Energy-saving hot water circulation system

Abstract

The utility model relates to a hot water circulating system, and provides an energy-saving hot water circulating system which comprises a mounting table, a water supply pipe, an equipment chamber, a heat pump, a circulating pipe, a water tank and the like. A water supply pipe is connected to the mounting table, an equipment chamber is arranged on one side of the front portion of the mounting table, an intelligent console is arranged in the equipment chamber, a plurality of heat pumps are mounted on the mounting table, the water supply pipe is connected with all the heat pumps through pipelines, and liquid in the water supply pipe can be shunted into the heat pumps to be heated by the heat pumps. Water tanks as many as the heat pumps are mounted on the mounting table. According to the utility model, a plurality of heating subareas are arranged to circularly supply hot water to different areas, so that the hot water supply of each area can be accurately controlled according to actual requirements, and the energy waste caused by uniform heating and circulation of the whole area in the traditional system is avoided; meanwhile, the heating power and the circulation mode are dynamically adjusted through the intelligent control system according to the actual water demand, the energy utilization efficiency is further improved, and unnecessary energy consumption is reduced.

Description

TECHNICAL FIELD

[0001] The utility model relates to a hot water circulating system, especially to an energy-saving hot water circulating system. BACKGROUND

[0002] With the rapid development of the construction industry and the improvement of people's quality of life, the energy saving and environmental protection performance of hot water circulating system in building water supply and drainage system are paid more and more attention.

[0003] The existing hot water circulating system has the problems of high energy consumption and large heat loss. Such system lacks intelligent control means and cannot dynamically adjust the circulating frequency and heating power according to the actual demand. The traditional system usually adopts the mode of continuous circulation heating by large tank container. Even when no one uses it, it continues to heat the water and maintains the circulation, causing unnecessary energy waste. In addition, during the hot water supply stage, due to the different positions of the water using area and the water supply area, the temperature of the hot water is lost during transmission, and the transmission distance is proportional to the temperature loss. If you want to maintain a high temperature of hot water, you need to heat the hot water to a higher temperature by high pressure heating at the hot water supply place. It cannot adjust the temperature of the supplied hot water according to different water using areas, further increasing the energy consumption and leading to low resource utilization efficiency. SUMMARY

[0004] In order to overcome the shortcomings in the prior art, the technical problem to be solved is to provide an energy-saving hot water circulating system.

[0005] The technical implementation scheme of the utility model is: an energy-saving hot water circulating system, comprising a mounting table, a water supply pipe, an equipment room, a heat pump, a circulating pipe, a water tank, a hot water outlet pipe, a meter, a backwater pipe and a temperature detector, the mounting table is connected with the water supply pipe, the front part of the mounting table is provided with the equipment room, the equipment room is provided with an intelligent control console, the mounting table is provided with a plurality of heat pumps, the water supply pipe is connected with all the heat pumps through pipelines, the liquid in the water supply pipe is divided into the heat pumps, the heat pumps heat the liquid, the mounting table is provided with a water tank consistent with the number of heat pumps, the water tank is connected with a heat pump through two circulating pipelines, the water tank is provided with a hot water outlet pipe and a backwater pipe, the liquid in the water tank is transmitted to the water using area through the hot water outlet pipe, and the hot water transmitted to the water using area is backflowed through the backwater pipe, realizing hot water circulation, the water tank is provided with a plurality of temperature detectors, the detection probes of the temperature detectors are inserted into the water tank and contact with the liquid in the water tank, the pipeline of the hot water outlet pipe on the water tank is provided with a meter, the pipeline of the water supply pipe is provided with a water purification mechanism, and the water flow in the water supply pipe passes through the water purification mechanism before entering the heat pump.

[0006] More preferably, the water purification mechanism comprises a mounting seat, a filter tank, a constant pressure tank and a connecting pipe, the mounting seat is arranged on one side of the rear part of the mounting table, the filter tank is arranged on the mounting seat, the constant pressure tank is arranged on the side of the mounting seat close to the filter tank, the connecting pipe is arranged between the filter tank and the constant pressure tank, the water flow in the water supply pipe flows into the constant pressure tank through the connecting pipe after flowing through the filter tank, and the liquid in the constant pressure tank flows into the heat pump.

[0007] More preferably, the water purification mechanism comprises a mounting seat, a filter tank, a constant pressure tank and a connecting pipe, the mounting seat is arranged on one side of the rear part of the mounting table, the filter tank is arranged on the mounting seat, the constant pressure tank is arranged on the side of the mounting seat close to the filter tank, the connecting pipe is arranged between the filter tank and the constant pressure tank, the water flow in the water supply pipe flows into the constant pressure tank through the connecting pipe after flowing through the filter tank, and the liquid in the constant pressure tank flows into the heat pump.

[0008] More preferably, the water purification mechanism comprises a mounting seat, a filter tank, a constant pressure tank and a connecting pipe, the mounting seat is arranged on one side of the rear part of the mounting table, the filter tank is arranged on the mounting seat, the constant pressure tank is arranged on the side of the mounting seat close to the filter tank, the connecting pipe is arranged between the filter tank and the constant pressure tank, the water flow in the water supply pipe flows into the constant pressure tank through the connecting pipe after flowing through the filter tank, and the liquid in the constant pressure tank flows into the heat pump.

[0009] More preferably, the water purification mechanism comprises a mounting seat, a filter tank, a constant pressure tank and a connecting pipe, the mounting seat is arranged on one side of the rear part of the mounting table, the filter tank is arranged on the mounting seat, the constant pressure tank is arranged on the side of the mounting seat close to the filter tank, the connecting pipe is arranged between the filter tank and the constant pressure tank, the water flow in the water supply pipe flows into the constant pressure tank through the connecting pipe after flowing through the filter tank, and the liquid in the constant pressure tank flows into the heat pump.

[0010] The beneficial effects of the utility model are: the utility model through setting up multiple heating subareas carries out hot water circulation supply to different areas, can accurately control hot water supply of each area according to actual demand, avoids the energy waste caused by unified heating and circulation of all areas in traditional system, simultaneously through intelligent control system, dynamically adjusts heating power and circulation mode according to actual water demand, further improves energy utilization efficiency, reduces unnecessary energy consumption.

[0011] The utility model discloses a water body purification mechanism is set up in the front end of water supply pipe to filter and purify the water source entering the system, removes the impurity, suspended matter and harmful substance in water, ensures that the water quality of entering hot water system is clean, and sets up dosing part and adds proper chemical reagent to the water, such as scale inhibitor, preservative or disinfectant, further improves water quality, prevents scale formation, restrains the bacteria breeding, guarantees the health and safety of hot water system.

[0012] The utility model discloses a heating part is set up on the backwater pipe, and the backwater flowing to the water tank is warmed, and the backwater with certain temperature is warmed to certain temperature again, reduces the working load of water tank and heating element, reduces the situation of frequent starting and high load operation, and the heating system in the water tank does not need to start heating from lower temperature, thereby reduce the energy consumption, and simultaneously, avoid the water temperature fluctuation caused by the backwater temperature being too low. ACCURATE DESCRIPTION OF DRAWINGS

[0013] Figure 1 It is the plane schematic diagram of the utility model.

[0014] Figure 2The utility model discloses a plane schematic view of heating and loop mechanism and water purification mechanism.

[0015] Figure 3 The utility model discloses a plane schematic view of water purification mechanism.

[0016] Figure 4 The utility model discloses a plane schematic view of water tank and heating part and the like.

[0017] In the above drawing: 1_installation platform, 2_water supply pipe, 21_equipment room, 3_heat pump, 31_circulation pipe, 4_water tank, 41_hot water outlet pipe, 411_meter, 42_return pipe, 43_temperature detector, 5_mounting seat, 51_dosing tank, 52_drug discharge pipe, 521_metering pump, 53_filtering tank, 54_constant pressure tank, 541_monitor, 55_connection pipe, 6_heating part. Specific embodiments

[0018] The utility model will be further described below in conjunction with specific embodiments, and the illustrative embodiments of the utility model and the description are used to explain the utility model, but not as the limitation of the utility model.

[0019] Embodiment 1

[0020] It includes installation platform 1, water supply pipe 2, equipment room 21, heat pump 3, circulation pipe 31, water tank 4, hot water outlet pipe 41, meter 411, return pipe 42 and temperature detector 43, installation platform 1 is connected with water supply pipe 2, and water supply pipe 2 is responsible for introducing external water source into the system.The liquid in water supply pipe 2 can be shunted to multiple heat pumps 3 through pipeline for warming, and the water purification mechanism is arranged on the pipeline of water supply pipe 2, so that the water quality before entering heat pump 3 is ensured to be clean, the influence of impurities on heat pump and subsequent pipeline is avoided, thereby prolonging the service life of the system and improving the working efficiency.

[0021] The front side of installation platform 1 is equipped with equipment room 21, and an intelligent control console is arranged in the inside, the intelligent control console is regarded as the "brain" of the whole system, the running state of each component is monitored and managed in real time, the heating power and circulation mode are dynamically adjusted according to the actual water demand, the energy utilization efficiency is further improved, and unnecessary energy consumption is reduced.The intelligent control system can also record and analyze historical data to provide optimization suggestions for users.

[0022] A plurality of energy-saving air heat pumps 3 are installed on installation platform 1, and each heat pump 3 is connected with a water tank 4 through two circulation pipes 31, the liquid in water supply pipe 2 is first shunted into each heat pump 3, and the heat pump 3 utilizes the heat in the air to warm the liquid, and the energy-saving air heat pump 3 design significantly reduces the high energy consumption problem caused by traditional electric heating or gas heating, and improves the energy efficiency ratio of the system, and each heat pump 3 corresponds to a water tank 4, so that the hot water supply of each region is independent and accurately controllable.

[0023] Each water tank 4 is connected to the corresponding heat pump 3 through two circulating pipes 31, forming a closed hot water circulation loop. The liquid in the water tank 4 is transmitted to the water use area through the hot water outlet pipe 41, and the hot water transmitted to the water use area is returned through the return pipe 42, realizing hot water circulation. The hot water outlet pipe 41 and the return pipe 42 are both wrapped with thermal insulation material, effectively reducing heat loss and maintaining the stability of hot water temperature. When the hot water use in the water use area stops for a period of time, the flow meter 411 will monitor the stop of water flow and automatically shut down the circulating pump to reduce the energy consumption of idling and further save energy.

[0024] The water tank 4 is provided with a plurality of temperature detectors 43, the detection probes of which are all inserted into the water tank 4 and in contact with the liquid therein, monitoring the water temperature change in real time. These temperature data are fed back to the intelligent control console, ensuring that the water temperature is always maintained within the set range, both ensuring the quality of hot water supply and avoiding energy waste caused by excessive heating. The pipe of the hot water outlet pipe 41 on the water tank 4 is provided with a flow meter 411 for monitoring the water flow. When the water flow is detected to stop for a period of time, the circulating pump is automatically shut down to prevent additional energy consumption caused by idling.

[0025] Among them, as shown in Figures 1-3 The installation base 1 is provided with a mounting seat 5 on one side of the rear part, and the mounting seat 5 is fixed with a filter tank 53 for purifying water quality. The filter tank 53 is provided with a plurality of filtering components, which can effectively remove impurities, suspended solids and harmful substances in water. The water flow in the water supply pipe 2 first flows through the filter tank 53, and in this process, impurities are intercepted by the filter material, ensuring that the water entering the subsequent system is pure. This not only protects the heat pump 3 and other pipeline equipment from corrosion and blockage, but also prolongs the service life of the system and improves the overall working efficiency.

[0026] The mounting seat 5 is provided with a constant pressure tank 54 on one side close to the filter tank 53, which mainly adjusts the water inlet pressure to ensure the stability of the water pressure in the system. The filter tank 53 and the constant pressure tank 54 are connected through a connecting pipe 55, and the filtered water flow flows into the constant pressure tank 54 through the connecting pipe 55. The constant pressure tank 54 is provided with a pressure regulating device inside, which can automatically adjust the water pressure according to the actual demand, so that it is maintained within a stable and suitable range. This stable water pressure avoids system failure or efficiency decline caused by water pressure fluctuation, ensures smooth and continuous water supply to the heat pump 3, and further improves the running stability of the system.

[0027] The connecting pipe 55 is not only a bridge between the filter tank 53 and the constant pressure tank 54, but also a key channel from the constant pressure tank 54 to the heat pump 3. The water flow adjusted by the constant pressure tank 54 directly flows into the heat pump 3 through the connecting pipe 55. Since the constant pressure tank 54 has ensured the stability of water pressure, the heat pump 3 can more efficiently perform heating operation when receiving water source, reducing energy waste and equipment loss caused by unstable water pressure. In addition, stable water pressure also helps to improve the working efficiency of the heat pump 3, reduce the heating time, and thus realize faster hot water supply.

[0028] Embodiment 2

[0029] Based on embodiment 1, as shown in Figures 1-3 The front part of the mounting seat 5 is provided with a dosing tank 51 for storing and providing necessary water treatment agents (such as disinfectants, scale inhibitors, etc.). The dosing tank 51 is provided with a connecting pipe 55 connecting the dosing tank 51 with the subsequent pipeline system. The agents in the dosing tank 51 can be accurately injected into the water flow through the connecting pipe 55, ensuring uniform distribution of the agents and improving the effect of water quality treatment.

[0030] One end of the dosing pipe 52 is connected with the constant pressure tank 54, and the other end is connected with the dosing tank 51 through the connecting pipe 55. The dosing pipe 52 is provided with a metering pump 521. The metering pump 521 can accurately control the injection amount of the agents according to the data feedback by the monitor 541. When the water flow passes through the constant pressure tank 54, the monitor 541 will detect the water quality parameters (such as pH value, residual chlorine concentration, etc.) in real time and transmit the data to the metering pump 521. Based on these data, the metering pump 521 can automatically adjust the injection amount of the agents to ensure that the water quality always meets the standard and avoid the problem of excessive or insufficient use of agents. This intelligent control mechanism not only improves the precision of water quality treatment, but also reduces the waste of agents and reduces the operating cost.

[0031] The monitor 541 is installed on the constant pressure tank 54 and is signal connected with the metering pump 521. The monitor 541 monitors the water quality parameters of the water flow in the constant pressure tank 54 in real time and feeds back the data to the metering pump 521. This closed-loop control system makes the agent injection process more accurate and can adjust the agent dose in time according to the actual water quality change to ensure that the water quality is stable and meets the requirements. In addition, the monitor 541 can also record the historical data of water quality change and provide detailed water quality report.

[0032] In addition, as shown in Figure 1 and Figure 4As shown, the heating element 6 is arranged on the pipeline of the return water pipe 42, which ensures that the hot water flowing back to the water tank 4 always maintains a proper temperature, and the return water in the return water pipe 42 will flow through the heating element 6 to be heated before returning to the water tank 4. The heating element 6 can heat the return water to a set temperature, which not only ensures the temperature consistency of the return water, but also avoids the problems of energy waste and heating efficiency reduction caused by the too low temperature of the return water.

[0033] Specifically, the heating element 6 works in linkage with the whole hot water circulation system through an intelligent control system, and when the return water temperature is lower than the set value, the heating element 6 will automatically start the heating function to ensure that the return water reaches the ideal temperature before entering the water tank 4. This design effectively prevents the temperature fluctuation caused by the mixing of cold and hot water, and at the same time, reduces the working load of the water tank 4 and the heating element, reduces the situation of frequent start and high load operation, and the heating system in the water tank 4 does not need to start heating from a lower temperature, thereby reducing the energy consumption, and the high-efficiency heating capacity of the heating element 6 also shortens the heating time required by the subsequent heat pump 3.

[0034] The above is only an embodiment of the present application and is not used to limit the present application. Any equivalent replacement within the principle of the present application shall be included in the protection scope of the present application. The contents not described in detail in the present application belong to the prior art known to the person skilled in the art.

Claims

1. An energy-saving hot water circulation system, comprising an installation platform (1); Its characteristics are: It also includes a water supply pipe (2), an equipment room (21), a heat pump (3), a circulation pipe (31), a water tank (4), a hot water outlet pipe (41), a meter (411), a return water pipe (42), and a temperature detector (43). The water supply pipe (2) is connected to the installation platform (1). The equipment room (21) is located on one side of the front of the installation platform (1). The equipment room (21) is equipped with an intelligent control console. Multiple heat pumps (3) are installed on the installation platform (1). The water supply pipe (2) is connected to all the heat pumps (3) through pipes. The liquid in the water supply pipe (2) will be diverted to the heat pumps (3). The heat pumps (3) heat the liquid. The installation platform (1) has the same number of water tanks (4) as the heat pumps (3). Each water tank (4) is connected to two pipes. The circulation pipe (31) is connected to a heat pump (3). Hot water outlet pipe (41) and return water pipe (42) are installed on the water tank (4). The liquid in the water tank (4) is transferred to the water use area through the hot water outlet pipe (41). At the same time, the hot water transferred to the water use area is returned through the return water pipe (42) to realize hot water circulation. Multiple temperature detectors (43) are installed on the water tank (4). The detection probes of the temperature detectors (43) are all inserted into the water tank (4) and in contact with the liquid in the water tank (4). Meters (411) are installed on the hot water outlet pipe (41) of the water tank (4). A water purification mechanism is installed on the water supply pipe (2). Before the water in the water supply pipe (2) enters the heat pump (3), it will pass through the water purification mechanism first.

2. The energy-saving hot water circulation system according to claim 1, characterized in that: The water purification system includes a mounting base (5), a filter tank (53), a constant pressure tank (54), and a connecting pipe (55). The mounting base (5) is located on one side of the rear of the mounting platform (1). The filter tank (53) is located on the mounting base (5). The constant pressure tank (54) is located on the side of the mounting base (5) near the filter tank (53). A connecting pipe (55) is provided between the filter tank (53) and the constant pressure tank (54). The water in the water supply pipe (2) flows through the filter tank (53) and then flows into the constant pressure tank (54) through the connecting pipe (55). The liquid in the constant pressure tank (54) flows into the heat pump (3).

3. The energy-saving hot water circulation system according to claim 2, characterized in that: It also includes a drug delivery box (51), a drug discharge pipe (52), a metering pump (521), and a monitoring instrument (541). The front of the mounting base (5) is provided with a drug delivery box (51). A connecting pipe (55) is provided on the drug delivery box (51). One end of the drug discharge pipe (52) is connected to the constant pressure tank (54). A metering pump (521) is installed on the pipe of the drug discharge pipe (52). A monitoring instrument (541) is installed on the constant pressure tank (54). The monitoring instrument (541) is connected to the metering pump (521) via signal.

4. The energy-saving hot water circulation system according to claim 3, characterized in that: It also includes a heating element (6). The return water pipe (42) is equipped with a heating element (6). Before the return water in the return water pipe (42) flows back to the water tank (4), it will first flow through the heating element (6) for heating.

5. The energy-saving hot water circulation system according to claim 4, characterized in that: Both the hot water outlet pipe (41) and the return water pipe (42) are covered with thermal insulation material.

Images