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JP2014114977A - Multi-stage high temperature heat storage tank device - Google Patents

Multi-stage high temperature heat storage tank device Download PDF

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Publication number
JP2014114977A
JP2014114977A JP2012267764A JP2012267764A JP2014114977A JP 2014114977 A JP2014114977 A JP 2014114977A JP 2012267764 A JP2012267764 A JP 2012267764A JP 2012267764 A JP2012267764 A JP 2012267764A JP 2014114977 A JP2014114977 A JP 2014114977A
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heat storage
tank
heat
temperature
ceramic tube
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Fukujiro Ukawa
福冶郎 宇川
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    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02BCLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
    • Y02B10/00Integration of renewable energy sources in buildings
    • Y02B10/20Solar thermal
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00Energy generation through renewable energy sources
    • Y02E10/40Solar thermal energy, e.g. solar towers
    • Y02E10/44Heat exchange systems
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E60/00Enabling technologies; Technologies with a potential or indirect contribution to GHG emissions mitigation
    • Y02E60/14Thermal energy storage
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E70/00Other energy conversion or management systems reducing GHG emissions
    • Y02E70/30Systems combining energy storage with energy generation of non-fossil origin

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Abstract

PROBLEM TO BE SOLVED: To provide a heat storage device that has a wide range of temperature and an extended period of time, and also is effective.SOLUTION: The heat storage device is configured by: using a micro-perforated or foamed ceramic tube as a heat reception and heating element 1 of a heat receiving device 2; preventing heat dissipation with double transparent glass; performing capillary action water supply 5 or pump water supply; generating superheated steam; and using a glass tube or a ceramic tube with heat protection material wound circumferentially as external piping 6. The heat storage device uses salt (NACL), ionic liquid, ceramic heat storage material and rock as heat storage materials, and stores heat from low-temperature to moderate high-temperature. Multi-stage high temperature heat storage 3 (90-1200 degrees C) tanks are formed in order of descending temperature in each of several tanks, and in a nested structure with an insulated wall or an insulated bag, thereby achieving temperature gradient and safe storage. In use, the multi-stage high temperature heat storage tanks are sequentially switched and used in order of ascending temperature in each of several tanks.

Description

太陽熱、及び燃焼ガスの低温から中高温度の蓄熱に関するものである。     The present invention relates to solar heat and heat storage of low to medium temperature of combustion gas.

エネルギー保存で、熱貯蔵については地中、温水、塩水等、低温度で効率的な物は少ない。 In terms of energy conservation, there are few things that are efficient at low temperatures, such as underground, warm water, and salt water.

特許2000−070736Patent 2000-070736

インターネットthe Internet

公開2000−097498Published 2000-097498

(課題1)
従来蓄熱は、地中の一定温度、温水、塩水、イオン液体、蓄熱体等、があるが、熱伝導材も含め、温度範囲が狭く短時間で、効率的でない。
(Problem 1)
Conventional heat storage includes constant temperature in the ground, warm water, salt water, ionic liquid, heat storage body, and the like, but the temperature range including the heat conducting material is narrow and short, and is not efficient.

(手段1)
受熱装置の、受熱、発熱体として、微小穴明又は、発砲セラミック管を用い、二重透明ガラスで放熱を防止する。
(Means 1)
As the heat receiving and heating element of the heat receiving device, a fine hole or a fired ceramic tube is used, and heat radiation is prevented with double transparent glass.

(手段2)
水は毛細管現象により給水、又はポンプ給水し過熱水蒸気発生させる。

Figure 2014114977
(Means 2)
Water is supplied by a capillary phenomenon or pumped to generate superheated steam.
Figure 2014114977

(手段3)
外部配管は熱防護材を外周に巻いたセラミック管又はガラス管を使用する。
(Means 3)
For the external piping, use a ceramic tube or glass tube with a thermal protective material wrapped around it.

(手段4)
多段槽高温蓄熱交換部は、セラミック管とし、熱伝導体として過熱水蒸気又は気体を循環させる。
(Means 4)
The multi-stage tank high-temperature heat storage exchange unit is a ceramic tube, and circulates superheated steam or gas as a heat conductor.

(手段5)
蓄熱材として、塩(NACL)、イオン液体、セラミック系蓄熱体、岩、を使用し、低温から中高温まで蓄熱する。
(Means 5)
As a heat storage material, salt (NACL), an ionic liquid, a ceramic heat storage body, and rock are used, and heat is stored from a low temperature to a medium high temperature.

(手段6)
多段槽高温蓄熱(90から1200度C) タンクを断熱材使用の壁又は断熱袋で、入れ子状に、一次蓄熱槽、二次蓄熱槽、三次蓄熱槽、及び数次槽にし、数次槽毎に順次高温から低温とし、使用時には外側から、数次槽、三次槽、二次槽、一次槽、と順次切り替え数次槽毎に順次低温から使用する。
(Means 6)
Multi-stage tank high-temperature heat storage (90 to 1200 degrees C) The temperature is gradually changed from high to low, and when used, several tanks, tertiary tanks, secondary tanks, and primary tanks are sequentially switched from low to high in order.

(手段7)、液化した液体は気圧の差により最外槽最終点で、常温余水タンクに導く、数次途中で液化した液体(ドレン)は各次排水トラップバルブにより排水する。 (Means 7) The liquefied liquid is led to the room temperature sewage tank at the final point of the outermost tank due to the difference in atmospheric pressure, and the liquefied liquid (drain) in the middle of several orders is drained by each drain trap valve.

(手段8)
常温余水タンクの水は浄化し循環使用する。
(Means 8)
Clean and circulate the water in the room temperature sewage tank.

(効果1)
発熱体に微小穴明管又は、発砲セラミック管を用いる事により低温から中高温まで化学、熱変化することなく使用出来、二重透明ガラスにより、放熱を防ぐ。
(Effect 1)
By using a micro-perforated tube or a fired ceramic tube as the heating element, it can be used without any chemical or thermal change from low to medium temperatures, and double transparent glass prevents heat dissipation.

(効果2)
毛細管現象により給水する事により、最小のエネルギーで給水出来る。
(Effect 2)
Water can be supplied with minimum energy by supplying water by capillary action.

(効果3)
外部配管は熱防護材を外周に巻いたガラス管又はセラミック管とする事により化学、熱変化することなく使用出来る。
(Effect 3)
The external piping can be used without any chemical or heat change by using a glass tube or ceramic tube with a thermal protection material wrapped around it.

(効果4)
多段槽高温蓄熱受熱部は、セラミック管とする事により化学、熱変化することがなく、気体を循環させる事は配管内の目詰まりを少なくする。
(Effect 4)
The multistage tank high-temperature heat storage heat receiving part is not changed in chemistry and heat by being a ceramic tube, and circulating the gas reduces clogging in the piping.

(効果5)
蓄熱材として、塩(NACL)、又はイオン液体、セラミック系蓄熱体、岩、を使用し、低温から中高温(90度Cから1200度C)まで溶融しても、しなくても、蓄熱材の公害もなく、安価に蓄熱効率よく、利用出来る。
(Effect 5)
As a heat storage material, salt (NACL), ionic liquid, ceramic-based heat storage body, or rock is used, and the heat storage material may be melted or not melted from a low temperature to a medium high temperature (90 degrees C to 1200 degrees C). It can be used at low cost and with efficient heat storage.

(効果6)
多段槽高温蓄熱タンクを断熱材使用の壁又は断熱袋で入れ子状に、高温から低温に温度勾配を作り安全に保存し、任意の温度を長時間、熱を使用出来る。
(Effect 6)
A multi-stage high-temperature heat storage tank can be stored in a nested manner with a wall or insulation bag made of heat insulating material, creating a temperature gradient from high temperature to low temperature, and can be used for a long time at any temperature.

(効果7)
最外槽終点で、気体圧を使用する事が出来る。
(Effect 7)
The gas pressure can be used at the end of the outermost tank.

(効果8)
常温余水タンクに導く、事により排水を再利用出来る。
(Effect 8)
The wastewater can be reused by introducing it to the room temperature sewage tank.

受熱、受光部外観図。External view of heat receiving and light receiving part. 受熱、受光部配管図。Heat receiving and light receiving part piping diagram. 受熱、受光部配置図。Heat receiving and light receiving part arrangement drawing. 多段槽高温蓄熱タンク横断面図。A cross-sectional view of a multistage high-temperature heat storage tank. 多段槽高温蓄熱タンク縦断面図。The multistage tank high-temperature heat storage tank longitudinal cross-sectional view. 多段槽高温蓄熱タンク平断面外観図。Multi-stage tank high-temperature heat storage tank flat cross-sectional external view. 多段槽高温蓄熱タンク、排水槽、横断面外観図。Multi-stage tank high-temperature heat storage tank, drainage tank, cross-sectional external view. 全体配置、断面図。Overall arrangement, sectional view. 縦長受光、受熱全体配置、断面図。Longitudinal light reception, overall heat receiving arrangement, sectional view.

(形態1)
受熱装置の、受熱、発熱体として、微小穴明又は、発砲セラミック管を用い、二重透明ガラスで保護使用する。
(Form 1)
As the heat receiving and heating element of the heat receiving device, a micro-perforated or fired ceramic tube is used and protected with double transparent glass.

(形態2)
過熱蒸気の場合、常温余水タンクから毛細管現象により給水、又はポンプ給水し過熱水蒸気発生させる。
(Form 2)
In the case of superheated steam, superheated steam is generated by supplying water or pumping water from a normal temperature sewage tank by capillary action.

(形態3)
外部配管は熱防護材を外周に巻いたガラス管又はセラミック管とする。
(Form 3)
The external piping shall be a glass tube or ceramic tube with a thermal protection material wrapped around it.

(形態4)
多槽高温蓄熱タンク熱交換部は、発砲セラミック管にし、熱伝導体として過熱水蒸気等気体を循環させる。
(Form 4)
The multi-tank high-temperature heat storage tank heat exchanging section is made of a fired ceramic tube and circulates a gas such as superheated steam as a heat conductor.

(形態5)
蓄熱材として、塩(NACL)、イオン液体、セラミック系蓄熱体、岩、を使用し、低温から中高温まで (90度Cから1200度C)蓄熱する。
(Form 5)
As a heat storage material, salt (NACL), ionic liquid, ceramic heat storage body, rock is used, and heat is stored from low temperature to medium high temperature (90 degrees C to 1200 degrees C).

(形態6)
多段槽高温蓄熱(90から1200度C) タンクを断熱材使用の壁又は断熱袋で、入れ子状に、一次蓄熱槽、二次蓄熱槽、三次蓄熱槽、及び数次槽にし、数次槽毎に順次低温とし、使用時には外側から、最外槽、三次槽、二次槽、一次槽、と順次切り替え数次槽毎に順次高温を使用する。
(Form 6)
Multi-stage tank high-temperature heat storage (90 to 1200 degrees C) The temperature is gradually decreased at the time of use, and in use, the outermost tank, the tertiary tank, the secondary tank, the primary tank, and the high temperature are sequentially used for each of the switching several tanks.

(形態7)
液化した液体は気圧の差により最外槽最終点で、常温余水タンクに導く、数次途中で液化した液体は最終点前でも安全のため各次(ドレン)排水トラップバルブにより減圧排水する。
(Form 7)
The liquefied liquid is led to the normal temperature sewage tank at the final point of the outermost tank due to the difference in atmospheric pressure, and the liquefied liquid in the middle of several orders is drained under reduced pressure by each drain drain trap valve for safety even before the final point.

(形態8)
4常温余水タンク、5の水は浄化し循環、使用する。
(Form 8)
4 Normal temperature sewage tank, 5 water is purified, circulated and used.

(実施例1)
4常温タンクから、5給水パイプにより、12余熱部から連続した、2集熱装置の、1集熱部に微小穴明セラミック管、又は発砲セラミック管、を低温部から高温部へ、らせん状に焦点に集中するように配置し90度Cから1200度Cに過熱し13,14二重透明ガラスで保温した、6過熱水蒸気を、3多段槽高温蓄熱タンクに蒸気圧で送る。
Example 1
From 4 normal temperature tanks to 5 hot water supply pipes, continuous heat from 12 remaining heat parts, 2 heat collecting device, 1 heat collecting part, micro-perforated ceramic tube or firing ceramic tube, spiral from low temperature part to high temperature part Six superheated steam, which is placed so as to be concentrated at the focal point, heated from 90 ° C. to 1200 ° C. and kept warm by 13,14 double transparent glass, is sent to the three multi-stage high-temperature heat storage tank by vapor pressure.

(実施例2)
過熱蒸気の場合、原料の水は、4常温余水タンクから毛細管現象、又は、9ポンプ給水する。
(Example 2)
In the case of superheated steam, the raw material water is supplied with capillarity or 9 pumps from a 4 room temperature sewage tank.

(実施例3)
6外部配管は熱防護材を外周に巻いたガラス管又はセラミック管とする。
(Example 3)
6 External piping shall be a glass tube or ceramic tube with a thermal protective material wrapped around it.

(実施例4)
21,22,23多段槽高温蓄熱交換部は、セラミック管とし、熱伝導体として過熱水蒸気、ヘリューム、炭酸ガス、空気等気体を循環させる。
Example 4
The 21, 22, 23 multi-stage tank high-temperature heat storage exchange unit is a ceramic tube, and circulates a gas such as superheated steam, helium, carbon dioxide, air as a heat conductor.

(実施例5)
蓄熱材として、塩(NACL)、イオン液体、セラミック系蓄熱体、岩、を使用し、低温から中高温まで (90度Cから1200度C)蓄熱する。
(Example 5)
As a heat storage material, salt (NACL), ionic liquid, ceramic heat storage body, rock is used, and heat is stored from low temperature to medium high temperature (90 degrees C to 1200 degrees C).

(実施例6)
21,22,23多段槽高温蓄熱 (90度Cから1200度C) タンクを断熱材使用の17,18,3壁又は断熱袋で、入れ子状に、一次蓄熱槽、二次蓄熱槽、三次蓄熱槽、及び数次槽に配置し、数次槽毎に順次低温とし、使用時には外側から、最外槽、三次槽、二次槽、一次槽、と順次切り替え数次槽毎に、7順次蓄熱温を使用する。
(Example 6)
21,22,23 Multi-stage tank high-temperature heat storage (90 ° C to 1200 ° C) The tank is nested with 17,18,3 walls or heat insulation bags using heat insulating material, nested in the primary heat storage tank, secondary heat storage tank, tertiary heat storage It is placed in the tank and several tanks, and the temperature is gradually lowered for each several tanks. When used, the outermost tank, the tertiary tank, the secondary tank, and the primary tank are sequentially switched from the outside to the sequential tanks for every seven sequential tanks. Use temperature.

(実施例7)
液化した液体は気圧の差により最外槽最終点で、4常温余水タンクに導く、数次途中で液化した液体は各次19,20,(トラップバルブ)10排水(ドレン)バルブにより排水する。
(Example 7)
The liquefied liquid is led to the 4-room temperature sewage tank at the final point of the outermost tank due to the difference in atmospheric pressure, and the liquefied liquid in the middle of several orders is drained by 19, 20, (trap valve) 10 drain (drain) valve each time .

(実施例8)
4常温余水タンク、の水は浄化し5給水パイプで、循環使用する。
(Example 8)
Purify the water from 4 normal temperature sewage tank and circulate it with 5 water supply pipes.

(実施例9)
この装置一基、及び連動して、多段槽高温蓄熱タンクとして使用する。
Example 9
In conjunction with this device, it is used as a multi-stage tank high-temperature heat storage tank.

一基、及び連動して、農業用ハウス熱源、融雪熱源、家庭用熱源、工業用熱源、熱発電素子用熱源、スターリングエンジン熱源。 Agricultural house heat source, snowmelt heat source, household heat source, industrial heat source, heat generating element heat source, Stirling engine heat source.

1、 受熱部、微小穴明セラミック管、発砲セラミック管。
2、 集光集熱装置。
3、 多段槽高温蓄熱タンク。
4、 常温余水タンク。
5、 給水パイプ、ポンプ。
6、 一次過熱水蒸気、三次熱出力、バルブ。
7、 調圧解放減圧バルブ。
8、 給水バルブ。
9、 給水ポンプ。
10、減(ドレン)排水パイプ、バルブ。
11、残排水パイプ、バルブ。
12、序熱部。
13、内側カバーガラス。
14、外側カバーガラス。
15、二次過熱水蒸気、二次熱出力パイプ、バルブ。
16、三次過熱水蒸気、一次熱出力パイプ、バルブ。
17、一次多段槽高温蓄熱タンク壁、袋。
18、二次多段槽高温蓄熱タンク壁、袋。
19、一次(ドレン)減排水パイプ、トラップバルブ。
20、二次(ドレン)減排水パイプ、トラップバルブ。
21、一次多段槽高温蓄熱部。
22、二次多段槽高温蓄熱部。
23、三次多段槽高温蓄熱部。


















1. Heat receiving part, micro-perforated ceramic tube, fired ceramic tube.
2. Concentrating heat collecting device.
3. Multi-stage tank high temperature heat storage tank.
4. Normal temperature sewage tank.
5. Water supply pipe and pump.
6. Primary superheated steam, tertiary heat output, valve.
7. Pressure regulating release pressure reducing valve.
8. Water supply valve.
9. Water supply pump.
10. Reduced drain drain pipe and valve.
11. Residual drainage pipe and valve.
12, Introductory part.
13, inner cover glass.
14. Outer cover glass.
15. Secondary superheated steam, secondary heat output pipe, valve.
16, tertiary superheated steam, primary heat output pipe, valve.
17, Primary multi-stage tank high-temperature heat storage tank wall, bag.
18, Secondary multi-stage tank high temperature heat storage tank wall, bag.
19. Primary drain drain pipe, trap valve.
20, Secondary drain drain pipe, trap valve.
21, primary multi-stage tank high-temperature heat storage section.
22, Secondary multi-stage tank high-temperature heat storage section.
23, tertiary multi-stage tank high-temperature heat storage section.


















Claims (17)

集光装置の過熱部に、過熱用微小穴明セラミック管、又は発砲セラミック管、を、12序熱部から、1受熱部にらせん状にレンズ様に集中する構造。 A structure in which a superheated micro-perforated ceramic tube or a fired ceramic tube is concentrated in a lens-like manner from the 12th heating portion to one heat receiving portion in the superheating portion of the light collecting device. 1過熱部に、13,14二重透明ガラスで防温する構造。 A structure that is insulated with 13,14 double transparent glass in one overheated part. 13,14二重透明ガラス中間部を真空にする構造。 13,14 Structure that vacuums the middle part of double transparent glass. 5常温余水タンクより毛細管現象により給水、又はポンプ給水する構造。 5 Structure to supply water or pump water by capillary action from room temperature sewage tank. 1微小穴明セラミック管、又は発砲セラミック管、により90度Cから1200度Cに過熱し13,14二重透明ガラスで保温した、6過熱水蒸気を、3多槽高温蓄熱タンクに蒸気圧で送る構造。 6 superheated steam, heated from 90 ° C to 1200 ° C by 1 micro-perforated ceramic tube or fired ceramic tube and kept warm by 13,14 double transparent glass, is sent to 3 multi-tank high-temperature heat storage tanks by vapor pressure Construction. 6外部配管は熱防護材を外周に巻いたガラス管又はセラミック管とする構造。 6 The external piping is structured to be a glass tube or ceramic tube with a thermal protection material wrapped around the outer periphery. 21,22,23多段槽高温蓄熱交換部は、セラミック管とし、熱伝導体として過熱水蒸気を循環させる構造。 The 21, 22 and 23 multi-stage tank high-temperature heat storage exchange unit is a ceramic tube and circulates superheated steam as a heat conductor. 熱伝導体としてヘリューム、炭酸ガス、空気等気体を循環させる構造。 A structure that circulates gas such as helium, carbon dioxide, and air as a heat conductor. 蓄熱材として、塩(NACL)を使用し、低温から中高温まで (90度Cから1200度C)蓄熱する構造。 A structure that uses salt (NACL) as a heat storage material and stores heat from low to medium high temperatures (90 ° C to 1200 ° C). 蓄熱材として、イオン液体、セラミック系蓄熱体、岩、を使用し、低温から中高温まで (90度Cから1200度C)蓄熱する構造。 A structure that uses ionic liquid, ceramic heat storage material, and rock as a heat storage material, and stores heat from low to medium high temperature (90 degrees C to 1200 degrees C). 21,22,23多段槽高温蓄熱 (90度Cから1200度C) タンクを断熱材使用の17,18,3壁又は断熱袋で、入れ子状に、一次蓄熱槽、二次蓄熱槽、三次蓄熱槽、及び数次槽に配置し、数次槽毎に順次低温とし、使用時には外側から、最外槽、三次槽、二次槽、一次槽、と順次切り替え数次槽毎に順次蓄熱温を使用する構造。 21,22,23 Multi-stage tank high-temperature heat storage (90 ° C to 1200 ° C) The tank is nested with 17,18,3 walls or heat insulation bags using heat insulating material, nested in the primary heat storage tank, secondary heat storage tank, tertiary heat storage It is placed in the tank and several tanks, and the temperature is gradually reduced for each several tanks, and when used, the outermost tank, tertiary tank, secondary tank, and primary tank are sequentially switched from the outside, and the heat storage temperature is sequentially switched for each several tank. The structure to use. 液化した液体(ドレン)は気圧の差により最外槽最終点で、4常温余水タンクに導く、数次途中で液化した液体(ドレン)は各次19,20,(トラップバルブ)10排水(ドレン)バルブにより排水する構造。 The liquefied liquid (drain) is led to the 4-room temperature sewage tank at the final point of the outermost tank due to the difference in atmospheric pressure. The liquefied liquid (drain) in the middle of several orders is 19, 20, (trap valve) 10 drainage ( Drain) A structure that drains with a valve. 10排水(ドレン)口、の蒸気圧を利用する構造。 Structure that uses the vapor pressure of 10 drainage (drain) ports. 4常温余水タンク、の水は浄化し5給水パイプで、循環使用する構造。 4 normal temperature sewage tank, purifies the water and uses 5 water supply pipes for circulation. 図9、6過熱水蒸気の縦長受光装置を使用する構造。 9 and 6 A structure that uses a vertically long light receiving device for superheated steam. 2太陽集光装置、1受熱装置、3多段槽高温蓄熱タンク、4常温余水タンクと機材を一体構成する事により、一基及び連動して機能する、熱源装置。 2 solar concentrator, 1 heat receiving device, 3 multi-stage tank high temperature heat storage tank, 4 room temperature sewage tank, and heat source device that functions in conjunction with one unit by integrally configuring the equipment. 1受熱装置部を、外部バーナー等を使用する事による多段槽高温蓄熱源装置。



























Multi-stage tank high-temperature heat storage source device by using an external burner etc. for 1 heat receiving device part.



























JP2012267764A 2012-12-07 2012-12-07 Multi-stage high temperature heat storage tank device Pending JP2014114977A (en)

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Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN109855282A (en) * 2019-01-25 2019-06-07 西安交通大学 Radiant liquid metal sodium high-power heating system and heating method
CN112362685A (en) * 2020-12-01 2021-02-12 安徽理工大学 Rock high-temperature cycle experimental device
US20220136456A1 (en) * 2020-11-02 2022-05-05 National Cheng Kung University Scroll heating device
CN119289753A (en) * 2024-11-18 2025-01-10 华能湖南岳阳发电有限责任公司 A device and method for comprehensive optimization of waste heat recovery and energy storage in a coal-fired power plant

Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN109855282A (en) * 2019-01-25 2019-06-07 西安交通大学 Radiant liquid metal sodium high-power heating system and heating method
CN109855282B (en) * 2019-01-25 2020-01-21 西安交通大学 Radiant liquid metal sodium high-power heating system and heating method
US20220136456A1 (en) * 2020-11-02 2022-05-05 National Cheng Kung University Scroll heating device
US11480133B2 (en) * 2020-11-02 2022-10-25 National Cheng Kung University Scroll heating device
CN112362685A (en) * 2020-12-01 2021-02-12 安徽理工大学 Rock high-temperature cycle experimental device
CN119289753A (en) * 2024-11-18 2025-01-10 华能湖南岳阳发电有限责任公司 A device and method for comprehensive optimization of waste heat recovery and energy storage in a coal-fired power plant

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