Multi-temperature gradient OTC warming device
By designing an OTC heating device with multiple temperature gradients, and using a closed-loop control system that combines electric heating wires and temperature sensors with enclosures and air vents, the problem of existing devices being unable to simulate multiple temperature gradients was solved. This enabled the simulation of multiple gradient environments in the same experiment, improving the accuracy and reliability of the experiment.
Patent Information
- Application Number
- CN202423207077.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-24
- Publication Date
- 2025-11-21
- Estimated Expiration
- 2034-12-24
AI Technical Summary
Existing warming experimental devices cannot simulate multiple temperature gradients simultaneously in the same experiment, resulting in insufficient representativeness of experimental results and making it difficult to comprehensively evaluate the ecological response under different temperature conditions.
Design a multi-temperature gradient OTC heating device. Through different enclosure designs and vent configurations, combined with a closed-loop control system of electric heating wires and temperature sensors, achieve precise control and stability of multiple temperature gradients. The device includes support components, measurement components, and auxiliary heating components to ensure the simulation of ecological responses under different temperature conditions in the same experiment.
It improves the diversity and reliability of experimental data, simplifies the operation process, reduces costs, and enables the simulation of multiple temperature gradient environments in the same experiment, accurately assessing the impact of temperature rise on crop growth and the ecological environment, thus improving the accuracy and reliability of experiments.
Smart Images

Figure CN223568258U_ABST
Abstract
Description
Technical Field
[0001] This application relates to the field of environmental control equipment technology, and in particular to an OTC heating device with multiple temperature gradients. Background Technology
[0002] While existing warming experimental devices can simulate a certain temperature increase, they are insufficient in simulating multiple temperature gradients and cannot fully reflect the ecological response under different temperature conditions, which limits the depth and breadth of research.
[0003] In practical applications, common heating experimental apparatuses mainly fall into two types: open and closed. Open apparatuses typically regulate temperature through natural ventilation and are suitable for simulating lower temperature rises, while closed apparatuses increase internal temperature by reducing airflow and are suitable for simulating higher temperature rises. However, both types of apparatuses can only simulate a single temperature gradient and cannot simultaneously simulate multiple temperature conditions in the same experiment. Furthermore, some improved apparatuses attempt to change the temperature by adjusting the size or materials of the apparatus, but this still makes it difficult to achieve precise multi-gradient temperature control.
[0004] The aforementioned technologies cannot simultaneously simulate multiple temperature gradients in a single experiment, resulting in insufficient representativeness of the experimental results and making it difficult to comprehensively assess the ecological response under different temperature conditions. This limitation severely affects the accuracy and application scope of the research, urgently requiring a heating device capable of simulating the characteristics of multiple temperature gradient environments in a single experiment. Utility Model Content
[0005] To overcome the above problems, this application provides an OTC heating device with multiple temperature gradients.
[0006] The OTC heating device with multiple temperature gradients provided in this application adopts the following technical solution:
[0007] A multi-temperature gradient OTC heating device includes a support assembly and a measuring assembly. The support assembly includes at least two frames and multiple enclosures. Two of the frames are fixed at a designated location in the farmland. One of the frames is not equipped with any enclosures. The remaining sides of the other frame that are not in contact with the farmland correspond to one enclosure. The enclosures and the frames form an OTC heating hood. The enclosures on the four side walls of the OTC heating hood are each provided with multiple air vents.
[0008] The measuring component includes multiple temperature measuring elements, each corresponding to one of the frames. The temperature measuring elements are connected within the frames and are used to monitor the temperature and humidity changes of the device.
[0009] By adopting the technical scheme, one of the frames is not provided with a fence, the temperature condition in the natural environment is simulated, and the comparison basis of the experiment is ensured. The OTC warming device with multiple temperature gradients can realize accurate control of multiple temperature gradients through different fence designs and air hole configurations, so as to simulate ecological responses under different temperature conditions in the same experiment. This design not only improves the diversity and reliability of experimental data, but also simplifies the experimental operation process and reduces the experimental cost, and can simulate multiple temperature gradient environments in the same experiment. In addition, by comparing the temperature and humidity changes under different temperature conditions, researchers can more accurately evaluate the specific effects of temperature rise on crop growth and ecological environment.
[0010] In a specific implementable scheme, the frame is provided with five OTC warming covers, which can be divided into a full-open blank control device, a low-warming device with 15 equidistant holes, a medium-warming device with 10 equidistant holes, a high-warming device with 5 equidistant holes, and a full-warming device without holes. The low-warming device with 15 equidistant holes is provided with 15 equidistant air holes on the fence of the four side walls of the OTC warming cover. The medium-warming device with 10 equidistant holes is provided with 10 equidistant air holes on the fence of the four side walls of the OTC warming cover. The high-warming device with 5 equidistant holes is provided with 5 equidistant air holes on the fence of the four side walls of the OTC warming cover. The full-warming device without holes has no holes.
[0011] By adopting the technical scheme, the full-open blank control device is used to simulate the temperature condition in the natural environment, the low-warming device with 15 equidistant holes, the medium-warming device with 10 equidistant holes, and the high-warming device with 5 equidistant holes are used to simulate different degrees of temperature rise, and the full-warming device without holes is used to simulate the highest degree of temperature rise. In this way, multiple temperature gradients can be simulated in the same experiment, so as to comprehensively evaluate the ecological responses under different temperature conditions, improve the accuracy and reliability of the experiment, and reduce the experimental cost and time.
[0012] In a specific implementable scheme, the temperature measuring member includes a steel wire rope and three temperature and humidity sensors. The steel wire rope is fixed in the OTC warming cover, and the steel wire rope is arranged along the diagonal line of each OTC warming cover for fixing the temperature and humidity sensors. The three temperature and humidity sensors are uniformly and spacedly arranged along the length direction of the steel wire rope.
[0013] By adopting the above technical scheme, the stability and fixation of the temperature and humidity sensor in the OTC warming cover can be ensured, the position deviation of the sensor caused by wind blowing or other factors can be avoided, and the accuracy and stability of temperature and humidity data acquisition can be improved; the three temperature and humidity sensors are arranged at different height positions in the OTC warming cover, the temperature and humidity changes in the OTC warming cover can be comprehensively monitored, and the comprehensiveness and reliability of experimental data can be ensured.
[0014] In a specific implementable scheme, the measuring assembly further comprises an observation member, the observation member comprises a phenology camera and a support frame, the phenology camera is arranged at the periphery of the OTC warming device and is used for recording the growth of plants, and the support frame is connected to the phenology camera and is connected to the farmland.
[0015] By adopting the above technical scheme, the phenology camera is arranged at the periphery of the OTC warming device and is used for recording the growth of plants, the support frame is connected to the phenology camera, and the support frame is connected to the farmland. This scheme can monitor and record the growth state of plants under different temperature gradients in real time, provide intuitive data support, help researchers comprehensively understand the specific influence of different temperature conditions on plant growth, and improve the accuracy and reliability of experiments.
[0016] In a specific implementable scheme, the auxiliary heating assembly further comprises at least one heating member, the heating member comprises an electric heating wire, the electric heating wire is located in the OTC warming cover, and the electric heating wire is connected to the fence and is used for heating in the OTC warming cover.
[0017] By adopting the above technical scheme, this scheme realizes precise temperature control, ensures that the temperature in each OTC warming cover can be independently adjusted, thereby simultaneously simulating multiple temperature gradients in the same experiment, and improves the precision and reliability of the experiment. In addition, by heating through the electric heating wire, the influence of natural environmental temperature fluctuations can also be effectively solved, so that the experimental results are more stable and consistent.
[0018] In a specific implementable scheme, the auxiliary heating assembly further comprises a detection member, the detection member is a temperature sensor, the temperature sensor is screw-fixed in the OTC warming cover, the temperature sensor is electrically connected with the electric heating wire, a preset temperature value of the temperature sensor is set by a person, when the temperature detected by the temperature sensor reaches the preset value, the temperature sensor controls the electric heating wire to stop heating, so as to maintain the stability of the temperature in the OTC warming cover.
[0019] By adopting the above technical scheme, when the temperature reaches the preset value, the temperature sensor will automatically control the electric heating wire to stop heating, so as to maintain the stability of the temperature; this closed-loop control system effectively avoids the influence of temperature fluctuations on experimental results, improves the repeatability and consistency of experiments, and makes the experimental results more convincing.
[0020] In a specific implementation, the heating element further comprises a contact plate connected to the electric heating wire near the side of the OTC heating cover side wall, and the contact plate is fixed to the OTC heating cover side wall.
[0021] By adopting the above technical solution, the direct contact between the electric heating wire and the enclosure is effectively avoided, preventing the enclosure from being damaged due to high temperature, and ensuring the reliability and safety of the experiment. In addition, the fixing mode of the contact plate can also enhance the stability of the electric heating wire, reduce the displacement of the electric heating wire caused by external factors, and further improve the accuracy and consistency of temperature control.
[0022] In a specific implementation, four heating elements are provided, each corresponding to one OTC heating cover side wall, and the electric heating wires on the OTC heating cover side wall are arranged in an M shape.
[0023] By adopting the above technical solution, the electric heating wires are arranged in an M shape on the side wall, which effectively avoids the shielding of the air holes and ensures the normal ventilation function of the air holes, so as to not affect the accurate control of the temperature gradient; at the same time, the four heating elements can uniformly heat the space inside the OTC heating cover, improve the heating efficiency, and ensure the uniformity and stability of the temperature, further enhancing the reliability and repeatability of the experimental results.
[0024] In summary, the present application includes at least one of the following beneficial technical effects:
[0025] 1. The designed multi-temperature gradient OTC heating device can achieve accurate control of multiple temperature gradients through different enclosure designs and air hole configurations, thereby simulating ecological responses under different temperature conditions in the same experiment. This design not only improves the diversity and reliability of experimental data, but also simplifies the experimental operation process and reduces experimental costs, allowing multiple temperature gradient environments to be simulated in the same experiment. In addition, by comparing the temperature and humidity changes under different temperature conditions, researchers can more accurately evaluate the specific effects of temperature rise on crop growth and ecological environment.
[0026] 2. The designed multi-temperature gradient OTC heating device can simultaneously simulate multiple temperature gradients in the same experiment, thereby comprehensively evaluating ecological responses under different temperature conditions, improving the accuracy and reliability of the experiment, and reducing experimental costs and time.
[0027] 3. The designed OTC warming device with multiple temperature gradients effectively avoids direct contact between the electric heating wire and the enclosure, preventing damage to the enclosure due to high temperature, ensuring the reliability and safety of the experiment. In addition, the fixing method of the contact plate can also enhance the stability of the electric heating wire, reduce the displacement of the electric heating wire caused by external factors, and further improve the accuracy and consistency of temperature control. BRIEF DESCRIPTION OF DRAWINGS
[0028] Figure 1 is a structural schematic diagram of the OTC warming device of Example 1.
[0029] Figure 2 is a structural schematic diagram of the OTC warming device of Example 1.
[0030] Figure 3 is a sectional view of the frame and the enclosure in Example 1.
[0031] Figure 4 is a sectional view of the frame and the enclosure in Example 2.
[0032] Reference signs: 1, support assembly; 11, frame; 12, enclosure; 121, air hole; 2, measurement assembly; 21, temperature measuring part; 211, steel wire rope; 212, temperature and humidity sensor; 22, observation part; 221, phenology camera; 222, support frame; 3, auxiliary warming assembly; 31, warming part; 311, electric heating wire; 312, contact plate; 32, detection part. DETAILED DESCRIPTION
[0033] The following will be described in detail in combination with the accompanying Figures 1-4 The present application is further described in detail.
[0034] The present application discloses an OTC warming device with multiple temperature gradients.
[0035] Example 1
[0036] Referring to Figure 1 An OTC warming device with multiple temperature gradients includes a support assembly 1 and a measurement assembly 2, and the measurement assembly 2 is arranged on the support assembly 1.
[0037] Referring to Figure 1 and Figure 2The support assembly 1 comprises at least two frames 11 and a plurality of enclosures 12. In the embodiment, the frame 11 is rectangular, the number of frames 11 is five, the frame 11 is placed at the designated position of the farmland according to the design requirements, the frame 11 is fixed with the farmland, the plurality of frames 11 are placed according to the preset position, the seedlings in the frame 11 are samples, and the frame 11 is a metal frame 11 made of stainless steel or aluminum alloy. The stainless steel frame 11 has high strength and corrosion resistance, and is suitable for long-term outdoor use. The aluminum alloy frame 11 is lighter and is convenient for transportation and installation. In the embodiment, the frame 11 is selected to be a stainless steel metal frame 11.
[0038] With reference to Figure 1 and Figure 2 One of the frames 11 is not provided with any enclosure 12, which is used to simulate the temperature condition in the natural environment. The remaining frames 11 are each provided with an enclosure 12 corresponding to the side not in contact with the farmland. The enclosure 12 is fixedly connected with the frame 11 through screws. The enclosure 12 and the frame 11 form an OTC warming cover. The connection between the enclosure 12 and the frame 11 is sealed by using special sealing materials, so as to ensure the sealing property of the inside of the OTC warming cover. The plurality of OTC warming covers can be divided into a full-open blank control device, a low-warming device with 15 equidistant openings, a medium-warming device with 10 equidistant openings, a high-warming device with 5 equidistant openings, and a full-warming device without openings. The specific number of boxes and the number of openings can be determined according to the actual situation. The full-open blank control device is that the frame 11 is not provided with any enclosure 12. The low-warming device with 15 equidistant openings is that the enclosures 12 located at the four side walls of the OTC warming cover are each provided with 15 equidistant air holes 121, and the diameter of each air hole 121 is 20 cm, which is used to simulate a lower degree of temperature rise. The medium-warming device with 10 equidistant openings is that the enclosures 12 located at the four side walls of the OTC warming cover are each provided with 10 equidistant air holes 121, and the diameter of each air hole 121 is 20 cm, which is used to simulate a medium degree of temperature rise. The high-warming device with 5 equidistant openings is that the enclosures 12 located at the four side walls of the OTC warming cover are each provided with 5 equidistant air holes 121, and the diameter of each air hole 121 is 20 cm, which is used to simulate a higher degree of temperature rise. The full-warming device without openings is not provided with any opening, which is used to simulate the highest degree of temperature rise. The enclosure 12 is made of acrylic plate or thickened glass. The acrylic plate has good transparency and weather resistance, and is suitable for long-term exposure in the natural environment. The number of openings of the OTC warming cover is controlled to control the wind speed, so as to realize the gradient control warming effect. The thickened glass is more solid and can withstand greater external pressure. In the embodiment, the enclosure 12 is made of acrylic plate.
[0039] With reference to Figure 1 , Figure 2 and Figure 3The measuring assembly 2 comprises a plurality of temperature measuring members 21 and an observation member 22, the temperature measuring members 21 correspond to the OTC warming covers one by one, the temperature measuring member 21 comprises a steel wire rope 211 and three temperature and humidity sensors 212, the steel wire rope 211 is located in the OTC warming cover, the steel wire rope 211 is arranged along the diagonal line of each OTC warming cover, and both ends of the steel wire rope 211 are fixedly connected with the OTC warming cover in a binding manner, for fixing the temperature and humidity sensor 212, the three temperature and humidity sensors 212 are uniformly and intervally distributed along the length direction of the steel wire rope 211, and the three temperature and humidity sensors 212 are respectively fixed at positions of 10 cm away from the ground, the midpoint and 10 cm away from the top in each OTC warming cover, so as to monitor the temperature and humidity change of the device; the observation member 22 is located at the periphery of the OTC warming cover, the observation member 22 comprises a phenology camera 221 and a support frame 222, the phenology camera 221 is arranged at the periphery of the OTC warming device, for recording the plant growth condition, and the support frame 222 is fixedly connected with the phenology camera 221 through screws, and the support frame 222 is detachably connected with the farmland through screws, so as to facilitate the adjustment of the position of the phenology camera 221.
[0040] The implementation principle of the embodiment 1 is that the wind speed is controlled by controlling the opening number of the OTC warming cover, so that the gradient control warming effect is realized, the full opening blank control device is used for simulating the temperature condition in the natural environment, the low warming device with 15 equidistant openings, the medium warming device with 10 equidistant openings and the high warming device with 5 equidistant openings are respectively used for simulating different degrees of temperature rise, and the full warming device without opening is used for simulating the highest degree of temperature rise, in this way, multiple temperature gradients can be simulated in the same experiment, so that the ecological response under different temperature conditions can be comprehensively evaluated, and the method not only improves the precision and reliability of the experiment, but also greatly reduces the experimental cost and time.
[0041] Embodiment 2
[0042] With reference to Figure 4 The difference between the embodiment and the embodiment 1 is that the OTC warming device with multiple temperature gradients further comprises an auxiliary warming assembly 3, and the auxiliary warming assembly 3 is arranged on the support assembly 1.
[0043] With reference to Figure 4The auxiliary temperature raising assembly 3 comprises at least one temperature raising piece 31 and one detection piece 32. In the embodiment, the temperature raising piece 31 is four, and each of the four temperature raising pieces 31 corresponds to a side wall of the OTC temperature raising cover. The temperature raising piece 31 is located in the OTC temperature raising cover. The temperature raising piece 31 can be a heating plate or an electric heating wire 311. In the embodiment, the temperature raising piece 31 comprises the electric heating wire 311 and a contact plate 312. The electric heating wire 311 is located in the OTC temperature raising cover, and the electric heating wire 311 located on the side wall of the OTC temperature raising cover is distributed in an M shape to avoid shielding the air hole 121 and affecting the accuracy of the measurement result. The electric heating wire 311 heats the OTC temperature raising cover. The heating temperature of the electric heating wire 311 in different OTC temperature raising covers is different, and the specific heating temperature is determined according to the actual situation to facilitate the gradient control of the temperature raising. The contact plate 312 is located on the side of the electric heating wire 311 close to the side wall of the OTC temperature raising cover. The contact plate 312 is fixedly connected with the electric heating wire 311 through screws, and the contact plate 312 is fixedly connected with the side wall of the OTC temperature raising cover through screws to avoid the direct contact between the electric heating wire 311 and the fence 12, so that the fence 12 is damaged. The detection piece 32 is a temperature sensor. The temperature sensor is fixedly connected in the OTC temperature raising cover, and the temperature sensor is electrically connected with the electric heating wire 311. The temperature sensor is preset with a temperature value by a person. When the temperature detected by the temperature sensor reaches the preset value, the temperature sensor controls the electric heating wire 311 to stop heating to maintain the temperature stability. The influence of the temperature fluctuation on the experimental result is solved, the repeatability and consistency of the experiment are improved, and the experimental result is more persuasive.
[0044] The implementation principle of the embodiment 2 is that when the OTC temperature raising device with temperature gradient needs to be used, the OTC temperature raising cover is fixed with the farmland according to the design requirement. The electric heating wire 311 is started to heat the OTC temperature raising cover, so that the heating temperature in each OTC temperature raising cover is different. The temperature sensor detects that the temperature reaches the preset value, and the temperature sensor controls the electric heating wire 311 to stop heating to maintain the temperature stability. In the same experiment, multiple temperature gradients are simulated at the same time to comprehensively evaluate the ecological response under different temperature conditions.
[0045] The above are the preferred embodiments of the application, which do not limit the protection scope of the application. Therefore, any equivalent changes made according to the structure, shape and principle of the application should be covered within the protection scope of the application.
Claims
1. A multi-temperature gradient OTC heating device, characterized in that: The device includes a support assembly (1) and a measuring assembly (2). The support assembly (1) includes at least two frames (11) and multiple enclosures (12). The two frames (11) are fixed at a designated location in the farmland. One of the frames (11) is not equipped with any enclosures (12). The remaining sides of the other frame (11) that are not in contact with the farmland correspond to one enclosure (12). The enclosures (12) and the frames (11) form an OTC heating hood. The enclosures (12) on the four side walls of the OTC heating hood are each provided with multiple air holes (121). The measuring component (2) includes multiple temperature measuring elements (21), each of which corresponds to one of the frame (11). The temperature measuring elements (21) are connected inside the frame (11) and are used to monitor the temperature and humidity changes of the device.
2. The OTC heating device with multiple temperature gradients according to claim 1, characterized in that: The frame (11) is provided with five, and the multiple OTC heating covers can be divided into a fully open blank control device, a low heating device with 15 equidistant openings, a medium heating device with 10 equidistant openings, a high heating device with 5 equidistant openings, and a fully enclosed heating device without openings. The low heating device with 15 equidistant openings is provided with 15 equidistant air holes (121) on each of the four side walls of the OTC heating cover. The medium heating device with 10 equidistant openings is provided with 10 equidistant air holes (121) on each of the four side walls of the OTC heating cover. The high heating device with 5 equidistant openings is provided with 5 equidistant air holes (121) on each of the four side walls of the OTC heating cover. The fully enclosed heating device without openings has no openings.
3. The OTC heating device with multiple temperature gradients according to claim 1, characterized in that: The temperature measuring element (21) includes a steel wire rope (211) and three temperature and humidity sensors (212). The steel wire rope (211) is fixed inside the OTC heating cover. The steel wire rope (211) is arranged along the diagonal of each OTC heating cover to fix the temperature and humidity sensors (212). The three temperature and humidity sensors (212) are evenly spaced along the length of the steel wire rope (211).
4. The OTC heating device with multiple temperature gradients according to claim 3, characterized in that: The measurement component (2) also includes an observation component (22), which includes a phenological camera (221) and a support frame (222). The phenological camera (221) is set around the OTC heating device and is used to record plant growth. The support frame (222) is connected to the phenological camera (221) and to the farmland.
5. The OTC heating device with multiple temperature gradients according to claim 2, characterized in that: It also includes an auxiliary heating component (3), which includes at least one heating element (31), which includes an electric heating wire (311) located inside the OTC heating cover. The electric heating wire (311) is connected to the enclosure (12) and is used to heat the inside of the OTC heating cover.
6. The OTC heating device with multiple temperature gradients according to claim 5, characterized in that: The auxiliary heating component (3) also includes a detection element (32), which is a temperature sensor. The temperature sensor is fixed inside the OTC heating cover with screws. The temperature sensor is electrically connected to the electric heating wire (311). The personnel preset the temperature value of the temperature sensor. When the temperature sensor detects that the temperature has reached the preset value, the temperature sensor controls the electric heating wire (311) to stop heating in order to maintain the temperature inside the OTC heating cover.
7. The OTC heating device with multiple temperature gradients according to claim 5, characterized in that: The heating element (31) also includes a contact plate (312), which is connected to the side of the electric heating wire (311) near the side wall of the OTC heating cover, and the contact plate (312) is fixed to the side wall of the OTC heating cover.
8. The OTC heating device with multiple temperature gradients according to claim 7, characterized in that: The heating element (31) is provided in four parts, each of the four heating elements (31) corresponding to a side wall of an OTC heating cover, and the electric heating wire (311) located on the side wall of the OTC heating cover is distributed in an M-shape.