Heat energy circulation compensation system
By designing a thermal energy circulation compensation system, the waste heat generated by the aging box is used to provide energy for the high-temperature test box, solving the problems of high energy consumption and large carbon emissions of traditional high-temperature aging box, and achieving efficient, energy-saving and environmentally friendly effects.
Patent Information
- Application Number
- CN202421193072.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-05-29
- Publication Date
- 2025-03-18
- Estimated Expiration
- 2034-05-29
AI Technical Summary
Traditional high-temperature aging chambers maintain a high-temperature environment through electrical heating, resulting in high energy consumption and increased carbon emissions, and lack of efficient, energy-saving and environmentally friendly solutions.
A thermal energy circulation compensation system is designed to use the waste heat generated by the aging box to transport it to the high-temperature test box through pipelines, and the heat circulation and reuse is realized through microcomputer controllers and program-controlled valves to reduce the energy output of the high-temperature test box.
Through the thermal energy circulation compensation system, the waste heat of the aging box is effectively recovered and reused, and the energy consumption of the high-temperature test box is reduced, and the purpose of energy conservation and environmental protection is achieved.
Smart Images
Figure CN222624588U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of aging box accessory devices, in particular to a heat energy circulation compensation system. Background Art
[0002] With the current global focus on energy efficiency and sustainable development, the energy efficiency optimization and environmental performance improvement of aging chambers, as key equipment widely used in the fields of material, electronic products and pharmaceutical packaging testing, are particularly important. Especially for those aging chambers that rely on a large amount of heat input to maintain a high temperature test environment, it is imperative to explore and implement energy-saving and emission reduction measures.
[0003] Traditional high-temperature aging chambers usually use electric heating to maintain the required high temperature environment. This process not only consumes a lot of energy, but may also lead to unnecessary carbon emissions. With the advancement of technology and the increase of environmental awareness, the industry has begun to seek more efficient and greener energy utilization solutions. Utility Model Content
[0004] In order to solve the above technical problems, the utility model provides a thermal energy circulation compensation system based on which explores how to achieve heat recovery and reuse of the aging box through innovative design, with particular attention paid to utilizing the waste heat generated by the aging box to provide energy for the high-temperature test box, thereby achieving the purpose of energy saving and environmental protection, thereby enhancing the practicality of the thermal energy circulation compensation system.
[0005] The utility model provides a thermal energy circulation compensation system, comprising an aging box, a first pipeline, a second pipeline, a third pipeline, a high-temperature test box, and a thermal energy circulation compensation controller component. The aging box is connected to the first pipeline, the first pipeline is respectively connected to the second pipeline and the third pipeline, the first pipeline, the second pipeline and the third pipeline are respectively provided with thermal energy circulation compensation controller components, and the second pipeline is connected to the high-temperature test box.
[0006] The thermal energy circulation compensation system of the utility model comprises a temperature control system, a control system and a heating system arranged in the high temperature test box, and the temperature control system is connected with the thermal energy circulation compensation controller component through electric wires.
[0007] The utility model discloses a thermal energy circulation compensation system, wherein the thermal energy circulation compensation controller component comprises a temperature collector, a microcomputer controller, a touch display screen, a first program-controlled valve and a second program-controlled valve, the microcomputer controller and the touch display screen are an integrated machine, the first program-controlled valve is arranged on the second pipeline, the second program-controlled valve is arranged on the third pipeline, the temperature collector is arranged on the first pipeline, and the temperature control system of the high-temperature test box, the temperature collector, the first program-controlled valve and the second program-controlled valve are connected to the microcomputer controller through wires.
[0008] In the heat energy circulation compensation system of the utility model, the high temperature test box is connected with the front section of the third pipeline through the fourth pipeline.
[0009] In the thermal energy circulation compensation system of the utility model, an air detector is arranged at the front section of the first pipeline.
[0010] In the heat energy circulation compensation system of the utility model, the third pipeline is connected to the activated carbon filter component.
[0011] Compared with the prior art, the beneficial effects of the utility model are as follows: when the aging box and the high-temperature test box are inspected and tested, the hot air generated by the aging box will be transported to the second pipe and the third pipe through the first pipe, and then the heat temperature in the pipe and the temperature in the high-temperature test box will be detected through the thermal energy circulation compensation controller component. When the temperature in the high-temperature test box is low, the first program-controlled valve in the thermal energy circulation compensation controller component opens to inject heat energy into the high-temperature test box for the transmission of heat energy in the high-temperature test box, thereby reducing the energy output of the high-temperature test box through the circulation of heat, and when the temperature in the high-temperature test box does not need to be increased, the second program-controlled valve opens to discharge excess heat, thereby achieving the purpose of energy saving and environmental protection, thereby enhancing practicality. BRIEF DESCRIPTION OF THE DRAWINGS
[0012] Figure 1 It is a schematic diagram of the structure of the heat energy circulation compensation system of the utility model;
[0013] Figure 2 It is a schematic diagram of the structure of the thermal energy cycle compensation controller component of the utility model;
[0014] Figure 3 This is a schematic diagram of the high temperature test box structure of the utility model;
[0015] Markings in the attached figure: 1. Aging box; 2. First pipeline; 3. Second pipeline; 4. Third pipeline; 5. High temperature test box; 6. Thermal energy cycle compensation controller assembly; 7. Temperature collector; 8. Microcomputer controller; 9. Touch screen; 10. First program-controlled valve; 11. Second program-controlled valve; 12. Fourth pipeline; 13. Temperature control system; 14. Control system; 15. Heating system; 16. Air detector; 17. Activated carbon filter assembly. DETAILED DESCRIPTION
[0016] The following is a further detailed description of the specific implementation of the present invention in conjunction with the accompanying drawings and examples. The following examples are used to illustrate the present invention, but are not intended to limit the scope of the present invention.
[0017] like Figures 1 to 3As shown, the thermal energy circulation compensation system of the utility model includes an aging box 1, a first pipeline 2, a second pipeline 3, a third pipeline 4, a high-temperature test box 5, and a thermal energy circulation compensation controller component 6. The aging box 1 is connected to the first pipeline 2, and the first pipeline 2 is respectively connected to the second pipeline 3 and the third pipeline 4. The first pipeline 2, the second pipeline 3 and the third pipeline 4 are respectively provided with a thermal energy circulation compensation controller component 6, and the second pipeline 3 is connected to the high-temperature test box 5; when the aging box and the high-temperature test box are inspected and tested, the hot air generated by the aging box will be transported to the second pipeline and the third pipeline through the first pipeline, and then the heat temperature in the pipeline and the temperature in the high-temperature test box are detected by the thermal energy circulation compensation controller component. When the temperature in the high-temperature test box is low, the first program-controlled valve in the thermal energy circulation compensation controller component is opened to inject heat energy into the high-temperature test box for the transmission of heat energy in the high-temperature test box, so as to reduce the output of the energy of the high-temperature test box through the circulation of heat, and when the temperature in the high-temperature test box does not need to be increased, the second program-controlled valve is opened to discharge the excess heat, thereby achieving the purpose of energy saving and environmental protection, thereby enhancing practicality.
[0018] The thermal energy circulation compensation system of the present invention is provided with a temperature control system 13, a control system 14 and a heating system 15 in the high temperature test box 5, and the temperature control system 13 is connected to the thermal energy circulation compensation controller component 6 through wires; the control system in the high temperature test box controls the normal operation of the equipment body, and the temperature control system detects the temperature in the high temperature test box and transmits the information to the thermal energy circulation compensation controller component, so that when the temperature in the high temperature test box is too low, the heating component is started or the residual heat is injected into the high temperature test box, thereby reducing energy waste and enhancing practicality.
[0019] The thermal energy circulation compensation system of the utility model comprises a temperature collector 7, a microcomputer controller 8, a touch screen 9, a first program-controlled valve 10 and a second program-controlled valve 11 in the thermal energy circulation compensation controller assembly 6. The microcomputer controller 8 and the touch screen are integrated. The first program-controlled valve 10 is arranged on the second pipeline 3, the second program-controlled valve 11 is arranged on the third pipeline 4, the temperature collector 7 is arranged on the first pipeline 2, and the temperature control system 13, the temperature collector 7, the first program-controlled valve 10 and the second program-controlled valve 11 of the high-temperature test box 5 are connected to the microcomputer controller 8 through wires; data display and equipment control can be performed through the microcomputer controller and the touch screen display, and then the heat in the first pipeline is detected through the temperature collector, and because the temperature control system in the high-temperature test box detects the temperature in the high-temperature test box, when the temperature in the high-temperature test box is too low, the first program-controlled valve is started, and when the temperature in the high-temperature test box is sufficient, the first program-controlled valve is closed and the second program-controlled valve is opened, so that the excess heat is discharged through the third pipeline, thereby enhancing practicality.
[0020] In the thermal energy circulation compensation system of the present invention, the high temperature test box 5 is connected to the front section of the third pipe 4 through the fourth pipe 12; the excess heat in the high temperature test box can be discharged into the third pipe through the fourth pipe. If the temperature in the aging box and the high temperature test box is too low, the thermal energy is increased, thereby enhancing practicality.
[0021] In the thermal energy circulation compensation system of the present invention, an air detector 16 is provided at the front section of the first pipeline 2; the air detector can be used to detect harmful gases in the hot air discharged from the aging box, thereby preventing harmful gases from being injected into the high-temperature test box, thereby enhancing practicality.
[0022] In the heat energy circulation compensation system of the utility model, the third pipeline 4 is connected to the activated carbon filter component 17; harmful gases in the air can be detected through the activated carbon filter component when the hot air is discharged, thereby enhancing practicality.
[0023] The heat energy circulation compensation system of the utility model, when it is working, when the aging box and the high temperature test box are inspected and tested, the hot air generated by the aging box will be transported to the second pipe and the third pipe through the first pipe, and then the data will be displayed and the equipment will be controlled through the microcomputer controller and the touch screen display, and then the air detector will first detect the harmful substances in the hot air. If there are harmful gases in the hot air, the microcomputer controller will open the second program-controlled valve, and then the harmful gases will be discharged, and filtered and discharged through the activated carbon filter component, and then the heat in the first pipe will be detected by the temperature collector, and because the temperature control system in the high temperature test box detects the temperature in the high temperature test box, when the temperature in the high temperature test box is too low, the first program-controlled valve will be started, and when the temperature in the high temperature test box is sufficient, the first program-controlled valve will be closed and the second program-controlled valve will be opened, so that the excess heat will be discharged through the third pipe, and the hot air will be filtered and discharged through the activated carbon filter component, and then after the test in the high temperature test box is completed, the hot air will be discharged into the third pipe through the fourth pipe for circulation and discharge, so as to facilitate the next test of the high temperature test box.
[0024] The terms "vertical," "horizontal," "left," "right," and the like are used herein for illustrative purposes only.
[0025] The “first”, “second” and “third” mentioned in the present invention do not represent specific quantities and orders, but are merely used to distinguish names.
[0026] The above is only a preferred embodiment of the present invention. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the technical principle of the present invention. These improvements and modifications should also be regarded as the protection scope of the present invention.
Claims
1. A thermal energy circulation compensation system, characterized in that: The invention comprises an aging box (1), a first pipeline (2), a second pipeline (3), a third pipeline (4), a high-temperature test box (5), and a heat energy circulation compensation controller component (6); the aging box (1) is connected to the first pipeline (2); the first pipeline (2) is respectively connected to the second pipeline (3) and the third pipeline (4); the first pipeline (2), the second pipeline (3) and the third pipeline (4) are respectively provided with a heat energy circulation compensation controller component (6); and the second pipeline (3) is connected to the high-temperature test box (5).
2. The thermal energy circulation compensation system according to claim 1, characterized in that: The high temperature test box (5) is provided with a temperature control system (13), a control system (14) and a heating system (15), and the temperature control system (13) is connected to the thermal energy circulation compensation controller component (6) via electric wires.
3. The thermal energy circulation compensation system according to claim 2, characterized in that: The thermal energy circulation compensation controller component (6) comprises a temperature collector (7), a microcomputer controller (8), a touch display screen (9), a first program-controlled valve (10) and a second program-controlled valve (11); the microcomputer controller (8) and the touch display screen are an integrated machine; the first program-controlled valve (10) is arranged on the second pipeline (3); the second program-controlled valve (11) is arranged on the third pipeline (4); the temperature collector (7) is arranged on the first pipeline (2); and the temperature control system (13) of the high-temperature test box (5), the temperature collector (7), the first program-controlled valve (10) and the second program-controlled valve (11) are connected to the microcomputer controller (8) via electric wires.
4. The thermal energy circulation compensation system according to claim 3, characterized in that: The high temperature test box (5) is connected to the front section of the third pipeline (4) via a fourth pipeline (12).
5. The thermal energy circulation compensation system according to claim 4, characterized in that: An air detector (16) is provided at the front section of the first pipeline (2).
6. The thermal energy circulation compensation system according to claim 5, characterized in that: The third pipeline (4) is connected to the activated carbon filter assembly (17).