JPS63197854A - Ice making cold storage machine - Google Patents
Ice making cold storage machineInfo
- Publication number
- JPS63197854A JPS63197854A JP2836187A JP2836187A JPS63197854A JP S63197854 A JPS63197854 A JP S63197854A JP 2836187 A JP2836187 A JP 2836187A JP 2836187 A JP2836187 A JP 2836187A JP S63197854 A JPS63197854 A JP S63197854A
- Authority
- JP
- Japan
- Prior art keywords
- heat exchanger
- ice
- refrigerant
- heat
- conduit
- 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
Landscapes
- Compression-Type Refrigeration Machines With Reversible Cycles (AREA)
Abstract
(57)【要約】本公報は電子出願前の出願データであるた
め要約のデータは記録されません。(57) [Summary] This bulletin contains application data before electronic filing, so abstract data is not recorded.
Description
【発明の詳細な説明】 〔産業上の利用分野〕 この発明は製氷蓄冷機に関するものである。[Detailed description of the invention] [Industrial application field] This invention relates to an ice-making regenerator.
物質の固相から液相に変わる時の潜熱を利用して蓄冷す
る直膨式の製氷蓄冷機が知られている。A direct expansion type ice making regenerator is known that stores cold by utilizing latent heat when a substance changes from a solid phase to a liquid phase.
このような蓄冷機の課題は、蓄熱効率の向上にある。The problem with such a regenerator is to improve heat storage efficiency.
第４図は従来の潜熱を利用した製氷蓄冷機の一例を示す
系統図、第５図は蓄冷器の拡大縦断面図である。第４図
および第５図に示すように、圧縮機２３によって加圧さ
れ高圧ガス状となった冷媒は、導管２４内を通シ、凝縮
器２５によって高圧の液状となり１次いで、レシーバ−
２６を介して膨張弁２７によシ低王の液状となる。低圧
液状の冷媒は、熱交換器としての蓄冷コイル２８により
蒸発して、蓄冷器２９内の液体蓄熱材としての水３０ｔ
−凍らせ、これによシ蓄冷を行う。FIG. 4 is a system diagram showing an example of a conventional ice making regenerator using latent heat, and FIG. 5 is an enlarged longitudinal sectional view of the regenerator. As shown in FIGS. 4 and 5, the refrigerant, which has been pressurized by the compressor 23 and becomes a high-pressure gas, passes through the conduit 24 and becomes a high-pressure liquid by the condenser 25.
26 and then enters the expansion valve 27 into a low liquid state. The low-pressure liquid refrigerant is evaporated by the cold storage coil 28 as a heat exchanger, and 30 tons of water as a liquid heat storage material in the cold storage 29 is evaporated.
- Freeze and store cold.
しかしながら、蓄熱が進むと、蓄冷コイル２８に点線で
示す氷３１が付着し熱伝４を妨げる定め。However, as heat storage progresses, ice 31 shown by dotted lines adheres to the cold storage coil 28 and impedes heat transfer 4.
蓄熱効率が低下する問題がある。There is a problem that heat storage efficiency decreases.
第６図は従来の潜熱を利用した製氷蓄冷機の他の例を示
す系統図である。第６図に示すように、圧縮機３２によ
って加圧され高圧ガス状となった冷媒は、導管３３内を
通って凝縮器３４によって高圧の液状となり１次いで、
膨張弁３５によシ低王の液状となる。低圧液状の冷媒は
、熱交換器としての蓄冷コイル３６によって蒸発する。FIG. 6 is a system diagram showing another example of a conventional ice making regenerator using latent heat. As shown in FIG. 6, the refrigerant, which has been pressurized by the compressor 32 and becomes a high-pressure gas, passes through the conduit 33 and becomes a high-pressure liquid by the condenser 34.
The expansion valve 35 turns the liquid into a low-temperature liquid. The low-pressure liquid refrigerant is evaporated by the cold storage coil 36 as a heat exchanger.
一方、蓄熱槽３７は上面が開いた開放型であり、その内
部に供給された蓄熱材としての水３８は。On the other hand, the heat storage tank 37 is an open type with an open top surface, and water 38 as a heat storage material is supplied inside the tank.
循環ポンプ３９により空調機４０を介して蓄冷コイル３
６の上方に配置されたスプレーノズル４１まで汲み上げ
られる。そして、汲み上げられた水はスプレーノズル４
１から蓄熱槽３７内および蓄冷コイル３６に向けて散布
され、蓄冷コイル３６内で蒸発した冷媒により蓄冷コイ
ル３６の表面で冷却されて結氷する。The cold storage coil 3 is connected to the cold storage coil 3 via the air conditioner 40 by the circulation pump 39.
The water is pumped up to the spray nozzle 41 located above the spray nozzle 6. Then, the pumped water is sent to spray nozzle 4.
The refrigerant is sprayed from 1 to the inside of the heat storage tank 37 and toward the cold storage coil 36, and is cooled and frozen on the surface of the cold storage coil 36 by the refrigerant that evaporates in the cold storage coil 36.
蓄熱が進むと蓄冷コイル３６の周囲に氷が付着するので
、これを融解するために、導管３３の途中に凝縮器３４
および膨張弁２５を冷媒が通過しない支管４２を設け、
一定時間ごとに電磁弁４３を切り替えて、圧縮機３２に
よシ圧縮された高温の高圧ガス状の冷媒を支管４２経由
で蓄冷コイル３６に送シ込む。As heat storage progresses, ice will adhere around the cold storage coil 36, so in order to melt it, a condenser 34 is installed in the middle of the conduit 33.
and a branch pipe 42 through which the refrigerant does not pass through the expansion valve 25,
The solenoid valve 43 is switched at regular intervals to send the high-temperature, high-pressure gaseous refrigerant compressed by the compressor 32 to the cold storage coil 36 via the branch pipe 42.
これにより、蓄冷コイル３６の周囲に付着した氷を融解
して蓄熱槽３７内に落下させる。４４は氷である。This melts the ice attached around the cold storage coil 36 and causes it to fall into the heat storage tank 37. 44 is ice.
上述のように、蓄冷コイル３６の周囲に付着した氷は、
一定時間ごとに取シ除かれ、蓄冷コイル３６の製氷能力
は良好に保たれるので、蓄冷コイル３６に氷が付着する
ことによる蓄冷機の機能低下を防止することができる。As mentioned above, ice attached around the cold storage coil 36 is
Since the cold storage coil 36 is removed at regular intervals and the ice making ability of the cold storage coil 36 is maintained at a good level, it is possible to prevent the functional deterioration of the cold storage machine due to ice adhering to the cold storage coil 36.
しかしながら、上述した従来の製氷蓄冷機は。 However, the conventional ice making regenerator mentioned above.
蓄冷コイル３６に付着した氷を融解した後、その融解し
た分量の水を再結氷するだめに余分なエネルギーを必要
とする結果、エネルギーの得失を総合的にみると、蓄熱
効率は低い。After melting the ice adhering to the cold storage coil 36, extra energy is required to refreeze the melted water, resulting in a low heat storage efficiency when looking at the benefits and losses of energy comprehensively.
氷を融解させるために高温のガス状の冷媒の代わりに電
熱器を用いた製氷蓄冷機があるが、やはシ余分なエネル
ギーを必要とする。There are ice storage machines that use electric heaters instead of high-temperature gaseous refrigerants to melt ice, but they require extra energy.
従って、この発明の目的は、蓄熱効率の大幅な向上をエ
ネルギーのロスなく実現することができる製氷蓄冷機を
提供することにある。Therefore, an object of the present invention is to provide an ice-making cold storage machine that can significantly improve heat storage efficiency without energy loss.
この発明は、圧縮機と、前記圧縮機に導管によって接続
された凝縮器と、前記圧縮機および前記凝縮器の各々に
導管によって接続された蓄熱用の液体を製氷するだめの
２つの熱交換器と、前記２つの熱交換器を互いに連結す
る導管の途中に並列に設けられた２つの膨張弁と、前記
圧縮機および前記凝縮器の各々と前記２つの熱交換器の
各々とを接続する導管の途中に設けられた。前記導管を
通る冷媒の流れを切り換えて前記２つの熱交換器を交互
に過冷却器または蒸発器として機能させるための切替え
弁とからなることに特徴を有するものである。This invention includes two heat exchangers: a compressor, a condenser connected to the compressor by a conduit, and a reservoir for making ice for a heat storage liquid connected to each of the compressor and the condenser by a conduit. and two expansion valves provided in parallel in the middle of a conduit connecting the two heat exchangers to each other, and a conduit connecting each of the compressor and the condenser to each of the two heat exchangers. It was set up in the middle of. The heat exchanger is characterized by comprising a switching valve for switching the flow of refrigerant through the conduit to cause the two heat exchangers to alternately function as a supercooler or an evaporator.
次にこの発明を図面を参照しながら説明する。Next, the present invention will be explained with reference to the drawings.
第１図はこの発明の一実施態様を示す系統図である。第
１図に示すように圧縮機ｌおよび凝縮器３を冷媒が循゛
環する導管２ａ、２ｂには、四方切替弁４が設けられて
いる。四方切替弁４には、圧縮機１および凝縮器３の各
々に、コイル状の第１熱交換器１９および第２熱交換器
２０の各々を接続するための導管２ｃ、２ｄが接続され
ている。FIG. 1 is a system diagram showing one embodiment of the present invention. As shown in FIG. 1, conduits 2a and 2b through which refrigerant circulates through the compressor 1 and condenser 3 are provided with a four-way switching valve 4. The four-way switching valve 4 is connected to conduits 2c and 2d for connecting the compressor 1 and the condenser 3 to the coiled first heat exchanger 19 and second heat exchanger 20, respectively. .
第１熱交換器１９と第２熱交換器２０とを互いに連結す
る導管２ｅの途中には、第１膨張弁６および第２膨張弁
９が並列に設けられている。圧縮機１と凝縮器３とは導
管２によυ接続されている。A first expansion valve 6 and a second expansion valve 9 are provided in parallel in the middle of a conduit 2e that connects the first heat exchanger 19 and the second heat exchanger 20 to each other. The compressor 1 and the condenser 3 are connected by a conduit 2.
第１熱交換器１９と第１膨張弁６との間には第１逆止弁
５が、第２熱交換器２０と第２膨張弁９との間には第２
逆止弁８が各々接続されている。A first check valve 5 is provided between the first heat exchanger 19 and the first expansion valve 6, and a second check valve 5 is provided between the second heat exchanger 20 and the second expansion valve 9.
A check valve 8 is connected to each.
第１逆止弁５は第２熱交換器２０から第１熱交換器１９
への冷媒の流れを、第２逆止弁８は第１熱交換器１９か
ら第２熱交換器２０への冷媒の流れを、各々制止する。The first check valve 5 connects the second heat exchanger 20 to the first heat exchanger 19.
The second check valve 8 restricts the flow of refrigerant from the first heat exchanger 19 to the second heat exchanger 20, respectively.
２１は第２膨張弁９の感温針。21 is a temperature-sensitive needle of the second expansion valve 9;
２２は第１膨張弁６の感温針である。22 is a temperature-sensitive needle of the first expansion valve 6.
第１熱交換器１９および第２熱交換器２０の下方には、
上部が開放された内部に蓄熱液としての水１２が供給さ
れる蓄熱槽１１が設置されている。Below the first heat exchanger 19 and the second heat exchanger 20,
A heat storage tank 11 to which water 12 as a heat storage liquid is supplied is installed inside with an open top.
第１熱交換器１９および第２熱交換器２０の上方には、
スプレーノズル１６が設置されている。Above the first heat exchanger 19 and the second heat exchanger 20,
A spray nozzle 16 is installed.
蓄熱槽１１内の水１２は、循環ポンプ１４によシ冷水導
管１５を通って汲み上げられ、スプレーノズル１６に送
シ込まれ、スプレーノズル１６から第１熱交換器１９お
よび第２熱交換器２０に向けて散布され、再び蓄熱槽１
１内に落下する。Water 12 in the heat storage tank 11 is pumped up through the cold water conduit 15 by the circulation pump 14 and sent to the spray nozzle 16, and from the spray nozzle 16 to the first heat exchanger 19 and the second heat exchanger 20. The heat storage tank 1 is sprayed again.
Fall within 1.
四方切替弁４は、導管２ａと２Ｃおよび導管２ｂと２ｄ
を接続し、または、導管２ａと２ｄおよび導管２ｂと２
０を接続する。The four-way switching valve 4 has conduits 2a and 2C and conduits 2b and 2d.
or connect conduits 2a and 2d and conduits 2b and 2
Connect 0.
四方切替弁４によって導管２ａと２ｃおよび導管２ｂと
２ｄを接続した場合には、圧縮機１、凝縮器３．第１熱
交換器１９．第１膨張弁６および第２熱交換器２０ｔ−
この順序で通って圧縮機ｌに戻る循環管路が形成される
。When conduits 2a and 2c and conduits 2b and 2d are connected by four-way switching valve 4, compressor 1, condenser 3. First heat exchanger 19. First expansion valve 6 and second heat exchanger 20t-
A circulation line is formed which passes through this sequence and returns to the compressor I.
四方切替弁４によって、導管２ａと２ｄおよび導管２ｂ
と２０を接続した場合には、圧縮機１゜凝縮器３、第２
熱交換器２０．第２膨張弁９および第１熱交換器１９を
この順序で通って圧縮機１に戻る循環管路が形成される
。The four-way switching valve 4 allows the conduits 2a and 2d and the conduit 2b to
and 20, compressor 1° condenser 3, 2nd
Heat exchanger 20. A circulation line is formed that passes through the second expansion valve 9 and the first heat exchanger 19 in this order and returns to the compressor 1.
第２図および第３図は冷媒の流れを示す系統図である。 FIGS. 2 and 3 are system diagrams showing the flow of refrigerant.
冷媒の流れは、四方切替弁４によって導管２ａと２ｃお
よび導管２ｂと２ｄが接続された場合には次のように作
用する。The flow of the refrigerant operates as follows when the four-way switching valve 4 connects the conduits 2a and 2c and the conduits 2b and 2d.
第２図に示すように、凝縮器３により高圧の液状となっ
た冷媒は、導管２ａおよび２Ｑｋ流れて第１熱交換器１
９に達し、第１熱交換器１９のコイルに付着した氷を過
冷却によって融解する。その後、導管２ｅを流れて第１
膨張弁６に達した冷媒は、第１膨張弁６によって低圧の
液状となり第２熱交換器２０に達する。そして、第２熱
交換器２０において蒸発し、スプレーノズル１６から散
布された水１２を結氷し、製氷された氷１３は蓄熱槽１
１内に貯氷される。As shown in FIG. 2, the refrigerant that has become a high-pressure liquid in the condenser 3 flows through conduits 2a and 2Qk to the first heat exchanger 1.
9, and the ice attached to the coil of the first heat exchanger 19 is melted by supercooling. After that, it flows through the conduit 2e and the first
The refrigerant that has reached the expansion valve 6 becomes a low-pressure liquid by the first expansion valve 6 and reaches the second heat exchanger 20 . Then, the water 12 that is evaporated in the second heat exchanger 20 and sprayed from the spray nozzle 16 is frozen, and the produced ice 13 is transferred to the heat storage tank 1.
Ice is stored in 1.
第２熱交換器２０のコイル内で蒸発したガス状の冷媒は
、導管２ｄおよび２ｂを通って圧縮機１に達し、再び循
環を繰り返す。The gaseous refrigerant evaporated in the coil of the second heat exchanger 20 reaches the compressor 1 through the conduits 2d and 2b and repeats the circulation again.
一方、第３図に示すように、四方切替弁４によって導管
２ａと２ｄおよび導管２ｂと２Ｃが接続された場合には
、冷媒の流れは四方切替弁４で切り替って逆にな力、冷
媒は第２熱交換器２ｏのコイルて付着した氷を過冷却に
よって融解し、第１熱交換器１９において製氷を行う。On the other hand, as shown in FIG. 3, when the conduits 2a and 2d and the conduits 2b and 2C are connected by the four-way switching valve 4, the flow of the refrigerant is switched by the four-way switching valve 4, and the refrigerant flow is reversed. The ice attached to the coil of the second heat exchanger 2o is melted by supercooling, and ice is made in the first heat exchanger 19.
このように、四方切替弁４を一定時間ごとに切フ替えれ
ば、第１熱交換器１９および第２熱交換器２０において
交替で製氷および融解が行われ。In this way, if the four-way switching valve 4 is switched off at regular intervals, ice making and melting are performed alternately in the first heat exchanger 19 and the second heat exchanger 20.
高効率で製氷が進行する。Ice making progresses with high efficiency.
この際、過冷却が行なわれる熱交換器によって氷の融解
のために放出した熱量分は、蒸発が行われる熱交換器に
よって製氷する際に回収され、冷媒の熱の得失は同じと
なる。従って、氷の融解のための熱の損失はゼロとなシ
、無駄なエネルギーは一切使わずに連続して製氷を行う
ことができる。At this time, the amount of heat released to melt the ice by the heat exchanger that performs supercooling is recovered when ice is made by the heat exchanger that performs evaporation, and the gain and loss of heat of the refrigerant are the same. Therefore, the loss of heat due to melting the ice is zero, and ice can be made continuously without using any wasted energy.
なお、蓄冷の開始特等、氷を融解する必要のない場合に
は、２つの熱交換器２ｚずれも蒸発器として使うことが
できる。この場合は、２つの熱交換器にともに低圧液状
となった冷媒が凝縮器から膨張弁を弁して直接流れるよ
うな導管を設け、この管路を通って冷媒が流れるように
切替える。Note that when there is no need to melt ice, such as when starting cold storage, the two heat exchangers 2z can also be used as evaporators. In this case, a conduit is provided in both of the two heat exchangers so that the refrigerant, which has become a low-pressure liquid, flows directly from the condenser through the expansion valve, and the refrigerant is switched to flow through this conduit.
次にこの発明を実施例によシ説明する。Next, the present invention will be explained with reference to examples.
四方切替え弁４によって導管２ａと２ｃおよび導管２ｂ
と２ｄを接続して本発明の製氷蓄冷機を稼動した場合の
冷媒の温度の変化を調べ、冷媒の流れとともに第２図に
示した。一方、同様に四方切替え弁４によって導管２ａ
と２ｄおよび導管２ｂと２Ｃを接続して本発明の製氷蓄
冷機を稼動した場合の冷媒の温度の変化を調べ冷媒の流
れとともに第３図に示した。Conduits 2a and 2c and conduit 2b are controlled by four-way switching valve 4.
The change in temperature of the refrigerant when the ice making regenerator of the present invention was operated by connecting the refrigerant and 2d was investigated and is shown in FIG. 2 along with the flow of the refrigerant. On the other hand, the conduit 2a is similarly controlled by the four-way switching valve 4.
Fig. 3 shows the change in temperature of the refrigerant when the ice making regenerator of the present invention is operated by connecting the pipes 2d and 2d and the conduits 2b and 2C, and the changes in the refrigerant temperature are shown together with the flow of the refrigerant.
第２図および第３図に示すように、過冷却器としての第
２図に示す第１熱交換器１９および第３図に示す第２熱
交換器２０においては、冷媒の温度は５０℃を示し、前
記熱交換器は過冷却器としてコイルに付着した氷を完全
に融解した。蒸発器としての第２図に示す第２熱交換器
２０および第３図に示す第１熱交換器１９においては、
冷媒は０℃の温度で水を結氷した。As shown in FIGS. 2 and 3, in the first heat exchanger 19 shown in FIG. 2 and the second heat exchanger 20 shown in FIG. The heat exchanger acts as a supercooler and completely melts the ice attached to the coil. In the second heat exchanger 20 shown in FIG. 2 as an evaporator and the first heat exchanger 19 shown in FIG. 3,
The refrigerant froze water at a temperature of 0°C.
以上説明したように、この発明の製氷蓄冷機によれば、
余分なエネルギーを消費することなく。As explained above, according to the ice making regenerator of the present invention,
without expending extra energy.
蓄熱効率を大幅に向上することができるので、コストの
低下、冷凍能力の上昇が図れる産業上有用な効果が得ら
れる。Since heat storage efficiency can be greatly improved, industrially useful effects such as cost reduction and increase in refrigeration capacity can be obtained.
第１図はこの発明の一実施態様を示す系統図、第２図お
よび第３図はこの発明の一実施例を示す系統図、第４図
は従来の製氷蓄冷機の一例を示す系統図、第５図は第４
図に示す蓄冷機の拡大縦断面図、第６図は従来の製氷蓄
冷機の他の例を示す系統図である。図面において。
１・・・圧縮機。
２ 、２ ａ 、 ２ ｂ 、 ２ Ｃ） ２ ｄ 、
２ ｅ ０９．導管、３・・・凝縮器、 ４
・・・四方切替弁。
５・・・第１逆止弁、 ６・・・第１膨張弁。
８・・・第２逆止弁、 ９・・・第２膨張弁、１１
・・蓄熱槽、 １２・・・水。
１３・・・氷、 １４・・・循環ポンプ。
１５・・・冷水導！、 １６・・・スプレーノ
ズル。
１９・・・第１熱交換器、 ２０・・・第２熱交換器。
２１．２２・・・感温計、 ２３・・・圧縮機。
２４・・・導管、 ２５・・・凝縮器。
２６・・・レシーバ−６２７・・・膨張弁。
２８・・・蓄冷コイル、 ２９・・・蓄冷器。
３０・・・水、 ３１・・・氷。
３２・・・圧縮機、 ３３・・・導管。
３４・・・凝縮器、 ３５・・・膨張弁。
３６・・蓄冷コイル、 ３７・・・蓄熱槽、３８・・
・水、 ３９・・・循環ポンプ。
４０・・・空Ｋ ｅｋ 、 ４１・・・スプ
レーノズル。
４２・・・支管、 ４３・・・電磁弁。
４４・・・氷。FIG. 1 is a system diagram showing one embodiment of this invention, FIGS. 2 and 3 are system diagrams showing one embodiment of this invention, and FIG. 4 is a system diagram showing an example of a conventional ice making regenerator. Figure 5 is the 4th
FIG. 6 is an enlarged vertical sectional view of the regenerator shown in the figure, and FIG. 6 is a system diagram showing another example of the conventional ice regenerator. In the drawing. 1... Compressor. 2, 2 a, 2 b, 2 C) 2 d,
2 e 09. Conduit, 3... Condenser, 4
...Four-way switching valve. 5... First check valve, 6... First expansion valve. 8... Second check valve, 9... Second expansion valve, 11
...Heat storage tank, 12...Water. 13...Ice, 14...Circulation pump. 15...Cold water guide! , 16... Spray nozzle. 19...First heat exchanger, 20...Second heat exchanger. 21.22...Thermometer, 23...Compressor. 24... conduit, 25... condenser. 26... Receiver-627... Expansion valve. 28... Cold storage coil, 29... Cold storage device. 30...Water, 31...Ice. 32... Compressor, 33... Conduit. 34... Condenser, 35... Expansion valve. 36... Cold storage coil, 37... Heat storage tank, 38...
・Water, 39...Circulation pump. 40...Empty Kek, 41...Spray nozzle. 42... Branch pipe, 43... Solenoid valve. 44...Ice.
Claims (1)
と、前記圧縮機および前記凝縮器の各々に導管によって
接続された蓄熱用の液体を製氷するための２つの熱交換
器と、前記２つの熱交換器を互いに連結する導管の途中
に並列に設けられた２つの膨張弁と、前記圧縮機および
前記凝縮器の各々と前記２つの熱交換器の各々とを接続
する導管の途中に設けられた、前記導管を通る冷媒の流
れを切り換えて前記２つの熱交換器を交互に過冷却器ま
たは蒸発器として機能させるための切替え弁とからなる
ことを特徴とする、製氷蓄冷機。a compressor, a condenser connected to the compressor by a conduit, two heat exchangers for making ice from a heat storage liquid connected to each of the compressor and the condenser by a conduit; two expansion valves provided in parallel in the middle of a conduit connecting the two heat exchangers to each other; and two expansion valves provided in the middle of a conduit connecting each of the compressor and the condenser to each of the two heat exchangers. and a switching valve for switching the flow of refrigerant through the conduit to cause the two heat exchangers to alternately function as a supercooler or an evaporator.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP2836187A JPS63197854A (en) | 1987-02-12 | 1987-02-12 | Ice making cold storage machine |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP2836187A JPS63197854A (en) | 1987-02-12 | 1987-02-12 | Ice making cold storage machine |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| JPS63197854A true JPS63197854A (en) | 1988-08-16 |
Family
ID=12246480
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| JP2836187A Pending JPS63197854A (en) | 1987-02-12 | 1987-02-12 | Ice making cold storage machine |
Country Status (1)
| Country | Link |
|---|---|
| JP (1) | JPS63197854A (en) |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPH05240538A (en) * | 1992-02-27 | 1993-09-17 | Shin Nippon Kucho Kk | Falling liquid film type ice cold accumulator |
Citations (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS5656562A (en) * | 1979-10-15 | 1981-05-18 | Mitsubishi Electric Corp | Refrigerating system |
| JPS5977279A (en) * | 1982-10-23 | 1984-05-02 | 高砂熱学工業株式会社 | Ice making method and heat pump for ice making |
-
1987
- 1987-02-12 JP JP2836187A patent/JPS63197854A/en active Pending
Patent Citations (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS5656562A (en) * | 1979-10-15 | 1981-05-18 | Mitsubishi Electric Corp | Refrigerating system |
| JPS5977279A (en) * | 1982-10-23 | 1984-05-02 | 高砂熱学工業株式会社 | Ice making method and heat pump for ice making |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPH05240538A (en) * | 1992-02-27 | 1993-09-17 | Shin Nippon Kucho Kk | Falling liquid film type ice cold accumulator |
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