JPS6029480A - Novel electrolysis method - Google Patents
Novel electrolysis methodInfo
- Publication number
- JPS6029480A JPS6029480A JP13732583A JP13732583A JPS6029480A JP S6029480 A JPS6029480 A JP S6029480A JP 13732583 A JP13732583 A JP 13732583A JP 13732583 A JP13732583 A JP 13732583A JP S6029480 A JPS6029480 A JP S6029480A
- Authority
- JP
- Japan
- Prior art keywords
- electrolyte
- electrodes
- electric field
- current
- outside
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Pending
Links
- 238000005868 electrolysis reaction Methods 0.000 title claims abstract description 14
- 230000005684 electric field Effects 0.000 claims abstract description 31
- 239000003792 electrolyte Substances 0.000 claims abstract description 25
- 239000008151 electrolyte solution Substances 0.000 claims description 7
- 239000012212 insulator Substances 0.000 abstract description 2
- 230000005012 migration Effects 0.000 abstract 1
- 238000013508 migration Methods 0.000 abstract 1
- 150000002500 ions Chemical class 0.000 description 8
- 210000004027 cell Anatomy 0.000 description 4
- 230000000903 blocking effect Effects 0.000 description 2
- XLYOFNOQVPJJNP-UHFFFAOYSA-N water Substances O XLYOFNOQVPJJNP-UHFFFAOYSA-N 0.000 description 2
- 241000282994 Cervidae Species 0.000 description 1
- 239000003989 dielectric material Substances 0.000 description 1
- 239000007788 liquid Substances 0.000 description 1
- 230000010287 polarization Effects 0.000 description 1
Landscapes
- Electrolytic Production Of Non-Metals, Compounds, Apparatuses Therefor (AREA)
Abstract
Description
【発明の詳細な説明】
この発明は、物体の帯電、分極の性質を利用して、電流
を直接外部から流しく以下、通電)入れる事を行なわず
に、電界のみ加えて、その効率を高める電気分解に関す
るものである。[Detailed Description of the Invention] This invention utilizes the charging and polarization properties of an object to increase its efficiency by applying only an electric field without directly passing a current from the outside (hereinafter referred to as energization). It concerns electrolysis.
従来の光電気分解による光電池と電気分解は、電極と電
解液に回路外からの電界が加えられていない為、イオン
の移動方向、速度に関し効率が悪いのである。Conventional photovoltaic cells and electrolysis using photoelectrolysis are inefficient in terms of the direction and speed of ion movement because no electric field is applied to the electrodes and electrolyte from outside the circuit.
この発明は上記の欠点をなくする為のもので、電解液を
はさんだ二つの電極に、更にその外側から電界を加える
と、電極間の電気回路は電気分解を防げる電流を流さな
い為、一つの電極内部で正負に帯電し、二つの電極の正
と負の帯電面にはさまれた電解液に電界を与える。これ
によりイオンの移動方向、速度の効率の向上を計るもの
である。This invention is intended to eliminate the above-mentioned drawbacks. When an electric field is applied from the outside to two electrodes sandwiching an electrolytic solution, the electric circuit between the electrodes does not allow current to flow to prevent electrolysis. The electrolyte is charged positively and negatively inside the two electrodes, and an electric field is applied to the electrolyte sandwiched between the positively and negatively charged surfaces of the two electrodes. This is intended to improve the efficiency of ion movement direction and speed.
例えば図面の簡単な説明すると、
(イ)(5)の左に正、右に負の電圧を加え外側からの
電界を作る。For example, to briefly explain the drawing, (a) Add a positive voltage to the left of (5) and a negative voltage to the right to create an electric field from the outside.
(ロ)(4)を通して(3)の左の電極の下面は負に、
電解液に接する上面は正に帯電する。(b) Through (4), the bottom surface of the left electrode in (3) becomes negative,
The top surface in contact with the electrolyte is positively charged.
0)(ロ)と同様に(3)の右の電極は下面が正に、電
解液に接する上面は負に帯電する。0) Similarly to (b), the lower surface of the right electrode in (3) is charged positively, and the upper surface in contact with the electrolyte is negatively charged.
に)帯電による電圧により、電解液は電界が力えられ、
光電気分解によるイオンは加速され、電極の左は負、右
は正で充電されるが、(5)の電圧を上げれば、電解液
に接する電極面の帯電は維持され、又、電界も維持され
る。) Due to the voltage caused by charging, an electric field is applied to the electrolyte,
Ions caused by photoelectrolysis are accelerated and charged negatively on the left side of the electrode and positively on the right side, but if the voltage in (5) is increased, the charge on the electrode surface in contact with the electrolyte is maintained, and the electric field is also maintained. be done.
((ホ)(5)の電圧を徐々に下げて、電界を弱めれば
、(3)の両電極に蓄えられた電荷は回路を通って、(
9)の負荷で消費される。((E) If the voltage in (5) is gradually lowered to weaken the electric field, the charges stored in both electrodes in (3) will pass through the circuit, (
9) is consumed by the load.
以上、通電を伴わない電界によってイオンの移動が容易
になり、光電気分解の効率向上ができる。As described above, the movement of ions is facilitated by an electric field without energization, and the efficiency of photoelectrolysis can be improved.
図面は、断電気分解法を具体化した光電池の一例で、第
1図は上から見た電気分解槽で、第2図はその斜視断面
図と電気回路である。
(1)は隔膜 (2)は電解質溶液(水)(3)は電気
分解電極 (4)は誘電体(5)は外部電界発生部 (
6)は絶縁体槽壁(7)は外部電界電源 (8)は負荷
(9)は充電電流阻止用整流器
(10)は光エネルギー(h L )
特許出願人 相 馬 光 男
手続補正書
昭和58年8月30日
1事件の表示
昭和58年特許願第137325号
2発明の名称
新電気分解法
3補正をする者
事件との関係 特、作出願人
郵便苓号 270−01
4補正の対象
明 細 書
1、発明の名称 新電気分解法
2、特許請求の範囲
1)電解質溶液(以下、電解液)に″)(L気分%”l
電極(以下、電極)の片側の面が接する様に、電解液を
中間に、相対して二つの電極を作り、電極の電解液に接
していない側の面を使って電つ¥液と電極に外部から電
界を加えられるわb造である。
2)電源を持たない電極間回路(寸、外部電界を加えた
場合に、電極間の充電電流のうち電気分解を妨げる方向
のものを阻止し、これと反対方向の電流は流せる回路で
ある。
5 発明の詳細な説明
この発明は、物体の帯電、分甑の性質を利用して、電流
を直接外部から流しく以下、通電)入れる事を行なわず
に、電界のみ加えて、その効・オ′を高める電気分解に
関するものである。
従来の光電気分解にょる光電地と電気分解は、電極と電
解液に回路外からの電界が加えられてぃない為、イオン
の移動方向、速度に関し効率が悪いのである。
この発明は上記の欠点をなくする為のもので、電解液を
はさんだ二つの電極に、更にその外側から電界を加える
と、電極間の電気回路は電気分解を妨げる電流を流さな
い為、一つの電極内部で正負に帯電し、二つの電極の正
と負の帯電面にはさまれた電解液に電界を与える。これ
によりイオンの移動方向、速度のシカ率の向上を計るも
のである。
例えば図面の簡単な説明すると、
(イ)(5)の左に正、右に負の電圧を加え外側からの
電界を作る。
(ロ)(4)を通して(3)の左の電極の下面は負に、
電解液に接する上面は正に帯電する。
(ハ)(ロ)と同様に(3)の右の電極は下面が正に、
電M 7(fに接する上面は負に帯電する。
(ニ) 帯電による電圧により、電解液は電界が力えら
れ、光電気分解によるイオンは加速され電極の左は負、
右は正で充にUされるが、(5)の電圧を上げれば、電
解液に接する電極面の帯電は維持され、又、電界も維持
される。
(ホ)(5)の電圧を徐々に下げて、電界を弱めれば、
(3)の両電極に蓄えられた電荷は回路を通って、(9
)の負荷で消費される。
以上、通電を伴わない電界によってイオンの移動が容易
になり、光電気分解の効率向上ができる、14、図面の
簡単な説明
図面は、新電気分解法を具体化した光電池の一例で、第
1図は上から見た電気分解槽で、第2図はその斜視断面
図と電気回路である。
(1)は隔り々 (2)は電解質溶液(水)(3)は電
気分解電極 (4)は誘電体(5)は外部電界発生部
C6)は絶縁体槽壁(7)は外部電界電源 (8)は負
荷
(9)は充電電流阻止用整流器
(10は光エネルギー(乃7/)
特許出願人 相 馬 光 男The drawings show an example of a photovoltaic cell embodying the interruption electrolysis method, with FIG. 1 showing an electrolytic cell seen from above, and FIG. 2 showing a perspective sectional view and an electric circuit. (1) is the diaphragm (2) is the electrolyte solution (water) (3) is the electrolysis electrode (4) is the dielectric (5) is the external electric field generator (
6) is an insulator tank wall (7) is an external electric field power source (8) is a load (9) is a rectifier for blocking charging current (10) is light energy (h L ) Patent applicant: Hikaru Soma Procedural Amendments 1982 August 30, 1988 Patent Application No. 137325 2. Name of the invention New electrolysis method 3. Person making the amendment Relationship with the case Patent, applicant Postal name: 270-01 4. Subject of the amendment Specification 1, Title of the invention New electrolysis method 2, Claims 1) Electrolyte solution (hereinafter referred to as electrolyte)
Make two electrodes facing each other with the electrolyte in the middle so that one side of the electrode (hereinafter referred to as electrode) is in contact with the other, and use the side of the electrode that is not in contact with the electrolyte to connect the electrode with the liquid. It is a wooden structure that allows an electric field to be applied from the outside. 2) An interelectrode circuit without a power source (this is a circuit that, when an external electric field is applied, blocks the charging current between the electrodes that would interfere with electrolysis, while allowing the current in the opposite direction to flow. 5 Detailed Description of the Invention This invention utilizes the charging and distributing properties of an object to apply an electric field only, without directly passing a current from the outside. ′ is related to electrolysis. Conventional photoelectrolysis and electrolysis are inefficient in terms of the direction and speed of ion movement because no electric field is applied to the electrodes and electrolyte from outside the circuit. This invention is aimed at eliminating the above-mentioned drawbacks. When an electric field is applied from the outside to two electrodes holding an electrolyte between them, the electric circuit between the electrodes does not flow any current that would interfere with electrolysis. The electrolyte is charged positively and negatively inside the two electrodes, and an electric field is applied to the electrolyte sandwiched between the positively and negatively charged surfaces of the two electrodes. This is intended to improve the deer rate in terms of the direction and speed of ion movement. For example, to briefly explain the drawing, (a) Add a positive voltage to the left of (5) and a negative voltage to the right to create an electric field from the outside. (b) Through (4), the bottom surface of the left electrode in (3) becomes negative,
The top surface in contact with the electrolyte is positively charged. (c) Similar to (b), the right electrode in (3) has a bottom surface facing directly,
The upper surface in contact with M7 (f is negatively charged. (d) Due to the voltage caused by charging, the electric field is strengthened in the electrolyte, the ions due to photoelectrolysis are accelerated, and the left side of the electrode becomes negatively charged.
The one on the right is positive and highly charged, but if the voltage in (5) is increased, the charge on the electrode surface in contact with the electrolyte is maintained, and the electric field is also maintained. (E) If the voltage in (5) is gradually lowered to weaken the electric field,
The electric charge stored in both electrodes of (3) passes through the circuit (9
) is consumed by the load. As mentioned above, the movement of ions is facilitated by an electric field without energization, and the efficiency of photoelectrolysis can be improved. The figure shows the electrolytic cell seen from above, and Figure 2 shows its perspective sectional view and electric circuit. (1) are spaced apart (2) are electrolyte solution (water) (3) are electrolytic electrodes (4) are dielectrics (5) are external electric field generators
C6) is an insulating tank wall (7) is an external electric field power source (8) is a load (9) is a rectifier for blocking charging current (10 is light energy (no 7/) Patent applicant: Mitsuo Soma
Claims (1)
、電極)の片側の面が接する様に、電解液を中間に、相
対して二つの電極を作り、電極の電解液に接していない
側の面を使って電解液と電極に外部から電界を加えられ
る構造である。 2)電源を持たない電極間回路は、外部電界を加えた場
合に、電極間の充電電流のうち電気分解を防げる方向の
ものを阻止し、これと反対方向の電流は流せる回路であ
る。[Claims] 1) Two electrodes are made facing each other with the electrolytic solution in the middle so that one side of the electrolytic electrode (hereinafter referred to as electrode) is in contact with the electrolyte solution (hereinafter referred to as electrolytic solution). This structure allows an external electric field to be applied to the electrolyte and electrode using the side that is not in contact with the electrolyte. 2) An interelectrode circuit without a power source is a circuit that blocks the charging current between the electrodes in the direction that prevents electrolysis when an external electric field is applied, but allows the current in the opposite direction to flow.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP13732583A JPS6029480A (en) | 1983-07-26 | 1983-07-26 | Novel electrolysis method |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP13732583A JPS6029480A (en) | 1983-07-26 | 1983-07-26 | Novel electrolysis method |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| JPS6029480A true JPS6029480A (en) | 1985-02-14 |
Family
ID=15196033
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| JP13732583A Pending JPS6029480A (en) | 1983-07-26 | 1983-07-26 | Novel electrolysis method |
Country Status (1)
| Country | Link |
|---|---|
| JP (1) | JPS6029480A (en) |
-
1983
- 1983-07-26 JP JP13732583A patent/JPS6029480A/en active Pending
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