the electrochemistry region and the region B and capacitive region and/or non-electronic charged particle transmitter shape
At electrical relation.
In the present invention, it is so-called " the electrochemistry region A through insulation, isolation space, electrolyte, dielectric, capacitor,
At least one of plasma, ionic liquid, ionized gas, solion and electronic conduction area and the electrochemistry region B
With non-electronic conducting electrical relation " it include the electrochemistry region A and the electrochemistry region B through electronic conduction area, insulation
The non-electronic conducting electrical relation that two solion ponds of body, dielectric and/or ion conducting body isolation have.In this method
In, be selectively chosen make at least one in the electrochemistry region A and the electrochemistry region B with capacitive region and/or
Non-electronic charged particle transmitter forms electrical relation.
In the present invention, so-called " electronic conduction area " refers to that conduct electrons are not turned on the region of non-electronic charged particle, can
Selectively selection is set as metallic conductor area, carbon conductor region etc..
In the present invention, so-called " non-electronic charged particle transmitter " refer to non-conducting electronics but proton conducting or it is specific from
The substance of son, i.e. electrolyte in conventional electrochemical device, can be according to the electrochemical properties of the reducing agent and the oxidant
Non-electronic charged particle transmitter is selected, such as when the reducing agent is H2, the oxidant is O2When, the non-electronic electrification
Particle conduction object alternative selects proton exchange membrane.
In the present invention, select electronic conduction area shape when, should for the purpose of increasing its capacitance with neighbors into
Row selection.
In the present invention, so-called " non-electronic conducting electrical relation " refers to the electricity formed through the charged particle other than electronics
Conducting relationship or the electricity to be formed conducting relationship of standing facing each other through electronics, for example, relationship, non-electronic electrification is connected in the electricity that capacitor is formed
The electricity conducting relationship etc. that particle reciprocating vibration is formed.
In the present invention, so-called " capacitor " be selectively chosen be set as electrolytic capacitor, super capacitor, electric double layer capacitance,
All capacitors such as pseudo capacitance, fake capacitance.
In the present invention, so-called " reversible electric machine " refers to the motor that can mutually convert between motor and generator,
For example, the motor that can be generated electricity when exportable rotary power, rotation when power supply.
In the present invention, it is selectively chosen and uses circumferential magnetic monopole direct current using DC reversible electromotor or selectivity selection
Reversible electric machine.
In the present invention, when the purpose using reversible electric machine is the power supply using reversible electric machine when exportable power reception power
The characteristics of can generating electricity, realizes the reinforcing and control imported to electronics export with electrode cooperating, and then realizes to electrochemistry mistake
The optimization of journey.
It in the present invention, is selectively chosen, so that reversible electric machine movement power generation is implemented electro ultrafiltration to electrode, when the electricity of electrode
When kinetic potential reaches setting degree, electrode, which powers to reversible electric machine, pushes reversible electric machine movement, sets when the electromotive force of electrode is reduced to
When determining degree, reversible electric machine implements electro ultrafiltration to electrode using the kinetic energy power generation of itself and its STATEMENT OF FEDERALLY SPONSORED, so again and again
Carry out cyclic process;In circulation, electrode recycles entirety and is to provide electric energy in the presence of the process for providing electric energy with absorbing electric energy;
It is selectively chosen, control device is set between reversible electric machine and electrode;Be selectively chosen, load with reversible electric machine,
Electrode is arranged in series, or load is arranged in parallel with reversible electric machine.
It in the present invention, is selectively chosen, so that reversible electric machine movement power generation is implemented electro ultrafiltration to electrode, when electrode is in electricity
When electromotive force reaches setting degree under the action of chemical reaction and/or reversible electric machine, electrode is in electrochemical reaction and/or accumulation electricity
It powers under the action of lotus to reversible electric machine and pushes reversible electric machine movement, it is reversible when the electromotive force of electrode is reduced to setting degree
Motor implements electro ultrafiltration to electrode using the kinetic energy power generation of itself and its STATEMENT OF FEDERALLY SPONSORED, so carries out cyclic process again and again;
In circulation, electrode recycles entirety and is to provide electric energy in the presence of the process for providing electric energy with absorbing electric energy;Optionally select
It selects, control device is set between reversible electric machine and electrode;It being selectively chosen, load is arranged in series with reversible electric machine, electrode,
Or load is arranged in parallel with reversible electric machine.
It in the present invention, is selectively chosen, makes electrode move reversible electric machine reversible electric machine power supply, when the electricity of electrode
When kinetic potential is reduced to setting degree, reversible electric machine implements electro ultrafiltration to electrode using the kinetic energy power generation of itself and its STATEMENT OF FEDERALLY SPONSORED, when
When the electromotive force of electrode reaches setting degree, electrode, which powers to reversible electric machine, pushes reversible electric machine movement, so again and again
Carry out cyclic process;In circulation, electrode recycles entirety and is to provide electric energy in the presence of the process for providing electric energy with absorbing electric energy;
It is selectively chosen, control device is set between reversible electric machine and electrode;Be selectively chosen, load with reversible electric machine,
Electrode is arranged in series, or load is arranged in parallel with reversible electric machine.
It in the present invention, is selectively chosen, makes electrode under the action of electrochemical reaction and/or stored charge to reversible
Motor power supply moves reversible electric machine, and when the electromotive force of electrode is reduced to setting degree, reversible electric machine utilizes itself and its connection
The kinetic energy power generation of moving part to electrode implement electro ultrafiltration, when electrode under the action of electrochemical reaction and/or reversible electric machine electromotive force
When reaching setting degree, electrode pushes reversible electricity to reversible electric machine power supply under the action of electrochemical reaction and/or stored charge
Machine movement, so carries out cyclic process again and again;In circulation, there is the process for providing electric energy and absorbing electric energy in electrode, but
Circulation is whole to be to provide electric energy;It is selectively chosen, control device is set between reversible electric machine and electrode;Optionally
Selection, load are arranged in series with reversible electric machine, electrode, or load is arranged in parallel with reversible electric machine.
In the present invention, so-called " electrolyte " refer to all be arranged between two electrode of electrochemical appliance only allow it is specific
The substance that charged particle passes through but electronics is not allowed to pass through can be solid, liquid or membranous body etc., such as the proton of PEMFC
Film and solid oxide electrolyte etc..
In the present invention, so-called " X class charged particle " is that have opposite charges attribute with so-called " Y class charged particle "
Charged particle.
In the present invention, so-called " Y class charged particle " is that have opposite charges attribute with so-called " X class charged particle "
Charged particle.
In the present invention, so-called " Z class charged particle " is that have identical charges attribute with so-called " Y class charged particle "
Charged particle.
In the present invention, so-called " U class charged particle " is that have identical charges attribute with so-called " V class charged particle "
Charged particle.
In the present invention, so-called " V class charged particle " is that have identical charges attribute with so-called " U class charged particle "
Charged particle.
In the present invention, so-called " W class charged particle " is that have opposite charges attribute with so-called " V class charged particle "
Charged particle.
In the present invention, so-called " being inserted into inert substance between the reducing agent and the oxidant " refers to goes back described
Former agent is contacted with electrochemistry region and the oxidant contacted with this electrochemistry region between make inert substance and this electrochemical school district
Domain contact, the purpose is to keep the boundary between the electrochemical reaction of the reducing agent and the electrochemical reaction of the oxidant more clear
It is clear.
In the present invention, so-called " dead band duration is inserted between the reducing agent and the oxidant " refers to goes back described
Former agent is contacted with electrochemistry region and the oxidant contacted with this electrochemistry region between be arranged dead band duration, the purpose is to keep away
Exempt from the reducing agent and oxidant mixing, makes the electrochemical process of the reducing agent and the electrochemical process of the oxidant
Between boundary it is apparent, so-called dead band duration refers to the time interval of setting, and specific duration is according to the reducing agent and institute
State the property of oxidant, the temperature in electrochemistry region and catalyst whether there is or not and stopping of needing of the reducing agent and the oxidant
Time etc. is stayed to determine.
In the present invention, so-called " inert substance " refers to the object not reacted with the reducing agent and the oxidant
Matter.
In the present invention, so-called " electrochemistry region " refers to that the region of electrochemical reaction can occurs in all, for example including
Catalyst, ultra microstructure and/or region (such as electrode in fuel cell etc.) at a set temperature, then for example in setting temperature
Metallic region under degree.
It is so-called to refer to " including catalyst, ultra microstructure and/or electrochemistry region at a set temperature " in the present invention
The electrochemistry region or including catalyst or including ultra microstructure or under the set temperature or the electrification
School district domain includes two or three in these three conditions.
In the present invention, so-called " ultra microstructure " refers to the microcosmic knot that can cause electrochemical reaction under setting condition
Structure.
In the present invention, so-called " local explosion limit " refers under conditions of the electrochemistry region, the reducing agent
The concentration ratio that cannot be exploded with the oxidant.
In the present invention, include the catalyst method in, the catalyst be set as include noble metal catalyst, or
The catalyst be set as include rare earth element catalyst.
In the present invention, so-called interpolar spacer refers to make to have required for non-electronic conducting electrical relation between electrode
Substance (including vacuum), for example, electrolyte, dielectric etc..
In the present invention, the selection of interpolar spacer alternative is set as insulation, isolation space, electrolyte, dielectric, electricity
At least one of appearance, plasma, ionic liquid, ionized gas, solion and electronic conduction area.
In the present invention, so-called interpolar spacer, which is selectively chosen, is set as interior circuit, is also selectively chosen and sets
For external circuit.
It is so-called electrochemistry region, so-called electrochemistry region A, so-called electrochemistry region B, so-called in the present invention
Region B is equal with electrode.
In the present invention, the region that electronics export imports is equal with electrode.
In the present invention, it is that work is normal that export of the electronics between the electrochemistry region A and the electrochemistry region B, which imports,
State.
In the present invention, so-called electrochemistry region, so-called region B, so-called electric conductor, so-called electrochemistry region A,
So-called electrochemistry region B is equal with electrode.
In the present invention, it is selectively chosen, the electrochemistry region and the region B have dielectric capacitance relationship,
Dielectric can be gas, liquid, solid or vacuum.
It in the present invention, is selectively chosen, the electrochemistry region A and the electrochemistry region B have dielectric capacitance
Relationship, dielectric can be gas, liquid, solid or vacuum.
In the present invention, it is selectively chosen between electrode with dielectric capacitance relationship.
In the present invention, so-called " dielectric capacitance relationship " refers to the capacitance relation by dielectric formation, and dielectric can be with
It is gas, liquid, solid or vacuum.
In the present invention, being selectively chosen between electrochemistry region and electric conductor has dielectric capacitance relationship.
In the present invention, being selectively chosen between electrochemistry region and region B has dielectric capacitance relationship.
In the present invention, being selectively chosen between electrochemistry region A and electrochemistry region B has dielectric capacitance relationship.
In the present invention, so-called " dielectric capacitance relationship " refers to the capacitance relation between electrode through dielectric formation, electricity
Medium can be gas, liquid, solid or vacuum.
In the present invention, so-called electro ultrafiltration is a kind of selectivity selection.
In the present invention, so-called " non-electronic charged particle " refers to the charged particle other than electronics, such as proton or ion.
In the present invention, so-called electric conductor, which is selectively chosen, is set as electrode, and further can selectively select to set
For three-diemsnional electrode.
In the present invention, so-called " motor with additional rotation inertia " refers to the requirement with basis to rotary inertia,
The motor of additional setting rotary inertia.
In the present invention, after a certain component names plus the letter such as so-called " A ", " B " is merely to distinguish two or several
The identical component of title or substance.
In the present invention, necessary portion should be set in necessary place according to electricity field, the well-known technique of electrochemical field
Part, unit or system etc..
Beneficial effects of the present invention are as follows: electrochemical reaction implementation method disclosed in this invention will terminate Conventional electrochemical
Method and electrochemical appliance (such as fuel cell etc.) are with electrolyte (such as proton exchange membrane and solid oxide electrolyte etc.)
The history for existing for necessary condition, also will termination Conventional electrochemical method and device can not securely and reliably use oxidant reduction
The history of agent composition provides new approach for efficient, long-life, Low-cost electric chemical devices exploitation, and will determine again
Adopted engine.
Detailed description of the invention
Fig. 1-1 is the schematic diagram of the embodiment of the present invention 25;
Fig. 1-2 is the schematic diagram of the embodiment of the present invention 26;
Fig. 1-3 is the schematic diagram of the embodiment of the present invention 27;
Fig. 1-4 is the schematic diagram of the embodiment of the present invention 28;
Fig. 1-5 is the schematic diagram of the embodiment of the present invention 29;
Fig. 1-6 is the schematic diagram of the embodiment of the present invention 30;
Fig. 1-7 is the schematic diagram of the embodiment of the present invention 31;
Fig. 2-1 is the schematic diagram of the embodiment of the present invention 32;
Fig. 2-2 is the schematic diagram of the embodiment of the present invention 33;
Fig. 2-3 is the schematic diagram of the embodiment of the present invention 34;
Fig. 2-4 is the schematic diagram of the embodiment of the present invention 35;
Fig. 2-5 is the schematic diagram of the embodiment of the present invention 36;
Fig. 2-6 is the schematic diagram of the embodiment of the present invention 37;
Fig. 2-7 is the schematic diagram of the embodiment of the present invention 38;
Fig. 3-1 is the schematic diagram of the embodiment of the present invention 39;
Fig. 3-2 is the schematic diagram of the embodiment of the present invention 40;
Fig. 3-3 is the schematic diagram of the embodiment of the present invention 41;
Fig. 3-4 is the schematic diagram of the embodiment of the present invention 42;
Fig. 3-5 is the schematic diagram of the embodiment of the present invention 43;
Fig. 3-6 is the schematic diagram of the embodiment of the present invention 44;
Fig. 3-7 is the schematic diagram of the embodiment of the present invention 45;
Fig. 3-8 is the schematic diagram of the embodiment of the present invention 46;
Fig. 3-9 is the schematic diagram of the embodiment of the present invention 47;
Fig. 3-10 is the schematic diagram of the embodiment of the present invention 48;
Fig. 4-1 is the schematic diagram of the embodiment of the present invention 49;
Fig. 4-2 is the schematic diagram of the embodiment of the present invention 50;
Fig. 5-1 is the basic logic chart for exchanging electric energy for chemical energy;
Fig. 5-2 is reducing agent oxidant electrochemical reaction controlled process figure.
Specific embodiment
Technical solution of the present invention is further illustrated in the following with reference to the drawings and specific embodiments.
Embodiment 1
The invention discloses a kind of electrochemical reaction implementation methods, can specifically make electrochemistry region and reducing agent and oxidant
Alternating contacts or makes reducing agent and oxidant alternately to contact with electrochemistry region, and then eliminates and remove from the electrochemistry region
The necessity for two kinds of charged particles that the electrochemistry region generates, making the electrochemistry region, there are the export of electronics importings;
In the specific implementation, the electrochemistry region can be further made to be correspondingly arranged with electric conductor;Also further can selectively it select
Selecting makes the electrochemistry region through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ion
At least one of gas and solion have non-electronic conducting electrical relation with electric conductor.
Embodiment 2
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made electrochemistry region and goes back
Former agent contacts with each other and makes the electrochemistry region and the mutual makes discontinuous contact of oxidant, or keeps electrochemistry region and oxidant mutual
It contacts and makes the electrochemistry region and the mutual makes discontinuous contact of reducing agent;And then it eliminates and removes from the electrochemistry region described
The necessity for two kinds of charged particles that electrochemistry region generates, making the electrochemistry region, there are the export of electronics importings;Having
When body is implemented, the electrochemistry region can further be made to be correspondingly arranged with electric conductor;It also further can selectively select to make
The electrochemistry region is through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas
There is non-electronic conducting electrical relation at least one of solion and electric conductor.
Embodiment 3
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made electrochemistry region and goes back
Former agent and oxidant alternately contact or make reducing agent and oxidant alternately to contact with electrochemistry region, and then eliminate from the electrification
School district domain removes the necessity of the two kinds of charged particles generated in the electrochemistry region, makes the electrochemistry region and region B
The export that there is electronics imports;In the specific implementation, it can further make the electrochemistry region is corresponding with the region B to set
It sets;It also further can selectively select to make the electrochemistry region through insulation, isolation space, electrolyte, dielectric, electricity
At least one of appearance, plasma, ionic liquid, ionized gas and solion have non-electronic conducting with the region B
Electrical relation.
Embodiment 4
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made electrochemistry region and goes back
Former agent contacts with each other and makes the electrochemistry region and the mutual makes discontinuous contact of oxidant, or keeps electrochemistry region and oxidant mutual
The electrochemistry region and the mutual makes discontinuous contact of reducing agent are contacted and made, and then eliminates and removes from the electrochemistry region described
The necessity for two kinds of charged particles that electrochemistry region generates, makes the electrochemistry region and region B there is the export of electronics
It imports;In the specific implementation, it so that the electrochemistry region is correspondingly arranged with the region B, can also further select
It selects to selecting property to make the electrochemistry region through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ion
At least one of liquid, ionized gas and solion have non-electronic conducting electrical relation with the region B.
Embodiment 5
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made electrochemistry region A and goes back
Former agent and oxidant alternately contact or make reducing agent and oxidant alternately to contact with electrochemistry region A, make electrochemistry region B and institute
It states oxidant and the reducing agent alternately contacts or contacts Oxidizing and Reducing Agents alternately with electrochemistry region B, and then eliminate
The necessity in the electrochemistry region A two kinds of charged particles generated is removed from the electrochemistry region A and is eliminated from described
Electrochemistry region B removes the necessity in the electrochemistry region B two kinds of charged particles generated, makes the electrochemistry region A
There is the export importing of electronics with the electrochemistry region B;In the specific implementation, the electrochemistry region A can further be made
It is correspondingly arranged with the electrochemistry region B;Also further can selectively select to make the electrochemistry region A through insulation,
Completely cut off at least one of space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas and solion
There is non-electronic conducting electrical relation with the electrochemistry region B.
Embodiment 6
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made electrochemistry region A and goes back
Former agent contacts with each other and makes the electrochemistry region A and the mutual makes discontinuous contact of oxidant and make electrochemistry region B and reducing agent
It contacts with each other and makes the electrochemistry region B and the mutual makes discontinuous contact of oxidant, and then eliminate and removed from the electrochemistry region A
The electrochemistry region A generate two kinds of charged particles necessity and eliminate from the electrochemistry region B remove described
The necessity for two kinds of charged particles that electrochemistry region B is generated, deposits the electrochemistry region A and the electrochemistry region B
It is imported in the export of electronics;In the specific implementation, it can further make the electrochemistry region A corresponding with the electrochemistry region B
Setting;It also further can selectively select that the electrochemistry region A is made to be situated between through insulation, isolation space, electrolyte, electricity
At least one of matter, capacitor, plasma, ionic liquid, ionized gas and solion have with the electrochemistry region B
Non-electronic conducting electrical relation.
Embodiment 7
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, makes electrochemistry region A and oxygen
Agent contacts with each other and makes the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electrochemistry region B and oxidant
It contacts with each other and makes the electrochemistry region B and the mutual makes discontinuous contact of reducing agent, and then eliminate and removed from the electrochemistry region A
The electrochemistry region A generate two kinds of charged particles necessity and eliminate from the electrochemistry region B remove described
The necessity for two kinds of charged particles that electrochemistry region B is generated, deposits the electrochemistry region A and the electrochemistry region B
It is imported in the export of electronics;In the specific implementation, it can further make the electrochemistry region A corresponding with the electrochemistry region B
Setting;It also further can selectively select that the electrochemistry region A is made to be situated between through insulation, isolation space, electrolyte, electricity
At least one of matter, capacitor, plasma, ionic liquid, ionized gas and solion have with the electrochemistry region B
Non-electronic conducting electrical relation.
Embodiment 8
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, makes electrochemistry region A and oxygen
Agent contacts with each other and makes the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electrochemistry region B and reducing agent
It contacts with each other and makes the electrochemistry region B and the mutual makes discontinuous contact of oxidant, and then eliminate and removed from the electrochemistry region A
The electrochemistry region A generate two kinds of charged particles necessity and eliminate from the electrochemistry region B remove described
The necessity for two kinds of charged particles that electrochemistry region B is generated, deposits the electrochemistry region A and the electrochemistry region B
It is imported in the export of electronics;In the specific implementation, it can further make the electrochemistry region A corresponding with the electrochemistry region B
Setting;It also further can selectively select that the electrochemistry region A is made to be situated between through insulation, isolation space, electrolyte, electricity
At least one of matter, capacitor, plasma, ionic liquid, ionized gas and solion have with the electrochemistry region B
Non-electronic conducting electrical relation.
Embodiment 9
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made electrochemistry region and goes back
The mixture of former agent and oxidant contact or contact the mixture of reducing agent and oxidant with electrochemistry region, and then elimination from
The electrochemistry region removes the necessity of the two kinds of charged particles generated in the electrochemistry region, makes the electrochemistry region
There are the export of electronics importings;In the specific implementation, it so that the electrochemistry region is correspondingly arranged with electric conductor, may be used also
Further selectively selection make the electrochemistry region through insulation, isolation space, electrolyte, dielectric, capacitor, etc. from
At least one of daughter, ionic liquid, ionized gas and solion have non-electronic conducting electrical relation with electric conductor.
Embodiment 10
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made electrochemistry region and goes back
The mixture makes discontinuous contact of former agent and oxidant makes the mixture of reducing agent and oxidant and electrochemistry region makes discontinuous contact, into
And the necessity that the two kinds of charged particles generated in the electrochemistry region are removed from the electrochemistry region is eliminated, make the electricity
There are the export of electronics importings for chemical regions;In the specific implementation, it can further make the electrochemistry region corresponding with electric conductor
Setting, also further can selectively select to make the electrochemistry region through insulation, isolation space, electrolyte, dielectric,
At least one of capacitor, plasma, ionic liquid, ionized gas and solion have non-electronic electric conduction with electric conductor
Relationship.
Embodiment 11
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made electrochemistry region and goes back
The mixture of former agent and oxidant contact or contact the mixture of reducing agent and oxidant with electrochemistry region, and then elimination from
The electrochemistry region removes the necessity of the two kinds of charged particles generated in the electrochemistry region, makes the electrochemistry region
There is the export importing of electronics with region B;In the specific implementation, the electrochemistry region and the region B can further be made
It is correspondingly arranged;And it further can selectively select to make the electrochemistry region through insulation, isolation space, electrolyte, electricity
At least one of medium, capacitor, plasma, ionic liquid, ionized gas and solion have non-electrical with the region B
Son conducting electrical relation.
Embodiment 12
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made electrochemistry region and goes back
The mixture makes discontinuous contact of former agent and oxidant makes the mixture of reducing agent and oxidant and electrochemistry region makes discontinuous contact, into
And the necessity that the two kinds of charged particles generated in the electrochemistry region are removed from the electrochemistry region is eliminated, make the electricity
The export that chemical regions and region B have electronics imports;In the specific implementation, the electrochemistry region and institute can further be made
Region B is stated to be correspondingly arranged;And it further can selectively select to make the electrochemistry region through insulation, isolation space, electricity
At least one of Xie Zhi, dielectric, capacitor, plasma, ionic liquid, ionized gas and solion and the region B
With non-electronic conducting electrical relation.
Embodiment 13
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made electrochemistry region A and goes back
The mixture of former agent and oxidant contacts or contacts the mixture of reducing agent and oxidant with electrochemistry region A, makes electrochemistry
Region B contacts with the mixture of reducing agent and oxidant or makes the mixture of reducing agent and oxidant to connect with electrochemistry region B
Touching, so eliminate from the electrochemistry region A remove the electrochemistry region A two kinds of charged particles generated necessity and
It eliminates from electrochemistry region B removal in the necessity of the electrochemistry region B two kinds of charged particles generated, makes the electricity
The export that the chemical regions A and electrochemistry region B has electronics imports;In the specific implementation, the electricity can further be made
Chemical regions A is correspondingly arranged with the electrochemistry region B, also further can selectively select to make the electrochemistry region A
Through in insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas and solion
It is at least one that there is non-electronic conducting electrical relation with the electrochemistry region B.
Embodiment 14
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made electrochemistry region A and goes back
The mixture makes discontinuous contact of former agent and oxidant makes the mixture of reducing agent and oxidant and electrochemistry region A makes discontinuous contact,
Make the mixture makes discontinuous contact of electrochemistry region B and reducing agent and oxidant or makes the mixture of reducing agent and oxidant and electrification
School district domain B makes discontinuous contact, and then eliminate from the electrochemistry region A and remove the two kinds of electrifications generated in the electrochemistry region A
The necessity of particle and eliminating is removed from the electrochemistry region B in the electrochemistry region B two kinds of charged particles generated
Necessity, the export for making the electrochemistry region A and the electrochemistry region B there is electronics import;In the specific implementation, may be used
It is correspondingly arranged the electrochemistry region A with the electrochemistry region B;It also further can selectively select to make institute
Electrochemistry region A is stated through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas
There is non-electronic conducting electrical relation at least one of solion and the electrochemistry region B.
Embodiment 15
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made to produce in electrochemistry region
Raw X class charged particle is stored in the electrochemistry region, by the electronics that generates in the electrochemistry region from the electrification
The export in school district domain, which imports, realizes output electric energy and/or absorption electric energy;In the specific implementation, the electrochemical school district can further be made
Domain is correspondingly arranged with electric conductor, also further can selectively select to make the electrochemistry region through insulation, isolation space,
At least one of electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas and solion have with electric conductor
There is non-electronic conducting electrical relation.
Embodiment 16
The electrochemical reaction implementation method disclosed in this invention is also selectively chosen through the electrochemical school district
The electronics in domain is imported from the export in the electrochemistry region realizes output electric energy and/or absorption electric energy;It in the specific implementation, can be into
One step is correspondingly arranged the electrochemistry region with electric conductor, also further can selectively select to make the electrochemistry region
Through in insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas and solion
It is at least one that there is non-electronic conducting electrical relation with electric conductor.
Embodiment 17
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made to produce in electrochemistry region
Raw X class charged particle is stored in the electrochemistry region, by the electronics in the electrochemistry region in the electrochemistry region
Export between the B of region, which imports, realizes output electric energy and/or absorption electric energy;In the specific implementation, the electricity can further be made
Chemical regions are correspondingly arranged with the region B;Also further can selectively select to make the electrochemistry region through insulation,
Completely cut off at least one of space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas and solion
There is non-electronic conducting electrical relation with the region B.
Embodiment 18
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made to produce in electrochemistry region
Raw X class charged particle is stored in the electrochemistry region, by the electronics that generates in the electrochemistry region in the electrification
Export between school district domain and region B, which imports, realizes output electric energy and/or absorption electric energy;In the specific implementation, can further make
The electrochemistry region is correspondingly arranged with the region B;It also further can selectively select to pass through the electrochemistry region
In insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas and solion extremely
A kind of few and region B has non-electronic conducting electrical relation.
Embodiment 19
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made to produce in electrochemistry region A
Raw X class charged particle is stored in the electrochemistry region A, is stored in the X class charged particle generated in electrochemistry region B
It is defeated to import realization by the export of electronics between the electrochemistry region A and the electrochemistry region B by the electrochemistry region B
Electric energy and/or absorption electric energy out;In the specific implementation, the electrochemistry region A and B pairs of the electrochemistry region can further be made
It should be arranged;It also further can selectively select that the electrochemistry region A is made to be situated between through insulation, isolation space, electrolyte, electricity
At least one of matter, capacitor, plasma, ionic liquid, ionized gas and solion have with the electrochemistry region B
There is non-electronic conducting electrical relation.
Embodiment 20
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made to produce in electrochemistry region A
Raw X class charged particle is stored in the electrochemistry region A, is stored in the X class charged particle generated in electrochemistry region B
The electrochemistry region B passes through the electronics generated in the electrochemistry region A and the electronics generated in the electrochemistry region B
Export between the electrochemistry region A and the electrochemistry region B, which imports, realizes output electric energy and/or absorption electric energy;?
When it is implemented, the electrochemistry region A can further be made to be correspondingly arranged with the electrochemistry region B;Can also further it select
It selects to selecting property to make the electrochemistry region A through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ion
At least one of liquid, ionized gas and solion have non-electronic conducting electrical relation with the electrochemistry region B.
Embodiment 21
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made to produce in electrochemistry region A
Raw X class charged particle is stored in the electrochemistry region A, is stored in the Z class charged particle generated in electrochemistry region B
The electrochemistry region B makes the Z class charged particle generated in electrochemistry region A be stored in the electrochemistry region A, makes in electricity
The X class charged particle that chemical regions B is generated is stored in the electrochemistry region B, passes through the electrochemistry region A and the electrification
The export of electronics, which imports, between the B of school district domain realizes output electric energy and/or absorption electric energy;In the specific implementation, institute can further be made
The electrochemistry region A and electrochemistry region B is stated to be correspondingly arranged;It also further can selectively select to make the electrochemical school district
Domain A is through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas and solion
At least one of with the electrochemistry region B have non-electronic conducting electrical relation.
Embodiment 22
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made to produce in electrochemistry region A
Raw X class charged particle is stored in the electrochemistry region A, is stored in the Z class charged particle generated in electrochemistry region B
The electrochemistry region B makes the Z class charged particle generated in electrochemistry region A be stored in the electrochemistry region A, makes in electricity
The X class charged particle that chemical regions B is generated is stored in the electrochemistry region B, passes through the electricity generated in the electrochemistry region A
Son and export of the electronics between the electrochemistry region A and the electrochemistry region B generated in the electrochemistry region B are led
Enter to realize output electric energy and/or absorbs electric energy;In the specific implementation, the electrochemistry region A and the electrification can further be made
School district domain B is correspondingly arranged;It also further can selectively select to make the electrochemistry region A through insulation, isolation space, electricity
At least one of Xie Zhi, dielectric, capacitor, plasma, ionic liquid, ionized gas and solion and the electrochemistry
Region B has non-electronic conducting electrical relation.
Embodiment 23
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made to produce in electrochemistry region A
Raw U class charged particle is stored in the electrochemistry region A, is stored in the W class charged particle generated in electrochemistry region B
The electrochemistry region B makes the W class charged particle generated in electrochemistry region A be stored in the electrochemistry region A, makes in electricity
The U class charged particle that chemical regions B is generated is stored in the electrochemistry region B, passes through the electrochemistry region A and the electrification
The export of electronics, which imports, between the B of school district domain realizes output electric energy and/or absorption electric energy;In the specific implementation, institute can further be made
The electrochemistry region A and electrochemistry region B is stated to be correspondingly arranged;It also further can selectively select to make the electrochemical school district
Domain A is through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas and solion
At least one of with the electrochemistry region B have non-electronic conducting electrical relation.
Embodiment 24
The electrochemical reaction implementation method disclosed in this invention, which is also selectively chosen, to be made to produce in electrochemistry region A
Raw U class charged particle is stored in the electrochemistry region A, is stored in the W class charged particle generated in electrochemistry region B
The electrochemistry region B makes the W class charged particle generated in electrochemistry region A be stored in the electrochemistry region A, makes in electricity
The U class charged particle that chemical regions B is generated is stored in the electrochemistry region B, passes through the electricity generated in the electrochemistry region A
Son and export of the electronics between the electrochemistry region A and the electrochemistry region B generated in the electrochemistry region B are led
Enter to realize output electric energy and/or absorbs electric energy;In the specific implementation, the electrochemistry region A and the electrification can further be made
School district domain B is correspondingly arranged;It also further can selectively select to make the electrochemistry region A through insulation, isolation space, electricity
At least one of Xie Zhi, dielectric, capacitor, plasma, ionic liquid, ionized gas and solion and the electrochemistry
Region B has non-electronic conducting electrical relation.
Embodiment 25
Fig. 1-1 is under unitary electrode (such as the present invention in electrochemistry region), and substance A and substance B replace with electrode to be connect
The process chart of touching, electrochemical reaction implementation method disclosed in this invention are selectively chosen according to following courses of work
Work.
In Fig. 1-1,1 is electrode, A representative species A (reducing agent), B representative species B (oxidant).When substance A and electrode connect
When touching (1. shown process in figure), the electronics of substance A is exported forming material A cation A under electro ultrafiltration+(i.e. reducing agent is being just
Ion A+), as the reducing agent cation A+(intensity and electrode of the amount of accumulation depending on electro ultrafiltration when running up to setting degree
Possessed electrical relation), substance A and substance B switching (as in figure 3. and 4. shown in process), and electronics is made to pass through load 5
It is imported into electrode, substance B, substance A cation A at electrode+Substance A and substance B redox reaction are generated with electron reaction
Product C (in such as figure 5. shown in).Next two-way can be divided to continue, is as 5. passed through in figure all the wayShown in 1.,
Apply the electro ultrafiltration in direction same as described above again, and switch substance A and substance B again, and then realizes circulation industrial in cycles
Make;Another way is as 5. passed through in figureShown in 7., apply the electro ultrafiltration in direction contrary to the above, and continues to make substance B and electricity
Pole contact, and then make substance B and electronics coexist in electrode (in some cases substance B can receive electronically form substance B bear from
Sub- B—Or oxidant anion B—, do not show in figure), as electronics or oxidant anion B—When running up to setting degree (such as
In figure 9. shown in), switching substance A and substance B and make electronics through load 5 from electrode export (as figure 10. andIt is shown), reducing agent
Cation, electronics and oxidant react herein generates C (in such as figureIt is shown), next to electrode implement reversed electro ultrafiltration and
Continue to make substance A contacted with electrode reach in figure 1. shown in state, and then realize cycle operation in cycles.Shown in this figure
Principle and process are the course of work of unitary electrode.The purpose of electro ultrafiltration be control with strengthen electrochemical reaction, electro ultrafiltration can be with
From external power supply, can come from the chemical potential in electrochemical reaction, can be from by storing process electric energy (for example,
Electric energy through capacitor or oscillating circuit) etc..Electro ultrafiltration consumes electric energy, but there is no damaged the electric energy consumed during electro ultrafiltration
It loses, and is stored at electrode, released together when electric current is reversed.
Embodiment 26
Fig. 1-2 is H under unitary electrode (such as electrochemistry region in the present invention)2And O2Contact is alternateed with electrode
Process chart, electrochemical reaction implementation method disclosed in this invention are selectively chosen according to following course of work works
Make.
In Fig. 1-2,1 is electrode.The principle and process that this figure illustrates are identical as Fig. 1-1, only the reducing agent object in Fig. 1-1
Matter A is with H2To represent, oxidant species B is with O2To represent, reducing agent cation A+It is then H+.Principle shown in this figure and process
For the course of work of unitary electrode.The purpose of electro ultrafiltration is control and reinforcing electrochemical reaction, and electro ultrafiltration can come from external electrical
Source can come from the chemical potential in electrochemical reaction, can be from the electric energy by storing process (for example, through capacitor or vibration
Swing the electric energy of circuit) etc..Electro ultrafiltration consumes electric energy, but the electric energy consumed during electro ultrafiltration is not lost, but by
It is stored at electrode, is released together when electric current is reversed.
Embodiment 27
Fig. 1-3 is CH under unitary electrode (such as electrochemistry region in the present invention)3OH and O2It alternates and contacts with electrode
Process chart, electrochemical reaction implementation method disclosed in this invention is selectively chosen according to following course of work works
Make.
In Fig. 1-3,1 is electrode.The principle and process that this figure illustrates are identical as Fig. 1-1, only the reducing agent object in Fig. 1-1
Matter A is with CH3OH is representative, and oxidant species B is with O2To represent.Furthermore compared with Fig. 1-1, the principle shown in Fig. 1-3 and process
Middle H2O takes part in electrochemical reaction process as recycled material.Principle shown in this figure and process are the worked of unitary electrode
Journey.The purpose of electro ultrafiltration is that control can come from external power supply, it is anti-to can come from electrochemistry with electrochemical reaction, electro ultrafiltration is strengthened
Chemical potential in answering can be from the electric energy (for example, electric energy through capacitor or oscillating circuit) etc. by storing process.Electricity is made
With consumption electric energy, but the electric energy consumed during electro ultrafiltration is being lost, and is stored at electrode, anti-to electric current
To when release together.
Embodiment 28
Fig. 1-4 is the mixture and electricity of substance A and substance B under unitary electrode (such as electrochemistry region in the present invention)
The process chart that pole contacts with each other, electrochemical reaction implementation method disclosed in this invention are selectively chosen according to following
Course of work work.
In Fig. 1-4,1 is electrode, A representative species A (reducing agent), B representative species B (oxidant).When substance A and substance B
Mixture and electrode when contacting (in figure 1. shown in process), the electronics of the substance A under electro ultrafiltration in mixture is exported shape
At substance A cation A+(i.e. reducing agent cation A+), as the reducing agent cation A+When running up to setting degree (accumulation
Electrical relation possessed by intensity and electrode of the amount depending on electro ultrafiltration), so that electronics is imported into electrode by load 5, in electrode
Locate substance B, substance A cation A+With the product C of electron reaction generation substance A and substance B redox reaction (in such as figure
Shown in 4.).Next two-way can be divided to continue, is as, 5. to shown in 1., applied side same as described above again in figure all the way
To electro ultrafiltration, that is, reach in figure 1. shown in state, and then realize cycle operation in cycles;Another way be as in figure 5. to 6.
It is shown, apply the electro ultrafiltration in direction contrary to the above, and then make substance B forming material B anion B—That is oxidant anion B—
(in some cases may forming material A, substance B and electronics coexist in the situation of electrode, do not shown in figure), work as oxidant
Anion B—Or electron accumulation to setting degree when (in such as figure 8. shown in), make electronics through load 5 from electrode export (such as figure 9. institute
Show) form reducing agent cation A+, it is formed by reducing agent cation A+, oxidant (substance B) and electronics or reducing agent just from
Sub- A+With oxidant anion B—Reaction generates C (also as 9. shown in figure), next implements reversed electro ultrafiltration to electrode and reaches
In figure 1. shown in state, and then realize cycle operation in cycles.Although existing always at electrode during shown in Fig. 1-4
There is reducing agent and oxidant always in substance A and substance B, but due to electro ultrafiltration there are reducing agents and oxidant can not be straight
Row redox reaction is tapped into, and then avoids or weakens mixture and directly carry out redox reaction forfeiture power supply at electrode
The process of ability.Principle shown in this figure and process are the course of work of unitary electrode.The purpose of electro ultrafiltration is control and strengthens
Electrochemical reaction, electro ultrafiltration can come from external power supply, can come from the chemical potential in electrochemical reaction, can be from by
Electric energy (for example, electric energy through capacitor or oscillating circuit) of storing process etc..Electro ultrafiltration consumes electric energy, but in electro ultrafiltration process
The electric energy of middle consumption is not lost, and is stored at electrode, is released together when electric current is reversed.
Embodiment 29
Fig. 1-5 is the mixture and electricity of substance A and substance B under unitary electrode (such as electrochemistry region in the present invention)
The process chart of extremely mutual makes discontinuous contact, electrochemical reaction implementation method disclosed in this invention be selectively chosen according to
Following course of work work.
In Fig. 1-5,1 is electrode, A representative species A (reducing agent), B representative species B (oxidant).Except substance A and substance B
Mixture and the mutual makes discontinuous contact of electrode influence outside, principle shown in Fig. 1-5 is identical as shown in Fig. 1-4 with process, mixed
The purpose for closing object and electrode makes discontinuous contact is to reduce the mixture of substance A and substance B i.e. reducing agent and oxidant at electrode
Mixture existing for the time, to realize better control to electrochemical process.As in figure 3., 4., shown in the processes such as 5.,
Discontinuously contact with each other and be formed by circulation, have at electrode considerable time intervals only exist a kind of substance only exist and also
Former agent only exists oxidant (substance B and electronics is regarded as substance B anion B when coexisting—Rather than substance B).This figure institute
The principle and process shown are the course of work of unitary electrode.The purpose of electro ultrafiltration is control and reinforcing electrochemical reaction, electro ultrafiltration
It can come from external power supply, can come from the chemical potential in electrochemical reaction, can be from the electric energy (example by storing process
Such as, the electric energy through capacitor or oscillating circuit) etc..Electro ultrafiltration consumes electric energy, but the electric energy consumed during electro ultrafiltration is not
It is lost, and is stored at electrode, released together when electric current is reversed.
Embodiment 30
Fig. 1-6 is H under unitary electrode (such as electrochemistry region in the present invention)2And O2Mixture and electrode phase mutual connection
The process chart of touching, electrochemical reaction implementation method disclosed in this invention are selectively chosen according to following courses of work
Work.
In Fig. 1-6,1 is electrode.Principle and process shown in Fig. 1-6 are identical as Fig. 1-4, only the substance A in Fig. 1-4
With H2To represent, substance B is with O2To represent.Principle shown in this figure and process are the course of work of unitary electrode.The mesh of electro ultrafiltration
Be control and strengthen electrochemical reaction, electro ultrafiltration can come from external power supply, can come from the chemical potential in electrochemical reaction,
It can be from the electric energy (for example, electric energy through capacitor or oscillating circuit) etc. by storing process.Electro ultrafiltration consumes electric energy, but
The electric energy consumed during electro ultrafiltration is not lost, and is stored at electrode, is released together when electric current is reversed.
Embodiment 31
Fig. 1-7 is CH under unitary electrode (such as electrochemistry region in the present invention)3OH and O2Mixture and electrode phase
The process chart mutually contacted, electrochemical reaction implementation method disclosed in this invention are selectively chosen according to following work
Process work.
In Fig. 1-7,1 is electrode.Principle and process shown in Fig. 1-7 are identical as Fig. 1-4, only the substance A in Fig. 1-4
With CH3OH is representative, and substance B is with O2To represent.In addition to this, compared with principle and process shown in Fig. 1-4, water as shown in the figure
Electrochemical reaction is taken part in as recycled material.Principle shown in this figure and process are the course of work of unitary electrode.Electro ultrafiltration
Purpose be control and strengthen electrochemical reaction, electro ultrafiltration can come from external power supply, can come from the change in electrochemical reaction
Gesture is learned, can be from the electric energy (for example, electric energy through capacitor or oscillating circuit) etc. by storing process.Electro ultrafiltration consumption electricity
Can, but the electric energy consumed during electro ultrafiltration is not lost, and be stored at electrode, when electric current is reversed together
It releases.
Embodiment 32
Fig. 2-1 is shown including electrode (such as electrochemistry region in the present invention) and electric conductor corresponding with this electrode
, the process chart that substance A and substance B are alternately contacted with electrode, electrochemical reaction implementation method disclosed in this invention can
It selectively selects to work according to following courses of work.
In Fig. 2-1,1 is electrode, and 2 be electric conductor, and 6 be interpolar spacer, A representative species A (reducing agent), B representative species B
(oxidant), wherein electric conductor plays the role of another electrode in electrodic electron export importing process.When substance A and electricity
When pole 1 contacts (1. shown process in figure), the electronics of substance A is exported to electric conductor 2 and then forms substance A under electro ultrafiltration
Substance A cation A+(i.e. reducing agent cation A+), as the reducing agent cation A+(the amount of accumulation when running up to setting degree
Electrical relation possessed by intensity and electrode depending on electro ultrafiltration), 3. and 4. substance A and substance B switching are (as shown in figure
Process), and electronics is made to imported into electrode from electric conductor by load 5, substance B, substance A cation A at electrode+And electron back
The product C (5. shown in such as figure) of substance A and substance B redox reaction should be generated.Next can divide two-way continue into
Row, is as 5. passed through in figure all the wayShown in 1., apply the electro ultrafiltration in direction same as described above again, and switch substance A again
With substance B, and then cycle operation in cycles is realized;Another way is as 5. passed through in figureShown in 7., apply contrary to the above
The electro ultrafiltration in direction, and continue to contact substance B with electrode, and then substance B and electronics is made to coexist in electrode (in some cases
Substance B, which can receive, electronically forms substance B anion B—Or oxidant anion B—, do not show in figure), when electronics or oxidation
Agent anion B—When running up to setting degree (9. shown in such as figure), switches substance A and substance B and electronics is made to be loaded 5 from electricity
Pole export to electric conductor (in such as figure 10. andIt is shown), reducing agent cation, electronics and oxidant react at electrode 1 generates C
(in such as figureIt is shown), next implement reversed electro ultrafiltration and continuing to electrode and contact substance A with electrode to reach in figure 1. institute
The state shown, and then realize cycle operation in cycles.Principle shown in this figure and process be include having through interpolar spacer
The electrode of electrical relation and the course of work of electric conductor.The purpose of electro ultrafiltration is control and reinforcing electrochemical reaction, and electro ultrafiltration can
To come from external power supply, it can come from the chemical potential in electrochemical reaction, can be from the electric energy (example by storing process
Such as, the electric energy through capacitor or oscillating circuit) etc..Electro ultrafiltration consumes electric energy, but the electric energy consumed during electro ultrafiltration is not
It is lost, and is stored at electrode, released together when electric current is reversed.
Embodiment 33
Fig. 2-2 is shown including electrode (such as electrochemistry region in the present invention) and electric conductor corresponding with this electrode
, H2And O2The process chart of contact is alternateed with electrode, electrochemical reaction implementation method disclosed in this invention is optional
It selects to selecting property to work according to following courses of work.
In Fig. 2-2,1 is electrode, and 2 be electric conductor, and 6 be interpolar spacer, and wherein electric conductor is exported in electrodic electron and imported
Play the role of another electrode in the process.Except the substance A (reducing agent) in Fig. 2-1 is with H2To represent, substance B (oxidant)
With O2Outer to represent, principle and the course of work shown in Fig. 2-2 are identical as principle shown in Fig. 2-1 and process.The mesh of electro ultrafiltration
Be control and strengthen electrochemical reaction, electro ultrafiltration can come from external power supply, can come from the chemical potential in electrochemical reaction,
It can be from the electric energy (for example, electric energy through capacitor or oscillating circuit) etc. by storing process.Electro ultrafiltration consumes electric energy, but
The electric energy consumed during electro ultrafiltration is not lost, and is stored at electrode, is released together when electric current is reversed.
Embodiment 34
Fig. 2-3 is shown including electrode (such as electrochemistry region in the present invention) and electric conductor corresponding with this electrode
, CH3OH and O2The process chart of contact is alternateed with electrode, electrochemical reaction implementation method disclosed in this invention can
It selectively selects to work according to following courses of work.
In Fig. 2-3,1 is electrode, and 2 be electric conductor, and 6 be interpolar spacer, and wherein electric conductor is exported in electrodic electron and imported
Play the role of another electrode in the process.Except the substance A (reducing agent) in Fig. 2-1 is with CH3OH is representative, substance B (oxidation
Agent) with O2To represent, H2It is outer that O as recycled material participates in reaction, shown in principle and the course of work shown in Fig. 2-3 and Fig. 2-1
Principle it is identical with process.The purpose of electro ultrafiltration is control and reinforcing electrochemical reaction, and electro ultrafiltration can come from external power supply, can
With the chemical potential in electrochemical reaction, the electric energy by storing process can be from (for example, through capacitor or oscillating circuit
Electric energy) etc..Electro ultrafiltration consumes electric energy, but the electric energy consumed during electro ultrafiltration is not lost, and is stored in
At electrode, released together when electric current is reversed.
Embodiment 35
Fig. 2-4 is shown including electrode (such as electrochemistry region in the present invention) and electric conductor corresponding with this electrode
, the process chart that the mixture and electrode of substance A and substance B contact with each other, electrochemical reaction reality disclosed in this invention
Existing method is selectively chosen to work according to following courses of work.
In Fig. 2-4,1 is electrode, and 2 be electric conductor, and 6 be interpolar spacer, A representative species A (reducing agent), B representative species B
(oxidant), wherein electric conductor plays the role of another electrode in electrodic electron export importing process.When substance A and object
When the mixture and electrode of matter B contact (1. shown process in figure), the electronics of the substance A under electro ultrafiltration in mixture is exported
To electric conductor 2 and then make substance A forming material A cation A+(i.e. reducing agent cation A+), as the reducing agent cation A+Product
When tiring out setting degree (electrical relation possessed by intensity and electrode of the amount of accumulation depending on electro ultrafiltration), make electronics through loading
5 imported into electrode from electric conductor, substance B, substance A cation A at electrode+Substance A and substance B oxidation are generated with electron reaction
The product C (4. shown in such as figure) of reduction reaction.Next two-way can be divided to continue, be all the way as in figure 5. to 1. institute
Show, apply the electro ultrafiltration in direction same as described above again, that is, reach in figure 1. shown in state, and then realize circulation industrial in cycles
Make;Another way is and then to keep substance B forming material B negative as, 5. to shown in 6., applied the electro ultrafiltration in direction contrary to the above in figure
Ion B—That is oxidant anion B—(in some cases may forming material A, substance B and electronics coexist in the shape of electrode
Condition is not shown in figure), as oxidant anion B—Or electron accumulation to setting degree when (in such as figure 8. shown in), pass through electronics
Load 5 exports to electric conductor (in such as figure 9. shown in) from electrode and forms reducing agent cation A+, it is formed by reducing agent cation A+, oxidant (substance B) and electronics or reducing agent cation A+With oxidant anion B—Reaction generates C (also such as 9. institute in figure
Show), next to electrode implement reversed electro ultrafiltration reach in figure 1. shown in state, and then realize cycle operation in cycles.
Although there is substance A always at electrode during shown in Fig. 2-4 and substance B have reducing agent and oxidant always,
Due to the presence of electro ultrafiltration, reducing agent and oxidant can not directly carry out redox reaction, and then avoid or weaken mixing
Object directly carries out the process that redox reaction loses power supply capacity at electrode.The purpose of electro ultrafiltration is control and reinforcing electrification
Reaction is learned, electro ultrafiltration can come from external power supply, can come from the chemical potential in electrochemical reaction, can be from by storage
Electric energy (for example, electric energy through capacitor or oscillating circuit) of process etc..Electro ultrafiltration consumes electric energy, but consumes during electro ultrafiltration
Electric energy not lost, and be stored at electrode, released together when electric current is reversed.
Embodiment 36
Fig. 2-5 is shown including electrode (such as electrochemistry region in the present invention) and electric conductor corresponding with this electrode
, the process chart of the mixture of substance A and substance B and the mutual makes discontinuous contact of electrode, electrochemistry disclosed in this invention is anti-
It answers implementation method to be selectively chosen to work according to following courses of work.
In Fig. 2-5,1 is electrode, and 2 be electric conductor, and 6 be interpolar spacer, A representative species A (reducing agent), B representative species B
(oxidant), wherein electric conductor plays the role of another electrode in electrodic electron export importing process.Except substance A and object
Outside the mixture of matter B and the influence of the mutual makes discontinuous contact of electrode, shown in principle and the course of work shown in Fig. 2-5 and Fig. 2-4
Principle is identical with process.The purpose of mixture and electrode makes discontinuous contact is when reducing existing for reducing agent and oxidant mixture
It is long, improve safety, controllability and reliability.The purpose of electro ultrafiltration is that control can come with electrochemical reaction, electro ultrafiltration is strengthened
From external power supply, can come from the chemical potential in electrochemical reaction, can be from by storing process electric energy (for example, through
The electric energy of capacitor or oscillating circuit) etc..Electro ultrafiltration consumes electric energy, but there is no damaged the electric energy consumed during electro ultrafiltration
It loses, and is stored at electrode, released together when electric current is reversed.
Embodiment 37
Fig. 2-6 is shown including electrode (such as electrochemistry region in the present invention) and electric conductor corresponding with this electrode
, H2And O2Mixture and the process chart that contacts with each other of electrode, electrochemical reaction implementation method disclosed in this invention
It is selectively chosen and works according to following courses of work.
In Fig. 2-6,1 is electrode, and 2 be electric conductor, and 6 be interpolar spacer, and wherein electric conductor is exported in electrodic electron and imported
Play the role of another electrode in the process.Except substance A (reducing agent) is with H2To represent, substance B (oxidant) is with O2To represent
Outside, principle and the course of work shown in Fig. 2-6 are identical as principle shown in Fig. 2-4 and process.Electro ultrafiltration can come from external electrical
Source can come from the chemical potential in electrochemical reaction, can be from the electric energy by storing process (for example, through capacitor or vibration
Swing the electric energy of circuit) etc..The purpose of electro ultrafiltration is control and reinforcing electrochemical reaction, and electro ultrafiltration consumes electric energy, but in electro ultrafiltration
The electric energy consumed in the process is not lost, and is stored at electrode, is released together when electric current is reversed.
Embodiment 38
Fig. 2-7 is shown including electrode (such as electrochemistry region in the present invention) and electric conductor corresponding with this electrode
, CH3OH and O2Mixture and the process chart that contacts with each other of electrode, electrochemical reaction realization side disclosed in this invention
Method is selectively chosen to work according to following courses of work.
In Fig. 2-7,1 is electrode, and 2 be electric conductor, and 6 be interpolar spacer, and wherein electric conductor is exported in electrodic electron and imported
Play the role of another electrode in the process.Except substance A (reducing agent) is with CH3OH is representative, and substance B (oxidant) is with O2For generation
Off-balancesheet, H2O is participated in outside reaction as recycled material, principle and the course of work shown in Fig. 2-7 and principle and mistake shown in Fig. 2-4
Cheng Xiangtong.The purpose of electro ultrafiltration is that control can come from external power supply, can come from electrification with electrochemical reaction, electro ultrafiltration is strengthened
The chemical potential in reaction is learned, can be from the electric energy (for example, electric energy through capacitor or oscillating circuit) etc. by storing process.
Electro ultrafiltration consumes electric energy, but the electric energy consumed during electro ultrafiltration is not lost, and is stored at electrode, to electricity
It is released together when flowing reversed.
Embodiment 39
Fig. 3-1 show including electrode A (such as the present invention in electrochemistry region A) and electrode B (such as it is of the invention in electricity
Chemical regions B), substance A and substance B alternately contacts with electrode A and substance B and substance A replace with electrode B contact it is worked
Cheng Tu, electrochemical reaction implementation method disclosed in this invention is selectively chosen to work according to following courses of work.
In Fig. 3-1,3 be electrode A, and 4 be electrode B, and 6 be interpolar spacer, A representative species A (reducing agent), B representative species B
(oxidant).When substance A is contacted with electrode A and substance B and electrode B contact (1. shown process in figure), substance A is in electrode A
Forming material A cation A+(i.e. reducing agent cation A+) and electronics, substance B is in electrode B serious hope electronics (because electronegativity attracts parent
And electronics), the electronics of electrode A through load 5 exports to electrode B, and (substance B can receive that electronically form substance B negative in some cases
Ion B—Or oxidant anion B—, do not show in figure), as the A of electrode A+(electrode B electronics or electrode B B—)
When running up to setting degree, substance A and substance B switch (in such as figure 4. shown in) and electronics is imported into through load 5 from electrode B
Electrode A (is such as schemed in the reaction that substance A and substance B redox reaction product C occur to generate for electrode A and electrode B at this time
In 5. shown in).Because substance B is with strong electronegativity, therefore the meeting when exporting electronics in the coexistence state from substance B, substance A and electronics
Forming material B, substance A cation A+With electronics coexistence state, and then three react generate C.Next can divide two-way continue into
Row, is as 5. passed through in figure all the wayShown in 1., and in process1. locating to switch substance A and substance B again, and then realize
Cycle operation in cycles;Another way is as 5. passed through in figureShown in 7., that is, carry out that substance B is maintained to contact with electrode A, object
Matter A is contacted with electrode B, when (electronics and substance B coexist in electrode A or electronics is formed in electrode A and substance B for the electronics of electrode A
Substance B anion or oxidant anion B—, do not show in figure) or when electrode B A+When running up to setting degree (in such as figure
Shown in 8.), switching substance A and substance B and electronics is made to export to electrode B (in such as figure 9. shown in) from electrode A through load 5, at this moment
The reaction (in such as figure 10. shown in) for occurring to generate C in electrode A and electrode B continues to substance A and contacts with electrode A and substance
The state that B is contacted with electrode B reach in figure 1. shown in process, and then realize cycle operation in cycles.
Embodiment 40
Fig. 3-2 show including electrode A (such as the present invention in electrochemistry region A) and electrode B (such as it is of the invention in electricity
Chemical regions B), H2And O2It is alternately contacted and O with electrode A2And H2The process chart alternately contacted with electrode B, institute of the present invention
Disclosed electrochemical reaction implementation method is selectively chosen to work according to following courses of work.
In Fig. 3-2,3 be electrode A, and 4 be electrode B, and 6 be interpolar spacer.The principle and process and Fig. 3-1 that this figure illustrates
Shown in it is identical, only the reducing agent substance A in Fig. 3-1 is with H2To represent, oxidant species B is with O2For represent, reducing agent just from
Sub- A+It is then H+。
Embodiment 41
Fig. 3-3 show including electrode A (such as the present invention in electrochemistry region A) and electrode B (such as it is of the invention in electricity
Chemical regions B), CH3OH and O2Contact and O are alternateed with electrode A2And CH3OH and electrode B alternate the work of contact
Procedure chart, electrochemical reaction implementation method disclosed in this invention is selectively chosen to work according to following courses of work.
In Fig. 3-3,3 be electrode A, and 4 be electrode B, and 6 be interpolar spacer.The principle and process and Fig. 3-1 that this figure illustrates
Shown in it is identical, only the reducing agent substance A in Fig. 3-1 is with CH3OH is representative, and oxidant species B is with O2To represent.Furthermore with
Principle shown in Fig. 3-1 is compared with process, the principle shown in Fig. 3-3 and in the process H2O takes part in electrification as recycled material
Learn reaction process.
Embodiment 42
Fig. 3-4 show including electrode A (such as the present invention in electrochemistry region A) and electrode B (such as it is of the invention in electricity
Chemical regions B), the mixture of substance A and substance B is contacted with electrode A and substance B and the mixture of substance A are contacted with electrode B
And electro ultrafiltration participate in process chart, electrochemical reaction implementation method disclosed in this invention be selectively chosen according to
Following course of work work.
In Fig. 3-4,3 be electrode A, and 4 be electrode B, and 6 be interpolar spacer, A representative species A (reducing agent), B representative species B
(oxidant).When the mixture of substance A and substance B is contacted with electrode A and the mixture of substance A and substance B and electrode B contact
(in figure 1. shown in process), the substance A in mixture is in electrode A forming material A cation A+(i.e. reducing agent cation A+) and
Electronics, the substance A in mixture is in electrode B also forming material A cation A+(i.e. reducing agent cation A+) and electronics, mixture
In substance B thirst for electronics (because electronegativity attracts affine electronics) in electrode A, the substance B in mixture also thirsts for electricity in electrode B
Son (because electronegativity attracts affine electronics), therefore, electrode A and electrode B are in symmetry status, without electric current flowing.However,
When applying electro ultrafiltration, the electronics of electrode A is exported to electrode B, and (substance B can receive that electronically form substance B negative in some cases
Ion B—Or oxidant anion B—, do not show in figure) and (in such as figure 1. and 2. shown in), as the A of electrode A+(or electrode B
Electronics or electrode B B—) when running up to setting degree (in such as figure 3. shown in), electronics is made to imported into electricity from electrode B through load 5
Pole A (4. shown in such as figure) occurs to generate substance A and substance B redox reaction product C at this time in electrode A and electrode B
Reaction (in such as figure 4. shown in).Because substance B has strong electronegativity, therefore from the coexistence state of substance B, substance A and electronics
It will form substance B, substance A cation A when exporting electronics+With electronics coexistence state, and then three react generate C.It next can be with
Point two-way continues, be all the way as in figure 5. to shown in 1., and then realization cycle operation in cycles;Another way is as in figure
5. applying the electro ultrafiltration of opposite direction to shown in 6., when the electronics (electronics and substance B coexists in electrode A or electronics exists of electrode A
Electrode A and substance B forming material B anion or oxidant anion B—, do not show in figure, in B—In the presence of, work as B—Accumulation
When to setting degree) when running up to setting degree or when electrode B A+When running up to setting degree (8. shown in such as figure), make electricity
Son exports to electrode B (in such as figure 9. shown in) from electrode A through load 5, and the reaction of generation C at this moment occurs in electrode A and electrode B
(in such as figure 9. shown in), apply opposite direction electro ultrafiltration reach in figure 1. shown in process, and then realize and recycle in cycles
Work.The purpose of electro ultrafiltration is that control can come from external power supply, can come from electrochemistry with electrochemical reaction, electro ultrafiltration is strengthened
Chemical potential in reaction can be from the electric energy (for example, electric energy through capacitor or oscillating circuit) etc. by storing process.Electricity
Effect consumption electric energy, but the electric energy consumed during electro ultrafiltration is not lost, and be stored at electrode, to electric current
It is released together when reversed.
Embodiment 43
Fig. 3-5 show including electrode A (such as the present invention in electrochemistry region A) and electrode B (such as it is of the invention in electricity
Chemical regions B), the mixture and electrode A makes discontinuous contact of substance A and substance B and the mixture and electrode B of substance B and substance A
The process chart that makes discontinuous contact and electro ultrafiltration participate in, electrochemical reaction implementation method disclosed in this invention is optionally
Selection works according to following courses of work.
In Fig. 3-5,3 be electrode A, and 4 be electrode B, and 6 be interpolar spacer, A representative species A (reducing agent), B representative species B
(oxidant).Other than the influence of electrode and mixture makes discontinuous contact, shown in principle shown in Fig. 3-5 and process and Fig. 3-4
Identical, the purpose for making electrode and mixture makes discontinuous contact is to reduce duration existing for mixture, increases the safety, reliable of process
Property and controllability.The purpose of electro ultrafiltration is that control can come from external power supply, can come from electrochemical reaction, electro ultrafiltration is strengthened
Chemical potential in electrochemical reaction can be from the electric energy by storing process (for example, the electricity through capacitor or oscillating circuit
Can) etc..Electro ultrafiltration consumes electric energy, but the electric energy consumed during electro ultrafiltration is not lost, and is stored in electrode
Place, is released together when electric current is reversed.
Embodiment 44
Fig. 3-6 show including electrode A (such as the present invention in electrochemistry region A) and electrode B (such as it is of the invention in electricity
Chemical regions B), H2And O2Mixture contacted with electrode A and H2And O2Mixture contacted with electrode B and also electro ultrafiltration join
With process chart, electrochemical reaction implementation method disclosed in this invention is selectively chosen according to following courses of work
Work.
In Fig. 3-6,3 be electrode A, and 4 be electrode B, and 6 be interpolar spacer.In addition to reducing agent is with H2For represent, oxidant with
O2Outer to represent, principle shown in Fig. 3-6 is identical as shown in Fig. 3-4 as process.The purpose of electro ultrafiltration is control and reinforcing electricity
Chemical reaction, electro ultrafiltration can come from external power supply, can come from the chemical potential in electrochemical reaction, can be from by depositing
Electric energy (for example, electric energy through capacitor or oscillating circuit) of storage process etc..Electro ultrafiltration consumes electric energy, but disappears during electro ultrafiltration
The electric energy of consumption is not lost, and is stored at electrode, is released together when electric current is reversed.
Embodiment 45
Fig. 3-7 show including electrode A (such as the present invention in electrochemistry region A) and electrode B (such as it is of the invention in electricity
Chemical regions B), CH3OH and O2Mixture contacted with electrode A and CH3OH and O2Mixture contacted with electrode B and also electricity
The process chart participated in is acted on, electrochemical reaction implementation method disclosed in this invention is selectively chosen according to following works
Make process work.
In Fig. 3-7,3 be electrode A, and 4 be electrode B, and 6 be interpolar spacer.In addition to reducing agent is with CH3OH is representative, oxidation
Agent is with O2Outer to represent, principle shown in Fig. 3-7 is identical as shown in Fig. 3-4 as process.Furthermore with principle shown in Fig. 3-4 with
Process is compared, the principle shown in Fig. 3-7 and in the process H2O takes part in electrochemical reaction process as recycled material.Electro ultrafiltration
Purpose be control and strengthen electrochemical reaction, electro ultrafiltration can come from external power supply, can come from the change in electrochemical reaction
Gesture is learned, can be from the electric energy (for example, electric energy through capacitor or oscillating circuit) etc. by storing process.Electro ultrafiltration consumption electricity
Can, but the electric energy consumed during electro ultrafiltration is not lost, and be stored at electrode, when electric current is reversed together
It releases.
Embodiment 46
Fig. 3-8 show including electrode A (such as the present invention in electrochemistry region A) and electrode B (such as it is of the invention in electricity
Chemical regions B), substance A and substance B alternately contacts with electrode A and substance B and substance A are alternately contacted with electrode B and electricity work
With the process chart of participation, electrochemical reaction implementation method disclosed in this invention is selectively chosen according to following work
Process work.
In Fig. 3-8,3 be electrode A, and 4 be electrode B, and 6 be interpolar spacer, A representative species A (reducing agent), B representative species B
(oxidant).When substance A is contacted with electrode A and substance B and electrode B contact (1. shown process in figure), substance A is in electrode A
Forming material A cation A+(i.e. reducing agent cation A+) and electronics, substance B is in electrode B serious hope electronics (because electronegativity attracts parent
And electronics), the electronics of electrode A is exported to electrode B (substance B can connect in some cases under the action of the electro ultrafiltration of application
Receipts electronically form substance B anion B—Or oxidant anion B—, do not show in figure), as the A of electrode A+(or electrode B
The B of electronics or electrode B—) when running up to setting degree, substance A and substance B switch (in such as figure 3. and 4. shown in) and electronics
It is imported into electrode A from electrode B through load 5, occurs to generate substance A in electrode A and electrode B at this time and substance B redox is anti-
Answer the reaction (5. shown in such as figure) of product C.Because substance B has strong electronegativity, therefore works as from substance B, substance A and electronics
It will form substance B, substance A cation A when exporting electronics in coexistence state+With electronics coexistence state, and then three react generate C.It connects
Getting off can divide two-way to continue, and be as 5. passed through in figure all the wayShown in 1., and in process1. locating to switch object again
Matter A and substance B, and then realize cycle operation in cycles;Another way is as 5. passed through in figureShown in 7., that is, maintained
Substance B is contacted with electrode A, and substance A is contacted with electrode B, and apply opposite direction electro ultrafiltration, when electrode A electronics (electronics with
Substance B coexists in electrode A or electronics is in electrode A and substance B forming material B anion or oxidant anion B—, in figure
It does not show, in B—In the presence of, work as B—When running up to setting degree) when running up to setting degree or when electrode B A+It runs up to and sets
Determine when degree (9. shown in such as figure), switch substance A and substance B and electronics is made to export to electrode B (such as figure from electrode A through load 5
In 10. withIt is shown), the reaction of generation C at this moment occurs (in such as figure in electrode A and electrode BIt is shown), continue to substance
The state that A is contacted with electrode A and substance B is contacted with electrode B reach in figure 1. shown in process, and then realize and recycle in cycles
Work.The purpose of electro ultrafiltration is that control can come from external power supply, can come from electrochemistry with electrochemical reaction, electro ultrafiltration is strengthened
Chemical potential in reaction can be from the electric energy (for example, electric energy through capacitor or oscillating circuit) etc. by storing process.Electricity
Effect consumption electric energy, but the electric energy consumed during electro ultrafiltration is not lost, and be stored at electrode, to electric current
It is released together when reversed.
Embodiment 47
Fig. 3-9 show including electrode A (such as the present invention in electrochemistry region A) and electrode B (such as it is of the invention in electricity
Chemical regions B), H2And O2It is alternately contacted and O with electrode A2And H2With electrode B alternately contact and also electro ultrafiltration participation work
Procedure chart, electrochemical reaction implementation method disclosed in this invention is selectively chosen to work according to following courses of work.
In Fig. 3-9,3 be electrode A, and 4 be electrode B, and 6 be interpolar spacer.The principle and process and Fig. 3-8 that this figure illustrates
Shown in it is identical, only the reducing agent substance A in Fig. 3-8 is with H2To represent, oxidant species B is with O2For represent, reducing agent just from
Sub- A+It is then H+.The purpose of electro ultrafiltration is that control can come from external power supply, can come from electrochemical reaction, electro ultrafiltration is strengthened
Chemical potential in electrochemical reaction can be from the electric energy by storing process (for example, the electricity through capacitor or oscillating circuit
Can) etc..Electro ultrafiltration consumes electric energy, but the electric energy consumed during electro ultrafiltration is not lost, and is stored in electrode
Place, is released together when electric current is reversed.
Embodiment 48
Fig. 3-10 show including electrode A (such as the present invention in electrochemistry region A) and electrode B (such as it is of the invention in
Electrochemistry region B), CH3OH and O2Contact and O are alternateed with electrode A2And CH3OH alternateed with electrode B contact and
The process chart that electro ultrafiltration participates in, electrochemical reaction implementation method disclosed in this invention are selectively chosen according to following
Course of work work.
In Fig. 3-10,3 be electrode A, and 4 be electrode B, and 6 be interpolar spacer.The principle and process and Fig. 3-8 that this figure illustrates
Shown in it is identical, only the reducing agent substance A in Fig. 3-8 is with CH3OH is representative, and oxidant species B is with O2To represent.Furthermore with
Principle shown in Fig. 3-8 is compared with engineering, the principle shown in Fig. 3-10 and in the process H2O takes part in electrochemistry as recycled material
Reaction process.The purpose of electro ultrafiltration is that control can come from external power supply, can come from electricity with electrochemical reaction, electro ultrafiltration is strengthened
Chemical potential in chemical reaction can be from the electric energy (for example, electric energy through capacitor or oscillating circuit) by storing process
Deng.Electro ultrafiltration consumes electric energy, but the electric energy consumed during electro ultrafiltration is not lost, and is stored at electrode,
It is released together when electric current is reversed.
Embodiment 49
Fig. 4-1 show including electrode A (such as the present invention in electrochemistry region A) and electrode B (such as it is of the invention in electricity
Chemical regions B), O2H is contacted with electrode A2With electrode A makes discontinuous contact and O2H is contacted with electrode B2With electrode B makes discontinuous contact and
And the process chart that electro ultrafiltration participates in, electrochemical reaction implementation method disclosed in this invention are selectively chosen under
State course of work work.
In Fig. 4-1,3 be electrode A, and 4 be electrode B, and 6 be interpolar spacer.In addition to reducing agent is with H2For represent, oxidant with
O2It is outer to represent, then in addition to H2Outside the influence of makes discontinuous contact, principle shown in Fig. 4-1 is identical as shown in Fig. 3-4 as process.It is mixed
The purpose for closing object and electrode makes discontinuous contact is to reduce duration existing for reducing agent and oxidant mixture, improves safety, controllable
Property and reliability.The purpose of electro ultrafiltration is that control can come from external power supply, can come from electrochemical reaction, electro ultrafiltration is strengthened
Chemical potential in electrochemical reaction can be from the electric energy by storing process (for example, the electricity through capacitor or oscillating circuit
Can) etc..Electro ultrafiltration consumes electric energy, but the electric energy consumed during electro ultrafiltration is not lost, and is stored in electrode
Place, is released together when electric current is reversed.
Embodiment 50
Fig. 4-2 show including electrode A (such as the present invention in electrochemistry region A) and electrode B (such as it is of the invention in electricity
Chemical regions B), O2H is contacted with electrode A2With electrode A makes discontinuous contact and O2With electrode B makes discontinuous contact H2Contacted with electrode B and
And the process chart that electro ultrafiltration participates in, electrochemical reaction implementation method disclosed in this invention are selectively chosen under
State course of work work.
In Fig. 4-2,3 be electrode A, and 4 be electrode B, and 6 be interpolar spacer.In addition to reducing agent is with H2For represent, oxidant with
O2It is outer to represent, then in addition to H2、O2Outside the influence of makes discontinuous contact, principle shown in Fig. 4-2 is identical as shown in Fig. 3-4 as process.
The purpose of mixture and electrode makes discontinuous contact is to reduce duration existing for reducing agent and oxidant mixture, improves safety, can
Control property and reliability.The purpose of electro ultrafiltration is that control can come from external power supply, can come with electrochemical reaction, electro ultrafiltration is strengthened
From the chemical potential in electrochemical reaction, the electric energy by storing process can be from (for example, the electricity through capacitor or oscillating circuit
Can) etc..Electro ultrafiltration consumes electric energy, but the electric energy consumed during electro ultrafiltration is not lost, and is stored in electrode
Place, is released together when electric current is reversed.
Electrochemical reaction implementation method disclosed in this invention is being embodied as the method for exchanging electric energy for chemical energy
When, it further can selectively select to make the reducing agent used in the electrochemical reaction implementation method and oxidant with institute
The form for stating the mixture of reducing agent and the oxidant exists, or with the mixing of the molar ratio of the reducing agent and the oxidant
The form of object exists, or to exist in the form of the mixture of the explosion limit reducing agent below and the oxidant, or with
The form of the mixture of the local explosion limit reducing agent below and the oxidant exists, or with explosion limit more than
The form of the mixture of the reducing agent and the oxidant exists, or with it is more than local explosion limit the reducing agent and institute
The form for stating the mixture of oxidant exists.
Electrochemical reaction implementation method disclosed in this invention is as the method for exchanging electric energy for chemical energy and without using mixed
The method for closing object in the specific implementation, further can be selected selectively used in the electrochemical reaction implementation method
Inert substance and/or dead band duration are inserted between reducing agent and oxidant.
Electrochemical reaction implementation method disclosed in this invention in the specific implementation, in output electric energy and/or absorbs electric energy
During, it is selectively chosen using electro ultrafiltration;And further can selectively select using capacitor, DC power supply,
AC power source, alternating source, inductor conductor, inductance coil, charged particle pump, phase converter, reversing switch circuit, rectification
Device, electric field, oscillating circuit, motor, reversible electric machine, the motor with additional rotation inertia or its two conjunction, its three conjunction,
Its four conjunction, its five conjunction, its six conjunction, its seven conjunction, its eight conjunction, its nine conjunction, its ten conjunction,
Its 11 conjunction, the conjunction of its ten binomial, its 13 conjunction, its 14 conjunction, its 15 conjunction.
Electrochemical reaction implementation method disclosed in this invention in the specific implementation, further can be selected selectively pair
The region for participating in electrochemical reaction applies electro ultrafiltration so that the substance for participating in electrochemical reaction be difficult to directly to carry out redox it is anti-
It answers.
Electrochemical reaction implementation method disclosed in this invention in the specific implementation, further can selectively select electricity
It is work normality that the export of son, which imports,.
Electrochemical reaction implementation method disclosed in this invention is including electrochemistry region and electric conductor in the specific implementation
Electrochemical reaction implementation method further can selectively select to make electronics in the electrochemistry region and the electric conductor
Between export import be work normality.
Electrochemical reaction implementation method disclosed in this invention is including electrochemistry region and region B in the specific implementation
Electrochemical reaction implementation method further can selectively select to make electronics the electrochemistry region and the region B it
Between export import be work normality.
Electrochemical reaction implementation method disclosed in this invention is including electrochemistry region A and electrification in the specific implementation
The electrochemical reaction implementation method of school district domain B further can selectively select to make electronics in the electrochemistry region A and institute
Stating the export between the B of electrochemistry region and importing is work normality.
As disposable embodiment, the aforementioned method containing the electrochemistry region of the present invention in the specific implementation,
It further can selectively select that the electrochemistry region is made to be set as three-diemsnional electrode.
As disposable embodiment, the present invention is aforementioned to contain the electrochemistry region A's and electrochemistry region B
Method in the specific implementation, further can selectively select to make the electrochemistry region A and/or electrochemistry region B
It is set as three-diemsnional electrode.
As disposable embodiment, all methods containing electric conductor and electrochemistry region of the present invention are alternative
Ground selection makes the electric conductor be set as electrode, and further can selectively select that the electric conductor is made to be set as three-diemsnional electrode.
As disposable embodiment, electrochemical reaction implementation method disclosed in this invention in the specific implementation,
It is selectively chosen using the electrochemistry region as an electrode, and using electric conductor as another electrode, and makes two electricity
Pole cooperating is to complete the conversion of chemical energy electric energy.It is also selectively chosen using an electrochemistry region as an electrode,
Using another electrochemistry region as another electrode, and make two electrode cooperatings to complete the conversion of chemical energy electric energy.
The electrochemical reaction implementation method disclosed in this invention is corresponding with alternating electromotive force and alternating current, i.e., electric
Chemical regions are corresponding with alternating electromotive force and alternating current.
In the present invention, from a certain region export electronic processes duration with to this region import electronic processes duration it
Than between 1/6 and 6, between 1/5 and 5, between 1/4 and 4, between 1/3 and 3, between 1/2.5 and 2.5,1/2
And between 2, between 1/1.5 and 1.5, between 1/1.3 and 1.3, between 1/1.2 and 1.2 or 1/1.1 and 1.1 it
Between, or it is equal with the duration of electronic processes is imported to this region from the duration of a certain region export electronic processes.
Electrochemical reaction implementation method disclosed in this invention in the specific implementation, further can be selected selectively with electricity
The electrochemical method (such as electrochemical method for synthesizing etc.) of chemical energy can be exchanged for or exchange the electrochemical method of electric energy for chemical energy
(such as fuel cell etc.), as electrochemical method for synthesizing in use, the different step that imports of the export of electronics is there may be defeated
Out electric energy and absorb electric energy the case where, but its summation be absorb electric energy, as exchanged for chemical energy electric energy method (such as
Fuel cell etc.) in use, the case where different step that the export of electronics imports may exist output electric energy and absorb electric energy, but
Be its summation be output electric energy.
The principle of the electrochemical reaction implementation method of the invention is described as follows:
Fig. 5-1 is the basic logic chart for exchanging electric energy for chemical energy.All are that with the process that chemical energy exchanges electric energy for
Electronics is exported from reducing agent, so that reducing agent is formed reducing agent cation, electronics is then imported into reducing agent cation and oxygen again
In the coexisting body of agent, and then realize that reducing agent cation, oxidant and electronics three react generation reducing agent and oxidant is anti-
The product that should be generated, the summation that the electronics export during this imports is to export the process of electric energy.Fig. 5-1 is using hydrogen as also
The diagram that the representative of former agent, the representative using oxygen as oxidant carry out this basic logic.
Fig. 5-2 is reducing agent oxidant electrochemical reaction controlled process figure.Reducing agent and oxidant at electrode (such as this
Electrochemistry region, electrochemistry region A, electrochemistry region B in invention) reaction that could occur, it can either export electric energy
Electrochemical reaction, still cannot export the reducing agent of electric energy and the direct oxidation reduction reaction of oxidant, essence is all also
Former agent, oxidant and electrode act on the indispensable reaction of three, and electrode is by electro ultrafiltration reality to the effect of chemical reaction
Existing.It means that can be controlled this kind of reaction by the electrical property (or electriferous state) for changing electrode.For example, such as
Fruit makes electrode have electronegativity, and (ability of i.e. affine electronics is reinforced, or the energy of the affine electronics electronically formed by export
Power), so that it may so that reducing agent is formed reducing agent cation process and occurs and can mistake with Accelerating reduction dosage form at reducing agent cation
Journey, if electrode is made to have electropositivity, (i.e. the ability of release electronics is reinforced, or the offer electronics electronically formed by importing
Ability), so that it may make oxidant react with reducing agent cation and can accelerated oxidation agent and reducing agent cation react
(in other words, make oxidant formed oxidant anion process occur and can accelerated oxidation dosage form at oxidant anion mistake
Journey).It is needed during electrode participates in the reducing agent of (such as catalyst participation) and oxidant directly carries out redox reaction
It wants electrode i.e. not positively charged and (does not have electropositivity without negative electricity and also do not have electronegativity, not just by the electricity of itself of electro ultrafiltration
Property or electronegativity are within the rule, in other words, the electronegativity of electrode and electropositivity are needed not to be changed), otherwise redox
Reaction can not be carried out directly.This means that as long as the electrical property that we change electrode (changes its electropositivity, electronegativity, changes it
Charging property), so that it may it avoids or weakens reducing agent and oxidant and directly carry out redox reaction heat release and lose output electric energy
Process, the safety of chemical energy electric energy conversion process and controllable is carried out with the mixture for realizing using reducing agent and oxidant
Property, it also may be implemented to probabilistic control caused by the mixed process being difficult to avoid that in reducing agent and oxidant handoff procedure
System.Representative of the Fig. 5-2 using hydrogen as reducing agent, using oxygen as the representative of oxidant, using D as electrode (such as in the present invention
Electrochemistry region, electrochemistry region A, electrochemistry region B) representative, for by electrode implement electro ultrafiltration change its electrical property
And then the process for controlling chemical reaction is shown, and in figure, D+Indicate the electrode (ability of i.e. affine electronics with electronegativity
The electrode being reinforced, i.e., because electronics is exported the electrode that its electron affinity energy power is reinforced), D—Indicate that there is electropositive electrode
(i.e. the electrode that the ability of release electronics is reinforced, i.e., because electronics is imported into the electrode that its ability for discharging electronics is reinforced).
Attached drawing of the invention is only a kind of signal, and any technical solution for meeting the application literature record belongs to the application
Protection scope.
It is clear that the invention is not restricted to above embodiments, according to techniques known and technology disclosed in this invention
Scheme, can derive or associate many variant schemes out, and all these variant schemes also are regarded as being protection model of the invention
It encloses.
Claims (25)
1. a kind of electrochemical reaction implementation method, it is characterised in that: contact electrochemistry region alternately with reducing agent and oxidant
Or contact reducing agent and oxidant alternately with electrochemistry region, and then eliminate and remove from the electrochemistry region in the electrification
The necessity for two kinds of charged particles that school district domain generates, making the electrochemistry region, there are the export of electronics importings;
Or, electrochemistry region and reducing agent is made to contact with each other and make the electrochemistry region and the mutual makes discontinuous contact of oxidant, or
Electrochemistry region and oxidant is set to contact with each other and make the electrochemistry region and the mutual makes discontinuous contact of reducing agent;And then eliminate from
The electrochemistry region removes the necessity of the two kinds of charged particles generated in the electrochemistry region, makes the electrochemistry region
There are the export of electronics importings.
2. a kind of electrochemical reaction implementation method, it is characterised in that: contact electrochemistry region alternately with reducing agent and oxidant
Or contact reducing agent and oxidant alternately with electrochemistry region, and then eliminate and remove from the electrochemistry region in the electrification
The necessity for two kinds of charged particles that school district domain generates, the export for making the electrochemistry region and region B there is electronics import;
Or, electrochemistry region and reducing agent is made to contact with each other and make the electrochemistry region and the mutual makes discontinuous contact of oxidant, or
Make electrochemistry region and oxidant contact with each other and makes the electrochemistry region and the mutual makes discontinuous contact of reducing agent, so elimination from
The electrochemistry region removes the necessity of the two kinds of charged particles generated in the electrochemistry region, makes the electrochemistry region
There is the export importing of electronics with region B;
Or, electrochemistry region is made alternately to contact or make reducing agent and oxidant to replace with electrochemistry region with reducing agent and oxidant
Contact, and then the necessity that the two kinds of charged particles generated in the electrochemistry region are removed from the electrochemistry region is eliminated,
The export for making the electrochemistry region and region B there is electronics imports, and the electrochemistry region is corresponding with the region B to be set
It sets;
Or, electrochemistry region and reducing agent is made to contact with each other and make the electrochemistry region and the mutual makes discontinuous contact of oxidant, or
Make electrochemistry region and oxidant contact with each other and makes the electrochemistry region and the mutual makes discontinuous contact of reducing agent, so elimination from
The electrochemistry region removes the necessity of the two kinds of charged particles generated in the electrochemistry region, makes the electrochemistry region
There is the export importing of electronics with region B, the electrochemistry region is correspondingly arranged with the region B;
Or, electrochemistry region is made alternately to contact or make reducing agent and oxidant to replace with electrochemistry region with reducing agent and oxidant
Contact, and then the necessity that the two kinds of charged particles generated in the electrochemistry region are removed from the electrochemistry region is eliminated,
Make the electrochemistry region and region B exist electronics export import, the electrochemistry region through insulation, isolation space,
At least one in electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electronic conduction area
Kind has non-electronic conducting electrical relation with the region B;
Or, electrochemistry region and reducing agent is made to contact with each other and make the electrochemistry region and the mutual makes discontinuous contact of oxidant, or
Make electrochemistry region and oxidant contact with each other and makes the electrochemistry region and the mutual makes discontinuous contact of reducing agent, so elimination from
The electrochemistry region removes the necessity of the two kinds of charged particles generated in the electrochemistry region, makes the electrochemistry region
There is the export importing of electronics with region B, the electrochemistry region is through insulation, isolation space, electrolyte, dielectric, electricity
At least one of appearance, plasma, ionic liquid, ionized gas, solion and electronic conduction area have with the region B
Non-electronic conducting electrical relation.
3. a kind of electrochemical reaction implementation method, it is characterised in that: contact electrochemistry region A alternately with reducing agent and oxidant
Or contact reducing agent and oxidant alternately with electrochemistry region A, make electrochemistry region B and the oxidant and the reducing agent
Alternating contacts or contacts Oxidizing and Reducing Agents alternately with electrochemistry region B, and then eliminates and remove from the electrochemistry region A
The electrochemistry region A generate two kinds of charged particles necessity and eliminate from the electrochemistry region B remove described
The necessity for two kinds of charged particles that electrochemistry region B is generated, deposits the electrochemistry region A and the electrochemistry region B
It is imported in the export of electronics;
Or, make electrochemistry region A and reducing agent contact with each other and make the electrochemistry region A and the mutual makes discontinuous contact of oxidant and
And electrochemistry region B and reducing agent is set to contact with each other and make the electrochemistry region B and the mutual makes discontinuous contact of oxidant, or make electricity
Chemical regions A and oxidant contact with each other and make the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electrochemistry
Region B and oxidant contact with each other and make the electrochemistry region B and the mutual makes discontinuous contact of reducing agent, or make electrochemistry region A
It contacts with each other with oxidant and makes the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electrochemistry region B and go back
Former agent contacts with each other and makes the electrochemistry region B and the mutual makes discontinuous contact of oxidant, and then eliminates from the electrochemistry region A
It removes the necessity in the electrochemistry region A two kinds of charged particles generated and eliminates from the electrochemistry region B and remove
The necessity for two kinds of charged particles that the electrochemistry region B is generated, makes the electrochemistry region A and the electrochemistry region B
The export that there is electronics imports;
Or, electrochemistry region A is made alternately to contact or make reducing agent and oxidant and electrochemistry region A to hand over reducing agent and oxidant
For contact, electrochemistry region B is made alternately to contact or make Oxidizing and Reducing Agents and electrification with the oxidant and the reducing agent
School district domain B is alternately contacted, and then is eliminated from the electrochemistry region A and removed the two kinds of electrifications generated in the electrochemistry region A
The necessity of particle and eliminating is removed from the electrochemistry region B in the electrochemistry region B two kinds of charged particles generated
Necessity, the export for making the electrochemistry region A and the electrochemistry region B there is electronics import, the electrochemistry region A
It is correspondingly arranged with the electrochemistry region B;
Or, make electrochemistry region A and reducing agent contact with each other and make the electrochemistry region A and the mutual makes discontinuous contact of oxidant and
And electrochemistry region B and reducing agent is set to contact with each other and make the electrochemistry region B and the mutual makes discontinuous contact of oxidant, or make electricity
Chemical regions A and oxidant contact with each other and make the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electrochemistry
Region B and oxidant contact with each other and make the electrochemistry region B and the mutual makes discontinuous contact of reducing agent, or make electrochemistry region A
It contacts with each other with oxidant and makes the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electrochemistry region B and go back
Former agent contacts with each other and makes the electrochemistry region B and the mutual makes discontinuous contact of oxidant, and then eliminates from the electrochemistry region A
It removes the necessity in the electrochemistry region A two kinds of charged particles generated and eliminates from the electrochemistry region B and remove
The necessity for two kinds of charged particles that the electrochemistry region B is generated, makes the electrochemistry region A and the electrochemistry region B
The export that there is electronics imports, and the electrochemistry region A is correspondingly arranged with the electrochemistry region B;
Or, electrochemistry region A is made alternately to contact or make reducing agent and oxidant and electrochemistry region A to hand over reducing agent and oxidant
For contact, electrochemistry region B is made alternately to contact or make Oxidizing and Reducing Agents and electrification with the oxidant and the reducing agent
School district domain B is alternately contacted, and then is eliminated from the electrochemistry region A and removed the two kinds of electrifications generated in the electrochemistry region A
The necessity of particle and eliminating is removed from the electrochemistry region B in the electrochemistry region B two kinds of charged particles generated
Necessity, the export for making the electrochemistry region A and the electrochemistry region B there is electronics import, the electrochemistry region A
Through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electricity
At least one of son conducting area has non-electronic conducting electrical relation with the electrochemistry region B;
Or, make electrochemistry region A and reducing agent contact with each other and make the electrochemistry region A and the mutual makes discontinuous contact of oxidant and
And electrochemistry region B and reducing agent is set to contact with each other and make the electrochemistry region B and the mutual makes discontinuous contact of oxidant, or make electricity
Chemical regions A and oxidant contact with each other and make the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electrochemistry
Region B and oxidant contact with each other and make the electrochemistry region B and the mutual makes discontinuous contact of reducing agent, or make electrochemistry region A
It contacts with each other with oxidant and makes the electrochemistry region A and the mutual makes discontinuous contact of reducing agent and make electrochemistry region B and go back
Former agent contacts with each other and makes the electrochemistry region B and the mutual makes discontinuous contact of oxidant, and then eliminates from the electrochemistry region A
It removes the necessity in the electrochemistry region A two kinds of charged particles generated and eliminates from the electrochemistry region B and remove
The necessity for two kinds of charged particles that the electrochemistry region B is generated, makes the electrochemistry region A and the electrochemistry region B
Exist electronics export import, the electrochemistry region A through insulation, isolation space, electrolyte, dielectric, capacitor, etc. from
At least one of daughter, ionic liquid, ionized gas, solion and electronic conduction area have with the electrochemistry region B
Non-electronic conducting electrical relation.
4. a kind of electrochemical reaction implementation method, it is characterised in that: make the mixture in electrochemistry region Yu reducing agent and oxidant
It contacts or makes the mixture of reducing agent and oxidant to contact with electrochemistry region, and then eliminate and removed from the electrochemistry region
The necessity for two kinds of charged particles that the electrochemistry region generates, making the electrochemistry region, there are the export of electronics importings;
Or, making the mixture makes discontinuous contact of electrochemistry region and reducing agent and oxidant or making the mixture of reducing agent and oxidant
With electrochemistry region makes discontinuous contact, and then eliminates from the electrochemistry region and remove two kinds of bands generating in the electrochemistry region
The necessity of charged particle, making the electrochemistry region, there are the export of electronics importings.
5. a kind of electrochemical reaction implementation method, it is characterised in that: make the mixture in electrochemistry region Yu reducing agent and oxidant
It contacts or makes the mixture of reducing agent and oxidant to contact with electrochemistry region, and then eliminate and removed from the electrochemistry region
The necessity for two kinds of charged particles that the electrochemistry region generates, makes the electrochemistry region and region B there is electronics
Export imports;
Or, making the mixture makes discontinuous contact of electrochemistry region and reducing agent and oxidant or making the mixture of reducing agent and oxidant
With electrochemistry region makes discontinuous contact, and then eliminates from the electrochemistry region and remove two kinds of bands generating in the electrochemistry region
The necessity of charged particle, the export for making the electrochemistry region and region B there is electronics import;
Or, making electrochemistry region that the mixture of reducing agent and oxidant and electricity are contacted or made with the mixture of reducing agent and oxidant
Chemical regions contact, and then eliminate from the electrochemistry region and remove the two kinds of charged particles generated in the electrochemistry region
Necessity, the export for making the electrochemistry region and region B there is electronics import, the electrochemistry region and the region B
It is correspondingly arranged;
Or, making the mixture makes discontinuous contact of electrochemistry region and reducing agent and oxidant or making the mixture of reducing agent and oxidant
With electrochemistry region makes discontinuous contact, and then eliminates from the electrochemistry region and remove two kinds of bands generating in the electrochemistry region
The necessity of charged particle, the export for making the electrochemistry region and region B there is electronics import, the electrochemistry region and institute
Region B is stated to be correspondingly arranged;
Or, making electrochemistry region that the mixture of reducing agent and oxidant and electricity are contacted or made with the mixture of reducing agent and oxidant
Chemical regions contact, and then eliminate from the electrochemistry region and remove the two kinds of charged particles generated in the electrochemistry region
Necessity, make the electrochemistry region and region B exist electronics export import, the electrochemistry region through insulation, every
In exhausted space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electronic conduction area
It is at least one that there is non-electronic conducting electrical relation with the region B;
Or, making the mixture makes discontinuous contact of electrochemistry region and reducing agent and oxidant or making the mixture of reducing agent and oxidant
With electrochemistry region makes discontinuous contact, and then eliminates from the electrochemistry region and remove two kinds of bands generating in the electrochemistry region
The necessity of charged particle, make the electrochemistry region and region B exist electronics export import, the electrochemistry region pass through every
Insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electronics are led
At least one of logical area and the region B have non-electronic conducting electrical relation.
6. a kind of electrochemical reaction implementation method, it is characterised in that: make the mixture of electrochemistry region A Yu reducing agent and oxidant
It contacts or makes the mixture of reducing agent and oxidant to contact with electrochemistry region A, make electrochemistry region B and reducing agent and oxidant
Mixture contact or contact the mixture of reducing agent and oxidant with electrochemistry region B, and then elimination is from the electrochemistry
Region A removes the necessity in the electrochemistry region A two kinds of charged particles generated and eliminates from the electrochemistry region B and moves
Out in the necessity of the electrochemistry region B two kinds of charged particles generated, make the electrochemistry region A and the electrochemical school district
The export that domain B has electronics imports;
Or, make electrochemistry region A contact or make with the mixture of reducing agent and oxidant the mixture of reducing agent and oxidant with
Electrochemistry region A contact, makes electrochemistry region B that reducing agent and oxidant are contacted or made with the mixture of reducing agent and oxidant
Mixture is contacted with electrochemistry region B, and then is eliminated to remove from the electrochemistry region A and be generated in the electrochemistry region A
It the necessity of two kinds of charged particles and eliminates from the electrochemistry region B and removes the two kinds of bands generated in the electrochemistry region B
The necessity of charged particle, the export for making the electrochemistry region A and the electrochemistry region B there is electronics import, the electricity
Chemical regions A is correspondingly arranged with the electrochemistry region B;
Or, make electrochemistry region A contact or make with the mixture of reducing agent and oxidant the mixture of reducing agent and oxidant with
Electrochemistry region A contact, makes electrochemistry region B that reducing agent and oxidant are contacted or made with the mixture of reducing agent and oxidant
Mixture is contacted with electrochemistry region B, and then is eliminated to remove from the electrochemistry region A and be generated in the electrochemistry region A
It the necessity of two kinds of charged particles and eliminates from the electrochemistry region B and removes the two kinds of bands generated in the electrochemistry region B
The necessity of charged particle, the export for making the electrochemistry region A and the electrochemistry region B there is electronics import, the electricity
Chemical regions A is through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, ion
At least one of solution and electronic conduction area have non-electronic conducting electrical relation with the electrochemistry region B;
Or, making the mixture makes discontinuous contact of electrochemistry region A and reducing agent and oxidant or making the mixing of reducing agent and oxidant
Object and electrochemistry region A makes discontinuous contact make the mixture makes discontinuous contact of electrochemistry region B and reducing agent and oxidant or make to restore
The mixture of agent and oxidant and electrochemistry region B makes discontinuous contact, and then eliminate and remove from the electrochemistry region A in the electricity
The necessity for two kinds of charged particles that chemical regions A is generated and eliminating is removed from the electrochemistry region B in the electrochemical school district
The necessity for two kinds of charged particles that domain B is generated, makes the electrochemistry region A and the electrochemistry region B there is electronics
Export imports;
Or, making the mixture makes discontinuous contact of electrochemistry region A and reducing agent and oxidant or making the mixing of reducing agent and oxidant
Object and electrochemistry region A makes discontinuous contact make the mixture makes discontinuous contact of electrochemistry region B and reducing agent and oxidant or make to restore
The mixture of agent and oxidant and electrochemistry region B makes discontinuous contact, and then eliminate and remove from the electrochemistry region A in the electricity
The necessity for two kinds of charged particles that chemical regions A is generated and eliminating is removed from the electrochemistry region B in the electrochemical school district
The necessity for two kinds of charged particles that domain B is generated, makes the electrochemistry region A and the electrochemistry region B there is electronics
Export imports, and the electrochemistry region A is correspondingly arranged with the electrochemistry region B;
Or, making the mixture makes discontinuous contact of electrochemistry region A and reducing agent and oxidant or making the mixing of reducing agent and oxidant
Object and electrochemistry region A makes discontinuous contact make the mixture makes discontinuous contact of electrochemistry region B and reducing agent and oxidant or make to restore
The mixture of agent and oxidant and electrochemistry region B makes discontinuous contact, and then eliminate and remove from the electrochemistry region A in the electricity
The necessity for two kinds of charged particles that chemical regions A is generated and eliminating is removed from the electrochemistry region B in the electrochemical school district
The necessity for two kinds of charged particles that domain B is generated, makes the electrochemistry region A and the electrochemistry region B there is electronics
Export imports, and the electrochemistry region A is through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid
At least one of body, ionized gas, solion and electronic conduction area have non-electronic electric conduction with the electrochemistry region B
Relationship.
7. a kind of electrochemical reaction implementation method, it is characterised in that: be stored in the X class charged particle generated in electrochemistry region
The electrochemistry region, it is defeated from the export in electrochemistry region importing realization by the electronics generated in the electrochemistry region
Electric energy and/or absorption electric energy out;
Or, the X class charged particle generated in electrochemistry region is made to be stored in the electrochemistry region, pass through the electrochemistry region
Electronics from the export in the electrochemistry region import realize output electric energy and/or absorb electric energy.
8. a kind of electrochemical reaction implementation method, it is characterised in that: be stored in the X class charged particle generated in electrochemistry region
The electrochemistry region is imported by export of the electronics in the electrochemistry region between the electrochemistry region and region B
It realizes output electric energy and/or absorbs electric energy;
Or, the X class charged particle generated in electrochemistry region is made to be stored in the electrochemistry region, pass through the electrochemistry region
Export of the electronics between the electrochemistry region and region B import and realize output electric energy and/or absorb electric energy, the electrification
School district domain and the region B are correspondingly arranged;
Or, the X class charged particle generated in electrochemistry region is made to be stored in the electrochemistry region, pass through the electrochemistry region
Export of the electronics between the electrochemistry region and region B import and realize output electric energy and/or absorb electric energy, the electrification
School district domain is molten through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, ion
At least one of liquid and electronic conduction area have non-electronic conducting electrical relation with the region B;
Or, making the X class charged particle generated in electrochemistry region be stored in the electrochemistry region, by the electrochemical school district
Export of the electronics that domain generates between the electrochemistry region and region B, which imports, realizes output electric energy and/or absorption electric energy;
Or, making the X class charged particle generated in electrochemistry region be stored in the electrochemistry region, by the electrochemical school district
Export of the electronics that domain generates between the electrochemistry region and region B, which imports, realizes output electric energy and/or absorption electric energy, institute
It states electrochemistry region and the region B is correspondingly arranged;
Or, making the X class charged particle generated in electrochemistry region be stored in the electrochemistry region, by the electrochemical school district
Export of the electronics that domain generates between the electrochemistry region and region B, which imports, realizes output electric energy and/or absorption electric energy, institute
State electrochemistry region through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas,
At least one of solion and electronic conduction area have non-electronic conducting electrical relation with the region B.
9. a kind of electrochemical reaction implementation method, it is characterised in that: make the X class charged particle storage generated in electrochemistry region A
In the electrochemistry region A, so that the X class charged particle generated in electrochemistry region B is stored in the electrochemistry region B, pass through
The export of electronics, which imports, between the electrochemistry region A and the electrochemistry region B realizes output electric energy and/or absorption electric energy;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The X class charged particle of generation is stored in the electrochemistry region B, by the electrochemistry region A and electrochemistry region B it
Between the export of electronics import and realize output electric energy and/or absorb electric energy, the electrochemistry region A and B pairs of the electrochemistry region
It should be arranged;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The X class charged particle of generation is stored in the electrochemistry region B, by the electrochemistry region A and electrochemistry region B it
Between electronics export import realize output electric energy and/or absorb electric energy, the electrochemistry region A through insulation, isolation space, electricity
At least one of Xie Zhi, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electronic conduction area
There is non-electronic conducting electrical relation with the electrochemistry region B;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The X class charged particle of generation is stored in the electrochemistry region B, the electronics by generating in the electrochemistry region A and in institute
It is defeated to state export importing realization of the electronics of electrochemistry region B generation between the electrochemistry region A and the electrochemistry region B
Electric energy and/or absorption electric energy out;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The X class charged particle of generation is stored in the electrochemistry region B, the electronics by generating in the electrochemistry region A and in institute
It is defeated to state export importing realization of the electronics of electrochemistry region B generation between the electrochemistry region A and the electrochemistry region B
Electric energy and/or absorption electric energy out, the electrochemistry region A and the electrochemistry region B are correspondingly arranged;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The X class charged particle of generation is stored in the electrochemistry region B, the electronics by generating in the electrochemistry region A and in institute
It is defeated to state export importing realization of the electronics of electrochemistry region B generation between the electrochemistry region A and the electrochemistry region B
Out electric energy and/or absorb electric energy, the electrochemistry region A through insulation, isolation space, electrolyte, dielectric, capacitor, etc. from
At least one of daughter, ionic liquid, ionized gas, solion and electronic conduction area have with the electrochemistry region B
Non-electronic conducting electrical relation.
10. a kind of electrochemical reaction implementation method, it is characterised in that: make the X class charged particle storage generated in electrochemistry region A
In the electrochemistry region A, so that the Z class charged particle generated in electrochemistry region B is stored in the electrochemistry region B, make
The Z class charged particle that electrochemistry region A is generated is stored in the electrochemistry region A, makes the X class band generated in electrochemistry region B
Charged particle is stored in the electrochemistry region B, is led by electronics between the electrochemistry region A and the electrochemistry region B
It imports out and realizes output electric energy and/or absorption electric energy;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The Z class charged particle of generation is stored in the electrochemistry region B, is stored in the Z class charged particle generated in electrochemistry region A
The electrochemistry region A makes the X class charged particle generated in electrochemistry region B be stored in the electrochemistry region B, passes through institute
The export for stating electronics between electrochemistry region A and the electrochemistry region B, which imports, realizes output electric energy and/or absorption electric energy, institute
The electrochemistry region A and electrochemistry region B is stated to be correspondingly arranged;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The Z class charged particle of generation is stored in the electrochemistry region B, is stored in the Z class charged particle generated in electrochemistry region A
The electrochemistry region A makes the X class charged particle generated in electrochemistry region B be stored in the electrochemistry region B, passes through institute
The export for stating electronics between electrochemistry region A and the electrochemistry region B, which imports, realizes output electric energy and/or absorption electric energy, institute
State electrochemistry region A through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas,
At least one of solion and electronic conduction area have non-electronic conducting electrical relation with the electrochemistry region B;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The Z class charged particle of generation is stored in the electrochemistry region B, is stored in the Z class charged particle generated in electrochemistry region A
The electrochemistry region A, make electrochemistry region B generate X class charged particle be stored in the electrochemistry region B, by
Electronics that the electrochemistry region A is generated and the electronics generated in the electrochemistry region B are in the electrochemistry region A and described
Export between the B of electrochemistry region, which imports, realizes output electric energy and/or absorption electric energy;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The Z class charged particle of generation is stored in the electrochemistry region B, is stored in the Z class charged particle generated in electrochemistry region A
The electrochemistry region A, make electrochemistry region B generate X class charged particle be stored in the electrochemistry region B, by
Electronics that the electrochemistry region A is generated and the electronics generated in the electrochemistry region B are in the electrochemistry region A and described
Export between the B of electrochemistry region, which imports, realizes output electric energy and/or absorption electric energy, the electrochemistry region A and the electrification
School district domain B is correspondingly arranged;
Or, the X class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The Z class charged particle of generation is stored in the electrochemistry region B, is stored in the Z class charged particle generated in electrochemistry region A
The electrochemistry region A, make electrochemistry region B generate X class charged particle be stored in the electrochemistry region B, by
Electronics that the electrochemistry region A is generated and the electronics generated in the electrochemistry region B are in the electrochemistry region A and described
Export between the B of electrochemistry region, which imports, to be realized output electric energy and/or absorbs electric energy, the electrochemistry region A through insulation, every
In exhausted space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electronic conduction area
It is at least one that there is non-electronic conducting electrical relation with the electrochemistry region B.
11. a kind of electrochemical reaction implementation method, it is characterised in that: make the U class charged particle storage generated in electrochemistry region A
In the electrochemistry region A, so that the W class charged particle generated in electrochemistry region B is stored in the electrochemistry region B, make
The W class charged particle that electrochemistry region A is generated is stored in the electrochemistry region A, makes the U class band generated in electrochemistry region B
Charged particle is stored in the electrochemistry region B, is led by electronics between the electrochemistry region A and the electrochemistry region B
It imports out and realizes output electric energy and/or absorption electric energy;
Or, the U class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The W class charged particle of generation is stored in the electrochemistry region B, is stored in the W class charged particle generated in electrochemistry region A
The electrochemistry region A makes the U class charged particle generated in electrochemistry region B be stored in the electrochemistry region B, passes through institute
The export for stating electronics between electrochemistry region A and the electrochemistry region B, which imports, realizes output electric energy and/or absorption electric energy, institute
The electrochemistry region A and electrochemistry region B is stated to be correspondingly arranged;
Or, the U class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The W class charged particle of generation is stored in the electrochemistry region B, is stored in the W class charged particle generated in electrochemistry region A
The electrochemistry region A makes the U class charged particle generated in electrochemistry region B be stored in the electrochemistry region B, passes through institute
The export for stating electronics between electrochemistry region A and the electrochemistry region B, which imports, realizes output electric energy and/or absorption electric energy, institute
State electrochemistry region A through insulation, isolation space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas,
At least one of solion and electronic conduction area have non-electronic conducting electrical relation with the electrochemistry region B;
Or, the U class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The W class charged particle of generation is stored in the electrochemistry region B, is stored in the W class charged particle generated in electrochemistry region A
The electrochemistry region A, make electrochemistry region B generate U class charged particle be stored in the electrochemistry region B, by
Electronics that the electrochemistry region A is generated and the electronics generated in the electrochemistry region B are in the electrochemistry region A and described
Export between the B of electrochemistry region, which imports, realizes output electric energy and/or absorption electric energy;
Or, the U class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The W class charged particle of generation is stored in the electrochemistry region B, is stored in the W class charged particle generated in electrochemistry region A
The electrochemistry region A, make electrochemistry region B generate U class charged particle be stored in the electrochemistry region B, by
Electronics that the electrochemistry region A is generated and the electronics generated in the electrochemistry region B are in the electrochemistry region A and described
Export between the B of electrochemistry region, which imports, realizes output electric energy and/or absorption electric energy, the electrochemistry region A and the electrification
School district domain B is correspondingly arranged;
Or, the U class charged particle generated in electrochemistry region A is made to be stored in the electrochemistry region A, make in electrochemistry region B
The W class charged particle of generation is stored in the electrochemistry region B, is stored in the W class charged particle generated in electrochemistry region A
The electrochemistry region A, make electrochemistry region B generate U class charged particle be stored in the electrochemistry region B, by
Electronics that the electrochemistry region A is generated and the electronics generated in the electrochemistry region B are in the electrochemistry region A and described
Export between the B of electrochemistry region, which imports, to be realized output electric energy and/or absorbs electric energy, the electrochemistry region A through insulation, every
In exhausted space, electrolyte, dielectric, capacitor, plasma, ionic liquid, ionized gas, solion and electronic conduction area
It is at least one that there is non-electronic conducting electrical relation with the electrochemistry region B.
12. the electrochemical reaction implementation method as described in any one of claim 7 to 11, it is characterised in that: by the electrochemistry
Reaction implementation method is as the method for exchanging electric energy for chemical energy, the reducing agent used in the electrochemical reaction implementation method
With oxidant to exist in the form of the mixture of the reducing agent and the oxidant, or with the reducing agent and the oxidant
The form of molar mixture exist, or with the shape of the explosion limit reducing agent below and the mixture of the oxidant
Formula exists, or to exist in the form of the mixture of the local explosion limit reducing agent below and the oxidant, or with quick-fried
The form of the mixture of more than the fried limit reducing agent and the oxidant exists, or with institute more than local explosion limit
The form for stating the mixture of reducing agent and the oxidant exists.
13. the electrochemical reaction implementation method as described in any one of claims 1 to 3 and 7 to 11, it is characterised in that: will be described
Electrochemical reaction implementation method is as the method for exchanging electric energy for chemical energy, used in the electrochemical reaction implementation method
Inert substance and/or dead band duration are inserted between reducing agent and oxidant.
14. the electrochemical reaction implementation method as described in any one of claims 1 to 11, it is characterised in that: output electric energy and/
Or during absorbing electric energy, use electro ultrafiltration;Or, during exporting electric energy and/or absorbing electric energy, using capacitor, directly
Galvanic electricity source, AC power source, alternating source, inductor conductor, inductance coil, charged particle pump, phase converter, reversing switch electricity
Road, rectifier, electric field, oscillating circuit, motor, reversible electric machine, the motor with additional rotation inertia or its two conjunction, thirdly
The conjunction of item, its four conjunction, its five conjunction, its six conjunction, its seven conjunction, its eight conjunction, its nine conjunction, its ten
The conjunction of item, its 11 conjunction, the conjunction of its ten binomial, its 13 conjunction, its 14 conjunction, its 15 conjunction.
15. electrochemical reaction implementation method as claimed in claim 12, it is characterised in that: in output electric energy and/or absorb electric energy
During, use electro ultrafiltration;Or, using capacitor, DC power supply, exchange during exporting electric energy and/or absorbing electric energy
Power supply, alternating source, inductor conductor, inductance coil, charged particle pump, phase converter, reversing switch circuit, rectifier, electricity
Field, oscillating circuit, motor, reversible electric machine, the motor with additional rotation inertia or its two conjunction, its three conjunction, its four
The conjunction of item, its five conjunction, its six conjunction, its seven conjunction, its eight conjunction, its nine conjunction, its ten conjunction, its ten
One conjunction, the conjunction of its ten binomial, its 13 conjunction, its 14 conjunction, its 15 conjunction.
16. electrochemical reaction implementation method as claimed in claim 13, it is characterised in that: in output electric energy and/or absorb electric energy
During, use electro ultrafiltration;Or, using capacitor, DC power supply, exchange during exporting electric energy and/or absorbing electric energy
Power supply, alternating source, inductor conductor, inductance coil, charged particle pump, phase converter, reversing switch circuit, rectifier, electricity
Field, oscillating circuit, motor, reversible electric machine, the motor with additional rotation inertia or its two conjunction, its three conjunction, its four
The conjunction of item, its five conjunction, its six conjunction, its seven conjunction, its eight conjunction, its nine conjunction, its ten conjunction, its ten
One conjunction, the conjunction of its ten binomial, its 13 conjunction, its 14 conjunction, its 15 conjunction.
17. the electrochemical reaction implementation method as described in any one of claim 1 to 11 and 15 and 16, it is characterised in that: to ginseng
Apply electro ultrafiltration with the region of electrochemical reaction so that the substance for participating in electrochemical reaction be difficult to directly to carry out redox it is anti-
It answers.
18. electrochemical reaction implementation method as claimed in claim 12, it is characterised in that: applied to the region for participating in electrochemical reaction
Power-up effect, so that the substance for participating in electrochemical reaction is difficult to directly carry out redox reaction.
19. electrochemical reaction implementation method as claimed in claim 13, it is characterised in that: applied to the region for participating in electrochemical reaction
Power-up effect, so that the substance for participating in electrochemical reaction is difficult to directly carry out redox reaction.
20. electrochemical reaction implementation method as claimed in claim 14, it is characterised in that: applied to the region for participating in electrochemical reaction
Power-up effect, so that the substance for participating in electrochemical reaction is difficult to directly carry out redox reaction.
21. the electrochemical reaction implementation method as described in any one of claim 1 to 11 and 15 and 16 and 18 to 20, feature exist
In: it is work normality that the export of electronics, which imports,.
22. electrochemical reaction implementation method as claimed in claim 12, it is characterised in that: it is that work is normal that the export of electronics, which imports,
State.
23. electrochemical reaction implementation method as claimed in claim 13, it is characterised in that: it is that work is normal that the export of electronics, which imports,
State.
24. electrochemical reaction implementation method as claimed in claim 14, it is characterised in that: it is that work is normal that the export of electronics, which imports,
State.
25. electrochemical reaction implementation method as claimed in claim 17, it is characterised in that: it is that work is normal that the export of electronics, which imports,
State.
Applications Claiming Priority (48)
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| CN201910107802.5A Pending CN109786801A (en) | 2018-08-26 | 2019-02-02 | A kind of chemical energy electric energy conversion method |
| CN201910107834.5A Pending CN109802201A (en) | 2018-08-26 | 2019-02-02 | A kind of chemical energy electric energy conversion method |
| CN201910107790.6A Pending CN109860960A (en) | 2018-08-26 | 2019-02-02 | A kind of electrochemical reaction implementation method |
| CN201910107833.0A Pending CN109786793A (en) | 2018-08-26 | 2019-02-02 | A kind of chemical energy electric energy conversion method |
| CN201910107845.3A Pending CN109860680A (en) | 2018-08-26 | 2019-02-02 | A kind of chemical energy electric energy conversion method |
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| CN201910107802.5A Pending CN109786801A (en) | 2018-08-26 | 2019-02-02 | A kind of chemical energy electric energy conversion method |
| CN201910107834.5A Pending CN109802201A (en) | 2018-08-26 | 2019-02-02 | A kind of chemical energy electric energy conversion method |
| CN201910107790.6A Pending CN109860960A (en) | 2018-08-26 | 2019-02-02 | A kind of electrochemical reaction implementation method |
| CN201910107833.0A Pending CN109786793A (en) | 2018-08-26 | 2019-02-02 | A kind of chemical energy electric energy conversion method |
| CN201910107845.3A Pending CN109860680A (en) | 2018-08-26 | 2019-02-02 | A kind of chemical energy electric energy conversion method |
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| RU2361329C2 (en) * | 2004-05-19 | 2009-07-10 | Сри Интернэшнл | Electrochemical cell with liquid anode |
| KR20130025744A (en) * | 2011-09-02 | 2013-03-12 | (주)케이앤씨엘이디 | Sheet for manufacturing light guide plate |
| WO2013116853A1 (en) * | 2012-02-03 | 2013-08-08 | University Of Washington Through Its Center For Commercialization | Methods and devices for generating electricity from a fuel and an oxidant using a capacitor |
| US9528192B1 (en) * | 2013-01-16 | 2016-12-27 | The United States Of America As Represented By The Administrator Of The National Aeronautics And Space Administration | Solar powered CO2 conversion |
| CN105594016A (en) * | 2013-07-31 | 2016-05-18 | 奥克海德莱克斯控股有限公司 | Composite three-dimensional electrode and manufacturing method |
| DE102014002451A1 (en) * | 2014-02-25 | 2015-08-27 | Forschungszentrum Jülich GmbH | Electro-chemical energy storage and method for operating the same |
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| CN109786801A (en) | 2019-05-21 |
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| CN109802201A (en) | 2019-05-24 |
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