CN210951961U - Circulation ice-melt type ice source heat pump system - Google Patents
Circulation ice-melt type ice source heat pump system Download PDFInfo
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- CN210951961U CN210951961U CN201921752548.6U CN201921752548U CN210951961U CN 210951961 U CN210951961 U CN 210951961U CN 201921752548 U CN201921752548 U CN 201921752548U CN 210951961 U CN210951961 U CN 210951961U
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Abstract
The utility model discloses a circulation ice-melt type ice source heat pump system, which comprises a heat pump host, wherein the heat pump host comprises a condenser and an evaporator; the water outlet of the condenser is sequentially connected with a heat supply user end, a hot water pump and the water inlet of the condenser through pipelines; a liquid outlet of the evaporator is sequentially connected with the ethylene glycol pump, the dynamic ice slurry unit and a liquid inlet of the evaporator through pipelines; the water inlet of the dynamic ice slurry unit is sequentially connected with the water outlets of the cold water pump and the ice water storage tank through pipelines, and the water outlet of the dynamic ice slurry unit is connected with the water inlet of the ice water storage tank through a pipeline. The utility model discloses an ice source heat pump system does not receive "nearly freezing point" or "cold accumulation" climatic environment condition restriction, and can guarantee to exist throughout and be used for ensuring the required liquid water of ice source heat pump normal operating.
Description
Technical Field
The utility model relates to a heat pump air conditioner field especially relates to a circulation ice-melt type ice source heat pump system.
Background
A heat pump is a device that transfers heat from a low temperature environment to a high temperature environment according to the principle of refrigeration. Every time the heat pump consumes 1 part of electric power (or other forms of energy), more than 3-4 parts of heat can be obtained, and the heat pump is a high-efficiency heat supply technical scheme. For water source heat pumps and ground source heat pumps which are widely applied, the basic principle is that heat is directly or indirectly extracted from surface water (water in rivers, lakes and seas) or underground water sources, and after the temperature grade is improved through the refrigeration cycle of a heat pump main machine, heat energy meeting the requirements of heat users is prepared, and the requirements of heating supply, domestic hot water and the like are met. Because the freezing point of water is 0 ℃, when the temperature of a water source after heat is extracted by the water and ground source heat pump devices is lower than 4 ℃, the risk of freezing the heat pump evaporator exists, the existing water and ground source heat pump units do not allow the temperature of a water outlet of the evaporator to be reduced to below 4 ℃ for operation, the temperature of a water inlet of the water source cannot be lower than 9 ℃ according to the calculation of a designed heat exchange temperature difference of 5 ℃, and the operation conditions of the water and ground source heat pump units are severely limited. In the Yangtze river basin of China, the climate of near freezing point with the surface water below 9 ℃ or even close to 0 ℃ in winter is a common climate phenomenon, particularly in the yellow river basin and the northern area, and the living areas of people in similar climate conditions in the world are also comparatively good. Although heat is extracted from underground water for a ground source heat pump, when cold and heat demands in winter and summer are greatly different, the temperature of underground water is gradually reduced along with the accumulation of the operation years of the heat pump, so-called cold accumulation occurs, and finally the temperature of an underground water source is lower than 9 ℃, so that the heat pump unit cannot be normally operated. The areas of North China, northwest China and northeast China all belong to areas with heat load far larger than cold load in summer, so that the phenomenon of cold accumulation of underground water is very common.
In conclusion, the water source heat pump is limited by the climate condition of near freezing point, and the ground source heat pump is limited by the phenomenon of cold accumulation, so that the heat pump system cannot normally operate when the heat demand is the most vigorous in winter, and temporary replacement means with higher energy consumption, such as electric heating, has to be adopted to make up the deficiency of the heat supply capacity, thereby not only increasing the energy consumption, but also improving the equipment and comprehensive construction investment of the heat supply system.
SUMMERY OF THE UTILITY MODEL
An object of the utility model is to overcome prior art's defect and not enough, provide one kind and not restricted by "nearly freezing point" or "cold accumulation" climatic environment condition, and can guarantee to exist all the time and be used for guaranteeing the required liquid water's of ice source heat pump normal operating circulation ice-melt type ice source heat pump system.
The purpose of the utility model can be realized by the following technical scheme: a circulating ice-melting ice source heat pump system comprises a heat pump host, wherein the heat pump host comprises a condenser and an evaporator; the water outlet of the condenser is sequentially connected with a heat supply user end, a hot water pump and the water inlet of the condenser through pipelines; a liquid outlet of the evaporator is sequentially connected with the ethylene glycol pump, the dynamic ice slurry unit and a liquid inlet of the evaporator through pipelines; the water inlet of the dynamic ice slurry unit is sequentially connected with the water outlet of the cold water pump and the ice water storage tank through pipelines, and the water outlet of the dynamic ice slurry unit is connected with the water inlet of the ice water storage tank through a pipeline; and a water outlet of the ice water storage tank is sequentially connected with the solar circulating pump, the solar heat collector and a water inlet of the ice water storage tank through pipelines.
As a preferable technical scheme, a valve is arranged between the water outlet of the solar circulating pump and the water inlet of the solar heat collector.
As a preferred technical scheme, a valve is arranged between the water outlet of the ice water storage tank and the water inlet of the cold water pump, and a valve is arranged between the water outlet of the dynamic ice slurry unit and the water inlet of the ice water storage tank.
As a preferred technical scheme, a water inlet of the cold water pump is sequentially connected with a valve, a filter and a water outlet of a water supplementing source through pipelines.
As a preferred technical scheme, the water outlet of the dynamic ice slurry unit is also connected with the water inlet of the cooling user side, and the water outlet of the cooling user side is connected with the water inlet of the cold water pump.
As a preferred technical scheme, a valve is arranged between the water outlet of the dynamic ice slurry machine set and the water inlet of the cooling user side, and a valve is arranged between the water outlet of the cooling user side and the water inlet of the cold water pump.
As a preferred technical scheme, a water inlet of the cooling user side is sequentially connected with the ice-melting and cold-releasing pump and a water outlet of the ice water storage tank through pipelines, and the water outlet of the cooling user side is connected with a water inlet of the ice water storage tank through a pipeline.
As a preferred technical scheme, a valve is arranged between the water inlet of the ice-melting and cold-releasing pump and the water outlet of the ice water storage tank, and a valve is arranged between the water outlet of the cold supply user side and the water inlet of the ice water storage tank.
As a preferred technical scheme, a valve is arranged between the water outlet of the condenser and the water inlet of the heat supply user side.
As a preferable technical scheme, the water outlet of the condenser is further connected with the water inlet of the cooling tower, the water outlet of the cooling tower is connected with the water inlet of the hot water pump, a valve is arranged between the water outlet of the condenser and the water inlet of the cooling tower, and a valve is arranged between the water outlet of the cooling tower and the water inlet of the hot water pump.
Compared with the prior art, the utility model, following advantage and beneficial effect have:
1. the utility model discloses an introduce dynamic ice slurry machine group in the heat pump system, because the ethylene glycol solution has lower freezing point temperature in the ethylene glycol circulation, can avoid freezing of heat pump evaporator. And the ice water storage tank and the solar heat collector are utilized to melt the solid ice into liquid water, so that the liquid water required for ensuring the normal operation of the ice source heat pump is always present in the ice water storage tank.
2. The utility model discloses an ice source heat pump system has possessed the ability of all-weather stable high-efficient operation under various climatic conditions, has thoroughly solved traditional water, the technological problem that ground source heat pump can't move under "nearly freezing point" weather or "cold accumulation" condition.
3. The utility model discloses an ice source heat pump system can realize winter heat supply, also can realize the cooling in summer, and the cooling in summer can utilize peak valley price ice making to realize the ice-melt cooling, improves system operation efficiency, reduce cost.
Drawings
Fig. 1 is a schematic structural diagram of a circulating ice-melting ice source heat pump system in an embodiment of the present invention.
Wherein: 1: a heat pump host; 1 a: a condenser; 1 b: an evaporator; 2: a dynamic ice slurry machine set; 3: a heat supply user side; 4: a cooling tower; 5: a cooling user terminal; 6: an ice water storage tank; 7: a solar heat collector; 8: an ethylene glycol pump; 9: a hot water pump; 10: a cold water pump; 11-21: a valve; 22: a pump for melting ice and discharging cold; 23: a solar circulating pump; 24: supplementing a water source; 25: and (3) a filter.
Detailed Description
The present invention will be described in further detail with reference to the following examples and drawings, but the present invention is not limited thereto.
As shown in fig. 1, a cycle ice-melting ice source heat pump system includes a heat pump host 1, where the heat pump host includes a condenser 1a and an evaporator 1 b. The water outlet of the condenser 1a is connected with the heat supply user end 3, the hot water pump 9 and the water inlet of the condenser 1a in sequence through pipelines to form a closed loop. The water outlet of the condenser 1a is also connected with the water inlet of the cooling tower 4, and the water outlet of the cooling tower 4 is connected with the water inlet of the hot water pump 9. A valve 11 is arranged between the water outlet of the condenser 1a and the water inlet of the heat supply user end 3, a valve 12 is arranged between the water outlet of the condenser 1a and the water inlet of the cooling tower 9, and a valve 13 is arranged between the water outlet of the cooling tower 4 and the water inlet of the hot water pump 9.
The liquid outlet of the evaporator 1b is connected with the glycol pump 8, the dynamic ice slurry unit 2 and the liquid inlet of the evaporator 1b in sequence through pipelines to form a closed loop. The dynamic ice slurry machine set is a special equipment for preparing 0 ℃ ice slurry, has no restriction requirement on the temperature of a water source, and can be directly, stably and efficiently prepared into the ice slurry no matter the temperature is higher than 9 ℃ or lower than 9 ℃ (even the temperature is as low as 0 ℃) as long as liquid water is used. The utility model discloses in can adopt the developments ice thick liquid unit among the prior art, like the developments ice thick liquid unit that chinese patent CN201520443800.0 disclosed.
The water inlet of the dynamic ice slurry unit 2 is sequentially connected with the cold water pump 10 and the water outlet of the ice water storage tank 6 through pipelines, and the water outlet of the dynamic ice slurry unit 2 is connected with the water inlet of the ice water storage tank 6 through a pipeline. A valve 18 is arranged between the water outlet of the ice water storage tank 6 and the water inlet of the cold water pump 10, and a valve 15 is arranged between the water outlet of the dynamic ice slurry unit 2 and the water inlet of the ice water storage tank 6.
The water outlet of the ice water storage tank 6 is connected with the solar circulating pump 23, the solar heat collector 7 and the water inlet of the ice water storage tank 6 in sequence through pipelines. A valve 21 is arranged between the water outlet of the solar circulating pump and the water inlet of the solar heat collector.
The water inlet of the cold water pump 10 is connected with the valve 20, the filter 25 and the water outlet of the water replenishing source 24 in sequence through pipelines.
The water outlet of the dynamic ice slurry unit 2 is also connected with the water inlet of the cooling user end 5, and the water outlet of the cooling user end 5 is connected with the water inlet of the cold water pump 10. A valve 14 is arranged between the water outlet of the dynamic ice slurry machine set 2 and the water inlet of the cooling user end 5, and a valve 19 is arranged between the water outlet of the cooling user end 5 and the water inlet of the cold water pump 10.
The water inlet of the cooling user end 5 is sequentially connected with the ice-melting and cold-releasing pump 22 and the water outlet of the ice water storage tank 6 through pipelines, and the water outlet of the cooling user end 5 is connected with the water inlet of the ice water storage tank 6 through a pipeline. A valve 17 is arranged between the water inlet of the ice-melting and cold-releasing pump 22 and the water outlet of the ice water storage tank 6, and a valve 16 is arranged between the water outlet of the cold supply user end 5 and the water inlet of the ice water storage tank 6.
The utility model discloses a circulation ice-melt type ice source heat pump system can divide into two kinds of modes operation of winter heat supply and summer cooling. The specific working principle is as follows:
(1) winter heating mode
Valve 11 is open and valves 12 and 13 are closed. The condenser 1a, the valve 11, the heat supply user end 3 and the hot water pump 9 of the heat pump host 1 are sequentially connected through pipelines to form hot water circulation, and the cooling tower 4 is shielded and does not participate in operation. The low-temperature hot water is sent to the condenser 1a of the heat pump host 1 through the water pump 9, after being heated to the high-temperature hot water (for example, 40 ℃ or more than 45 ℃) meeting the heat supply target temperature, the high-temperature hot water flows into the heat supply user side 3, the heat supply user side 3 is a fan coil, a radiator or other heat exchangers, the high-temperature hot water transfers heat to the heat supply user side such as indoor air or domestic hot water, the temperature is reduced to be low-temperature hot water (for example, 30 ℃ or 35 ℃), and then the low-temperature hot water is sent to the condenser 1a of the heat pump host 1 through the hot water pump.
The evaporator 1b of the heat pump main unit 1, the ethylene glycol pump 8 and the dynamic ice slurry unit 2 are connected in sequence to form an ethylene glycol cycle, and because the working temperature of the cycle is possibly lower than 0 ℃, the circulating medium adopts an ethylene glycol aqueous solution with a lower freezing point temperature and a mass concentration of 20%. The glycol water solution is cooled to-3 ℃ in the evaporator 1b of the heat pump main machine 1 (the standard parameter value of the dynamic ice slurry machine set disclosed in the Chinese patent CN 201520443800.0), then is sent into the dynamic ice slurry machine set 2 under the drive of the glycol pump 8, the temperature is raised to-1 ℃ after heat exchange with water in an ice making cycle in the dynamic ice slurry machine set 2, then the glycol water solution returns to the evaporator 1b through a pipeline, and is cooled to-3 ℃ in the evaporator 1b, and the circulation is repeated, so that the purpose of continuously obtaining heat from the dynamic ice slurry machine set 2 is achieved by the evaporator 1b of the heat pump main machine 1.
The above is the complete heat pump heating operation mode. Along with the operation of heat supply, the ice in ice water hold up tank 6 will be more and more, and water is less and less, consequently the utility model discloses a one set of solar energy collection circulation melts the ice in ice water hold up tank 6 for liquid to it is enough to maintain the required liquid water yield of ice source heat pump heat supply operation to exist throughout in the assurance ice water hold up tank 6. The ice water storage tank 6, the solar circulating pump 23, the valve 21 and the solar heat collector 7 are sequentially communicated to form a solar heat collecting circulation, and the valve 21 is normally opened. Under the condition of solar illumination energy in the daytime, liquid water at the lower part of the ice water storage tank 6 is pumped out through the solar circulating pump 23 and is sent to the solar heat collector 7 to absorb solar heat, hot water with increased temperature flows back to the ice water storage tank 6 from the upper part through a pipeline, and ice in the ice water storage tank is melted into liquid water in a direct contact mode. By the circulation operation, the ice in the ice water storage tank 6 is continuously or intermittently melted into liquid water as long as the heat obtained from the solar heat collector 7 is sufficient. If the ice water storage tank 6 is large enough, the ice storage capacity is larger and the ice-melt break time can be tolerated by the system.
In order to ensure the stable water amount in the ice water storage tank 6, a water supplementing system consisting of a water supplementing source 24, a filter 25 and a valve 20 is connected between the suction end of the cold water pump 10 and the valve 18. Under normal operating conditions, the valve 20 is closed and the water charging system is not engaged in operation, but is in a standby state at any time. When the system detects that the water needs to be replenished, the valve 20 is opened, and normal clean water from the water replenishing source 24 is sucked into the ice water storage tank 6 through the filter 25 by the cold water pump 10, so that the water amount in the system is kept constant. Or as mentioned above, when extreme weather occurs, in which the solar ice melting interruption time is too long, the valve 20 may be opened to replace the solid ice in the ice water storage tank 6 by supplementing water, so as to maintain the continuous and stable operation of the ice source heat pump system. The water supply source 24 may be tap water, surface water, well water, reclaimed water, etc., and the filter 25 is used for filtering and treating impurity contaminants that may exist in the water supply source 24. This emergency treatment method does not cause a significant increase in water consumption costs, since days of continuous rainy extreme weather of several days are few throughout the year.
Because the high-density phase-change latent heat (which is 80 times of the sensible heat released when the water temperature changes by 1 ℃) of 334kJ/kg is released when the water is frozen, the ice-water storage tank 6 can maintain the continuous and stable heat supply operation of the ice-water source heat pump system for a long time only by storing liquid water with a small volume, so that the melting operation of solid ice in the ice-water storage tank 6 can be carried out discontinuously, and the solar thermal collector 7 is adopted as an ice-melting heat source to melt ice for the ice-water storage tank 6 discontinuously, which is a completely feasible scheme. Therefore, no matter how low winter environmental temperature has, ice source heat pump system can both continuous stable long-term heat supply operation, this makes this ice source heat pump system possess the ability of all-weather stable high-efficient operation under various climatic conditions, has thoroughly solved traditional water, ground source heat pump and can't the technological problem of operation under "near freezing point" weather or "cold accumulation" condition.
(2) Summer cooling mode
In summer, the valves 12 and 13 are opened, the valve 11 is closed, the condenser 1a, the valve 12, the cooling tower 4, the valve 13 and the hot water pump 9 of the heat pump host 1 are connected in sequence through pipelines to form cooling water circulation (namely, the hot water circulation), and the heat supply user end 3 is shielded and does not participate in operation. The cooling water circulation at this time is a cooling water circulation of a general central air conditioning system, and the condensation heat generated in the condenser 1a of the heat pump main unit 1 in the operation for cooling is transferred to the cooling tower 4 through the cooling water circulation and discharged to the atmosphere.
The system comprises an evaporator 1b of a heat pump main machine 1, an ethylene glycol pump 8 and a dynamic ice slurry machine set 2 which are connected in sequence to form ethylene glycol circulation, wherein a circulating medium ethylene glycol aqueous solution is responsible for transmitting cold energy generated in the evaporator 1b of the heat pump main machine 1 in the operation process aiming at cooling to the dynamic ice slurry machine set 2 through the ethylene glycol circulation, and the dynamic ice slurry machine set 2 transmits the cold energy to the following direct cooling circulation or ice making circulation.
The solar heat collection cycle does not participate in operation because there is no heat demand in the summer cooling mode.
In the summer cooling mode, a local system consisting of the dynamic ice slurry unit 2, the cold water pump 10, the cooling user end 5, the ice melting and cooling pump 22, the ice water storage tank 6, the relevant valves and the like is divided into the following 3 operation working conditions according to different functions:
(a) direct cooling
The heat pump main machine 1, the cooling water circulation and the ethylene glycol circulation are operated, a dynamic ice slurry machine set 2, a valve 14, a cold supply user end 5, a valve 19 and a cold water pump 10 form a direct cold supply circulation, the valves 14 and 19 are opened, and the valves 15, 16, 17 and 18 are closed.
Chilled water (for example, 7 ℃) circularly cooled by glycol in the dynamic ice slurry unit 2 is sent to a cold supply user end 5, cold energy is transmitted to indoor air of a cold supply user through heat exchange, air conditioning cold supply is realized, the temperature is increased (for example, 12 ℃) after cold supply, the chilled water is pumped into the dynamic ice slurry unit 2 through a cold water pump 10 to be circularly cooled and cooled, and the operation condition of direct cold supply is realized by repeated circulation. The cooling user end can be a fan coil, a combined air cabinet or other heat exchangers.
(b) Ice melting and cooling
The heat pump host 1, the cooling water circulation and the glycol circulation are closed, an ice water storage tank 6, a valve 17, an ice-melting and cold-releasing pump 22, a cold supply user end 5 and a valve 16 are sequentially connected through pipelines to form an ice-melting and cold supply circulation, the valves 16 and 17 are opened, and the valves 14, 15, 18 and 19 are closed.
Low-temperature water (generally 0-4 ℃) is pumped from the lower part of the ice water storage tank 6 by the ice melting and cooling pump 22 and is sent to the cooling user end 5, cooling capacity is transferred to indoor air of a cooling user through heat exchange, air conditioning cooling is achieved, the temperature rises (for example, 12 ℃) after cooling, then the water flows back to the upper part of the ice water storage tank 6, a part of ice sand melts in the process that hot water is in contact with the ice sand in a penetrating mode, the hot water is rapidly cooled to a low-temperature state again, then the hot water is circulated to the cooling user end 5, and the operation working condition of ice melting and cooling is achieved through repeated circulation.
The ice in the ice water storage tank 6 can be made during the off-peak period when the price of electricity is low. When the cooling user has peak valley price of electricity, in order to balance the peak valley contradiction of electric wire netting and save air conditioner user's cooling charges of electricity, the utility model discloses still possess the function of ice making cold-storage at the off-peak electricity period at night. At the moment, the heat pump host 1, the cooling water circulation and the ethylene glycol circulation run, an ice water storage tank 6, a valve 18, a cold water pump 10, a dynamic ice slurry unit 2 and a valve 15 are sequentially connected to form an ice making circulation, the valves 15 and 18 are opened, the valves 14, 16, 17 and 19 are closed, and a cooling user end 5 is shielded and does not participate in the running.
Liquid water is extracted from the lower part of the ice water storage tank 6 through a cold water pump 10 and is sent to the dynamic ice slurry unit 2, the liquid water is cooled into fluidized ice slurry at 0 ℃ by the ethylene glycol aqueous solution at-3 ℃ in the ethylene glycol circulation, and the ice slurry flows back to the ice water storage tank 6 from the upper part through a pipeline. Because of the density difference between ice and water, ice water is naturally layered in the ice water storage tank 6, granular ice sand floats on the upper part, and water sinks to the lower part. The water at the lower part of the ice water storage tank 6 is pumped to the dynamic ice slurry unit 2 through continuous circulation to prepare ice slurry, ice in the ice water storage tank 6 is more and more, and water is less and less until the cold accumulation is finally finished. Because the low-cost valley electricity is used for cold storage, a part of refrigeration host can be replaced for cold supply in the peak electricity period in the day, and therefore considerable operation electricity charge saving can be brought to users.
(c) Combined cooling
When the cooling load demand of the cooling user terminal 5 is large, the above two operating conditions of direct cooling and ice melting and cooling may be required to be simultaneously and jointly operated to meet the demand, and the operating condition is a joint cooling operating condition. At this time, the heat pump main unit 1, the cooling water circulation, the glycol circulation, the direct cooling circulation, and the ice-melt cooling circulation are simultaneously operated, the valves 14, 16, 17, and 19 are opened, and the valves 15 and 18 are closed.
The inlet low-temperature water (7 ℃) of the cold supply user end 5 is partially chilled water which is driven to circulate by the cold water pump 10 and is circularly cooled by the ethylene glycol in the dynamic ice slurry unit 2, and is partially low-temperature chilled water which is pumped from the lower part of the ice water storage tank 6 by the ice melting and cooling pump 22, and the two portions of chilled water are combined to provide the total cooling load required by the cold supply user end 5. The chilled water is heated (12 ℃) after releasing cold energy in the cold supply user end 5, and then is divided into two parts at the outlet, wherein one part returns to the dynamic ice slurry unit 2 through the valve 19 and the cold water pump 10 for cooling, and the other part returns to the upper part of the ice water storage tank 6 through the valve 16, is rapidly cooled to a low temperature state in the process of permeating and contacting with the ice sand in the ice water storage tank, and is circularly sent to the cold supply user end 5 again.
The utility model discloses 3 kinds of concrete operating mode under the cooling mode in summer promptly above. It should be noted that the function and operation mode of the water replenishing system composed of the water replenishing source 24, the filter 25 and the valve 20 in the summer cooling mode are completely the same as those in the winter heating mode, that is, fresh water is replenished in real time when the total water storage amount of the system is reduced, so as to ensure the stable operation of the system.
The above-mentioned embodiments only represent some embodiments of the present invention, and the description thereof is specific and detailed, but not to be construed as limiting the scope of the present invention. It should be noted that, for those skilled in the art, without departing from the spirit of the present invention, several variations and modifications can be made, which are within the scope of the present invention. Therefore, the protection scope of the present invention should be subject to the appended claims.
Claims (10)
1. A circulating ice-melting type ice source heat pump system is characterized by comprising a heat pump host, wherein the heat pump host comprises a condenser and an evaporator;
the water outlet of the condenser is sequentially connected with a heat supply user end, a hot water pump and the water inlet of the condenser through pipelines;
a liquid outlet of the evaporator is sequentially connected with the ethylene glycol pump, the dynamic ice slurry unit and a liquid inlet of the evaporator through pipelines;
the water inlet of the dynamic ice slurry unit is sequentially connected with the water outlet of the cold water pump and the ice water storage tank through pipelines, and the water outlet of the dynamic ice slurry unit is connected with the water inlet of the ice water storage tank through a pipeline;
and a water outlet of the ice water storage tank is sequentially connected with the solar circulating pump, the solar heat collector and a water inlet of the ice water storage tank through pipelines.
2. The ice source heat pump system of claim 1, wherein a valve is arranged between a water outlet of the solar circulating pump and a water inlet of the solar heat collector.
3. The ice source heat pump system according to claim 1 or 2, wherein a valve is arranged between the water outlet of the ice water storage tank and the water inlet of the cold water pump, and a valve is arranged between the water outlet of the dynamic ice slurry unit and the water inlet of the ice water storage tank.
4. The ice source heat pump system of claim 3, wherein the water inlet of the cold water pump is connected with a valve, a filter and a water outlet of a water supplementing source in sequence through pipelines.
5. The ice source heat pump system of claim 3, wherein the water outlet of the dynamic ice slurry unit is further connected with the water inlet of a cooling user side, and the water outlet of the cooling user side is connected with the water inlet of the cold water pump.
6. The ice source heat pump system of claim 5, wherein a valve is arranged between the water outlet of the dynamic ice slurry unit and the water inlet of the cooling user end, and a valve is arranged between the water outlet of the cooling user end and the water inlet of the cold water pump.
7. The ice source heat pump system of claim 5, wherein the water inlet of the cooling user end is sequentially connected with the ice-melting and cold-releasing pump and the water outlet of the ice water storage tank through pipelines, and the water outlet of the cooling user end is connected with the water inlet of the ice water storage tank through a pipeline.
8. The ice source heat pump system of claim 7, wherein a valve is arranged between the water inlet of the ice-melting and cooling pump and the water outlet of the ice water storage tank, and a valve is arranged between the water outlet of the cold supply user side and the water inlet of the ice water storage tank.
9. The ice source heat pump system of claim 1, wherein a valve is arranged between the water outlet of the condenser and the water inlet of the heat supply user side.
10. The ice source heat pump system of claim 9, wherein the water outlet of the condenser is further connected with the water inlet of the cooling tower, the water outlet of the cooling tower is connected with the water inlet of the hot water pump, a valve is arranged between the water outlet of the condenser and the water inlet of the cooling tower, and a valve is arranged between the water outlet of the cooling tower and the water inlet of the hot water pump.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201921752548.6U CN210951961U (en) | 2019-10-18 | 2019-10-18 | Circulation ice-melt type ice source heat pump system |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201921752548.6U CN210951961U (en) | 2019-10-18 | 2019-10-18 | Circulation ice-melt type ice source heat pump system |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN210951961U true CN210951961U (en) | 2020-07-07 |
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Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201921752548.6U Active CN210951961U (en) | 2019-10-18 | 2019-10-18 | Circulation ice-melt type ice source heat pump system |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN210951961U (en) |
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2019
- 2019-10-18 CN CN201921752548.6U patent/CN210951961U/en active Active
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