Energy-saving adjustable water distributing and collecting device

Abstract

The utility model provides an energy-saving adjustable water distributing and collecting device which aims at solving the problems that according to a traditional floor heating water distributing and collecting device, temperature adjustment can not be achieved after no people go in and out of a room for a long time or people go in and out of the room, and energy is not saved enough. The water distribution and collection device mainly comprises the water distribution and collection device body and the temperature controller, compared with a traditional water distribution and collection device, the infrared detection module is integrated on the temperature controller at the detection end so as to monitor the retention condition of indoor personnel, signals are output to the acting device, the acting device acts to push the spring, the spring drives the flow adjusting plate to move, and the flow adjusting plate drives the water distribution and collection device to move. And the coverage area of the shunting port is adjusted, so that the flow is controlled, and the purposes of energy conservation and consumption reduction are achieved.

Description

Technical Field

[0001] The utility model relates to the technical field of manifolds, in particular to an energy-saving adjustable manifold. Background Art

[0002] As one of the main components of the floor heating, there are mainly four types of manifolds: bare rod type manifold, ball valve type manifold, globe valve type manifold and flow type manifold. Among them, the bare rod type manifold has no flow regulation and shut-off function inside; the ball valve type manifold has a shut-off function for individual pipelines, but no regulation function; the globe valve type manifold is internally provided with a globe valve in the cavity of the manifold, which can realize the flow distribution of branches with different loop lengths; the flow type manifold enables designers to accurately adjust each loop heating system.

[0003] From the above, it can be seen that the current manifolds have achieved flow regulation. The thermostat is mainly used to set the room temperature and switch time to meet the needs of people and achieve the purpose of energy saving. However, with the improvement of people's living standards, the demand for flexible adjustment of room temperature comfort has gradually increased. For example, the existing floor heating manifolds can achieve certain flow regulation and conventional temperature setting, but the temperature adjustment when the room is unoccupied for a long time or after people enter and leave the room cannot be realized, and there is a lack of further improvement in energy saving. Summary of the Utility Model

[0004] Aiming at the above-mentioned shortcomings in the prior art, the present application provides an energy-saving adjustable manifold. An infrared detection module is integrated on the detection end - the thermostat to monitor the presence of people in the room. On the manifold, the conversion from monitoring to execution is realized through a shunt component - an acting device - the thermostat, so that the flow can be adjusted immediately when the room is unoccupied to reduce energy consumption.

[0005] The technical solution adopted by the utility model to solve the above technical problems is as follows:

[0006] An energy-saving adjustable manifold, which includes a manifold body and a thermostat signal-connected to the manifold body. An infrared detection module is integrated on the thermostat. The manifold body includes a shunt component inside the device and an acting device arranged outside the device. The acting device is connected to the shunt component to control its action, and the acting device is also signal-connected to the thermostat.

[0007] Further, the flow splitting component includes a flow splitting box. A confluence port is provided at the top of the flow splitting box, and two independent flow splitting ports are provided at the bottom thereof. The confluence port and the flow splitting ports on both sides are connected by a partition. Two groups of flow regulating plates are covered on the flow splitting ports, and each flow regulating plate is movably covered at the opening of the corresponding flow splitting port. Both sides of the flow regulating plate are connected to the acting device.

[0008] Further, both sides of the flow regulating plate are connected to the acting device through springs, and the inner sides of two opposite flow regulating plates are connected by springs.

[0009] Further, the confluence port is connected to the floor heating supply pipeline, and the flow splitting ports are connected to the floor heating radiation pipelines.

[0010] Further, the acting device is arranged on the side of the main body of the manifold, and the acting device is connected to the thermostat. The relevant signals of the thermostat are transmitted to the acting device, and corresponding actions are generated inside the main body of the manifold.

[0011] Further, the thermostat is also integrally provided with a communication module, and the communication module is signal-connected to an external networking device.

[0012] Further, the thermostat is also integrated with a timing module.

[0013] The beneficial effects of the present utility model are as follows:

[0014] Compared with the prior art, the present utility model provides an energy-saving adjustable manifold. An infrared detection module is integrated on the detection end, i.e., the thermostat, to monitor the presence of indoor personnel. After the infrared detection module collects the presence of indoor personnel at the detection end, the signal is output to the acting device, and the acting device acts to control the action of the flow splitting component inside the manifold, thereby adjusting the flow rate and achieving the purpose of more user-friendly energy-saving adjustment. Description of the Drawings

[0015] Figure 1 is a structural schematic diagram of the present utility model;

[0016] Figure 2 is a system block diagram of the working principle of the present utility model.

[0017] Wherein: 1. Main body of the manifold; 11. Acting device; 12. Flow splitting box; 13. Confluence port; 14. Flow splitting port; 15. Partition; 16. Flow regulating plate; 17. Spring;

[0018] 2. Thermostat; 21. Infrared detection module; 22. Timing module; 23. Communication module; 24. Switch. Specific Embodiments

[0019] The following will describe the specific implementation manners of the present utility model in conjunction with the accompanying drawings.

[0020] The present utility model provides an energy-saving adjustable manifold, aiming to solve the problems that the traditional floor heating manifold lacks a flow regulation function for temperature adjustment when there is no one in the room for a long time or after people enter and leave the room, and there is no further improvement in energy saving.

[0021] As Figure 1 and Figure 2 shown, the present utility model includes a manifold body 1 and a thermostat 2 signal-connected to the manifold body 1. An infrared detection module 21 is integrated on the thermostat 2. The manifold body 1 includes a flow splitting component inside the device and an acting device 11 arranged outside the device. The acting device 11 is connected to the flow splitting component to control its action, and the acting device 11 is also signal-connected to the thermostat 2 to receive the signal transmitted from the thermostat 2.

[0022] In an implementation manner of the present utility model, the flow splitting component includes a flow splitting box 12. A confluence port 13 is arranged at the top of the flow splitting box 12, and two independent flow splitting ports 14 are arranged at the bottom thereof. The confluence port 13 is connected to the two flow splitting ports 14 on both sides through a partition plate 15. Two groups of flow regulation plates 16 are covered on the flow splitting ports 14. Each flow regulation plate 16 movably covers the opening of the corresponding flow splitting port 14, and both sides of the flow regulation plate 16 are connected to the acting device 11.

[0023] In an implementation manner of the present utility model, both sides of the flow regulation plate 16 are connected to the acting device 11 through springs 17, and the inner sides of the two opposite flow regulation plates 16 are connected through springs 17.

[0024] In an implementation manner of the present utility model, the confluence port 13 is connected to the floor heating supply pipeline, and the flow splitting port 14 is connected to the floor heating radiation pipeline.

[0025] In an implementation manner of the present utility model, the acting device 11 is arranged on the side of the manifold body 1, and the acting device 11 is wire-connected or signal-connected to the thermostat 2. In an implementation manner of the present utility model, the thermostat 2 is further integrally provided with a communication module 23, and the communication module 23 is signal-connected to an external networking device.

[0026] In an implementation manner of the present utility model, the thermostat 2 is further integrated with a timing module 22.

[0027] In an implementation manner of the present utility model, a switch 24 is further arranged on the thermostat 2.

[0028] The specific structure and working principle of the present utility model:

[0029] The utility model mainly includes a manifold body 1 and a thermostat 2 signal - connected to the manifold body 1;

[0030] Compared with the prior - art thermostats 2 for floor heating, the utility model integrates an infrared detection module 21, a communication module 23 and a timing module 22 on the thermostat 2. The selection of these three modules is not limited here and can be some commonly used commercially available models in the art. By integrating the infrared detection module 21, the thermostat 2 is empowered with the ability to monitor whether there are people staying indoors; by integrating the communication module 23, users can control the thermostat 2 in the room to send signals through a network connection with smart devices such as mobile phones, and on the mobile phone, they can control the thermostat 2 in the room to send signals, connect to the manifold actuating device 11, and adjust the flow regulating plate 16, thereby achieving the purpose of adjusting the room temperature. For example, if the home maintains a standby temperature for a long time, it can be operated on the mobile phone 3 hours before returning, corresponding to the actions of the corresponding components, and the expected heating temperature can be reached 3 hours later; configuring the timing module 22 can set action signals within different time periods according to the required room temperature changes within a day or a week. For example, at night, the temperature in the bedroom is higher, but the temperatures in the living room and dining room are lower; during weekdays, the room temperature is lower during the day, but the room temperature can be set at a higher level on non - working days.

[0031] In the structural design of the manifold, in order to ensure the coherent stability from the signal emission of the front - end thermostat 2 to the execution of the end - point manifold, the manifold structurally includes a shunt box 12. The top of the shunt box 12 is provided with a confluence port 13, and its bottom is provided with two independent shunt ports 14. In terms of pipeline connection, the confluence port 13 is connected to the floor - heating supply pipeline, and the shunt ports 14 are connected to the floor - heating radiation pipelines; in terms of flow regulation, the confluence port 13 and the two shunt ports 14 on both sides are connected by a partition 15. Two groups of flow regulating plates 16 are covered on the shunt ports 14. Each flow regulating plate 16 movably covers the opening of the corresponding shunt port 14, and both sides of the flow regulating plate 16 are connected to the actuating device 11. The traditional temperature - control function will not be elaborated here. During use, the front - end thermostat 2 collects whether there are people staying indoors and outputs the signal to the actuating device 11. The actuating device 11 can be a mechanical linear module, a ball screw, etc., which is not specifically limited here. The actuating device 11 acts to push the spring 17, and the spring 17 drives the flow regulating plate 16 to move, adjusting the covering area, thereby controlling the flow rate and achieving the purpose of energy conservation and consumption reduction.

[0032] The above description is an explanation of the utility model, not a limitation of the utility model. The scope defined by the utility model can be seen in the claims. Within the protection scope of the utility model, any form of modification can be made.

Claims

1. An energy-saving and adjustable manifold, characterized in that: The invention comprises a manifold body (1) and a temperature controller (2) connected to the manifold body (1) by signal, wherein the temperature controller (2) is integrated with an infrared detection module (21), and the manifold body (1) comprises a flow diversion component inside the device and an action device (11) arranged outside the device, wherein the action device (11) is connected to the flow diversion component to control its action, and the action device (11) is also connected to the temperature controller (2) by signal.

2. An energy-saving adjustable manifold as claimed in claim 1, characterized in that: The flow diversion assembly comprises a flow diversion box (12), the top of the flow diversion box (12) is provided with a confluence port (13), and the bottom of the flow diversion box (12) is provided with two independent flow diversion ports (14), the confluence port (13) and the flow diversion ports (14) on both sides are connected via a partition plate (15), the flow diversion ports (14) are covered with two groups of flow regulating plates (16), each of the flow regulating plates (16) movably covers the opening of the corresponding flow diversion port (14), and the two sides of the flow regulating plates (16) are connected to the action device (11).

3. An energy-saving adjustable manifold as claimed in claim 2, characterized in that: Both sides of the flow regulating plate (16) are connected to the action device (11) via springs (17), and the inner sides of the two opposite flow regulating plates (16) are also connected via springs (17).

4. The energy-saving adjustable manifold as claimed in claim 2, characterized in that: The confluence port (13) is connected to a floor heating heating pipeline, and the diversion port (14) is connected to a floor heating radiation pipeline.

5. The energy-saving adjustable manifold as claimed in claim 2, characterized in that: The action device (11) is arranged on the side of the manifold body (1).

6. The energy-saving adjustable manifold according to claim 1, characterized in that: The temperature controller (2) is also integrated with a communication module (23), and the communication module (23) is signal-connected to an external networking device.

7. The energy-saving adjustable manifold according to claim 1, characterized in that: The temperature controller (2) is also integrated with a timing module (22).

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