Wireless temperature measurement structure for carbonization furnace
By designing a wireless temperature measurement structure in the carbonization furnace, using conductors and sliders to allow the wireless temperature measurement parts to adjust their position according to temperature changes, the problem of inaccurate temperature detection is solved, and more accurate temperature measurement and effective control of the carbonization process are achieved.
Patent Information
- Application Number
- CN202420553303.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-03-20
- Publication Date
- 2025-03-04
- Estimated Expiration
- 2034-03-20
AI Technical Summary
In a carbonization furnace, if the spacing between the temperature detector and the furnace body is too small, it will be affected by high-temperature heat, resulting in inaccurate temperature measurement; if the spacing is too large, the temperature measurement will be inaccurate and the temperature cannot be adjusted in time.
A wireless temperature measurement structure is designed. By setting a conductive member and a slide rod between the inner furnace body and the outer furnace body, the wireless temperature measurement member is allowed to slide along the conductive member close to or away from the inner furnace body, thereby adjusting the position of the temperature measurement according to temperature changes to ensure accurate temperature measurement.
It realizes more accurate temperature measurement in the carbonization furnace, and can adjust the temperature in a timely manner to ensure the effectiveness of the carbonization process and the secondary recycling of sludge.
Smart Images
Figure CN222561140U_ABST
Abstract
Description
Technical Field
[0001] The utility model belongs to the field of carbonization furnaces, and in particular relates to a wireless temperature measurement structure used for carbonization furnaces. Background Art
[0002] The carbonization furnace is used to carbonize sludge. During the carbonization process, the carbonization furnace will be in a high temperature state, which will evaporate the water in the sludge while maximally retaining the carbon value in the sludge. The organic matter in the sludge is carbonized, and the sludge after carbonization can be recycled for secondary use. The volume of the sludge after carbonization becomes smaller, and there is no toxic gas, etc., which will not cause secondary pollution. Therefore, during the sludge carbonization process, it is necessary to ensure that the temperature in the carbonization furnace reaches a certain value to achieve the transformation of the sludge.
[0003] In order to ensure that the temperature during the carbonization process is within a specified range, the temperature of the furnace body of the carbonization furnace is usually measured so that the temperature during the carbonization process can be known in real time. However, for sludge carbonization, the temperature is relatively high during carbonization. If the distance between the temperature detection component for detecting the temperature and the furnace body is small, the heat from the furnace body will continuously dissipate to the temperature detection component, which puts a greater test on the quality of the temperature detection component. If the temperature detection component is set away from the furnace body, the temperature measurement will be inaccurate, and the temperature inside the furnace body cannot be adjusted in time. Utility Model Content
[0004] In view of the above-mentioned deficiencies, the utility model provides a wireless temperature measurement structure for a carbonization furnace, which can adjust the position of the wireless temperature measurement component according to the different temperatures of the furnace body, and the measured temperature is more accurate.
[0005] The utility model is realized by the following technical solutions:
[0006] A wireless temperature measuring structure for a carbonization furnace, the carbonization furnace comprises a furnace body and a heating chamber for heating the furnace body, the furnace body comprises an inner furnace body and an outer furnace body sleeved outside the inner furnace body, the wireless temperature measuring structure comprises a temperature measuring component arranged between the inner furnace body and the outer furnace body and a receiving component located in the outer furnace body, the temperature measuring component comprises a wireless temperature measuring element and a wireless transmitting element whose signal connects the wireless temperature measuring element and the receiving element, the receiving element is connected to the temperature measuring element signal and displays the temperature value transmitted by the wireless temperature measuring element; the temperature measuring component also comprises a conducting element arranged between the inner furnace body and the outer furnace body, the temperature at the conducting element is the same as the temperature at the inner furnace body, the conducting element is recessed to form a first slideway, the wireless temperature measuring element is connected to the first slideway by a sliding rod, and the wireless temperature measuring element can slide along the conducting element to approach or move away from the inner furnace body, the wireless temperature measuring element has a first temperature measuring end corresponding to the inner furnace body and a second temperature measuring end corresponding to the conducting element. In the present application, when the temperature at the inner furnace body is low, that is, when the inner furnace body is in a heating state, the wireless temperature measuring component is arranged close to the inner furnace body, thereby ensuring that the wireless temperature measuring component can be closer to the inner furnace body, so that the temperature at the inner furnace body can be known in time, thereby controlling the heating process. When the inner furnace body is in a high-temperature stable state, this is the process of carbonizing the sludge, and the temperature is relatively stable. Therefore, the wireless temperature measuring component is arranged away from the inner furnace body, and the temperature at the conductive component is detected to know the temperature at the inner furnace body. Since the temperature change is small, the accuracy of the measurement data can also be guaranteed.
[0007] Furthermore, the temperature measuring component also includes a first heat insulating member arranged on one side of the conductive member, the first heat insulating member is recessed to form a second slideway, and the two ends of the slide bar are respectively abutted against the first slideway and the second slideway. When the temperature at the inner furnace body is high, the wireless temperature measuring member can be moved away from the inner furnace body. However, since the temperature is relatively high during the carbonization process, when the wireless temperature measuring member moves away from the inner furnace body, it is still possible to be affected by the heat dissipated from the inner furnace body. Therefore, a first heat insulating member is arranged on one side of the conductive member, and the heat dissipated from the inner furnace body is isolated by the first heat insulating member, thereby effectively reducing the influence of the heat dissipated from the inner furnace body on the wireless temperature measuring member.
[0008] Furthermore, the width of the first slideway gradually increases in the direction away from the inner furnace body, and the width of the second slideway gradually decreases in the direction away from the inner furnace body. When the slide bar slides along the first slideway and the second slideway and moves in the direction away from the inner furnace body, the slide bar will also move from the first heat insulating member toward the conductive member, that is, the slide bar can move in two directions at the same time. When the slide bar drives the wireless temperature measuring member away from the inner furnace body, it will also drive the wireless temperature measuring member toward the conductive member, thereby shortening the distance between the wireless temperature measuring member and the conductive member, so that the wireless temperature measuring member can measure the temperature at the conductive member more accurately.
[0009] Furthermore, the temperature measuring assembly also includes a heat insulation plate arranged at the moving path of the wireless temperature measuring component, the two ends of the heat insulation plate are respectively connected to the first heat insulation component and the conductive component, and the heat insulation plate is recessed to form a groove for the wireless temperature measuring component to pass through. The heat insulation plate is located at the moving path of the wireless temperature measuring component, so the heat insulation plate will not affect the movement of the sliding rod, and the heat insulation plate is provided with a groove for the wireless temperature measuring component to pass through, so that while further heat insulation is performed, it will not affect the movement of the wireless temperature measuring component, and the heat insulation plate is connected to the first heat insulation component and the conductive component when it is set, so that the heat insulation plate can supplement the area that the first heat insulation component fails to insulate, so as to further reduce the probability of heat from the inner furnace body being transferred to the wireless temperature measuring component, thereby making the use of the wireless temperature measuring component more stable.
[0010] Furthermore, a heat insulating block hinged to the heat insulating board is provided in the groove, and an elastic reset part is provided at the hinge between the heat insulating block and the heat insulating board. Since the wireless temperature measuring part is located on the upper side of the slide bar, the wireless temperature measuring part and the slide bar can pass through by providing a groove at the heat insulating board. However, after the wireless temperature measuring part passes through the groove, the structure missing at the groove still has the risk of heat dissipation. Therefore, a heat insulating block is provided at the groove, and the heat insulating board is hinged to the heat insulating block. When the wireless temperature measuring part passes through the groove, it will drive the heat insulating block to rotate, so that the wireless temperature measuring part can pass through the groove. After the wireless temperature measuring part passes through the groove, the heat insulating block will return to its original position driven by the elastic reset part, that is, the groove will be re-sealed, thereby effectively improving the heat insulation effect.
[0011] Furthermore, when the slide bar slides along the first slideway and the second slideway, the top end of the slide bar can be in contact with the bottom end of the heat insulation board, thereby shortening the gap between the slide bar and the heat insulation board, making the overall structure more compact, and ensuring that the gap between the slide bar and the heat insulation board is relatively small when the slide bar drives the wireless temperature measuring element to move toward the outer furnace body, thereby reducing the heat transfer path and achieving a better heat insulation effect.
[0012] Furthermore, the first thermal insulation member has an overlap section extending toward the conductive member, and the overlap section overlaps the top of the conductive member. Since the wireless temperature measuring member is located between the first thermal insulation member and the conductive member, the first thermal insulation member protrudes to form the overlap section, so that the overlap section is located on the upper side of the wireless temperature measuring member, thereby expanding the thermal insulation range of the wireless temperature measuring member.
[0013] Furthermore, a second heat insulating member is provided between the wireless temperature measuring member and the slide bar. Since the wireless temperature measuring member is provided at the slide bar, a second heat insulating member is provided between the wireless temperature measuring member and the slide bar, thereby preventing the heat at the slide bar from being transferred to the wireless temperature measuring member, and also improving the stability of the wireless temperature measuring member when in use.
[0014] Furthermore, the projection of the wireless temperature measuring element in the vertical direction is located inside the projection of the second thermal insulation element. The length and width of the wireless temperature measuring element are both smaller than the second thermal insulation element, thereby preventing the wireless temperature measuring element from having a portion exposed outside the second thermal insulation element, making the thermal insulation effect of the second thermal insulation element better.
[0015] Furthermore, there are multiple wireless temperature measurement structures, and the multiple wireless temperature measurement structures are sequentially arranged along the extension direction of the furnace body. By arranging multiple wireless temperature measurement structures, the temperature of multiple areas of the furnace body can be measured simultaneously, which not only can know the temperature of each part of the furnace body, but also can make the temperature at the measured place more accurate through temperature comparison. BRIEF DESCRIPTION OF THE DRAWINGS
[0016] Figure 1 A schematic diagram for illustrating an installation of a schematic implementation of a temperature measuring component and an inner furnace body in the utility model;
[0017] Figure 2 A schematic diagram for explaining the cooperation of the sliding rod, the conductive member and the first heat insulating member in a schematic implementation manner of the present invention;
[0018] Figure 3 A schematic structural diagram for illustrating a schematic implementation of the heat insulation board in the utility model;
[0019] Figure 4 A structural schematic diagram for illustrating an exemplary implementation of the furnace body of the utility model.
[0020] Reference numerals:
[0021] 11. inner furnace body, 12. outer furnace body;
[0022] 21. wireless temperature measuring member, 211. first temperature measuring end, 212. second temperature measuring end, 22. conducting member, 221. first slideway, 23. slide bar, 24. first heat insulating member, 241. second slideway, 242. overlapping section, 25. heat insulating board, 26. heat insulating block, 27. second heat insulating member;
[0023] 3. Receiving component;
[0024] 41. Motor, 42. Connecting rod. DETAILED DESCRIPTION
[0025] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.
[0026] It should be noted that the directional terms such as left, right, up, down, front and back in the embodiments of the present invention are merely relative concepts or are based on the normal use state of the product, that is, the direction of movement of the product, and should not be considered as limiting.
[0027] In addition, it should be noted that the dynamic terms such as "relative motion" mentioned in the embodiments of the present invention are not only changes in position, but also include movements such as rotation and rolling where there is no relative change in position but a change in state.
[0028] Finally, it should be noted that when a component is referred to as being "located" or "set on" another component, it can be on the other component or there can be an intermediate component at the same time. When a component is referred to as being "connected to" another component, it can be directly connected to the other component or there can be an intermediate component at the same time.
[0029] like Figures 1 to 4 A wireless temperature measurement structure for a carbonization furnace is shown, the carbonization furnace includes a furnace body and a heating chamber for heating the furnace body, the furnace body includes an inner furnace body 11 and an outer furnace body 12 sleeved outside the inner furnace body 11, the wireless temperature measurement structure includes a temperature measurement component arranged between the inner furnace body 11 and the outer furnace body 12 and a receiving component 3 located at the outer furnace body 12, the carbonization furnace in the present application is used for carbonizing sludge, and during the carbonization process, the carbonization furnace will be in a high temperature state, so that the water in the sludge evaporates, while the carbon value in the sludge can be retained to the maximum extent, the organic matter in the sludge is carbonized, the carbonized sludge can be recycled for secondary use, and the volume of the carbonized sludge becomes smaller, and there is no toxic gas, etc., which will not cause secondary pollution, so in the sludge carbonization process, it is necessary To ensure that the temperature in the carbonization furnace reaches a certain value, thereby realizing the transformation of the sludge, the temperature of the carbonization furnace is detected by a wireless temperature measuring structure, so that the temperature in the carbonization furnace can be known, thereby facilitating the temperature adjustment. In the present application, the wireless temperature measuring structure does not require additional lead wires, thereby avoiding lead wire failure caused by excessive temperature and improving the stability of temperature measurement. The temperature measuring component in the wireless temperature measuring structure is used to measure the temperature and transmit the measured temperature value to the receiving component 3 wirelessly; the temperature measuring component includes a wireless temperature measuring component 21 and a wireless transmitting component whose signal connects the wireless temperature measuring component 21 and the receiving component 3. The receiving component 3 is connected to the temperature measuring component signal and displays the temperature value transmitted by the wireless temperature measuring component 21, thereby knowing the temperature reached by the carbonization furnace.
[0030] As for the wireless temperature measurement structure, the temperature of the environment in which the temperature measuring component located between the inner furnace body 11 and the outer furnace body 12 is located will be relatively high. In order to prevent the high temperature from affecting the stability of the temperature measuring component, the temperature measuring component in the present application also includes a conductive member 22 arranged between the inner furnace body 11 and the outer furnace body 12. The temperature at the conductive member 22 is the same as the temperature at the inner furnace body 11. The conductive member 22 is recessed to form a first slideway 221. The wireless temperature measuring component 21 is connected to the first slideway 221 through a slide bar 23, and the wireless temperature measuring component 21 can slide along the conductive member 22 to approach or move away from the inner furnace body 11. The wireless temperature measuring component 21 has a first measuring path corresponding to the inner furnace body 11. The conductive member 22 is connected to the inner furnace body 11, so it is convenient to make the temperature of the conductive member 22 and the inner furnace body 11 consistent. It can be understood that the conductive member 22 can be made of a material with good thermal conductivity to achieve rapid heat transfer, and the conductive member 22 is recessed to form a first slide 221, and the wireless temperature measuring member 21 can slide on the first slide 221 through the slide bar 23. During the sliding process, the distance between the wireless temperature measuring member 21 and the inner furnace body 11 will change. Therefore, in the initial stage of heating, the temperature of the inner furnace body 11 is relatively low. This allows the wireless temperature measuring component 21 to be arranged close to the inner furnace body 11, and the temperature of the inner furnace body 11 can be measured through the first temperature measuring end 211. After heating for a period of time, the temperature of the inner furnace body 11 will increase accordingly. For the wireless temperature measuring component 21, since it is arranged close to the inner furnace body 11 at this time, the heat emitted by the inner furnace body 11 will be continuously emitted to the wireless temperature measuring component 21, so that the surrounding area of the wireless temperature measuring component 21 is in a high temperature state for a long time. Even if a heat-resistant wireless temperature measuring component 21 is used, it will be affected after working for a long time. Based on this, in the present application, the wireless temperature measuring component 21 is enabled to pass The sliding bar 23 slides along the first slide 221, so that the wireless temperature measuring component 21 moves away from the inner furnace body 11, thereby reducing the impact of heat emitted by the inner furnace body 11 on the wireless temperature measuring component 21, and when the temperature at the inner furnace body 11 rises, the temperature at the conductive component 22 will also change accordingly, and the temperature at the conductive component 22 will be the same as the temperature at the inner furnace body 11. Therefore, when the temperature measuring component moves away from the inner furnace body 11, and moves along the first slide 221 formed by the recess of the conductive component 22, the conductive component 22 can be in an area away from the inner furnace body 11, by measuring the temperature at the conductive component 22, thereby realizing the measurement of the temperature of the inner furnace body 11.
[0031] Therefore, in the present application, when the temperature at the inner furnace body 11 is low, that is, when the inner furnace body 11 is in a heating state, the wireless temperature measuring component 21 is arranged close to the inner furnace body 11, thereby ensuring that the wireless temperature measuring component 21 can be closer to the inner furnace body 11, so that the temperature at the inner furnace body 11 can be known in time, thereby controlling the heating process. When the inner furnace body 11 is in a high-temperature stable state, this is the process of carbonizing the sludge, and the temperature is relatively stable. Therefore, the wireless temperature measuring component 21 is arranged away from the inner furnace body 11, and the temperature at the conductive component 22 is detected to know the temperature at the inner furnace body 11. Since the temperature change is small, the accuracy of the measurement data can also be guaranteed.
[0032] As an embodiment of the present application, the temperature measuring component also includes a first thermal insulation member 24 arranged on one side of the conductive member 22, and the first thermal insulation member 24 is recessed to form a second slide 241, and the two ends of the slide rod 23 are respectively abutted against the first slide 221 and the second slide 241; when the temperature at the inner furnace body 11 is high, the wireless temperature measuring member 21 can be moved away from the inner furnace body 11 at this time, but because the temperature is relatively high during the carbonization process, when the wireless temperature measuring member 21 moves away from the inner furnace body 11, there is still a possibility of being affected by the heat dissipated by the inner furnace body 11. Therefore, a first thermal insulation member 24 is arranged on one side of the conductive member 22, and the heat dissipated from the inner furnace body 11 is isolated by the first thermal insulation member 24, thereby effectively reducing the influence of the heat dissipated from the inner furnace body 11 on the wireless temperature measuring member 21.
[0033] At the same time, the first thermal insulation member 24 is recessed to form a second slide 241, and the first thermal insulation member 24 is located on one side of the conductive member 22. Therefore, the sliding rod 23 can be clamped by the first thermal insulation member 24 and the conductive member 22, so that the two ends of the sliding rod 23 are respectively located in the first slide 221 and the second slide 241, thereby improving the stability of the sliding rod 23 when sliding.
[0034] Preferably, the width of the first slide 221 gradually increases in the direction away from the inner furnace body 11, and the width of the second slide 241 gradually decreases in the direction away from the inner furnace body 11; when the slide bar 23 slides along the first slide 221 and the second slide 241 and moves in the direction away from the inner furnace body 11, the slide bar 23 will also move from the first heat insulation component 24 toward the conductive component 22, that is, the slide bar 23 can achieve movement in two directions at the same time. While the slide bar 23 drives the wireless temperature measuring component 21 away from the inner furnace body 11, it also drives the wireless temperature measuring component 21 to move toward the conductive component 22, thereby shortening the distance between the wireless temperature measuring component 21 and the conductive component 22, so that the wireless temperature measuring component 21 can measure the temperature at the conductive component 22 more accurately.
[0035] Among them, in order to enable the slide bar 23 to move, a driving structure can be set between the inner furnace body 11 and the outer furnace body 12, and it can withstand high temperatures. At the same time, the driving structure corresponds to the slide bar 23, so the heat dissipated by the inner furnace body 11 will also be blocked by the first heat insulation member 24, thereby reducing the driving structure from being in a high temperature state. Among them, the driving structure can be a motor 41 that drives the connecting rod 42 to move back and forth, thereby realizing the movement of the slide bar 23, and relative sliding can also occur between the connecting rod 42 and the slide bar 23, thereby satisfying the simultaneous movement of the slide bar 23 in two directions. It can be understood that in order to improve the service life of the driving structure, the connecting rod 42 can be selected to be made of high-temperature resistant material, and the connecting rod 42 passes through the outer furnace body 12, so that the motor 41 can be located at the outer furnace body 12, and the area through which the connecting rod 42 passes is sealed to prevent heat overflow, and the manufacturing of the connecting rod 42 is low-cost and time-consuming compared with the wireless temperature measuring component 21, so only the connecting rod 42 needs to be replaced, thereby improving the service life of the wireless temperature measuring component 21.
[0036] As an embodiment of the present application, the temperature measuring component also includes a heat insulation plate 25 arranged at the moving path of the wireless temperature measuring component 21, and the two ends of the heat insulation plate 25 are respectively connected to the first heat insulation member 24 and the conductive member 22, and the heat insulation plate 25 is recessed to form a groove for the wireless temperature measuring component 21 to pass through; the heat insulation plate 25 is located at the moving path of the wireless temperature measuring component 21, so the heat insulation plate 25 will not affect the movement of the sliding rod 23, and the heat insulation plate 25 is provided with a groove for the wireless temperature measuring component 21 to pass through, so that while further heat insulation is performed, it will not affect the movement of the wireless temperature measuring component 21, and the heat insulation plate 25 is connected to the first heat insulation member 24 and the conductive member 22 when it is set, so that the heat insulation plate 25 can supplement the area that the first heat insulation member 24 fails to insulate, so as to further reduce the probability of heat from the inner furnace body 11 being transferred to the wireless temperature measuring component 21, thereby making the wireless temperature measuring component 21 more stable to use.
[0037] Preferably, a heat insulating block 26 hinged to the heat insulating plate 25 is provided in the groove, and an elastic reset member is provided at the hinge between the heat insulating block 26 and the heat insulating plate 25; since the wireless temperature measuring element 21 is located on the upper side of the slide bar 23, the wireless temperature measuring element 21 and the slide bar 23 can pass through by providing a groove at the heat insulating plate 25, and when the wireless temperature measuring element 21 passes through the groove, the structure missing at the groove still has the risk of heat dissipation, so by providing a heat insulating block 26 at the groove, and the heat insulating plate 25 is hinged to the heat insulating block 26, when the wireless temperature measuring element 21 passes through the groove, it will drive the heat insulating block 26 to rotate, so that the wireless temperature measuring element 21 can pass through the groove, and when the wireless temperature measuring element 21 passes through the groove, the heat insulating block 26 will return to its original position driven by the elastic reset member, that is, the groove will be re-sealed, thereby effectively improving the heat insulation effect.
[0038] In the present application, when the slide bar 23 slides along the first slideway 221 and the second slideway 241, the top end of the slide bar 23 can be in contact and connected with the bottom end of the insulation board 25; thereby shortening the gap between the slide bar 23 and the insulation board 25, which can make the overall structure more compact. At the same time, when the slide bar 23 drives the wireless temperature measuring component 21 to move toward the outer furnace body 12, it can ensure that the gap between the slide bar 23 and the insulation board 25 is relatively small, thereby reducing the heat transfer path and better achieving the insulation effect; preferably, when the slide bar 23 drives the wireless temperature measuring component 21 to perform temperature detection on the conductive component 22, the edge line of the slide bar 23 is overlapped with the edge line of the insulation board 25, so that the slide bar 23 can also play an insulation effect.
[0039] As an embodiment of the present application, the first thermal insulation member 24 has a lap section 242 extending toward the conductive member 22, and the lap section 242 is overlapped to the top of the conductive member 22; since the wireless temperature measuring member 21 is located between the first thermal insulation member 24 and the conductive member 22, the first thermal insulation member 24 protrudes to form the lap section 242, so that the lap section 242 is located on the upper side of the wireless temperature measuring member 21, thereby expanding the insulation range of the wireless temperature measuring member 21.
[0040] Preferably, a second thermal insulation member 27 is provided between the wireless temperature measuring member 21 and the slide rod 23. Since the wireless temperature measuring member 21 is provided at the slide rod 23, a second thermal insulation member 27 is provided between the wireless temperature measuring member 21 and the slide rod 23, thereby preventing heat from the slide rod 23 from being transferred to the wireless temperature measuring member 21, and also improving the stability of the wireless temperature measuring member 21 during use.
[0041] In the present application, the projection of the wireless temperature measuring component 21 along the vertical direction is located inside the projection of the second thermal insulation component 27; that is, the length and width of the wireless temperature measuring component 21 are smaller than the second thermal insulation component 27, thereby avoiding the wireless temperature measuring component 21 having a portion exposed outside the second thermal insulation component 27, so that the thermal insulation effect of the second thermal insulation component 27 is better.
[0042] In the present application, there are multiple wireless temperature measurement structures, and the multiple wireless temperature measurement structures are arranged in sequence along the extension direction of the furnace body; by setting up multiple wireless temperature measurement structures, the temperature of multiple areas of the furnace body can be measured simultaneously, not only the temperature of each part of the furnace body can be known, but also the temperature at the measured point can be made more accurate through temperature comparison.
[0043] The above is only an embodiment of the present application and is not intended to limit the present application. For those skilled in the art, the present application may have various changes and variations. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present application should be included in the scope of the claims of the present application.
Claims
1. A wireless temperature measurement structure for a carbonization furnace, characterized in that: The carbonization furnace includes a furnace body and a heating chamber for heating the furnace body, the furnace body includes an inner furnace body and an outer furnace body sleeved outside the inner furnace body, the wireless temperature measurement structure includes a temperature measurement component arranged between the inner furnace body and the outer furnace body and a receiving component located in the outer furnace body, the temperature measurement component includes a wireless temperature measurement component and a wireless transmitting component that connects the wireless temperature measurement component and the receiving component by signal, the receiving component is connected to the temperature measurement component by signal and displays the temperature value transmitted by the wireless temperature measurement component; The temperature measuring component also includes a conductive member arranged between the inner furnace body and the outer furnace body, the temperature at the conductive member is the same as the temperature at the inner furnace body, the conductive member is recessed to form a first slide, the wireless temperature measuring member is connected to the first slide via a slide rod, and the wireless temperature measuring member can slide along the conductive member to approach or move away from the inner furnace body, and the wireless temperature measuring member has a first temperature measuring end corresponding to the inner furnace body and a second temperature measuring end corresponding to the conductive member.
2. A wireless temperature measurement structure for a carbonization furnace according to claim 1, characterized in that: The temperature measuring component also includes a first heat insulating member arranged on one side of the conductive member, the first heat insulating member is recessed to form a second slideway, and two ends of the slide rod are respectively abutted against the first slideway and the second slideway.
3. A wireless temperature measurement structure for a carbonization furnace according to claim 2, characterized in that: The width of the first slideway gradually increases in a direction away from the inner furnace body, and the width of the second slideway gradually decreases in a direction away from the inner furnace body.
4. A wireless temperature measurement structure for a carbonization furnace according to claim 2, characterized in that: The temperature measuring component also includes a heat insulation plate arranged at the moving path of the wireless temperature measuring component, the two ends of the heat insulation plate are respectively connected to the first heat insulation component and the conductive component, and the heat insulation plate is recessed to form a groove for the wireless temperature measuring component to pass through.
5. A wireless temperature measurement structure for a carbonization furnace according to claim 4, characterized in that: A heat insulation block hinged to the heat insulation board is arranged in the groove, and an elastic reset piece is arranged at the hinge between the heat insulation block and the heat insulation board.
6. The wireless temperature measurement structure for a carbonization furnace according to claim 4, characterized in that: When the slide bar slides along the first slide track and the second slide track, the top end of the slide bar can be in contact and connected with the bottom end of the heat insulation board.
7. The wireless temperature measurement structure for a carbonization furnace according to claim 2, characterized in that: The first heat insulating member has an overlapping section extending toward the conductive member, and the overlapping section is overlapped to a top end of the conductive member.
8. The wireless temperature measurement structure for a carbonization furnace according to claim 1, characterized in that: A second heat insulating member is arranged between the wireless temperature measuring member and the sliding rod.
9. The wireless temperature measurement structure for a carbonization furnace according to claim 8, characterized in that: The projection of the wireless temperature measuring component along the vertical direction is located inside the projection of the second thermal insulation component.
10. The wireless temperature measurement structure for a carbonization furnace according to claim 1, characterized in that: There are multiple wireless temperature measurement structures, and the multiple wireless temperature measurement structures are arranged in sequence along the extension direction of the furnace body.