WO2011156984A1

WO2011156984A1 - Blanket body shunt, quick plug connector and water cooling or heating system

Info

Publication number: WO2011156984A1
Application number: PCT/CN2010/075415
Authority: WO
Inventors: 陈永江
Original assignee: 浙江惠鸿光电科技有限公司
Priority date: 2010-06-18
Filing date: 2010-07-23
Publication date: 2011-12-22

Abstract

A blanket body shunt (1), a quick plug connector (50) and a water cooling or heating system are provided, wherein the water cooling or heating system comprises a host, the quick plug connector (50) and a blanket body that are connected sequentially. The hot water or cold water generated by the host enters into the blanket body shunt (1) in the blanket body through the quick plug connector (50), and then flows back to the backwater tank (28) of the host. Cold or hot exchange occurs in the blanket body, so the surface of the blanket body is heated or cooled.

Description

Blanket shunt, quick connector and water cooling and heating system

The invention relates to a refrigeration or heating system. Background technique

In the winter, people use electric blankets to warm themselves, but in the summer, when it comes to cooling, electric blankets can't help. According to many incidents reported in the news, electric heating blankets may cause burns to the human body or cause fire hazards if the product is damaged or improperly used during heating.

If the heating portion is separated from the heat conducting portion, the heating portion is separated from the carpet which is in direct contact with the human body, so that the aforementioned hidden danger can be avoided. Of course, the heating section can also be cooled. Summary of the invention

The idea of the present invention is to refrigerate or heat a cooling or heating system through water as a medium, which includes a main body and a carpet body, hot water/cold water generated by the main body, enters the carpet body, and then flows back to the main water return tank. In the middle, a heat exchange is generated inside the carpet body to achieve the effect of heat generation/cooling on the surface of the carpet.

In accordance with the foregoing concepts, it is an object of the present invention to provide a carpet shunt that can direct a fluid, such as hot or cold water, in a carpet for the purpose of safely cooling or heating.

According to the foregoing concept, another object of the present invention is to provide a connector for connecting a main body and a carpet body, the main body provides hot water or cold water, and hot water or cold water exchanges heat in the carpet body to manufacture the carpet body. Hot or cold.

In accordance with the foregoing concept, another object of the present invention is to provide a water cooling and heating system that can provide hot water or provide cold water for heat exchange with a carpet body through water as a medium.

The blanket shunt suitable for the foregoing blanket body is characterized in that it comprises a water inlet main pipe, a water discharge main pipe, a plurality of inlet water flow pipes and a plurality of water outlet flow pipes, and the inlet water flow pipe is connected with the water inlet main pipe, and the water flow pipe is connected. The water inlet pipe and the water outlet pipe are arranged one by one, and the inlet water pipe and the water pipe are in one-to-one correspondence, and the corresponding inlet pipe and the outlet pipe are connected through the pipe.

The carpet shunt is further characterized in that the corresponding inlet and outlet water flow tubes are adjacent to the inlet and outlet tubes.

The carpet shunt, further characterized in that the water inlet main pipe and the water discharge main pipe are arranged side by side, and Extending in the first direction, the outlet water flow tube and the inlet moisture flow tube are juxtaposed and extend in the second direction, and the first direction is perpendicular to the second direction.

The carpet shunt is further characterized in that the inlet flow pipe and the outlet water flow pipe are disposed on both sides of the inlet main pipe and the outlet main pipe which are arranged in parallel.

The carpet shunt is further characterized in that the number of the inlet flow tubes is five, and is divided into a second shunt tube, a fourth shunt tube, a fifth shunt tube, a seventh shunt tube, and a ninth shunt tube. The number of the outflow flow tubes is five, and is divided into a first shunt tube, a third shunt tube, a sixth shunt tube, an eighth shunt tube, and a tenth flow tube; wherein, the first shunt tube, the second shunt tube, The third shunt tube, the fourth shunt tube and the fifth shunt tube extend to the first side of the influent main pipe, and are arranged in parallel in sequence; the sixth shunt tube, the seventh shunt tube, the eighth shunt tube, the ninth shunt tube, and the The ten flow tube extends to the second side of the discharge main pipe and is arranged in parallel; the first side position and the second side position are two opposite positions of the water discharge main pipe and the water inlet main pipe arranged in parallel; the first shunt pipe The second shunt tube and the second shunt tube are connected by a pipeline connection, the fifth shunt tube and the sixth shunt tube are connected by a pipeline connection, and the seventh shunt tube and the eighth shunt tube pass through Connected to communication channel, a ninth and a tenth bypass pipe is connected through a pipe in communication shunt tube.

The carpet shunt is further characterized in that the duct connecting the inlet pipe and the outlet pipe constitutes a component for exchanging heat with the carpet of the carpet.

The hot water/cold water produced by the main unit is divided into equal parts after entering the influent main pipe, flowing out from the inflow pipe of the diverter, and through the heat exchange between the inlet and outlet pipes and/or the pipes connecting them. The component flows from the outlet water flow pipe back to the diverter discharge water main pipe, and then flows back to the main machine return water tank to generate cold and heat exchange inside the carpet body, thereby achieving heat generation/cooling of the blanket surface, and the blanket body can be applied to any refrigeration/ Heating mattresses, cushions, baby bedding products.

A quick connector for connecting the main body and the carpet body, comprising: a socket, a plug and a rotary lock cover, wherein the plug comprises a round tubular plug body, a plug water stop valve located in the plug body, the plug water stop valve can be at the plug The plug sealing position in the pipe of the main body is movable between the plug sealing position and the plug connecting position, and the plug water stopping valve is tightly fitted with the pipe of the plug body in the plug sealing position, and the pipe connecting position is not tightly fitted with the pipe of the plug body, the pipe of the plug body A plug water stop valve spring is disposed in the compressed state, and the plug water stop valve spring is associated with the socket water stop valve to provide a force for causing the plug water stop valve to return to the sealed position of the plug; the socket includes a circular tubular socket body The socket water stop valve located in the socket body, the socket water stop valve can move between the socket sealing position and the socket communication position in the pipe of the socket body, and the socket water stop valve is inserted The closed position of the seat is tightly fitted with the pipe of the socket body, and is not tightly fitted with the pipe of the socket body at the connection position of the socket. The pipe of the socket body is provided with a socket water stop spring in a compressed state, the socket water stop spring and the socket stop. The water valve is associated to provide a force that urges the socket stop valve to return to the closed position of the socket; the rotary lock cover fits over the plug and the socket, and the plug and the socket are locked by the threaded connection structure, the plug water stop valve and the socket stop The water valves abut each other, and the plug water stop valve is brought into the plug communication position, and the socket water stop valve is brought to the socket communication position.

The quick connector has a further feature that the socket body has two pipes, and the plug body also has two pipes, and the first end of the socket body protrudes from two water outlets respectively connecting the two pipes. The first end of the plug body also protrudes with two water flow ports respectively communicating with the two pipes. The second end of the socket body is connected with a water pipe connection cover connecting two water pipes, and the second end of the plug body is also connected The water pipe connection cover of the two water pipes is connected, the first end of the plug body further extends out of the positioning post, the first end of the socket body further extends out of the positioning post socket, and the two water flow ports of the plug body are respectively inserted into the two socket body In the water flow port, the positioning post of the plug body is inserted into the positioning post socket of the socket body.

The quick connector is further characterized in that: the plug water stop valve is a pin that can move in the pipe of the plug body, and the pin is sealed by the leakage preventing ring of the water stop valve and the pipe of the plug body. The socket water stop valve is a pin that can move in the pipe of the socket body, and the pin is tightly fitted by the water leakage preventing ring of the water stop valve and the pipe of the plug body.

The quick connector is further characterized in that the plug water stop valve is directly attached to the plug water stop valve spring, and the socket water stop valve is also directly attached to the socket water stop valve spring.

The quick connector is further characterized in that: the number of the positioning post and the positioning post socket is two, and the straight line where the two positioning posts are located and the straight line of the two water flow ports of the plug body are The cross is crossed, and the straight line of the two positioning post sockets intersects with the straight line of the two water flow ports of the socket body.

The quick connector is further characterized in that the socket has an external thread, the rotary lock cover has an internal thread and an inner retaining ring, and the internal thread is connected with the external thread, and the second end of the plug rests within the inner end On the retaining ring.

A water stop valve is used in the pipe of the plug and the socket. When the plug and the socket are not connected, the spring in the pipe pushes the water stop valve to automatically block the water port to prevent water leakage, and the utility model is used when the male and female seats are connected. The principle of force and reaction force, the water stop valve inside the connector interacts to form a water passage, and the invention adopts a thread connection The connection method is used for locking, which makes the structural reliability and operability greatly increased.

The utility model relates to a water cooling and heating system suitable for the main water tank, which comprises a fan, a main heat dissipating aluminum sheet, a semiconductor refrigerating sheet, a heat exchange aluminum sheet and a water tank, a fan, a main heat dissipating aluminum sheet, a semiconductor refrigerating sheet, and a heat exchange. The aluminum sheet and the water box are stacked one on another in sequence.

The water-cooling and heating system is further characterized in that a water tank is provided with a plurality of semiconductor cooling fins, and all of the water-cooling fins of the water tank are arranged side by side in a circuit.

The water cooling and heating system is further characterized in that the number of water tanks is two, and the two water tanks are arranged side by side in space, and are connected in series in the path of water circulation.

The water cooling and heating system is further characterized in that the water inlet of the water tank is connected to the water supply motor, the water outlet of the water box is connected to the blanket body, and the blanket body and the water supply motor are respectively connected to the main water return tank, thereby forming a direction including the water flow direction. The water circulation path from the main tank return tank, to the water supply motor, to the water tank, to the carpet body, and then to the main tank return tank.

The water cooling and heating system is further characterized in that: the water inlet of one water box is connected to the water supply motor, the water outlet of the other water box is connected to the blanket body, and the blanket body and the water supply motor are respectively connected to the main water return tank, thereby forming a water tank. This includes the water circulation path from the main water return tank, to the water supply motor, to the water tank, to the blanket, and then to the main water return tank.

The water cooling and heating system is further characterized in that a water flow passage is formed in the water tank.

The water cooling and heating system is further characterized in that the water flow channel is formed by connecting a plurality of s-shaped channels end to end.

In the cooling state, the main heat-dissipating aluminum sheet will generate high temperature, and the heat-dissipating fan on the main heat-dissipating aluminum sheet can accelerate the heat discharge. By changing the direction of the current, the semiconductor cold sheet can be used to generate cooling/heating of the flowing water of the water tank. The effect is that a tortuous water flow channel is provided in the water tank, which greatly increases the cooling/heating work efficiency and shortens the cooling/heating time.

BRIEF abstract

Specific features and properties of the present invention are further exemplified by the following examples and the accompanying drawings.

BRIEF DESCRIPTION OF THE DRAWINGS Figure 1 is a schematic view showing the structure of a carpet shunt of the present invention.

2 is a perspective view of the quick connector of the present invention. Figure 3 is a perspective view of the plug.

Figure 4 is an internal configuration diagram of the plug.

Figure 5 is a configuration diagram of the water stop valve.

Figure 6 is a structural view of the water stop valve spring.

Figure 7 is a perspective view of the socket.

Figure 8 is an internal configuration diagram of the socket.

Figure 9 is a schematic diagram of the combination of the quick connectors.

Figure 10 is a schematic diagram of the separation of the quick connector.

Figure 11 is a perspective view of the refrigeration system of the present invention.

Figure 12 is a side view of the refrigeration system.

Figure 13 is an exploded view of the refrigeration system.

Figure 14 is a schematic diagram of the operation of the refrigeration system.

Figure 15 is a diagram showing the internal structure of the water tank. BEST MODE FOR CARRYING OUT THE INVENTION

In Fig. 1, the carpet shunt 1 is connected to the connector 50 through the silicone tubes 41, 42 and then connected to the main body for supplying hot or cold water through the connector 50.

The blanket shunt 1 includes an inflow main 10a and an outlet main 10b. The water inlet main 10a is for receiving hot or cold water supplied by the main unit. The outlet main 10b is used to return hot or cold water to the main unit for the purpose of circulating water.

The blanket shunt 1 further includes a moisture flow pipe and a water flow pipe, and the water inlet pipe and the water inlet pipe 10a are connected to each other, and the water flow pipe and the water discharge pipe 10b are connected to each other. In FIG. 1 , the number of the inlet and outlet water flow tubes is 5, respectively, wherein the outlet tube has a first shunt 11 , a third shunt 13 , a sixth shunt 16 , and an eighth shunt 18 . The tenth flow tube 20 has a second shunt tube 12, a fourth shunt tube 14, a fifth shunt tube 15, a seventh shunt tube 17, and a ninth shunt tube 19.

The water inlet main pipe 10a and the water discharge main pipe 10b are arranged side by side, extending in the left and right directions, and all the shunt pipes are also arranged side by side, extending in the upward and downward directions. It can be seen from Fig. 1 that the inlet and outlet water flow tubes are arranged one by one, and one-to-one correspondence, the corresponding inlet and outlet water flow tubes are connected through the pipeline, that is, the first shunt tube 11 and the second shunt tube The tube 12 is connected to each other through a pipe 31. The third branch pipe 13 and the fourth branch pipe 14 are connected by a pipe 32. The fifth branch pipe 15 and the sixth branch pipe 16 are connected by a pipe 33. The branch pipe 17 and the eighth branch pipe 18 are connected by a pipe 34, and the ninth branch pipe 19 and the tenth flow pipe 20 are connected by a pipe 35.

The working principle of the flow divider shown in Figure 1 is as follows: After the circulating water passing through the heating/cooling water enters the water inlet main pipe, the circulating water is divided into equal parts, flowing out from the five branch pipes of the flow splitter, passing through five water pipes. After the formed carpet is circulated, it flows from the other five shunt diverters into the diverter outlet main pipe, and flows through the silicone tube 42 back to the main tank return tank.

The pipe arrangement of the flow divider shown in Fig. 1 is advantageous for the hot water or cold water to flow uniformly in the carpet body, and any of the shunt tubes are not electrically connected, and the cooling or heating effect is not affected.

Although a specific number of shunt tubes in Fig. 1 are taken as an example, the implementation of the present invention is not limited thereto, and the number of shunt tubes may be increased or appropriately reduced.

Each shunt tube can be selected from a silicone tube, and the shunt tube and the shunt tube are fixed by a straight seam on the blanket of the carpet body.

As shown in Fig. 2, the quick connector 6 includes a rotary lock cover 62, a plug 63, a socket 64, and a heat insulating cotton cover 61, 65.

As shown in Fig. 3 to Fig. 6, the plug 63 includes a plug body 631, a water stop valve 630 and a spring 632. The plug body 631 is provided with two pipes, but the internal structure is the same, and will not be separately described below. The water stop valve 630 is disposed in the pipe of the plug body 631 and is movable in the pipe of the plug body 631. The water stop valve 630 is used to control the opening and closing of the plug body 631. In the position shown in FIG. 4, the water valve 630 is provided. In the closed position of the pipe of the plug body, in the sealed position, the water stop valve 630 is tightly fitted with the pipe to close the pipe of the plug body 631. The spring 632 is in a compressed state within the conduit, and the water stop valve 630 is pressed against the spring 632. The spring 632 thus exerts a spring force on the water stop valve 630 which always urges the water stop valve 630 to return to the closed position. As shown in FIG. 4, when an external force is applied to the water stop valve 630 and the spring 632 is compressed inwardly, the water stop valve 630 moves within the plug body 631, so that the water stop valve 630 is thus separated from the closed position and is non-closedly engaged with the body pipe. At this time, the body pipe is opened, and the position where the water stop valve 630 and the body pipe are in a non-sealed fit is referred to as a plug communication position.

As shown in Fig. 5, the water stop valve 630 is a pin. In conjunction with Fig. 3, the pin 630 is provided with a water stop anti-leakage ring 636. In the closed position, the water stop valve 630 can thus be tightly fitted to the body pipe.

The first end of the plug body 631 protrudes from the two water flow ports 634, and the two water flow ports 634 respectively communicate with the two pipes, and two positioning posts 635 extend therefrom. The second end of the plug body 631 is connected to the water pipe connecting cover 633. The 633 can connect two water pipes, and the two water pipes respectively communicate with the two pipes in the plug body 631. Plug therefore Two separate lines are provided for connecting two separate water pipes to the sockets described later.

As shown in Fig. 7, the socket 64 includes a socket body 731, and two pipes are provided in the socket body 731. The structures in the two pipes are the same, and will not be separately described below. The water stop valve 730 is disposed in the pipe of the socket body 731 and is movable in the pipe of the socket body 731. The water stop valve 730 is used to control the opening and closing of the socket body 731. At the position shown in FIG. 8, the water valve 730 In a closed position of the pipe of the socket body, in the sealed position, the water stop valve 630 is tightly fitted with the pipe to close the pipe of the socket body 731. The spring 732 is in a compressed state within the conduit, and the water stop valve 730 is pressed against the spring 732. The spring 732 thus exerts a spring force on the water stop valve 730 which always urges the water stop valve 730 to return to the closed position. As shown in FIG. 7, when an external force is applied to the water stop valve 730 and the spring 732 is compressed inwardly, the water stop valve 730 moves within the socket body 731, and the water stop valve 730 thus leaves the sealed position and is non-closedly engaged with the body pipe. At this time, the body pipe is opened, and the position where the water stop valve 730 and the body pipe are in a non-closed fit is referred to as a socket communication position.

As shown in FIG. 5, the water stop valve 730 and the water stop valve 630 are a pin. In combination with FIG. 7, the pin 730 is provided with a water stop valve anti-leakage ring 736. In the closed position of the socket, the water stop valve 730 can thus The body pipe is tightly fitted.

The first end of the socket body 731 protrudes from the two water flow ports 734, and the two water flow ports 734 communicate with the two pipes respectively, and two positioning column sockets 735 extend therefrom. The second end of the socket body 731 is connected to the water pipe connection cover 733. The cover 733 can connect two water pipes, and the two water pipes respectively communicate with the two pipes in the socket body 731. The socket is thus provided with two separate lines for connecting two separate water pipes to the aforementioned plug.

An external thread 737 is formed on the socket body 731. The positioning post socket 735 can be inserted into the positioning post 635, and the two water flow ports 635 of the plug 63 can be inserted into the two water flow ports 735 of the socket 64, and the two water flow ports 635 of the plug 63 are sleeved with a 0-shaped sealing ring, when the water flow port When the 635 is inserted into the water flow port 735, the water leakage can be effectively prevented.

As shown in FIG. 9, the rotary lock cover 62 has an internal thread 621 and also has an inner retaining ring 620. The water flow port 634 of the plug 63 is inserted into the water flow port 734 of the socket 64, and the positioning post 635 of the plug 63 is inserted into the positioning post socket 735 of the socket 64, so that the plug 63 and the socket 64 are connected together. The rotary lock cover 62 is sleeved on the plug 63 and the socket 64, and the internal thread 621 is externally threaded on the body of the socket 64, and a shoulder of the second end of the plug 63 is located on the inner side of the inner retaining ring 620, when tightened and rotated When the cover 62 is locked, the plug 63 and the socket 64 are locked. When locked, as shown by the arrow in Fig. 8, the water stop valve 630 of the plug 63 and the water stop valve 730 of the socket 64 abut each other, the water stop valve The 630 and the water stop valve 730 are respectively moved from the sealed position of the plug and the socket to the communication position of the plug and the socket. Therefore, after the rotary lock cover 62 is tightened, the plug and the socket connect the two connecting members, for example, the carpet body and the main body. The machine is switched on, and the separate lines provided by the plug and socket allow the carpet body and the main unit to form a circulating water path.

As shown in FIG. 10, when the rotary lock cover 62 is loosened, in the direction indicated by the arrow in the figure, under the action of the spring force, the water stop valve 630 and the water stop valve 730 will respectively return to the sealing of the plug and the socket. position.

As shown in FIG. 11 to FIG. 13, the water cooling and heating system includes a fan 21, a main heat dissipating aluminum sheet 22, a semiconductor refrigerating sheet 25, a heat exchange aluminum sheet 24, and a water tank 23, a fan 21, a main heat dissipating aluminum sheet 22, and a semiconductor refrigerating unit. The sheet 25, the heat exchange aluminum sheet 24, and the water tank 23 are sequentially stacked and assembled.

In the embodiment shown in the figures, the two water cartridges 23 are provided with four semiconductor refrigerating sheets 25, and these semiconductor refrigerating sheets 25 are juxtaposed in a circuit so that when any of the semiconductor refrigerating sheets 25 is damaged, the other three The film is not affected.

As shown in Figs. 14 and 15, the two water cartridges 23 are spatially juxtaposed and connected in series on the path through which water flows. The water inlet 230 of the water tank 23 is connected to the water supply motor 26, and the water outlet 231 of the water tank 23 is connected to the carpet body 1. The carpet body 1 and the water supply motor 26 are respectively connected to the main water return tank, thereby forming a water flow direction from the main water return tank 28, to The water supply motor 26, the water tank 23, the blanket body 1, and the water circulation path to the main tank return tank 28.

As shown in FIG. 15, the water tank 23 is provided with a meandering water flow passage. Preferably, the water flow passage is formed by connecting a plurality of S-shaped passages end to end, as indicated by arrows in the figure, The flow path is much longer than the path that allows water to pass directly through the tank.

The working principle of the embodiment shown in Figures 11-15 is as follows: The circulating water inside the converter tank is fed into the refrigeration system through the motor feed water. The first water change box uses the principle that the semiconductor generates cooling/heating after being energized, and the circulating water is The first and second water change boxes are pre-exchanged between hot and cold, and then enter the second water change box for secondary cold heat exchange. The water after the second exchange flows into the carpet body, and flows back to the host after circulating inside the carpet body. In the return tank, complete a cycle. Because the main heat-dissipating aluminum sheet will generate high temperature in the cooling state, in order to improve the efficiency of cooling, a cooling fan is used on the main heat-dissipating aluminum sheet to accelerate the heat discharge.

Claims

Rights request

1 . A carpet body shunt disposed in a carpet body, comprising: a water inlet main pipe, a water discharge main pipe, a plurality of inlet water flow pipes and a plurality of water outlet pipe, and the inlet water flow pipe is connected with the water inlet main pipe, The water flow pipe is connected with the water discharge main pipe, the inlet water flow pipe and the water outlet pipe are arranged one by one, and the inlet water flow pipe and the water flow pipe are in one-to-one correspondence, and the corresponding inlet moisture pipe and the outlet water flow pipe are connected through the pipe connection. The hot water/cold water generated by the main body associated with the carpet body is divided into equal parts after entering the water inlet main pipe, flows out from the inflow water flow pipe of the diverter, passes through the inflow water flow pipe and the outflow water flow The tubes and/or the pipe heat exchange components connecting them flow from the outlet water flow pipe back to the splitter discharge water main pipe, and then flow back to the main water return tank to generate cold heat exchange inside the carpet body, thereby achieving heat/cooling of the blanket surface.

2. The carpet shunt of claim 1 wherein the corresponding inlet and outlet conduits are adjacent inlet and outlet conduits.

3. The carpet shunt according to claim 2, wherein the water inlet main pipe and the water discharge main pipe are arranged side by side, and extend in the first direction, and the moisture flow pipe and the inlet moisture flow pipe are juxtaposed and extend in the second direction. The first direction is perpendicular to the second direction.

4. The carpet shunt of claim 3, wherein the inlet and outlet streams are disposed on both sides of the inflow main and the outlet main that are juxtaposed.

The carpet shunt according to claim 4, wherein the number of the inlet flow tubes is five, and is divided into a second shunt tube, a fourth shunt tube, a fifth shunt tube, and a seventh shunt tube. The ninth shunt tube; the number of the outflow flow tubes is five, and is divided into a first shunt tube, a third shunt tube, a sixth shunt tube, an eighth shunt tube, and a tenth flow tube; wherein, the first shunt tube, the first shunt tube The second shunt tube, the third shunt tube, the fourth shunt tube and the fifth shunt tube extend to the first side of the influent main pipe, and are arranged in parallel in sequence; the sixth shunt tube, the seventh shunt tube, the eighth shunt tube, and the ninth The diverter tube and the tenth flow tube extend to the second side of the discharge main pipe, and are arranged side by side in sequence; the position of the first side and the position of the second side are two opposite positions of the water discharge main pipe and the water inlet main pipe arranged side by side; The first shunt tube and the second shunt tube are connected by a pipeline connection, the third shunt tube and the fourth shunt tube are connected by a pipeline connection, and the fifth shunt tube and the sixth shunt tube are connected by a pipeline. The seventh shunt pipe and the eighth shunt pipe are connected by a pipe connection, and the ninth shunt pipe and the tenth flow pipe are connected by a pipe connection.

The carpet shunt according to any one of claims 1 to 5, wherein the duct connecting the inlet pipe and the outlet pipe constitutes heat exchange with the carpet of the carpet body. component.

A quick connector for connecting the main body and the carpet body according to claim 1, further comprising a socket, a plug, and a rotary lock cover, wherein

The plug comprises a round tubular plug body, a plug water stop valve located in the plug body, and the plug water stop valve can move between the plug sealing position and the plug communication position in the pipe of the plug body, and the plug water stop valve is in the plug sealing position and The pipe of the plug body is tightly fitted, and the plug connection position is not tightly fitted with the pipe of the plug body, and the plug body of the plug body is provided with a plug water stop valve spring in a compressed state, and the plug water stop valve spring is related to the socket water stop valve Coupled to provide a force that causes the plug stop valve to reset to the sealed position of the plug;

The socket comprises a round tubular socket body, a socket water stop valve located in the socket body, and the socket water stop valve is movable between a socket sealing position in the pipe body of the socket body and a socket communication position, and the socket water stopping valve is in the socket sealing position The pipe of the socket body is tightly fitted, and is not tightly sealed with the pipe of the socket body at the connection position of the socket, and the socket water stop valve spring in the compressed state is arranged in the pipe of the socket body, and the socket water stop valve spring and the socket water stop valve are associated , to provide a force that causes the socket stop valve to be reset to the closed position of the socket;

The rotary lock cover is sleeved on the plug and the socket, and the plug and the socket are locked by the screw connection structure, the plug water stop valve and the socket water stop valve abut each other, and the plug water stop valve is brought to the plug connection position, the socket is sealed The valve is brought to the socket connection position.

8. The quick connector of claim 7, wherein the socket body has two pipes, and the plug body also has two pipes, and the first end of the socket body protrudes from the two pipes respectively Two water flow ports, the first end of the plug body also protrudes with two water flow ports respectively connecting the two pipes, and the second end of the socket body is connected with a water pipe connection cover connecting two water pipes, and the second body of the plug body The water connection cover for connecting two water pipes is also connected to the end, and the first end of the plug body further extends out of the positioning post, the socket The first end of the body further extends out of the positioning post socket, and the two water flow ports of the plug body are respectively inserted into the two water flow ports of the socket body, and the positioning post of the plug body is inserted into the positioning post socket of the socket body.

9. The quick connector of claim 7, wherein the plug water stop valve is a stud that is movable within a pipe of the plug body, the stud being by means of a water stop valve anti-leakage ring and a plug body The pipe sealing seal is a pin which is movable in a pipe of the socket body, and the pin is tightly fitted by a water stop of the water stop valve and the pipe of the plug body.

10. The quick connector of claim 7, wherein the plug water stop valve is directly attached to the plug water stop valve spring, and the socket water stop valve is also directly attached to the socket water stop valve spring.

The quick connector according to claim 7, wherein the number of the positioning post and the positioning post socket is two, two straight lines of the positioning post and two water flow ports of the plug body The straight line is crisscrossed, and the straight line of the two positioning post sockets intersects with the straight line of the two water flow ports of the socket body.

12. The quick connector of claim 7, wherein the socket has an external thread, the rotary cover has an internal thread and an inner collar, the internal thread is coupled to the external thread, and the second end of the plug is On the inner collar.

13. A water cooling and heating system, comprising: a fan, a main heat dissipating aluminum sheet, a semiconductor refrigerating sheet, a heat exchange aluminum sheet and a water tank, a fan, a main heat dissipating aluminum sheet, a semiconductor refrigerating sheet, a heat exchange aluminum sheet, and The water tanks are stacked in layers, and the water inlet of the water tank is connected to the water supply motor. The water outlet of the water tank is connected to the carpet body according to claim 1. The carpet body and the water supply motor are respectively connected to the main body according to claim 1. The water tank is returned to form a water circulation path including a water flow direction from the main water return tank, to the water supply motor, to the water tank, to the carpet body, and then to the main water return tank.

14. The water cooling and heating system according to claim 13, wherein one water tank is provided with a plurality of semiconductor cooling sheets, and all the semiconductor cooling sheets of the water tank arrangement are juxtaposed in a circuit, in the water tank. A tortuous water flow channel is provided.

A water cooling and heating system according to claim 14, wherein the number of water tanks is two, and the two water tanks are arranged side by side in space, and are connected in series in a path through which water flows. The channel is formed by connecting a plurality of S-shaped channels end to end.