TWI715231B - Full-day low-temperature solar thermal energy smart power generation system - Google Patents

Full-day low-temperature solar thermal energy smart power generation system Download PDF

Info

Publication number
TWI715231B
TWI715231B TW108135752A TW108135752A TWI715231B TW I715231 B TWI715231 B TW I715231B TW 108135752 A TW108135752 A TW 108135752A TW 108135752 A TW108135752 A TW 108135752A TW I715231 B TWI715231 B TW I715231B
Authority
TW
Taiwan
Prior art keywords
water
storage device
temperature
water storage
thermoelectric
Prior art date
Application number
TW108135752A
Other languages
Chinese (zh)
Other versions
TW202115354A (en
Inventor
翟大鈞
謝明君
江智偉
林俊宏
張傳旺
Original Assignee
崑山科技大學
Priority date (The priority date 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 date listed.)
Filing date
Publication date
Application filed by 崑山科技大學 filed Critical 崑山科技大學
Priority to TW108135752A priority Critical patent/TWI715231B/en
Application granted granted Critical
Publication of TWI715231B publication Critical patent/TWI715231B/en
Publication of TW202115354A publication Critical patent/TW202115354A/en

Links

Images

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
    • Y02E10/00—Energy generation through renewable energy sources
    • Y02E10/40—Solar thermal energy, e.g. solar towers
    • Y02E10/44—Heat exchange systems

Landscapes

  • Heat-Pump Type And Storage Water Heaters (AREA)
  • Photovoltaic Devices (AREA)

Abstract

本發明係揭露一種全日型低溫太陽熱能智慧發電系統，係包含集熱板、複數個熱電晶片、儲水裝置及複數個水冷散熱模組。複數個熱電晶片陣列排列設置於集熱板背陽之一面，複數個熱電晶片之熱端接觸集熱板。儲水裝置包含熱水管及冷水管。複數個水冷散熱模組分別設置於各熱電晶片相對集熱板之另一面且接觸各熱電晶片之冷端，並分別對應各熱電晶片連結熱水管及冷水管。其中，當各熱電晶片連結集熱板之熱端與連結水冷散熱模組之冷端之間具有溫差時，各熱電晶片係產生電力。The present invention discloses an all-day low-temperature solar thermal intelligent power generation system, which includes a heat collecting plate, a plurality of thermoelectric chips, a water storage device and a plurality of water-cooled heat dissipation modules. A plurality of thermoelectric chips are arranged in an array on the back side of the heat collecting plate, and the hot ends of the plurality of thermoelectric chips contact the heat collecting plate. The water storage device includes a hot water pipe and a cold water pipe. A plurality of water-cooled heat dissipation modules are respectively arranged on the other side of each thermoelectric chip opposite to the heat collecting plate and contact the cold end of each thermoelectric chip, and respectively connect the hot water pipe and the cold water pipe corresponding to each thermoelectric chip. Wherein, when there is a temperature difference between the hot end of each thermoelectric chip connected to the heat collecting plate and the cold end connected to the water-cooled heat dissipation module, each thermoelectric chip generates electricity.

Description

全日型低溫太陽熱能智慧發電系統All-day low-temperature solar thermal smart power generation system

本發明是有關於一種發電系統，特別是有關於一種全日型低溫太陽熱能智慧發電系統。The present invention relates to a power generation system, in particular to an all-day low-temperature solar thermal intelligent power generation system.

一般來說，常見的太陽能發電系統需建造巨大且昂貴的高溫集熱器，進而初期的發電成本很高；另一方面，當夜間無陽光時，習知太陽能裝置亦無法產生電力，即發電時間受到限制。Generally speaking, common solar power generation systems need to build huge and expensive high-temperature collectors, and the initial cost of power generation is very high; on the other hand, when there is no sunlight at night, conventional solar power devices cannot generate electricity, that is, the power generation time restricted.

有鑑於上述習知之問題，本發明的目的在於提供一種全日型低溫太陽熱能智慧發電系統，用以解決習知技術中所面臨之問題。In view of the above-mentioned conventional problems, the purpose of the present invention is to provide an all-day low-temperature solar thermal intelligent power generation system to solve the problems faced by the conventional technology.

基於上述目的，本發明係提供一種全日型低溫太陽熱能智慧發電系統，係包含集熱板、複數個熱電晶片、儲水裝置及複數個水冷散熱模組。複數個熱電晶片陣列排列設置於集熱板背陽之一面，複數個熱電晶片之熱端接觸集熱板。儲水裝置包含熱水管及冷水管。複數個水冷散熱模組分別設置於各熱電晶片相對集熱板之另一面且接觸各熱電晶片之冷端，並分別對應各熱電晶片連結熱水管及冷水管。其中，當各熱電晶片連結集熱板之熱端與連結水冷散熱模組之冷端之間具有溫差時，各熱電晶片係產生電力。Based on the above objective, the present invention provides an all-day low-temperature solar thermal intelligent power generation system, which includes a heat collecting plate, a plurality of thermoelectric chips, a water storage device and a plurality of water-cooled heat dissipation modules. A plurality of thermoelectric chips are arranged in an array on the back side of the heat collecting plate, and the hot ends of the plurality of thermoelectric chips contact the heat collecting plate. The water storage device includes a hot water pipe and a cold water pipe. A plurality of water-cooled heat dissipation modules are respectively arranged on the other side of each thermoelectric chip opposite to the heat collecting plate and contact the cold end of each thermoelectric chip, and respectively connect the hot water pipe and the cold water pipe corresponding to each thermoelectric chip. Wherein, when there is a temperature difference between the hot end of each thermoelectric chip connected to the heat collecting plate and the cold end connected to the water-cooled heat dissipation module, each thermoelectric chip generates electricity.

較佳地，全日型低溫太陽熱能智慧發電系統更可包含儲電裝置，其連結各熱電晶片並儲存各熱電晶片所產生之電力。Preferably, the all-day low-temperature solar thermal intelligent power generation system may further include a power storage device that connects each thermoelectric chip and stores the electricity generated by each thermoelectric chip.

較佳地，全日型低溫太陽熱能智慧發電系統更可包含控制模組，其連結儲水裝置且傳送控制訊號至儲水裝置。Preferably, the all-day low-temperature solar thermal intelligent power generation system may further include a control module, which is connected to the water storage device and transmits control signals to the water storage device.

較佳地，儲水裝置可包含位移模組，位移模組依據控制訊號將儲水裝置由高於各熱電晶片之位置位移至低於各熱電晶片之位置，或由低於各熱電晶片之位置位移至高於各熱電晶片之位置。Preferably, the water storage device may include a displacement module. The displacement module moves the water storage device from a position higher than each thermoelectric chip to a position lower than each thermoelectric chip according to the control signal, or from a position lower than each thermoelectric chip Move to a position higher than each thermoelectric chip.

較佳地，集熱板、複數個熱電晶片及儲水裝置可分別設置溫度感測單元，各溫度感測單元傳送感測資訊至控制模組，控制模組依據複數個感測資訊產生控制訊號。Preferably, the heat collecting plate, the plurality of thermoelectric chips and the water storage device can be respectively provided with temperature sensing units, each temperature sensing unit transmits sensing information to the control module, and the control module generates a control signal according to the plurality of sensing information .

較佳地，儲水裝置可包含供水馬達，供水馬達依據控制訊號將儲水裝置內之水由熱水管供應至各熱電晶片之冷端所接觸之該水冷散熱模組。Preferably, the water storage device may include a water supply motor, and the water supply motor supplies the water in the water storage device from the hot water pipe to the water-cooled heat dissipation module contacted by the cold end of each thermoelectric chip according to the control signal.

較佳地，集熱板、複數個熱電晶片及儲水裝置可分別設置溫度感測單元，各溫度感測單元傳送感測資訊至控制模組，控制模組依據複數個感測資訊產生控制訊號。Preferably, the heat collecting plate, the plurality of thermoelectric chips and the water storage device can be respectively provided with temperature sensing units, each temperature sensing unit transmits sensing information to the control module, and the control module generates a control signal according to the plurality of sensing information .

較佳地，當集熱板之溫度高於儲水裝置之水溫時，儲水裝置可由冷水管供水至各熱電晶片之冷端所接觸之該水冷散熱模組，並由熱水管回收水至儲水裝置。Preferably, when the temperature of the heat collecting plate is higher than the water temperature of the water storage device, the water storage device can supply water from a cold water pipe to the water-cooled heat dissipation module contacted by the cold end of each thermoelectric chip, and the water is recovered from the hot water pipe to Water storage device.

較佳地，當集熱板之溫度低於儲水裝置之水溫時，儲水裝置可由熱水管供水至各熱電晶片之冷端所接觸之該水冷散熱模組，並由冷水管回收水至儲水裝置。Preferably, when the temperature of the heat collecting plate is lower than the water temperature of the water storage device, the water storage device can supply water from the hot water pipe to the water-cooled heat dissipation module contacted by the cold end of each thermoelectric chip, and the water is recovered from the cold water pipe Water storage device.

較佳地，各熱電晶片與熱水管之連結處可高於與冷水管之連結處。Preferably, the connection point between each thermoelectric chip and the hot water pipe may be higher than the connection point with the cold water pipe.

承上所述，本發明之全日型低溫太陽熱能智慧發電系統利用儲水裝置對熱電晶片進行水冷散熱，以使熱電晶片產生溫差而進行發電，且當儲水裝置之水溫度高於集熱板之溫度時，由於仍有產生溫差，故能達到利用熱電晶片全日發電之功效。As mentioned above, the all-day low-temperature solar thermal intelligent power generation system of the present invention uses a water storage device to cool the thermoelectric chip to dissipate heat, so that the thermoelectric chip generates a temperature difference to generate electricity, and when the water temperature of the water storage device is higher than the heat collecting plate At this temperature, because there is still a temperature difference, it can achieve the effect of using thermoelectric chips to generate electricity all day.

為利瞭解本發明之特徵、內容與優點及其所能達成之功效，茲將本發明配合圖式，並以實施例之表達形式詳細說明如下，而其中所使用之圖式，其主旨僅為示意及輔助說明書之用，未必為本發明實施後之真實比例與精準配置，故不應就所附之圖式的比例與配置關係解讀、侷限本發明於實際實施上的權利範圍。In order to understand the features, content and advantages of the present invention and its achievable effects, the present invention is combined with the figures and described in detail in the form of an embodiment as follows. The figures used therein are merely The schematic and auxiliary instructions are not necessarily the true proportions and precise configurations after the implementation of the present invention. Therefore, the proportions and configuration relationships of the attached drawings should not be interpreted as to limit the scope of rights of the present invention in actual implementation.

請參閱第1及2圖； 第1圖係為本發明之全日型低溫太陽熱能智慧發電系統之第一示意圖；第2圖係為本發明之全日型低溫太陽熱能智慧發電系統之第二示意圖。如圖所示，本發明之全日型低溫太陽熱能智慧發電系統100包含了集熱板110、複數個熱電晶片120、儲水裝置150及複數個水冷散熱模組160。Please refer to Figures 1 and 2; Figure 1 is the first schematic diagram of the all-day low-temperature solar thermal smart power generation system of the present invention; Figure 2 is the second schematic diagram of the full-day low-temperature solar thermal smart power generation system of the present invention. As shown in the figure, the all-day low-temperature solar thermal intelligent power generation system 100 of the present invention includes a heat collecting plate 110, a plurality of thermoelectric chips 120, a water storage device 150, and a plurality of water-cooled heat dissipation modules 160.

續言之，上述所提到之複數個熱電晶片120陣列排列設置於集熱板110背陽之一面，複數個熱電晶片120之熱端接觸集熱板110。而，儲水裝置150包含熱水管140及冷水管130。而，複數個水冷散熱模組160分別設置於各熱電晶片120相對集熱板110之另一面且接觸各熱電晶片120之冷端，並分別對應各熱電晶片120連結熱水管140及冷水管130。In addition, the plurality of thermoelectric chips 120 mentioned above are arranged in an array on the backside of the heat collecting plate 110, and the hot ends of the plurality of thermoelectric chips 120 contact the heat collecting plate 110. However, the water storage device 150 includes a hot water pipe 140 and a cold water pipe 130. However, a plurality of water-cooled heat dissipation modules 160 are respectively arranged on the other side of each thermoelectric chip 120 opposite to the heat collecting plate 110 and contact the cold end of each thermoelectric chip 120, and respectively connect the hot water pipe 140 and the cold water pipe 130 corresponding to each thermoelectric chip 120.

於實際應用時，當各熱電晶片120連結集熱板110之熱端與連結水冷散熱模組160之冷端之間具有溫差時，各熱電晶片120係產生電力。In practical applications, when there is a temperature difference between the hot end of each thermoelectric chip 120 connected to the heat collecting plate 110 and the cold end connected to the water-cooled heat dissipation module 160, each thermoelectric chip 120 generates electricity.

請參閱第3圖，其係為本發明之全日型低溫太陽熱能智慧發電系統之第一方塊圖。如圖所示，本發明之全日型低溫太陽熱能智慧發電系統100更可包含儲電裝置170，其連結各熱電晶片120並儲存各熱電晶片120所產生之電力。Please refer to Figure 3, which is the first block diagram of the all-day low-temperature solar thermal intelligent power generation system of the present invention. As shown in the figure, the all-day low-temperature solar thermal intelligent power generation system 100 of the present invention may further include an electric storage device 170 that connects the thermoelectric chips 120 and stores the electricity generated by the thermoelectric chips 120.

請參閱第4及5圖；第4圖係為本發明之全日型低溫太陽熱能智慧發電系統之第三示意圖；第5圖係為本發明之全日型低溫太陽熱能智慧發電系統之第二方塊圖。如圖所示，全日型低溫太陽熱能智慧發電系統100更可包含控制模組180，其連結儲水裝置150且傳送控制訊號至儲水裝置150。Please refer to Figures 4 and 5; Figure 4 is the third schematic diagram of the all-day low-temperature solar thermal intelligent power generation system of the present invention; Figure 5 is the second block diagram of the all-day low-temperature solar thermal intelligent power generation system of the present invention . As shown in the figure, the all-day low-temperature solar thermal intelligent power generation system 100 can further include a control module 180 which is connected to the water storage device 150 and transmits control signals to the water storage device 150.

較佳地，儲水裝置150可包含位移模組190，位移模組190依據控制訊號將儲水裝置150由高於各熱電晶片120之位置位移至低於各熱電晶片120之位置，或由低於各熱電晶片120之位置位移至高於各熱電晶片120之位置。Preferably, the water storage device 150 may include a displacement module 190. The displacement module 190 moves the water storage device 150 from a position higher than each thermoelectric chip 120 to a position lower than each thermoelectric chip 120, or from a lower position according to the control signal. The position of each thermoelectric chip 120 is displaced to be higher than the position of each thermoelectric chip 120.

更詳細地說，當日間陽光照射時，集熱板110溫度升高，此時由冷水管130進入熱電晶片120之一面的水將會吸收熱量而水溫升高，升高後的水密度降低而藉由熱對流往高處流以進入儲水裝置150，故儲水裝置150對應之位置將高於熱電晶片120(如第1圖所示)，而儲水裝置150中的冷水受到不斷進入之水溫較高的水之壓迫，而經由冷水管130至熱電晶片120之一面，藉以達到不用幫浦即可循環供水之目的。反之，當夜間無陽光時，集熱板110溫度不再升高，而儲水裝置150所儲存的水大多是日間所產生之水溫較高的水，故需要由儲水裝置150供應水溫較高的水至熱電晶片120之冷端所接觸之該水冷散熱模組160，以造成熱電晶片120兩面之溫差產生，是以須將儲水裝置150降至比熱電晶片120低的位置(如第4圖所示)，以利儲水裝置150中水溫較高的水藉由熱對流而往熱電晶片120輸送。然，上述僅為舉例，並不以此為限。In more detail, when the sun shines in the daytime, the temperature of the heat collecting plate 110 increases. At this time, the water entering one surface of the thermoelectric chip 120 from the cold water pipe 130 will absorb heat and the water temperature will increase, and the increased water density will decrease. As the thermal convection flows to a high place to enter the water storage device 150, the corresponding position of the water storage device 150 will be higher than the thermoelectric chip 120 (as shown in Figure 1), and the cold water in the water storage device 150 will continue to enter The pressure of the water with higher water temperature is passed through the cold water pipe 130 to one side of the thermoelectric chip 120, so as to achieve the purpose of circulating water without a pump. Conversely, when there is no sunlight at night, the temperature of the heat collecting plate 110 does not rise any more, and the water stored in the water storage device 150 is mostly water produced during the day, so the water temperature needs to be supplied by the water storage device 150 The higher water reaches the water-cooled heat dissipation module 160 contacted by the cold end of the thermoelectric chip 120 to cause a temperature difference between the two sides of the thermoelectric chip 120, so the water storage device 150 must be lowered to a position lower than the thermoelectric chip 120 (such as As shown in Fig. 4), the water with higher water temperature in the water storage device 150 is transported to the thermoelectric chip 120 by thermal convection. Of course, the above is only an example and not a limitation.

進一步地，集熱板110、複數個熱電晶片120及儲水裝置150可分別設置溫度感測單元101，各溫度感測單元101傳送感測資訊至控制模組180，控制模組180依據複數個感測資訊產生控制訊號。當控制模組180得知儲水裝置150之水溫高於集熱板110之溫度時，便可產生對應將儲水裝置150降至低於熱電晶片120之位置的控制訊號，反之亦然。Further, the heat collecting plate 110, the plurality of thermoelectric chips 120 and the water storage device 150 can be respectively provided with a temperature sensing unit 101, each temperature sensing unit 101 transmits sensing information to the control module 180, and the control module 180 depends on the plurality of The sensing information generates a control signal. When the control module 180 knows that the water temperature of the water storage device 150 is higher than the temperature of the heat collecting plate 110, it can generate a corresponding control signal to lower the water storage device 150 to a position lower than the thermoelectric chip 120, and vice versa.

請參閱第6及7圖；第6圖係為本發明之全日型低溫太陽熱能智慧發電系統之第三方塊圖；第7圖係為本發明之全日型低溫太陽熱能智慧發電系統之第四示意圖。如圖所示，儲水裝置150可包含供水馬達200，供水馬達200依據控制訊號將儲水裝置150內之水由熱水管140供應至各熱電晶片120之冷端所接觸之該水冷散熱模組160。如上述所說，日間或是集熱板110溫度高於儲水裝置150之水溫時，藉由熱對流可自動循環供水；然，當夜間或是集熱板110溫度低於儲水裝置150之水溫時，若儲水裝置150之位置不變，便需要藉由供水馬達200將溫度較高的水輸送至熱電晶片120之冷端所接觸之該水冷散熱模組160。Please refer to Figures 6 and 7; Figure 6 is a third-party block diagram of the all-day low-temperature solar thermal intelligent power generation system of the present invention; Figure 7 is the fourth schematic diagram of the all-day low-temperature solar thermal intelligent power generation system of the present invention . As shown in the figure, the water storage device 150 may include a water supply motor 200. The water supply motor 200 supplies the water in the water storage device 150 from the hot water pipe 140 to the water-cooled heat dissipation module contacted by the cold end of each thermoelectric chip 120 according to the control signal. 160. As mentioned above, during the day or when the temperature of the heat collecting plate 110 is higher than the water temperature of the water storage device 150, the water can be automatically circulated by heat convection; however, at night or when the temperature of the heat collecting plate 110 is lower than the water storage device 150 If the position of the water storage device 150 remains unchanged, the water supply motor 200 needs to deliver the higher temperature water to the water-cooled heat dissipation module 160 contacted by the cold end of the thermoelectric chip 120.

進一步地，集熱板110、複數個熱電晶片120及儲水裝置150可分別設置溫度感測單元101，各溫度感測單元101傳送感測資訊至控制模組180，控制模組180依據複數個感測資訊產生控制訊號。Further, the heat collecting plate 110, the plurality of thermoelectric chips 120 and the water storage device 150 can be respectively provided with a temperature sensing unit 101, each temperature sensing unit 101 transmits sensing information to the control module 180, and the control module 180 depends on the plurality of The sensing information generates a control signal.

承上述，當集熱板110之溫度高於儲水裝置150之水溫時，儲水裝置150可由冷水管130供水至各熱電晶片120之冷端所接觸之該水冷散熱模組160，並由熱水管140回收水至儲水裝置150。In view of the above, when the temperature of the heat collecting plate 110 is higher than the water temperature of the water storage device 150, the water storage device 150 can supply water from the cold water pipe 130 to the water-cooled heat dissipation module 160 contacted by the cold end of each thermoelectric chip 120, and The hot water pipe 140 recovers water to the water storage device 150.

反之，當集熱板110之溫度低於儲水裝置150之水溫時，儲水裝置150可由熱水管140供水至各熱電晶片120之冷端所接觸之該水冷散熱模組160，並由冷水管130回收水至儲水裝置150。Conversely, when the temperature of the heat collecting plate 110 is lower than the water temperature of the water storage device 150, the water storage device 150 can supply water from the hot water pipe 140 to the water-cooled heat dissipation module 160 contacted by the cold end of each thermoelectric chip 120, and the cold water The pipe 130 recovers water to the water storage device 150.

進一步地，由於水溫較高的水密度較低而將位於較上層位置，是以各熱電晶片120與熱水管140之連結處將高於與冷水管130之連結處。Furthermore, since the water with a higher water temperature has a lower density, it will be located at a higher level, so the connection between each thermoelectric chip 120 and the hot water pipe 140 will be higher than the connection with the cold water pipe 130.

承上所述，本發明之全日型低溫太陽熱能智慧發電系統利用儲水裝置150對熱電晶片120進行水冷散熱，以使熱電晶片120產生溫差而進行發電，且當儲水裝置150之水溫度高於集熱板110之溫度時，由於仍有產生溫差，故能達到利用熱電晶片120全日發電之功效。As mentioned above, the all-day low-temperature solar thermal intelligent power generation system of the present invention uses the water storage device 150 to cool the thermoelectric chip 120 to dissipate heat, so that the thermoelectric chip 120 generates a temperature difference to generate electricity, and when the water temperature of the water storage device 150 is high At the temperature of the heat collecting plate 110, since there is still a temperature difference, the thermoelectric chip 120 can be used to generate electricity all day.

以上所述之實施例僅係為說明本發明之技術思想及特點，其目的在使熟習此項技藝之人士能夠瞭解本發明之內容並據以實施，當不能以之限定本發明之專利範圍，即大凡依本發明所揭示之精神所作之均等變化或修飾，仍應涵蓋在本發明之專利範圍內。The above-mentioned embodiments are only to illustrate the technical ideas and features of the present invention, and their purpose is to enable those who are familiar with the art to understand the content of the present invention and implement them accordingly. When they cannot be used to limit the patent scope of the present invention, That is, all equal changes or modifications made in accordance with the spirit of the present invention should still be covered by the patent scope of the present invention.

100:全日型低溫太陽熱能智慧發電系統 101:溫度感測單元 110: 集熱板 120:熱電晶片 130:冷水管 140:熱水管 150:儲水裝置 160:水冷散熱模組 170:儲電裝置 180:控制模組 190:位移模組 200:供水馬達 100: All-day low-temperature solar thermal smart power generation system 101: temperature sensing unit 110: Collector plate 120: Thermoelectric chip 130: cold water pipe 140: hot water pipe 150: water storage device 160: Water cooling module 170: Power storage device 180: control module 190: Displacement module 200: Water supply motor

第1圖係為本發明之全日型低溫太陽熱能智慧發電系統之第一示意圖。 第2圖係為本發明之全日型低溫太陽熱能智慧發電系統之第二示意圖。 第3圖係為本發明之全日型低溫太陽熱能智慧發電系統之第一方塊圖。 第4圖係為本發明之全日型低溫太陽熱能智慧發電系統之第三示意圖。 第5圖係為本發明之全日型低溫太陽熱能智慧發電系統之第二方塊圖。 第6圖係為本發明之全日型低溫太陽熱能智慧發電系統之第三方塊圖。 第7圖係為本發明之全日型低溫太陽熱能智慧發電系統之第四示意圖。 Figure 1 is the first schematic diagram of the all-day low temperature solar thermal intelligent power generation system of the present invention. Figure 2 is the second schematic diagram of the all-day low-temperature solar thermal intelligent power generation system of the present invention. Figure 3 is the first block diagram of the all-day low temperature solar thermal intelligent power generation system of the present invention. Figure 4 is the third schematic diagram of the all-day low temperature solar thermal intelligent power generation system of the present invention. Figure 5 is the second block diagram of the all-day low temperature solar thermal intelligent power generation system of the present invention. Figure 6 is a third-party block diagram of the all-day low-temperature solar thermal intelligent power generation system of the present invention. Figure 7 is the fourth schematic diagram of the all-day low temperature solar thermal intelligent power generation system of the present invention.

100:全日型低溫太陽熱能智慧發電系統 100: All-day low-temperature solar thermal smart power generation system

110:集熱板 110: Collector plate

120:熱電晶片 120: Thermoelectric chip

130:冷水管 130: cold water pipe

140:熱水管 140: hot water pipe

150:儲水裝置 150: water storage device

160:水冷散熱模組 160: Water cooling module

Claims (8)

一種全日型低溫太陽熱能智慧發電系統，係包含：一集熱板；複數個熱電晶片，係陣列排列設置於該集熱板背陽之一面，該複數個熱電晶片之熱端係接觸該集熱板；一儲水裝置，係包含一熱水管及一冷水管；以及複數個水冷散熱模組，係分別設置於各該熱電晶片相對該集熱板之另一面且接觸各該熱電晶片之冷端，並分別連結該熱水管及該冷水管；一控制模組，係連結該儲水裝置且傳送一控制訊號至該儲水裝置；其中，當各該熱電晶片連結該集熱板之熱端與連結該水冷散熱模組之冷端之間具有溫差時，各該熱電晶片係產生電力；其中該儲水裝置係包含一位移模組，該位移模組係依據該控制訊號將該儲水裝置由高於各該熱電晶片之位置位移至低於各該熱電晶片之位置，或由低於各該熱電晶片之位置位移至高於各該熱電晶片之位置。 An all-day low-temperature solar thermal intelligent power generation system, comprising: a heat collecting plate; a plurality of thermoelectric chips arranged in an array on the back side of the heat collecting plate, and the hot ends of the plurality of thermoelectric chips contact the heat collecting plate A water storage device includes a hot water pipe and a cold water pipe; and a plurality of water-cooled heat dissipation modules are respectively arranged on the other side of each thermoelectric chip relative to the heat collecting plate and contact the cold end of each thermoelectric chip, And respectively connect the hot water pipe and the cold water pipe; a control module is connected to the water storage device and transmits a control signal to the water storage device; wherein, when each thermoelectric chip is connected to the hot end of the heat collecting plate and the connection When there is a temperature difference between the cold ends of the water-cooled heat dissipation module, each thermoelectric chip generates electricity; wherein the water storage device includes a displacement module, and the displacement module shifts the water storage device from high to high according to the control signal Displace the position of each thermoelectric chip to a position lower than the position of each thermoelectric chip, or from a position lower than the position of each thermoelectric chip to a position higher than that of each thermoelectric chip. 如申請專利範圍第1項所述之全日型低溫太陽熱能智慧發電系統，其更包含一儲電裝置，係連結各該熱電晶片並儲存各該熱電晶片所產生之電力。 For example, the all-day low-temperature solar thermal intelligent power generation system described in the first item of the scope of patent application further includes a power storage device that connects each thermoelectric chip and stores the electricity generated by each thermoelectric chip. 如申請專利範圍第1項所述之全日型低溫太陽熱能智慧發電系統，其中該集熱板、該複數個熱電晶片及該儲水裝置係分別設置一溫度感測單元，各該溫度感測單元係傳送一感測資訊 至該控制模組，該控制模組係依據該複數個感測資訊產生該控制訊號。 For example, the all-day low-temperature solar thermal intelligent power generation system described in item 1 of the scope of patent application, wherein the heat collecting plate, the plurality of thermoelectric chips, and the water storage device are respectively provided with a temperature sensing unit, and each temperature sensing unit Sensor information To the control module, the control module generates the control signal according to the plurality of sensing information. 如申請專利範圍第1項所述之全日型低溫太陽熱能智慧發電系統，其中該儲水裝置係包含一供水馬達，該供水馬達係依據該控制訊號將儲水裝置內之水由該熱水管供應至各該熱電晶片之冷端所接觸之該水冷散熱模組。 For example, the all-day low-temperature solar thermal intelligent power generation system described in the scope of patent application, wherein the water storage device includes a water supply motor, and the water supply motor supplies water in the water storage device from the hot water pipe according to the control signal To the water-cooled heat dissipation module contacted by the cold end of each thermoelectric chip. 如申請專利範圍第4項所述之全日型低溫太陽熱能智慧發電系統，其中該集熱板、該複數個熱電晶片及該儲水裝置係分別設置一溫度感測單元，各該溫度感測單元係傳送一感測資訊至該控制模組，該控制模組係依據該複數個感測資訊產生該控制訊號。 For example, the all-day low-temperature solar thermal intelligent power generation system described in item 4 of the scope of patent application, wherein the heat collecting plate, the plurality of thermoelectric chips, and the water storage device are respectively provided with a temperature sensing unit, and each temperature sensing unit A sensing information is sent to the control module, and the control module generates the control signal according to the plurality of sensing information. 如申請專利範圍第1項所述之全日型低溫太陽熱能智慧發電系統，其中當集熱板之溫度高於儲水裝置之水溫時，該儲水裝置係由冷水管供水至各該熱電晶片之冷端所接觸之該水冷散熱模組，並由該熱水管回收水至該儲水裝置。 For example, the all-day low-temperature solar thermal intelligent power generation system described in item 1 of the scope of patent application, wherein when the temperature of the heat collecting plate is higher than the water temperature of the water storage device, the water storage device is supplied by a cold water pipe to each thermoelectric chip The water-cooled heat dissipation module touched by the cold end, and the water is recovered from the hot water pipe to the water storage device. 如申請專利範圍第1項所述之全日型低溫太陽熱能智慧發電系統，其中當集熱板之溫度低於儲水裝置之水溫時，該儲水裝置係由熱水管供水至各該熱電晶片之冷端所接觸之該水冷散熱模組，並由該冷水管回收水至該儲水裝置。 For example, the all-day low-temperature solar thermal intelligent power generation system described in item 1 of the scope of patent application, wherein when the temperature of the heat collecting plate is lower than the water temperature of the water storage device, the water storage device is supplied by a hot water pipe to each of the thermoelectric chips The water-cooled heat dissipation module touched by the cold end of the cold end recovers water from the cold water pipe to the water storage device. 如申請專利範圍第1項所述之全日型低溫太陽熱能智慧發電系統，其中各該熱電晶片與該熱水管之連結處高於與該冷水管之連結處。 For the all-day low-temperature solar thermal intelligent power generation system described in item 1 of the scope of patent application, the connection point between each thermoelectric chip and the hot water pipe is higher than the connection point with the cold water pipe.
TW108135752A 2019-10-02 2019-10-02 Full-day low-temperature solar thermal energy smart power generation system TWI715231B (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
TW108135752A TWI715231B (en) 2019-10-02 2019-10-02 Full-day low-temperature solar thermal energy smart power generation system

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
TW108135752A TWI715231B (en) 2019-10-02 2019-10-02 Full-day low-temperature solar thermal energy smart power generation system

Publications (2)

Publication Number Publication Date
TWI715231B true TWI715231B (en) 2021-01-01
TW202115354A TW202115354A (en) 2021-04-16

Family

ID=75237297

Family Applications (1)

Application Number Title Priority Date Filing Date
TW108135752A TWI715231B (en) 2019-10-02 2019-10-02 Full-day low-temperature solar thermal energy smart power generation system

Country Status (1)

Country Link
TW (1) TWI715231B (en)

Citations (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TW201103157A (en) * 2009-07-10 2011-01-16 Yu-Hung Lin Solar heat power
TWI370230B (en) * 2009-10-30 2012-08-11
TWI413749B (en) * 2010-04-14 2013-11-01 Yen Chih Liu All-weather generation device applied with solar water heater
CN104848564A (en) * 2015-05-14 2015-08-19 东南大学 Solar photovoltaic photo-thermal double efficient heat exchange device

Patent Citations (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TW201103157A (en) * 2009-07-10 2011-01-16 Yu-Hung Lin Solar heat power
TWI370230B (en) * 2009-10-30 2012-08-11
TWI413749B (en) * 2010-04-14 2013-11-01 Yen Chih Liu All-weather generation device applied with solar water heater
CN104848564A (en) * 2015-05-14 2015-08-19 东南大学 Solar photovoltaic photo-thermal double efficient heat exchange device

Also Published As

Publication number Publication date
TW202115354A (en) 2021-04-16

Similar Documents

Publication Publication Date Title
Kalaiselvan et al. Solar PV active and passive cooling technologies-a review
US20160268967A1 (en) Modular unit for attachment to solar panel
RU2382953C1 (en) Combined solar power plant
CN109104138B (en) Flexible film-shaped light-heat-electricity conversion device
CN102487255A (en) Solar energy comprehensive utilization apparatus
CN105245181A (en) Solar concentration and frequency division utilization system embedded into temperature difference power generation module
WO2022217986A1 (en) Bridge thermal rectifier
CN201878057U (en) Solar photovoltaic equipment with thermoeletric generators
Xu et al. Performance and reliability analysis of hybrid concentrating photovoltaic/thermal collectors with tree-shaped channel nets' cooling system
TWI715231B (en) Full-day low-temperature solar thermal energy smart power generation system
CN202019321U (en) Solar photovoltaic-temperature difference power generation system
CN107134975A (en) A kind of novel concentrator photovoltaic cell heat transmission multichannel manifold system
CN102184996A (en) Method for improving temperature stability of photovoltaic module and solar photovoltaic module
CN206820723U (en) A kind of novel concentrator photovoltaic cell heat transmission multichannel manifolding
CN102237422A (en) Photovoltaic panel assembly
CN202581920U (en) Solar refrigerating and water heating device
CN104682865A (en) Concentrating photovoltaic natural circulation phase change cooling system
GB2365116A (en) A hybrid photovoltaic/thermal system
CN104917453B (en) High concentrating photovoltaic power generation co-generation unit and its Component Structure
CN108428755A (en) A kind of photovoltaic panel component and its cooling control system
CN208539803U (en) Dimensional semiconductor temperature difference electricity generation device
KR20220083351A (en) Exterior panel module for construction
CN208739078U (en) A kind of electric heating coproduction module
KR102283141B1 (en) Solar generator
TW202020391A (en) Solar panel with cooling device