Heating module shunting control system

Abstract

The utility model discloses a heating module shunting control system, which relates to the technical field of heating systems, and comprises a plurality of heating modules and a controller, the plurality of heating modules are distributed at each part of clothes and are divided into a heating module A and a heating module B, and the controller is connected with the heating module A and the heating module B; the controller is provided with a plurality of control ends, the control ends are divided into two groups, the controlled ends of the heating module A and the heating module B are connected with the control ends of the corresponding groups, and the controller can control the heating module A and the heating module B to work circularly. According to the heating module shunt control system, on the premise of the same voltage and current, a heating area of the heating module is doubled, the heating module achieves a larger and more heating effect through fixed voltage and current, and the problems that the use current of the heating module cannot be reasonably distributed and the service life of the heating module cannot be prolonged in the existing market are solved. And the efficiency cannot be maximized.

Description

Technical Field

[0001] This utility model relates to the field of heating system technology, specifically a heating module diversion control system. Background Technology

[0002] Heated clothing is a garment designed with innovative technology to heat the wearer's core body temperature. It provides lightweight warmth, comfort, and versatility by incorporating heating elements within the fabric layers and using battery power to generate heat.

[0003] Currently available heated clothing products on the market often only control the on / off state, and their current output ratio is fixed. This makes it impossible to reasonably distribute the current used by the heating module, resulting in the inability to maximize efficiency. At the same voltage and current conditions, to increase the heating area and temperature, existing products often need to reduce the heating area or temperature, which leads to a decrease in user experience. Utility Model Content

[0004] To address the shortcomings of existing technologies, this invention provides a heating module flow control system, which solves the problems mentioned in the background.

[0005] To achieve the above objectives, this utility model provides the following technical solution: a heating module shunt control system, comprising:

[0006] The heating module is provided in a plurality of parts distributed in various parts of the clothing, and the heating module is divided into heating module A and heating module B.

[0007] The controller has several control terminals, which are divided into two groups. The controlled terminals of the heating module A and the heating module B are connected to the control terminals of the corresponding groups.

[0008] The controller can control the heating module A and heating module B to work in a cyclical manner.

[0009] Furthermore, the heating module shunt control system also includes:

[0010] The operation panel is capable of communicating with the controller.

[0011] Furthermore, the heating module shunt control system also includes:

[0012] The power supply is capable of providing electrical energy to the heating module, controller, and operation panel.

[0013] Furthermore, the heating module A and heating module B respectively include a zone 1 heating module, a zone 2 heating module, a zone 3 heating module, a zone 4 heating module, a zone 5 heating module, a zone 6 heating module, a zone 7 heating module, a zone 8 heating module, a zone 9 heating module, and a zone 10 heating module fixed to various parts of the clothing; the controlled end of the zone 1 heating module, zone 2 heating module, zone 3 heating module, zone 4 heating module, zone 5 heating module, zone 6 heating module, zone 7 heating module, zone 8 heating module, zone 9 heating module, and zone 10 heating module are all connected to the control end of the controller via FPC cables.

[0014] Furthermore, the circuit containing the heating modules in zones one, two, three, four, and five is circuit A; the circuit containing the heating modules in zones six, seven, eight, nine, and ten is circuit B; both circuit A and circuit B are controlled by the controller.

[0015] Furthermore, the operation panel includes:

[0016] A temperature display screen is provided, which can display the temperature of heating module A or heating module B.

[0017] Furthermore, the operation panel also includes:

[0018] The main switch, when pressed and held for a set time, can start or stop the entire system.

[0019] A high-power switch, which, when pressed briefly, puts the entire system into a high-power mode.

[0020] A medium-power switch, which, when pressed briefly, puts the entire system into a medium-power mode.

[0021] A low-power switch, when pressed briefly, puts the entire system into a low-power mode.

[0022] Furthermore, the operation panel also includes:

[0023] Indicator lights, which can be lit up after the entire system is running, and can be lit up with corresponding colors according to different power modes.

[0024] This invention provides a heating module shunt control system. Compared with the prior art, it has the following advantages:

[0025] This heating module current control system, on the one hand, groups the heating modules and controls them to double the heating area of ​​the heating modules under the same voltage and current conditions. On the other hand, by switching the working mode of the circuit, it enables the heating modules to achieve a larger and greater heating effect with a fixed voltage and current. This solves the problem that existing products on the market cannot reasonably allocate the current of the heating modules, resulting in the inability to maximize efficiency. Attached Figure Description

[0026] Figure 1 This is a structural block diagram of the present invention;

[0027] Figure 2 This is a structural block diagram of heating modules A and B in this utility model;

[0028] Figure 3 This is a schematic diagram showing the distribution of the heating modules in various areas of the present invention on the back of the garment;

[0029] Figure 4 This is a schematic diagram showing the distribution of the heating modules in various areas of the present invention on the front of the garment;

[0030] Figure 5 This is a schematic diagram of the operation panel in this utility model;

[0031] Figure 6 This is a schematic diagram of the control circuit of this utility model;

[0032] Figure 7 This is a flowchart illustrating the process of this utility model.

[0033] In the diagram: 100, Heating Module; 1001, Heating Module A; 101, Zone 1 Heating Module; 102, Zone 2 Heating Module; 103, Zone 3 Heating Module; 104, Zone 4 Heating Module; 105, Zone 5 Heating Module; 1002, Heating Module B; 106, Zone 6 Heating Module; 107, Zone 7 Heating Module; 108, Zone 8 Heating Module; 109, Zone 9 Heating Module; 110, Zone 10 Heating Module; 200, Controller; 300, Operation Panel; 301, Temperature Display Screen; 302, Main Switch; 303, High-range Switch; 304, Medium-range Switch; 305, Low-range Switch; 306, Indicator Light; 400, Power Supply; 500, Clothing. Detailed Implementation

[0034] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0035] This utility model provides a technical solution: a heating module component flow control system, which is mainly used in heated clothing. Please refer to [link / reference]. Figure 2 , 3 4. The structure of garment 500 is based on existing known technology, mainly consisting of fabric and lining. In this system, the heating module 100 serves as the core structure, with a total of ten modules (including but not limited to this number, which can be increased or decreased according to actual needs). These ten heating modules are distributed in different locations on garment 500, for example (the positions can also be adjusted according to actual needs): Zone 1 heating module 101, Zone 2 heating module 102, Zone 3 heating module 103, Zone 4 heating module 104, Zone 5 heating module 105, Zone 6 heating module 106, Zone 7 heating module 107, and Zone 8 heating module 108. Heating modules 107 and eight-zone heating modules 108 are located on the back of the garment 500, while nine-zone heating modules 109 and ten-zone heating modules 110 are located on the front of the garment 500. Each heating module in each zone corresponds to a different part of the human body. For example, one-zone heating module 101 corresponds to the spine, two-zone heating module 102 and three-zone heating module 103 correspond to the waist, etc. Because they are distributed in the garment 500, in order to satisfy comfort and also take into account the conduction of the circuit, the heating modules are connected by flexible wires (FPC).

[0036] Please refer to 1. This heating module shunt control system also includes a controller 200. In this embodiment, the control terminals of the controller 200 are equally divided into two groups, correspondingly dividing the ten heating modules into two groups: heating module A1001 and heating module B1002. When using this system, heating module A1001 and heating module B1002 operate independently. That is, when heating module A1001 is working, heating module B1002 is not working, and vice versa. The operation of heating module A1001 or heating module B1002 is controlled by the controller 200. For example, when the operating temperature of heating module A1001 reaches the set temperature, the controller 200 will switch to heating module B1002 to operate, and heating module A1001 will stop working. Similarly, when the operating temperature of heating module B1002 reaches the set temperature, the controller 200 will switch back to heating module A1002. Work 1001, and repeat this process.

[0037] Please see Figure 1 , 5 The system also includes an operation panel 300, which can be fixed in a convenient location on the garment 500. The specific location is not limited. The operation panel 300 displays a temperature display 301, a main switch 302, a high-range switch 303, a medium-range switch 304, a low-range switch 305, and indicator lights 306. The temperature display 301 shows the operating temperatures of heating modules A 1001 and B 1002 in real time. The main switch 302 requires a long press to start and stop the system. The high-range switch 303, medium-range switch 304, and low-range switch 305 correspond to the display of heating modules A 1001 and B 1002, respectively. The heating power of 1002 can be switched by short press according to the user's needs. The indicator light 306 can be lit after the whole system is running, and can be lit in the corresponding color according to different power modes. For example, after pressing the high-power switch 303, the indicator light 306 will be red; after pressing the medium-power switch 304, the indicator light 306 will be blue; and after pressing the low-power switch 305, the indicator light 306 will be green.

[0038] Please see Figure 6 The 5V DC power supply 400 is connected to the heating modules in the ten zones via a common anode circuit structure. The controlled terminals of heating modules 101, 102, 103, 104, and 105 in zones 1, 2, 2, 3, 4, and 5 are all connected to the A group control terminals of the controller 200, forming circuit A. Similarly, the controlled terminals of heating modules 106, 107, 108, 109, and 110 in zones 6, 7, 8, 9, and 10 are all connected to the B group control terminals of the controller 200, forming circuit B.

[0039] Please see Figure 1 In order to provide power to the entire system, a power supply 400 is provided. The power supply 400 can provide power to the operation panel 300, the controller 200 and the heating module 100, and the power supply 400 uses a 5V DC power supply.

[0040] Please see Figure 7 In the picture:

[0041] Project A indicates that loop A operates for 10 minutes;

[0042] Project B indicates that loop B operates for 10 minutes;

[0043] Project C indicates that loop C operates for 5 seconds;

[0044] Project D indicates that loop B operates for 5 seconds.

[0045] When the system is in operation: After the user presses and holds the main switch 302 for 1.5 seconds, the entire system starts running. The user can press the high-range switch 303, medium-range switch 304, and low-range switch 305 according to their needs. For example, when the high-range switch 303 is pressed, the indicator light 306 lights up red, indicating that the power of heating module A 1001 is 100%; when the medium-range switch 304 is pressed, the indicator light 306 lights up blue, indicating that the power of heating module A 1001 is 70%; when the low-range switch 305 is pressed, the indicator light 306 lights up green, indicating that the power of heating module A 1001 is 40%. Regardless of which switch is pressed, once the operating temperature of heating module A 1001 reaches the set temperature, the controller 200 will actively switch circuit A to circuit B, allowing heating module B 1002 to start working. At this time, heating module A 1001 will stop working. Similarly, when heating module B... Once the operating temperature of 1002 reaches the set temperature, the controller 200 will actively switch circuit B back to circuit A, allowing heating module A 1001 to work again. At this time, heating module B 1002 will stop working, and this cycle will repeat. To stop the system from working, press and hold the main switch 302 for 1.5 seconds.

Claims

1. A heating module current distribution control system, characterized in that, include: Heating module (100), there are a total of several heating modules (100), the several heating modules (100) are distributed in various parts of the clothing, and the several heating modules (100) are divided into heating module A (1001) and heating module B (1002). The controller (200) has several control terminals, which are divided into two groups. The controlled terminals of the heating module A (1001) and the heating module B (1002) are connected to the control terminals of the corresponding groups. The controller (200) can control the heating module A (1001) and the heating module B (1002) to work in a cycle; The heating module A (1001) and heating module B (1002) respectively include a heating module in zone one (101), a heating module in zone two (102), a heating module in zone three (103), a heating module in zone four (104), a heating module in zone five (105), a heating module in zone six (106), a heating module in zone seven (107), a heating module in zone eight (108), a heating module in zone nine (109), and a heating module in zone ten (110) fixed to various parts of the clothing. The controlled end of the heating module in zone 1 (101), heating module in zone 2 (102), heating module in zone 3 (103), heating module in zone 4 (104), heating module in zone 5 (105), heating module in zone 6 (106), heating module in zone 7 (107), heating module in zone 8 (108), heating module in zone 9 (109), and heating module in zone 10 (110) are all connected to the control end of the controller (200) via FPC cables; It also includes: an operation panel (300) that can communicate with the controller (200); After the operating temperature of heating module A (1001) reaches the set temperature, the controller (200) will actively switch loop A to loop B, so that heating module B (1002) can start working. At this time, heating module A (1001) will stop working. After the operating temperature of heating module B (1002) reaches the set temperature, the controller (200) will actively switch loop B back to loop A, so that heating module A (1001) can work again.

2. The heating module component flow control system according to claim 1, characterized in that, Also includes: A power supply (400) is provided to the heating module (100), the controller (200), and the operation panel (300).

3. The heating module component flow control system according to claim 2, characterized in that, The circuit containing the heating module (101) in zone one, the heating module (102) in zone two, the heating module (103) in zone three, the heating module (104) in zone four, and the heating module (105) in zone five is circuit A; The circuit containing the six-zone heating module (106), the seven-zone heating module (107), the eight-zone heating module (108), the nine-zone heating module (109), and the ten-zone heating module (110) is circuit B; Both loop A and loop B are controlled by the controller (200).

4. The heating module component flow control system according to claim 1, characterized in that, The operation panel (300) includes: Temperature display screen (301) is capable of displaying the temperature of heating module A (1001) or heating module B (1002).

5. A heating module component flow control system according to claim 4, characterized in that, The operation panel (300) also includes: The main switch (302) can start or stop the entire system after being pressed and held for a set time; High-power switch (303), which, when pressed briefly, puts the entire system into high-power mode; Medium-range switch (304), which, when pressed briefly, puts the entire system into medium-power mode; Low-power switch (305), when pressed briefly, puts the entire system into low-power mode.

6. A heating module component flow control system according to claim 5, characterized in that, The operation panel (300) also includes: Indicator light (306) can be lit up after the entire system is running, and can be lit up with the corresponding color according to different power modes.

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