An energy system heat distribution monitoring device

Abstract

This invention discloses an energy system heat distribution monitoring device, comprising a furnace body, a pushing mechanism installed on one side of the furnace body, an adjusting component and a closing mechanism mounted on the furnace body and connected to each other in a transmission manner. The adjusting component and the pushing mechanism are connected in a transmission manner. A moving plate is provided inside the pushing mechanism, a driving mechanism is mounted on the moving plate, and a rotating rod is rotatably connected to the moving plate. A torsion spring is sleeved on the rotating rod, and an opening mechanism is provided inside the rotating rod. A self-locking mechanism is provided on the threaded rod. A flue pipe is fixedly connected to the furnace body, and a flue gas detector and a temperature monitor are provided inside the flue pipe. Multiple other temperature monitors are provided on the outside of the furnace body. This invention can effectively ensure the combustion state and avoid stacking during combustion, which would lead to incomplete combustion and subsequent heat waste.

Description

Technical Field

[0001] This invention relates to the field of smart energy technology, specifically to a device for monitoring the heat distribution of an energy system. Background Technology

[0002] By leveraging the Internet of Things (IoT) and advanced sensing technologies, and through real-time monitoring and extensive data analysis of integrated energy systems, problems and areas for optimization and improvement within regional integrated energy systems can be diagnosed, providing precise data support and decision-making basis for integrated energy efficiency management. Research on a quantitative analysis method for carbon emission responsibility in integrated smart energy systems considering the contribution of new energy sources is also conducted. Combining the carbon reduction contribution of new energy sources, the carbon emission responsibility of users is quantitatively studied from multiple dimensions based on the energy consumption of different users in the regional integrated energy system. Carbon emission responsibility is allocated according to the energy consumption ratio of each region or enterprise, balancing fairness and operability to achieve carbon emission responsibility sharing. In smart energy, the heat generated by boiler combustion can also be effectively used as a form of smart energy. However, there are some problems with boiler combustion. The heat released during combustion varies depending on the combustion status of the materials. When the combustion is incomplete, the carbon dioxide and heat in the flue gas emitted by the boiler will change. When the amount of harmful substances in the flue gas increases and the amount of heat in the flue gas increases, it can be determined that there is a problem with the combustion of the materials in the boiler, which leads to the inability to fully absorb and utilize the heat during combustion, resulting in heat waste. Therefore, it is very necessary to monitor the heat in the boiler. During the monitoring process, it is even more important to adjust the combustion status at any time to ensure the full utilization and absorption of heat.

[0003] Based on this, the present invention designs an energy system heat distribution monitoring device to solve the above problems. Summary of the Invention

[0004] The purpose of this invention is to provide an energy system heat distribution monitoring device to solve the problems mentioned in the background art, such as insufficient combustion of combustibles during combustion leading to heat loss, and the inability to fully regulate the combustion state resulting in wasted heat emissions.

[0005] To achieve the above objectives, the present invention provides the following technical solution: an energy system heat distribution monitoring device, comprising a furnace body, a pushing mechanism installed on one side of the furnace body, an adjusting component and a closing mechanism disposed on the furnace body and connected to each other in a transmission manner, the adjusting component and the pushing mechanism being connected in a transmission manner, a moving plate being provided inside the pushing mechanism, a driving mechanism being installed on the moving plate, a rotating rod being rotatably connected to the moving plate, a torsion spring being sleeved on the rotating rod, an opening mechanism being provided inside the rotating rod, a self-locking mechanism being provided on the threaded rod, a flue pipe being fixedly connected to the furnace body, a flue gas detector and a temperature monitor being provided inside the flue pipe, and multiple other temperature monitors being provided on the outside of the furnace body.

[0006] As a further embodiment of the present invention, the pushing mechanism includes a fixed base, a guide rail, a drive shaft, a synchronous belt, and a first drive motor. Two pairs of fixed bases are installed on the furnace body, and a guide rail is fixedly connected between the two fixed bases. Two drive shafts are rotatably connected on the guide rail, wherein the two drive shafts are fixedly connected, and a synchronous belt is transmitted between the two drive shafts. The first drive motor is installed on one of the fixed bases, and the output end of the first drive motor is fixedly connected to one of the drive shafts. One end of the moving plate is slidably connected to the guide rail, and the other end is fixedly connected to the synchronous belt.

[0007] As a further embodiment of the present invention, the closing mechanism includes a closing plate and a rack, the closing plate being slidably connected to the furnace body, and the rack being mounted on the closing plate.

[0008] As a further embodiment of the present invention, the adjusting assembly is provided with a speed regulating box, the speed regulating box is provided with a drive gear and a pulley, the pulley is connected to the drive shaft in the pushing mechanism, and the drive gear meshes with the rack in the closing mechanism.

[0009] As a further embodiment of the present invention, the driving mechanism includes a second driving motor, a telescopic rod, a first gear, a rotating column, and a half gear. The second driving motor is mounted on the moving plate, and the output end of the second driving motor is fixedly connected to the telescopic rod. The telescopic rod is provided with a locking block and a first gear. The rotating column is rotatably connected to the moving plate. The rotating column is provided with a self-locking elastic locking component. The locking block is movably connected inside the rotating column. The half gear is mounted on the rotating column, and the half gear and the third gear mesh with each other.

[0010] As a further embodiment of the present invention, the opening mechanism includes a threaded rod, a second gear, a threaded sleeve, a rotating shaft, a pull rod, a mixing plate, and a self-locking mechanism. The threaded rod is rotatably connected inside the rotating rod, and a second gear is installed at one end of the threaded rod. The second gear is movably meshed with a first gear in the drive mechanism. A threaded sleeve is threadedly connected to the threaded rod, and the threaded sleeve is slidably connected inside the rotating rod. Multiple rotating shafts are rotatably connected to the rotating rod, and a mixing plate is rotatably connected to the rotating shaft. A pull rod is rotatably connected between the mixing plate and the threaded sleeve.

[0011] As a further embodiment of the present invention, the self-locking mechanism includes a fixed plate, a lock groove, a rotating plate, a spring, and a lock block. The fixed plate is mounted on the rotating rod, and multiple lock grooves are opened on the fixed plate. The rotating plate is mounted on the threaded rod, and multiple springs are fixedly connected to the rotating plate. A lock block is mounted on one end of each spring, and the lock block is movably connected in the lock groove.

[0012] As a further embodiment of the present invention, a plurality of temperature monitors are located on multiple sides of the furnace body, and a feed plate is provided on the front side of the furnace body.

[0013] This invention utilizes the cooperation between the pushing and closing mechanisms. When mixing is required, the closing mechanism opens the furnace body, and when mixing is complete, the furnace body closes. This prevents heat loss during combustion, further ensuring efficient material combustion. The temperature monitor, flue gas detector, and the cooperation between the pushing and closing mechanisms allow for real-time monitoring of the furnace body's heat during operation, ensuring furnace performance, preventing heat loss, and avoiding incomplete combustion that could lead to the emission of large amounts of harmful substances in the flue gas, thus preventing environmental pollution.

[0014] Simultaneously, the coordinated operation of the pushing mechanism, opening mechanism, and rotating rod ensures thorough mixing of the combustibles during operation. This mixing of accumulated combustibles during combustion, along with agitation of the material at the bottom, guarantees efficient combustion and prevents situations where heat cannot be fully dissipated, necessitating manual mixing. Furthermore, the coordinated operation of the various components, monitored by a temperature sensor, allows the system to adjust its operation based on the heat emitted and flue gas discharged from the furnace. This further ensures energy absorption, minimizes energy loss, and enhances the furnace's intelligent operation. The more precise distribution of energy and heat within the system further improves the equipment's practicality and convenience. Attached Figure Description

[0015] To more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0016] Figure 1 This is a front-view structural diagram of a preferred embodiment of an energy system heat distribution monitoring device according to the present invention;

[0017] Figure 2 This is a rear-view structural schematic diagram of a preferred embodiment of an energy system heat distribution monitoring device according to the present invention.

[0018] Figure 3 for Figure 2 Enlarged view of point A in the middle;

[0019] Figure 4 This is a partial side view structural schematic diagram of a preferred embodiment of an energy system heat distribution monitoring device of the present invention;

[0020] Figure 5 This is a partial frontal view schematic diagram of the internal structure of a preferred embodiment of an energy system heat distribution monitoring device of the present invention.

[0021] Figure 6 This is a partial left-side view of the internal structure of a preferred embodiment of the energy system heat distribution monitoring device of the present invention.

[0022] The attached diagram lists the components represented by each number as follows:

[0023] 1. Furnace body; 2. Pushing mechanism; 3. Fixed base; 4. Guide rail; 5. Drive shaft; 6. Synchronous belt; 7. First drive motor; 8. Adjustment assembly; 9. Closing mechanism; 10. Closing plate; 11. Rack; 12. Moving plate; 13. Drive mechanism; 14. Second drive motor; 15. Telescopic rod; 16. First gear; 17. Rotating column; 18. Half gear; 19. Rotating rod; 20. Second gear; 21. Torsion spring; 22. Opening mechanism; 23. Threaded rod; 24. Threaded sleeve; 25. Rotating shaft; 26. Pull rod; 27. Mixing plate; 28. Self-locking mechanism; 29. ​​Fixed plate; 30. Lock groove; 31. Rotating plate; 32. Spring; 33. Locking block; 34. Exhaust pipe; 35. Flue gas detector; 36. Temperature monitor; 37. Feed plate; 38. Third gear. Detailed Implementation

[0024] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0025] Please see Figures 1-6 The present invention provides a technical solution: a preferred embodiment of an energy system heat distribution monitoring device includes a furnace body 1, a pushing mechanism 2 installed on one side of the furnace body 1, an adjusting component 8 provided on the furnace body 1, a closing mechanism 9 provided on the furnace body 1, the closing mechanism 9 and the adjusting component 8 being connected in a transmission manner, the adjusting component 8 and the pushing mechanism 2 being connected in a transmission manner, a moving plate 12 provided inside the pushing mechanism 2, a driving mechanism 13 installed on the moving plate 12, a rotating rod 19 rotatably connected to the moving plate 12, a torsion spring 21 sleeved on the rotating rod 19, an opening mechanism 22 provided inside the rotating rod 19, a self-locking mechanism 28 provided on the threaded rod 23, a flue pipe 34 fixedly connected to the furnace body 1, a flue gas detector 35 and a temperature monitor 36 provided inside the flue pipe 34, and multiple other temperature monitors 36 provided on the outside of the furnace body 1.

[0026] During operation, materials are added to furnace body 1 and combusted. The heat generated in furnace body 1 is utilized. While the materials in furnace body 1 are burning, temperature monitor 36 and flue gas detector 35 monitor the combustion status. When the emission index in the flue gas increases or the furnace wall temperature of furnace body 1 changes, incomplete combustion occurs in the combustible material in furnace body 1. Subsequently, the controller controls the push mechanism 2 to operate. When the push mechanism 2 operates, it drives the closing mechanism 9 through the adjusting component 8, causing the closing mechanism 9 to open. During the opening of the closing mechanism 9, the parts on the moving plate 12 move forward simultaneously. When the rotating rod 19 on the moving plate 12 moves to the appropriate position, the rotating rod 19 is inserted into the interior of the combustion material in the furnace body 1. At this time, the control drive mechanism 13 drives the opening mechanism 22 to work. When the opening mechanism 22 opens, the parts inside the opening mechanism 22 open, and the mixing plate 27 opens. Then, the control drive mechanism 13 and the rotating rod 19 engage, and the drive mechanism 13 drives the rotating rod 19 to rotate, so that the mixing plate 27 fully mixes the combustion material and makes it burn completely. After the material is mixed, the above steps can be reversed to put the equipment away and make the closing mechanism 9 close again. At this time, the furnace body 1 resumes combustion.

[0027] This invention utilizes the cooperation between the pushing mechanism 2 and the closing mechanism 9 to open the furnace body 1 when mixing is required and close it after mixing is complete. This prevents heat loss during combustion and ensures efficient material combustion. Furthermore, the cooperation between the temperature monitor 36, the flue gas detector 35, the pushing mechanism 2, and the closing mechanism 9 allows for real-time monitoring of the furnace body 1's heat during operation, ensuring its proper functioning, preventing heat loss, and avoiding incomplete combustion that could lead to the emission of harmful substances in the flue gas and environmental pollution.

[0028] The coordinated operation of the pushing mechanism 2, the opening mechanism 22, and the rotating rod 19 allows for efficient mixing of the combustibles during operation. This mixing of accumulated combustibles during combustion and agitation of the material at the bottom ensures efficient combustion and prevents the need for manual mixing due to insufficient heat dissipation. It also avoids the risk of injury to workers due to excessive heat from the furnace body 1 during mixing. Furthermore, the coordinated operation of the various components, monitored by the temperature monitor 36, allows the equipment to operate based on the heat emitted and flue gas from the furnace body 1. This further ensures energy absorption and minimizes energy loss, making the furnace body 1 more intelligent and precisely distributing system energy and heat, thus enhancing the equipment's practicality and convenience.

[0029] As a further embodiment of the present invention, the pushing mechanism 2 includes a fixed base 3, a guide rail 4, a drive shaft 5, a synchronous belt 6, and a first drive motor 7. Two pairs of fixed bases 3 are installed on the furnace body 1. A guide rail 4 is fixedly connected between the two fixed bases 3. Two drive shafts 5 are rotatably connected on the guide rail 4. The two drive shafts 5 are fixedly connected. A synchronous belt 6 is transmitted between the two drive shafts 5. The first drive motor 7 is installed on one of the fixed bases 3. The output end of the first drive motor 7 is fixedly connected to one of the drive shafts 5. One end of the moving plate 12 is slidably connected to the guide rail 4, and the other end is fixedly connected to the synchronous belt 6.

[0030] During operation, when the first drive motor 7 is working, it drives the drive shaft 5 to rotate. When the drive shaft 5 rotates, it also drives the synchronous belt 6 to rotate. When rotating synchronously, the movable plate 12 installed between the two synchronous belts 6 moves on the guide rail 4, so that the parts installed on the movable plate 12 enter the furnace body 1. At the same time, during the rotation of the drive shaft 5, the closing mechanism 9 opens, so that the equipment can send the parts into the furnace body 1 during the opening process, making the equipment more convenient and faster to operate.

[0031] As a further embodiment of the present invention, the closing mechanism 9 includes a closing plate 10 and a rack 11. The closing plate 10 is slidably connected to the furnace body 1, and the rack 11 is mounted on the closing plate 10. When the pushing mechanism 2 is working, the driving mechanism 13 controls the speed regulating component to work. At this time, the speed regulating component drives the rack 11 to move. When the rack 11 moves, it drives the closing plate 10 to move upward. When the closing plate 10 moves upward, it opens the furnace body 1. During the opening process, the pushing mechanism 2 pushes the parts on the moving plate 12 into the furnace body 1, thereby effectively ensuring that the materials in the furnace body 1 are in an open state when mixed and in a closed state when not mixed. This effectively avoids the materials from accumulating during combustion, which would lead to incomplete combustion and reduced combustion efficiency.

[0032] As a further embodiment of the present invention, the adjusting assembly 8 is provided with a speed regulating box, which is equipped with a drive gear and a pulley. The pulley is connected to the drive shaft 5 in the pushing mechanism 2, and the drive gear meshes with the rack 11 in the closing mechanism 9. When the pushing mechanism 2 is working, the drive shaft 5 in the pushing mechanism 2 drives the speed regulating box to work. At this time, the speed regulating box forms a differential speed between the rotational speed of the drive shaft 5 and the rotational speed acting on the rack 11, so that when the closing plate 10 is opened, other components can be fully entered into the furnace body 1, avoiding interference between the closing plate 10 and the pushing plate during the opening process. This further ensures the opening and closing of the equipment and makes the parts more convenient to operate.

[0033] As a further embodiment of the present invention, the drive mechanism 13 includes a second drive motor 14, a telescopic rod 15, a first gear 16, a rotating column 17, and a half gear 18. The second drive motor 14 is mounted on the moving plate 12. The output end of the second drive motor 14 is fixedly connected to the telescopic rod 15. The telescopic rod 15 is provided with a locking block and the first gear 16. The rotating column 17 is rotatably connected to the moving plate 12. The rotating column 17 is provided with a self-locking elastic locking component. The locking block is movably connected inside the rotating column 17. The half gear 18 is mounted on the rotating column 17. The half gear 18 and the third gear 38 provided on the rotating rod 19 mesh with each other.

[0034] When the telescopic rod 15 extends, the first gear 16 and the second rack 11 on the telescopic rod 15 disengage, and the locking block installed at one end of the telescopic rod 15 engages with the rotating column 17. The elastic locking component installed on the rotating column 17 opens, and then the second drive motor 14 is controlled to work. At this time, the second drive motor 14 drives the rotating column 17 to rotate, and causes the half gear 18 to drive the third gear 38 to rotate. Then the third gear 38 drives the rotating rod 19 to rotate, so that the parts set in the rotating rod 19 can stir the accumulated material, thereby ensuring that the accumulated material is fully mixed and burned, thus ensuring heat absorption and avoiding insufficient heat release, which would lead to environmental pollution. When the half gear 18 and the third gear 38 disengage, the torsion spring 21 drives the rotating rod 19 to rotate in the opposite direction, so that the parts on the rotating rod 19 mix the material in the opposite direction, thereby ensuring the mixing efficiency of the material.

[0035] As a further embodiment of the present invention, the opening mechanism 22 includes a threaded rod 23, a second gear 20, a threaded sleeve 24, a rotating shaft 25, a pull rod 26, a mixing plate 27, and a self-locking mechanism 28. The threaded rod 23 is rotatably connected inside the rotating rod 19. The second gear 20 is installed at one end of the threaded rod 23. The second gear 20 is movably meshed with the first gear 16 in the drive mechanism 13. The threaded sleeve 24 is threadedly connected to the threaded rod 23. The threaded sleeve 24 is slidably connected inside the rotating rod 19. Multiple rotating shafts 25 are rotatably connected to the rotating rod 19. The mixing plate 27 is rotatably connected to the rotating shaft 25. The pull rod 26 is rotatably connected between the mixing plate 27 and the threaded sleeve 24.

[0036] When the telescopic rod 15 and the rotating column 17 in the drive mechanism 13 disengage, the rotating column 17 self-locks, simultaneously controlling the rotating rod 19 to be fixed. When the first gear 16 and the second gear 20 on the telescopic rod 15 mesh, the first gear 16 drives the second gear 20 to rotate, thereby causing the threaded rod 23 to rotate. When the threaded rod 23 rotates, the threaded sleeve 24 connected to the threaded rod 23 moves. At this time, the threaded sleeve 24 pulls the pull rod 26, causing the pull rod 26 to drive the mixing plate 27 to rotate on the rotating shaft 25, thereby opening the mixing plate 27. At this time, the mixing plate 27 is located inside the combustion material. When the mixing plate 27 is open, the rotating shaft rotates in conjunction with the mixing plate 27, thereby fully mixing the combustion material to ensure the efficiency of the material during combustion. When the rotating rod 19 is inserted into the combustion material, since the mixing plate 27 is initially closed, the insertion of the rotating rod 19 is more convenient and the resistance is smaller, further improving the mixing convenience of the equipment.

[0037] The self-locking mechanism 28 includes a fixed plate 29, locking grooves 30, a rotating plate 31, springs 32, and locking blocks 33. The fixed plate 29 is mounted on the rotating rod 19, and multiple locking grooves 30 are formed on the fixed plate 29. The rotating plate 31 is mounted on the threaded rod 23, and multiple springs 32 are fixedly connected to the rotating plate 31. A locking block 33 is mounted on one end of each spring 32 and is movably connected within the locking groove 30. When the threaded rod 23 rotates, it drives the rotating plate 31 to rotate. At this time, the locking block 33 mounted on the rotating plate 31 slides within the locking groove 30. During this sliding process, the locking block 33 moves from one locking groove 30 to another, effectively locking the rotating plate 31. This ensures that the opening mechanism 22 remains open during operation, preventing it from closing during work and further improving the stability and efficiency of the equipment.

[0038] As a further embodiment of the present invention, multiple temperature monitors 36 are located on multiple surfaces of the furnace body 1, and a feed plate 37 is provided on the front side of the furnace body 1.

[0039] During operation, the feed plate 37 is opened, and the material to be burned is placed inside the furnace body 1. During the combustion process, the temperature monitor 36 can monitor the surface of the furnace body 1, thereby preventing the material from accumulating inside the furnace body 1 and causing the material to not burn completely. The temperature monitor 36 in the exhaust pipe 34 can fully monitor the temperature of the exhaust gas, preventing the temperature of the flue gas from changing due to incomplete combustion of the material, which would cause heat absorption and thus affect the use of the equipment.

Claims

1. An energy system heat distribution monitoring device, comprising a furnace body (1), characterized in that: It also includes a push mechanism (2) installed on one side of the furnace body (1), an adjustment component (8) and a closing mechanism (9) installed on the furnace body (1) and connected to each other in a transmission manner. The adjustment component (8) and the push mechanism (2) are connected in a transmission manner. The push mechanism (2) is provided with a moving plate (12). A drive mechanism (13) is installed on the moving plate (12). A rotating rod (19) is rotatably connected to the moving plate (12). A torsion spring (21) is sleeved on the rotating rod (19). An opening mechanism (22) is provided inside the rotating rod (19). The opening mechanism (22) includes a threaded rod (23), a second gear (20), a threaded sleeve (24), a rotating shaft (25), a pull rod (26), and a mixing plate (27). The threaded rod (23) is rotatably connected inside the rotating rod (19). The second gear (20) is installed at one end of the threaded rod (23). The second gear (20) is movably meshed with the first gear (16) in the drive mechanism (13). The threaded sleeve (24) is threadedly connected to the threaded rod (23). The threaded sleeve (24) is slidably connected inside the rotating rod (19). Multiple rotating shafts (25) are rotatably connected to the rotating rod (19). The mixing plate (27) is rotatably connected to the rotating shafts (25). The pull rod (26) is rotatably connected between the mixing plate (27) and the threaded sleeve (24). The threaded rod (23) is provided with a self-locking mechanism (28), which includes a fixed plate (29), a locking groove (30), a rotating plate (31), a spring (32), and a locking block (33). The rotating rod (19) is equipped with a fixed plate (29), which has multiple locking grooves (30). The threaded rod (23) is equipped with a rotating plate (31), which is fixedly connected to multiple springs (32). A locking block (33) is installed at one end of each spring (32), and the locking block (33) is movably connected in the locking groove (30). A flue pipe (34) is fixedly connected to the furnace body (1). A flue gas detector (35) and a temperature monitor (36) are installed inside the flue pipe (34). Several other temperature monitors (36) are installed on the outside of the furnace body (1).

2. The energy system heat distribution monitoring device according to claim 1, characterized in that: The pushing mechanism (2) includes a fixed seat (3), a guide rail (4), a drive shaft (5), a synchronous belt (6), and a first drive motor (7). Two pairs of fixed seats (3) are installed on the furnace body (1). A guide rail (4) is fixedly connected between the two fixed seats (3). Two drive shafts (5) are rotatably connected on the guide rail (4). A synchronous belt (6) is connected between the two drive shafts (5). A first drive motor (7) is installed on one of the fixed seats (3). The output end of the first drive motor (7) is fixedly connected to one of the drive shafts (5). One end of the moving plate (12) is slidably connected to the guide rail (4), and the other end is fixedly connected to the synchronous belt (6).

3. The energy system heat distribution monitoring device according to claim 2, characterized in that: The closing mechanism (9) includes a closing plate (10) and a rack (11). The closing plate (10) is slidably connected to the furnace body (1), and the rack (11) is installed on the closing plate (10).

4. The energy system heat distribution monitoring device according to claim 3, characterized in that: The regulating component (8) is equipped with a speed regulating box, which is equipped with a drive gear and a pulley. The pulley is connected to the drive shaft (5) in the pushing mechanism (2) and the drive gear is meshed with the rack (11) in the closing mechanism (9).

5. The energy system heat distribution monitoring device according to claim 1, characterized in that: The drive mechanism (13) includes a second drive motor (14), a telescopic rod (15), a first gear (16), a rotating column (17), and a half gear (18). The second drive motor (14) is mounted on the moving plate (12). The output end of the second drive motor (14) is fixedly connected to the telescopic rod (15). The telescopic rod (15) is provided with a locking block and the first gear (16). The rotating column (17) is rotatably connected to the moving plate (12). The rotating column (17) is provided with a self-locking elastic locking component. The locking block is movably connected inside the rotating column (17). The half gear (18) is mounted on the rotating column (17). The half gear (18) and the third gear (38) provided on the rotating rod (19) mesh with each other.

6. The energy system heat distribution monitoring device according to claim 1, characterized in that: The multiple temperature monitors (36) are located on multiple sides of the furnace body (1), and the furnace body (1) is provided with a feed plate (37) on the front side.

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