CN204313505U - The two temperature difference electricity generation device of a kind of solar water heater - Google Patents
The two temperature difference electricity generation device of a kind of solar water heater Download PDFInfo
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- CN204313505U CN204313505U CN201420826914.9U CN201420826914U CN204313505U CN 204313505 U CN204313505 U CN 204313505U CN 201420826914 U CN201420826914 U CN 201420826914U CN 204313505 U CN204313505 U CN 204313505U
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- XLYOFNOQVPJJNP-UHFFFAOYSA-N water Substances O XLYOFNOQVPJJNP-UHFFFAOYSA-N 0.000 title claims abstract description 416
- 230000005611 electricity Effects 0.000 title abstract description 6
- 238000010248 power generation Methods 0.000 claims abstract description 71
- 238000004321 preservation Methods 0.000 claims abstract description 32
- 230000009977 dual effect Effects 0.000 claims abstract description 15
- 239000004065 semiconductor Substances 0.000 claims description 25
- 238000009413 insulation Methods 0.000 claims description 17
- 238000005485 electric heating Methods 0.000 claims description 12
- 238000001816 cooling Methods 0.000 claims description 5
- 238000010438 heat treatment Methods 0.000 claims description 4
- 230000032258 transport Effects 0.000 claims description 3
- 230000005484 gravity Effects 0.000 claims 1
- 238000001704 evaporation Methods 0.000 abstract description 4
- 230000008020 evaporation Effects 0.000 abstract description 4
- 239000002699 waste material Substances 0.000 abstract description 4
- 230000009286 beneficial effect Effects 0.000 description 2
- 238000000034 method Methods 0.000 description 2
- 230000007613 environmental effect Effects 0.000 description 1
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- 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
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Abstract
本实用新型涉及一种太阳能热水器双温差发电装置，主要包括太阳能热水器、温差发电模块一、温差发电模块二及冷水循环系统，太阳能热水器的保温热水箱内部中心留一圆柱形通道，该通道安装圆柱形的温差发电模块一，温差发电模块一的中心也留有一圆柱形的通道，冷水管一穿过其通道，温差发电模块一的冷端面一与冷水管一接触，热端面一与保温热水箱中的热水接触，温差发电模块二设在保温热水箱和冷水箱之间，其冷端面二与冷水箱接触，热端面二与保温热水箱接触，保温热水箱通过下水管与冷水箱连接，冷水箱与冷水源、水泵、暖气片之间都是通过水管连接。该装置既能供热水，又能发电，节能环保，安全高效，且有效解决了热水蒸发造成的能量浪费问题。
The utility model relates to a dual temperature difference power generation device for a solar water heater, which mainly includes a solar water heater, a thermoelectric power generation module 1, a thermoelectric power generation module 2 and a cold water circulation system. Cylindrical thermoelectric power generation module 1, there is also a cylindrical passage in the center of thermoelectric power generation module 1, the cold water pipe 1 passes through the passage, the cold end face 1 of thermoelectric power generation module 1 is in contact with the cold water pipe 1, and the hot end face 1 is in contact with the heat preservation heat pipe 1. The hot water in the water tank is in contact with the thermoelectric power generation module 2, which is installed between the heat-insulating hot water tank and the cold water tank. The cold end surface 2 contacts the cold water tank, and the hot end surface 2 contacts the heat-insulating hot water tank. It is connected with the cold water tank, and the cold water tank is connected with the cold water source, the water pump and the radiator through water pipes. The device can not only supply hot water, but also generate electricity, is energy-saving, environmentally friendly, safe and efficient, and effectively solves the problem of energy waste caused by the evaporation of hot water.
Description
技术领域technical field
本实用新型涉及太阳能技术领域，更具体涉及是一种太阳能热水器双温差发电装置。The utility model relates to the technical field of solar energy, in particular to a solar water heater dual temperature difference power generation device.
背景技术Background technique
在国内，太阳能热水器已经十分普及，太阳能热水器是利用太阳能给水加热，节能环保，符合绿色发展的方向。但是，我们知道，用户用热水只要达到40～50度就可以，而太阳能热水器可以将水加热至70～90度，甚至还可以更高，将太阳能热水器中的水蒸发，因而，造成了大量的能量浪费。同时，当遇阴雨天或冬季太阳光照比较弱时，用户用水往往比较困难，所以太阳能热水器就很难满足用户的需求。In China, solar water heaters have been very popular. Solar water heaters use solar energy to heat water, which is energy-saving and environmentally friendly, and is in line with the direction of green development. However, we know that users only need to use hot water up to 40-50 degrees, while solar water heaters can heat water to 70-90 degrees, or even higher, to evaporate the water in solar water heaters, thus causing a lot of damage. of energy wasted. At the same time, when it is rainy or the sunlight is weak in winter, it is often difficult for users to use water, so it is difficult for solar water heaters to meet the needs of users.
发明内容Contents of the invention
1、要解决的技术问题1. Technical problems to be solved
为了解决上述技术问题，本实用新型提供一种太阳能热水器双温差发电装置。此装置不仅能给用户提供热水，还能利用冷热水的温差发电，节能环保，安全高效，且有效解决了热水箱中热水蒸发造成的能量浪费问题。In order to solve the above technical problems, the utility model provides a solar water heater dual temperature difference power generation device. This device can not only provide hot water to users, but also generate electricity by using the temperature difference between cold and hot water, which is energy-saving, environmentally friendly, safe and efficient, and effectively solves the problem of energy waste caused by the evaporation of hot water in the hot water tank.
2、技术方案2. Technical solution
本实用新型解决其技术问题的技术方案如下：一种太阳能热水器双温差发电装置，主要包括太阳能热水器、温差发电模块一、温差发电模块二及冷水循环系统，太阳能热水器的保温热水箱内部的中心留有一贯通的圆柱形通道；温差发电模块一是圆柱形的，它可以完全无缝隙的充满整个保温热水箱预留的圆柱形通道，温差发电模块一的中心也留有一圆柱形的通道，其通道使冷水管一穿过，温差发电模块一的冷端面一与冷水管一接触，其热端面一与保温热水箱中的热水接触；温差发电模块二设在保温热水箱和冷水循环系统中的冷水箱之间，其冷端面二与冷水箱接触，热端面二与保温热水箱接触；保温热水箱与冷水箱之间通过下水管连接，冷水箱同冷水循环系统中的冷水源、水泵、暖气片之间的连接都是通过相应的水管。The technical scheme for solving the technical problems of the utility model is as follows: a solar water heater dual temperature difference power generation device mainly includes a solar water heater, a thermoelectric power generation module 1, a thermoelectric power generation module 2 and a cold water circulation system, and the center of the heat preservation hot water tank of the solar water heater There is a continuous cylindrical channel; the thermoelectric power generation module 1 is cylindrical, and it can completely fill the cylindrical channel reserved for the entire thermal insulation hot water tank without any gaps. There is also a cylindrical channel in the center of the thermoelectric power generation module 1. The channel allows the cold water pipe to pass through, the cold end surface one of the thermoelectric power generation module one contacts the cold water pipe one, and the hot end surface one contacts the hot water in the heat-insulating hot water tank; Between the cold water tanks in the circulation system, the cold end surface 2 is in contact with the cold water tank, and the hot end surface 2 is in contact with the thermally insulated hot water tank; The connection between the cold water source, the water pump and the radiator is all through the corresponding water pipes.
所述的太阳能热水器包括保温热水箱、集热管；集热管平行排列且一端插入保温热水箱的下部；保温热水箱的内部的中心留有一贯通的圆柱形通道，保温热水箱的内部有电加热块、导线、第一温度感应器、第一水位感应器、第二水位感应器，保温热水箱的外部有用户热水管、冷水管一、电磁阀一、下水管和电磁阀二，第一温度感应器和第一水位感应器都设置在保温热水箱两端的底部到1/5高度范围内，第二水位感应器设置在保温热水箱两端的5/6高度到保温热水箱顶部之间的高度范围内，第一温度感应器、第一水位感应器、第二水位感应器及电磁阀一和电磁阀二都是通过导线同控制器连接；冷水管一穿过温差发电模块一预留的通道，电磁阀一有两个，分别设置在冷水管一进入、穿出保温热水箱的两个端口；下水管设置在保温热水箱侧面端部的5/6高度到保温热水箱顶部的高度范围以内，电磁阀二设置在下水管同保温热水箱的接口处。The solar water heater includes a heat-insulating hot water tank and a heat-collecting tube; the heat-collecting tubes are arranged in parallel and one end is inserted into the lower part of the heat-insulating water tank; There are electric heating blocks, wires, the first temperature sensor, the first water level sensor, and the second water level sensor. There are user hot water pipes, cold water pipe 1, solenoid valve 1, downpipe and solenoid valve outside the thermal insulation hot water tank 2. The first temperature sensor and the first water level sensor are both set within the height range from the bottom to 1/5 of the two ends of the heat preservation hot water tank, and the second water level sensor is set between the 5/6 height of the heat preservation water tank and the heat preservation water tank. Within the height range between the tops of the hot water tanks, the first temperature sensor, the first water level sensor, the second water level sensor, solenoid valve 1 and solenoid valve 2 are all connected to the controller through wires; There are two channels reserved for thermoelectric power generation module 1, and there are two solenoid valves, which are respectively set at the two ports where the cold water pipe 1 enters and passes out of the thermal water tank; the downpipe is set at 5/6 of the side end of the thermal thermal tank. The height is within the height range of the top of the heat-insulating hot water tank, and the solenoid valve two is arranged at the interface of the downwater pipe with the heat-insulating hot water tank.
所述的第一温度感应器和第一水位感应器都会将收到的信号传给控制器；当保温热水箱中的热水温度达到65度时，控制器会打开电磁阀一，同时打开温差发电模块一，关闭电磁阀三、电磁阀四和电磁阀五，使水泵从冷水源中抽送上来的的冷水流经冷水管一，则温差发电模块一就会因两端温差产生电能，并将这些电能储存在蓄电池一中，而当保温热水箱中的热水温度达到70度时，控制器会同时打开温差发电模块一和温差发电模块二，并将相应的电能储存在相应的蓄电池中，水温低于55度时，控制器会始终关闭电磁阀一，同时关闭温差发电模块一和温差发电模块二；当用户需要暖气片工作时，控制器会打开电磁阀四和电磁阀五，使水泵从冷水源中抽送上来的的冷水流入冷水箱中，再经冷水箱流入暖气片，夏季，暖气片中的冷水起到降温作用，冬季，暖气片中的水温在15～18度之间，从而给房间输送热量，起到加热作用；当保温热水箱中的水低于第一水位感应器时，控制器会同时打开电磁阀二和电磁阀三，则冷水箱中的水在重力作用下流入保温热水箱中，而当保温热水箱中的水达到第二水位感应器时，控制器会始终关闭电磁阀二和电磁阀三；而当阴雨天时，用户需要用热水时，可以打开控制器，控制器打开电加热块给保温热水箱中的水加热，当水温超过40度时，则电加热块就会关闭。Both the first temperature sensor and the first water level sensor will transmit the received signal to the controller; when the temperature of the hot water in the heat preservation hot water tank reaches 65 degrees, the controller will open the solenoid valve 1 and simultaneously open the Thermoelectric power generation module 1 closes solenoid valve 3, solenoid valve 4 and solenoid valve 5, so that the cold water pumped by the water pump from the cold water source flows through cold water pipe 1, then thermoelectric power generation module 1 will generate electricity due to the temperature difference between the two ends, and Store these electric energies in battery one, and when the temperature of the hot water in the heat preservation hot water tank reaches 70 degrees, the controller will simultaneously turn on thermoelectric power generation module one and thermoelectric power generation module two, and store the corresponding electric energy in the corresponding battery In the middle, when the water temperature is lower than 55 degrees, the controller will always close the solenoid valve 1, and at the same time close the thermoelectric power generation module 1 and the thermoelectric power generation module 2; when the user needs the radiator to work, the controller will open the solenoid valve 4 and the solenoid valve 5, The cold water pumped by the water pump from the cold water source flows into the cold water tank, and then flows into the radiator through the cold water tank. In summer, the cold water in the radiator plays a cooling role. In winter, the water temperature in the radiator is between 15 and 18 degrees. , so as to deliver heat to the room and play a heating role; when the water in the thermal insulation hot water tank is lower than the first water level sensor, the controller will open the solenoid valve 2 and solenoid valve 3 at the same time, and the water in the cold water tank will Under the action, it flows into the heat-insulating hot water tank, and when the water in the heat-insulating hot water tank reaches the second water level sensor, the controller will always close the solenoid valve two and solenoid valve three; and when it is rainy, the user needs to use hot water , you can turn on the controller, and the controller will turn on the electric heating block to heat the water in the heat preservation hot water tank. When the water temperature exceeds 40 degrees, the electric heating block will be turned off.
所述的温差发电模块一是圆柱形的，它可以完全无缝隙的设置在保温热水箱预留的圆柱形通道中，温差发电模块一的中心也留有一圆柱形的通道，其通道恰好可以使冷水管一穿过，温差发电模块一主要包括蓄电池一、半导体温差发电器一、冷端面一和热端面一，蓄电池一设置在半导体温差发电器一的一端，冷端面一和热端面一分别设在半导体温差发电器一的内圆柱面和外圆柱面，冷端面一与冷水管一接触，作为低温源，热端面一与保温热水箱中的热水接触，作为高温源，半导体温差发电器一由于高低温温差而产生的电能储存在蓄电池一中；温差发电模块二设在保温热水箱和冷水循环系统中的冷水箱之间，温差发电模块二包括蓄电池二、控制器、半导体温差发电器二、冷端面二和热端面二，蓄电池二通过导线与控制器连接，蓄电池二和控制器设置在半导体温差发电器二的一端，冷端面二和热端面二分别设在半导体温差发电器二的上端和下端，其冷端面二与冷水箱接触，作为低温源，热端面二与保温热水箱接触，作为高温源，半导体温差发电器二由于高低温温差而产生的电能储存在蓄电池二中，蓄电池一通过导线同控制器和蓄电池二连接。The thermoelectric power generation module 1 is cylindrical, and it can be completely seamlessly arranged in the cylindrical channel reserved by the thermal insulation hot water tank. There is also a cylindrical channel in the center of the thermoelectric power generation module 1, and the channel can just Once the cold water pipe passes through, the thermoelectric power generation module 1 mainly includes a battery 1, a semiconductor thermoelectric generator 1, a cold end surface 1 and a hot end surface 1, the battery 1 is arranged at one end of the semiconductor thermoelectric generator 1, and the cold end surface 1 and the hot end surface 1 respectively Set on the inner cylindrical surface and outer cylindrical surface of the semiconductor thermoelectric generator one, the cold end surface one is in contact with the cold water pipe as a low temperature source, and the hot end surface one is in contact with the hot water in the heat preservation hot water tank as a high temperature source, and the semiconductor temperature difference generator The electrical energy generated by electrical appliance 1 due to the temperature difference between high and low temperatures is stored in battery 1; thermoelectric power generation module 2 is located between the heat preservation hot water tank and the cold water tank in the cold water circulation system, and thermoelectric power generation module 2 includes battery 2, controller, semiconductor temperature difference Generator 2, cold end surface 2 and hot end surface 2, battery 2 are connected to the controller through wires, battery 2 and the controller are set at one end of the semiconductor thermoelectric generator 2, cold end surface 2 and hot end surface 2 are respectively set at the semiconductor thermoelectric generator The upper and lower ends of the two, the cold end surface two is in contact with the cold water tank as a low-temperature source, and the hot end surface two is in contact with the heat preservation hot water tank as a high-temperature source, and the electric energy generated by the semiconductor thermoelectric generator two due to the temperature difference between high and low temperatures is stored in the battery two Among them, the first storage battery is connected with the controller and the second storage battery through wires.
所述的冷水循环系统包括冷水源、水泵、冷水箱、和暖气片；冷水源通过水管与水泵相连，水泵通过冷水管一与保温热水箱相连，水泵通过冷水管二进水管同冷水箱相连，冷水箱通过冷水管二出水管与暖气片相连；水泵将冷水源中的冷水通过水管输送到暖气片或是冷水箱中；冷水箱内部有第二温度感应器和第三水位感应器，冷水箱外部有下水管、电磁阀三、冷水管二进水管、电磁阀四、冷水管二出水管和电磁阀五，第二温度感应器、第三水位感应器和电磁阀都是通过导线与控制器相连，第二温度感应器和第三水位感应器设置在冷水箱两端的底部到1/5高度范围内，冷水箱通过下水管与保温热水箱相连，电磁阀三设在下水管与冷水箱的接触口；冷水箱通过冷水管二进水管同水泵相连，电磁阀四设在冷水管二进水管与冷水箱的接触口，冷水箱通过冷水管二出水管同暖气片相连，电磁阀五设在冷水箱与冷水管二出水管的接触口。The cold water circulation system includes a cold water source, a water pump, a cold water tank, and a radiator; the cold water source is connected to the water pump through a water pipe, the water pump is connected to the heat preservation hot water tank through the cold water pipe one, and the water pump is connected to the cold water tank through the second water inlet pipe of the cold water pipe , the cold water tank is connected to the radiator through the second outlet pipe of the cold water pipe; the water pump transports the cold water in the cold water source to the radiator or the cold water tank through the water pipe; there is a second temperature sensor and a third water level sensor inside the cold water tank, and the cold water Outside the box, there are water pipes, solenoid valve three, cold water pipe two inlet pipes, solenoid valve four, cold water pipe two outlet pipes and solenoid valve five. The second temperature sensor, the third water level sensor and the solenoid valve are all controlled by wires. The second temperature sensor and the third water level sensor are set within the range from the bottom to 1/5 of the height of both ends of the cold water tank. The cold water tank is connected to the heat preservation hot water tank through the downpipe. The contact port of the cold water tank; the cold water tank is connected with the water pump through the second water inlet pipe of the cold water pipe. At the contact port between the cold water tank and the second outlet pipe of the cold water pipe.
所述的第二温度感应器和第三水位感应器都会将收到的信号传给控制器，当第二温度感应器测到冷水箱中的水温达到35度时，控制器会关闭温差发电模块二，当冷水箱中的水低于第三水位感应器时，控制器会打开电磁阀三，使水泵抽上来的冷水流进冷水箱中。Both the second temperature sensor and the third water level sensor will transmit the received signal to the controller, and when the second temperature sensor detects that the water temperature in the cold water tank reaches 35 degrees, the controller will turn off the thermoelectric power generation module Two, when the water in the cold water tank is lower than the third water level sensor, the controller will open the solenoid valve three, so that the cold water pumped up by the water pump will flow into the cold water tank.
所述的蓄电池一和蓄电池二是用来给控制器、温度感应器、水位感应器、电加热块、电磁阀等提供电力的，蓄电池一和蓄电池二还设有备用电池，当它们耗光电能时，备用电池来给控制器、温度感应器、水位感应器、电加热块、电磁阀等提供电力。The first battery and the second battery are used to provide power to the controller, temperature sensor, water level sensor, electric heating block, solenoid valve, etc., and the first battery and the second battery are also equipped with backup batteries. At the same time, the backup battery is used to provide power for the controller, temperature sensor, water level sensor, electric heating block, solenoid valve, etc.
所述的水泵是给水循环提供动力的，水泵设有专属电池，来保证水泵的正常工作。The water pump is used to provide power for water circulation, and the water pump is provided with a dedicated battery to ensure the normal operation of the water pump.
所述的暖气片是来给房间降温或是加热的，夏季，水泵抽上来的冷水流进冷水箱中，冷水再经冷水箱流进暖气片中，暖气片中的冷水大约在15～18度，而房间是30～40度，暖气片中的冷水会带走房间里的部分热量，从而起到降温作用；冬季，暖气片中的水温在15～18度之间，而房间的温度在0～5度之间，暖气片中的温水会将部分热量散发给房间，从而起到加热作用。The radiator is used to cool or heat the room. In summer, the cold water pumped up by the water pump flows into the cold water tank, and then the cold water flows into the radiator through the cold water tank. The cold water in the radiator is about 15-18 degrees , and the room is 30-40 degrees, the cold water in the radiator will take away part of the heat in the room, thereby cooling down; in winter, the water temperature in the radiator is between 15 and 18 degrees, while the temperature of the room is 0 Between ~5 degrees, the warm water in the radiator will dissipate part of the heat to the room, thus playing a heating role.
3、有益效果3. Beneficial effects
本实用新型的有益效果是提供了一种太阳能热水器双温差发电装置，此装置不仅能给用户提供热水，还能利用冷热水的温差发电，节能环保，安全高效，且有效解决了热水箱中热水蒸发造成的能量浪费问题。The beneficial effect of the utility model is to provide a solar water heater dual temperature difference power generation device, which can not only provide hot water to users, but also use the temperature difference of cold and hot water to generate electricity, energy saving, environmental protection, safety and high efficiency, and effectively solve the problem of hot water The problem of energy waste caused by the evaporation of hot water in the tank.
附图说明Description of drawings
图1为本实用新型结构示意图Fig. 1 is the structural representation of the utility model
图2为本实用新型保温热水箱与冷水箱连接的左立面图Fig. 2 is the left elevation view of the connection between the thermal insulation hot water tank and the cold water tank of the utility model
图3为本实用新型保温热水箱延平行左立面方向的剖面图Fig. 3 is a sectional view of the thermal insulation hot water tank of the present invention along the direction parallel to the left elevation
图4为本实用新型保温热水箱延垂直左立面方向的剖面图Fig. 4 is a sectional view of the utility model insulation hot water tank extending vertically to the direction of the left elevation
图5为本实用新型冷水箱延垂直左立面方向的剖面图Fig. 5 is the sectional view of the cold water tank of the utility model along the vertical direction of the left elevation
图中：1-保温热水箱；2-集热管；3-电加热块；4-导线；5-第一温度感应器；6-第一水位感应器；7-第二水位感应器；8-用户热水管；9-冷水管一；10-电磁阀一；11-下水管；12-电磁阀二；13-电磁阀三；14-温差发电模块一；15-半导体温差发电器一；16-热端面一；17-冷端面一；18-蓄电池一；19-温差发电模块二；20-半导体温差发电器二；21-热端面二；22-冷端面二；23-蓄电池二；24-控制器；25-冷水源；26-水泵；27-冷水箱；28-第二温度感应器；29-第三水位感应器；30-冷水管二进水管；31-电磁阀四；32-冷水管二出水管；33-电磁阀五；34-暖气片。In the figure: 1-insulated hot water tank; 2-heat collecting tube; 3-electric heating block; 4-wire; 5-first temperature sensor; 6-first water level sensor; 7-second water level sensor; 8 -user hot water pipe; 9-cold water pipe one; 10-solenoid valve one; 11-water pipe; 12-solenoid valve two; 13-solenoid valve three; 14-thermoelectric power generation module one; 16-hot end face one; 17-cold end face one; 18-battery one; 19-thermoelectric power generation module two; 20-semiconductor thermoelectric generator two; 21-hot end face two; 22-cold end face two; -controller; 25-cold water source; 26-water pump; 27-cold water tank; 28-second temperature sensor; 29-third water level sensor; Cold water pipe two outlet pipes; 33-electromagnetic valve five; 34-radiator.
具体实施方法Specific implementation method
下面结合附图实施例对本实用新型进一步说明：Below in conjunction with accompanying drawing embodiment the utility model is further described:
一种太阳能热水器双温差发电装置，主要包括太阳能热水器、温差发电模块一、温差发电模块二及冷水循环系统，太阳能热水器的保温热水箱1内部的中心留有一贯通的圆柱形通道；温差发电模块一14是圆柱形的，它可以完全无缝隙的充满整个保温热水箱1预留的圆柱形通道，温差发电模块一14的中心也留有一圆柱形的通道，其通道可以完全无缝隙的使冷水管一9穿过，温差发电模块一14的冷端面一17与冷水管一9接触，其热端面一16与保温热水箱1中的热水接触；温差发电模块二19设在保温热水箱1和冷水循环系统中的冷水箱27之间，其冷端面二22与冷水箱27接触，热端面二21与保温热水箱1接触；保温热水箱1与冷水箱27之间通过下水管11连接，冷水箱27同冷水循环系统中的冷水源25、水泵26、暖气片34之间的连接都是通过相应的水管。所述的太阳能热水器包括保温热水箱1、集热管2；集热管2平行排列且一端插入保温热水箱1的下部；保温热水箱1的侧面的中心部分留有一贯通的圆柱形通道，保温热水箱1的内部有电加热块3、导线4、第一温度感应器5、第一水位感应器6、第二水位感应器7，保温热水箱1的外部有用户热水管8、冷水管一9、电磁阀一10、下水管11和电磁阀二12；所述的温差发电模块一14是圆柱形的，它可以完全无缝隙的设置在保温热水箱1预留的圆柱形通道中，温差发电模块一14的中心也留有一圆柱形的通道，其通道恰好可以使冷水管一9穿过，温差发电模块一14主要包括蓄电池一18、半导体温差发电器一15、冷端面一17和热端面一16，蓄电池一18设置在半导体温差发电器一15的一端，冷端面一17和热端面一16分别设在半导体温差发电器一15的内圆柱面和外圆柱面，冷端面一17与冷水管一9接触，作为低温源，热端面一16与保温热水箱中1的热水接触，作为高温源，半导体温差发电器一15由于高低温温差而产生的电能储存在蓄电池一18中；温差发电模块二19设在保温热水箱1和冷水循环系统中的冷水箱27之间，温差发电模块二19包括蓄电池二23、控制器24、半导体温差发电器二20、冷端面二22和热端面二21，蓄电池二23通过导线4与控制器24连接，蓄电池二23和控制器24设置在半导体温差发电器二20的一端，冷端面二22和热端面二21分别设在半导体温差发电器二20的上端和下端，其冷端面二22与冷水箱27接触，作为低温源，热端面二21与保温热水箱1接触，作为高温源，半导体温差发电器二20由于高低温温差而产生的电能储存在蓄电池二23中，蓄电池一18通过导线4同控制器24和蓄电池二23连接；所述的冷水循环系统包括冷水源25、水泵26、冷水箱27、和暖气片34；冷水源25通过水管与水泵26相连，水泵26通过冷水管一9与保温热水箱1相连，水泵26通过冷水管二进水管30同冷水箱27相连，冷水箱27通过冷水管二出水管32与暖气片34相连；水泵26将冷水源25中的冷水通过水管输送到暖气片34或是冷水箱27中；冷水箱27内部有第二温度感应器28和第三水位感应器29，冷水箱27外部有下水管11、电磁阀三13、冷水管二进水管30、电磁阀四31、冷水管二出水管32和电磁阀五33，第二温度感应器28、第三水位感应器29和电磁阀都是通过导线4与控制器24相连。A dual temperature difference power generation device for a solar water heater, which mainly includes a solar water heater, a thermoelectric power generation module 1, a thermoelectric power generation module 2 and a cold water circulation system. A cylindrical channel is left in the center of the thermal insulation hot water tank 1 of the solar water heater; the thermoelectric power generation module One 14 is cylindrical, and it can completely fill the cylindrical passage reserved by the entire thermal insulation hot water tank 1, and there is also a cylindrical passage in the center of the thermoelectric power generation module one 14, and its passage can be used completely seamlessly. The cold water pipe one 9 passes through, the cold end face one 17 of the thermoelectric power generation module one 14 is in contact with the cold water pipe one 9, and its hot end face one 16 is in contact with the hot water in the heat preservation hot water tank 1; Between the water tank 1 and the cold water tank 27 in the cold water circulation system, the cold end face 22 is in contact with the cold water tank 27, and the hot end face 22 is in contact with the heat-insulating hot water tank 1; the heat-insulating hot water tank 1 and the cold water tank 27 pass Downpipe 11 is connected, and the connection between cold water tank 27 and cold water source 25 in the cold water circulation system, water pump 26, radiator 34 all is by corresponding water pipe. The solar water heater comprises a heat-retaining hot water tank 1 and a heat-collecting pipe 2; the heat-collecting pipes 2 are arranged in parallel and one end is inserted into the lower part of the heat-preserving water tank 1; The inside of the heat preservation hot water tank 1 has an electric heating block 3, a wire 4, a first temperature sensor 5, a first water level sensor 6, and a second water level sensor 7, and the outside of the heat preservation hot water tank 1 has a user hot water pipe 8 , cold water pipe one 9, solenoid valve one 10, downwater pipe 11 and solenoid valve two 12; the thermoelectric power generation module one 14 is cylindrical, and it can be completely seamlessly arranged on the reserved cylinder of the thermal insulation hot water tank 1 In the shaped channel, a cylindrical channel is also left in the center of the thermoelectric power generation module-14, and the channel just allows the cold water pipe-9 to pass through it. The thermoelectric power generation module-14 mainly includes a storage battery-18, a semiconductor thermoelectric generator-15, a cooling End surface one 17 and hot end surface one 16, storage battery one 18 are arranged on one end of semiconductor thermoelectric generator one 15, cold end surface one 17 and hot end surface one 16 are respectively arranged on the inner cylindrical surface and outer cylindrical surface of semiconductor thermoelectric generator one 15, The cold end surface 17 is in contact with the cold water pipe 9 as a low-temperature source, and the hot end surface 16 is in contact with the hot water in the thermal water tank 1 as a high-temperature source, and the semiconductor thermoelectric generator 15 stores electric energy due to the temperature difference between high and low temperatures. In the storage battery one 18; the thermoelectric power generation module two 19 is arranged between the heat preservation hot water tank 1 and the cold water tank 27 in the cold water circulation system, and the thermoelectric power generation module two 19 includes a battery two 23, a controller 24, and a semiconductor thermoelectric generator two 20 , cold end surface two 22 and hot end surface two 21, storage battery two 23 are connected with controller 24 by wire 4, storage battery two 23 and controller 24 are arranged on an end of semiconductor thermoelectric generator two 20, cold end surface two 22 and hot end surface two 21 Set respectively at the upper end and the lower end of the semiconductor thermoelectric generator 2 20, its cold end face 2 22 is in contact with the cold water tank 27 as a low-temperature source, and the hot end face 2 21 is in contact with the thermal water tank 1 as a high-temperature source, and the semiconductor thermoelectric generator 2 20. The electric energy produced due to the temperature difference between high and low temperatures is stored in the battery two 23, and the battery one 18 is connected with the controller 24 and the battery two 23 through a lead 4; the cold water circulation system includes a cold water source 25, a water pump 26, a cold water tank 27, and the radiator 34; the cold water source 25 is connected to the water pump 26 through the water pipe, and the water pump 26 is connected to the heat preservation hot water tank 1 through the cold water pipe 9; Pipe 2 The water outlet pipe 32 is connected to the radiator 34; the water pump 26 transports the cold water in the cold water source 25 to the radiator 34 or the cold water tank 27 through the water pipe; the second temperature sensor 28 and the third water level sensor are arranged inside the cold water tank 27 Device 29, the outside of cold water tank 27 has sewer pipe 11, electromagnetic valve three 13, cold water pipe two inlet pipes 30, electromagnetic valve four 31, cold water pipe two outlet pipes 32 and electromagnetic valve five 33, the second temperature sensor 28, the third Both the water level sensor 29 and the solenoid valve are connected to the controller 24 through the wire 4 .
本实用新型提供了一种太阳能热水器双温差发电装置，此装置不仅能给用户提供热水，还能充分的利用冷水和热水之间的温差来发电，节能环保，安全高效，同时，该装置还有效解决了热水箱中热水蒸发造成的能量浪费问题，再者，还有效利用暖气片来给房间降温或是加热，给用户舒爽的感觉，从而解决了用户使用空调带来的各种问题。The utility model provides a double temperature difference power generation device for solar water heaters. The device can not only provide hot water to users, but also make full use of the temperature difference between cold water and hot water to generate electricity, which is energy-saving, environmentally friendly, safe and efficient. At the same time, the device It also effectively solves the problem of energy waste caused by the evaporation of hot water in the hot water tank. Furthermore, it also effectively uses the radiator to cool or heat the room, giving users a comfortable feeling, thus solving various problems caused by the use of air conditioners by users. kind of problem.
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| CN201420826914.9U CN204313505U (en) | 2014-12-14 | 2014-12-14 | The two temperature difference electricity generation device of a kind of solar water heater |
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| CN201420826914.9U CN204313505U (en) | 2014-12-14 | 2014-12-14 | The two temperature difference electricity generation device of a kind of solar water heater |
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Cited By (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN104567022A (en) * | 2014-12-14 | 2015-04-29 | 安徽建筑大学 | Double-thermoelectric power generation device for solar water heater |
| CN105186661A (en) * | 2015-08-10 | 2015-12-23 | 中国计量学院 | Portable self-regulating temperature and pressure water spray and lighting device |
| CN108643956A (en) * | 2018-05-18 | 2018-10-12 | 武汉理工大学 | Geothermal power generation cooling system is utilized in deep well in mine exploitation |
| CN114449861A (en) * | 2022-02-11 | 2022-05-06 | 高峰 | Energy storage circulating type electric appliance cabinet |
| CN116697621A (en) * | 2023-06-26 | 2023-09-05 | 中国地质大学（北京） | Solar water heater capable of generating electricity and thermal-voltage power generation system |
| CN116951769A (en) * | 2022-11-24 | 2023-10-27 | 广东万和新电气股份有限公司 | Communication valve and hot water system |
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2014
- 2014-12-14 CN CN201420826914.9U patent/CN204313505U/en not_active Expired - Fee Related
Cited By (9)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN104567022A (en) * | 2014-12-14 | 2015-04-29 | 安徽建筑大学 | Double-thermoelectric power generation device for solar water heater |
| CN105186661A (en) * | 2015-08-10 | 2015-12-23 | 中国计量学院 | Portable self-regulating temperature and pressure water spray and lighting device |
| CN105186661B (en) * | 2015-08-10 | 2017-10-24 | 中国计量大学 | Portable self-regulating temperature and pressure water spray and lighting device |
| CN108643956A (en) * | 2018-05-18 | 2018-10-12 | 武汉理工大学 | Geothermal power generation cooling system is utilized in deep well in mine exploitation |
| CN108643956B (en) * | 2018-05-18 | 2020-02-18 | 武汉理工大学 | The use of geothermal power generation cooling system in deep well mining |
| CN114449861A (en) * | 2022-02-11 | 2022-05-06 | 高峰 | Energy storage circulating type electric appliance cabinet |
| CN116951769A (en) * | 2022-11-24 | 2023-10-27 | 广东万和新电气股份有限公司 | Communication valve and hot water system |
| CN116697621A (en) * | 2023-06-26 | 2023-09-05 | 中国地质大学（北京） | Solar water heater capable of generating electricity and thermal-voltage power generation system |
| CN116697621B (en) * | 2023-06-26 | 2025-12-16 | 中国地质大学（北京） | Solar water heater capable of generating electricity and thermal-voltage power generation system |
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| C14 | Grant of patent or utility model | ||
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| CF01 | Termination of patent right due to non-payment of annual fee |
Granted publication date: 20150506 Termination date: 20151214 |
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| EXPY | Termination of patent right or utility model |