Energy-saving heat supply device for building
The rotational motion of the hollow ball drive plate and driven plate drives the baffle plate to move upward, solving the problem of the lack of pressure relief function in energy-saving heating devices for buildings, achieving a safe pressure relief effect, and ensuring stable pressure inside the heating tank.
Patent Information
- Application Number
- CN202423236382.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-26
- Publication Date
- 2025-11-21
- Estimated Expiration
- 2034-12-26
AI Technical Summary
Common energy-saving heating devices for buildings lack pressure relief functions, which makes it impossible to maintain the pressure inside the heating tank at a normal value, and can easily lead to excessive geothermal sources and safety hazards.
The buoyancy of the hollow sphere drives the rotation of the drive plate and the driven plate, which in turn moves the barrier plate upward, allowing the geothermal source to be transported outward through the connecting pipe and the pressure relief pipe. The external geothermal source return pipe sends the discharged geothermal source back underground, thus achieving the pressure relief function.
It effectively prevents excessive pressure inside the heating tank, ensures safety, and achieves safe pressure relief of the heating device, avoiding potential safety hazards.
Smart Images
Figure CN223580040U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of building heating technology, and in particular to an energy-saving heating device for buildings. Background Technology
[0002] Building energy conservation refers to minimizing energy consumption during the production of building materials, construction of buildings and structures, and their use, while meeting the same needs or achieving the same purpose. In building energy conservation, geothermal energy is utilized to facilitate the transfer of geothermal heat into the building, effectively ensuring the internal temperature of the building, making people more comfortable when living there, and having a good energy-saving effect. This requires the use of heating equipment to deliver the geothermal source into the building.
[0003] Common energy-saving heating devices for buildings only include heating functions, which can deliver geothermal energy to the building, but lack pressure relief functions. They cannot ensure that the pressure in the heating tank is always kept at a normal value. This can easily lead to excessive geothermal energy entering the heating tank, causing excessive pressure inside the tank and creating safety hazards.
[0004] Therefore, to address the lack of pressure relief function in the aforementioned energy-saving heating devices for buildings, an energy-saving heating device for buildings can be designed. The buoyancy of a hollow sphere pushes the rear end of the drive plate upwards, while the front end moves downwards. The downward movement of the front end of the drive plate then pushes the rear end of the driven plate downwards, while the front end of the driven plate moves upwards. The upward movement of the front end of the driven plate then drives the baffle plate upwards via a hanging plate. After the baffle plate moves upwards, the geothermal source inside the heating box is transported to the external geothermal source return pipe via connecting pipes and pressure relief pipes. The external geothermal source return pipe then sends the discharged geothermal source back underground. Utility Model Content
[0005] To overcome the problem that common energy-saving heating devices for buildings lack pressure relief functions and cannot guarantee that the pressure in the heating tank remains at a normal value, it is easy for excessive geothermal energy to enter the heating tank, leading to excessive pressure inside the tank and causing safety hazards.
[0006] The technical solution of this utility model is as follows: an energy-saving heating device for buildings, including a heating box; it also includes a first supporting vertical plate, a drive plate, a drive rod, a hollow ball, a second supporting vertical plate, a driven plate, a hanging plate, and a barrier plate. The first supporting vertical plate is arranged in the middle of the rear side of the top of the heating box. The drive plate is arranged above the first supporting vertical plate. The drive rod is arranged at the rear end of the bottom of the drive plate. The bottom end of the drive rod passes through the heating box and is connected to the hollow ball. The second supporting vertical plate is arranged in the middle of the front side of the top of the heating box. The driven plate is arranged above the second supporting vertical plate. The hanging plate is arranged at the front end of the bottom of the driven plate. The barrier plate is arranged at the bottom end of the hanging plate.
[0007] Preferably, the buoyancy of the hollow sphere pushes the rear end of the drive plate upward. Simultaneously, the front end of the drive plate moves downward. This downward movement of the front end of the drive plate pushes the rear end of the driven plate downward, and vice versa. The upward movement of the front end of the driven plate then causes the baffle plate to move upward via the hanging plate. Because the rotation angle of the drive and driven plates is limited, the baffle plate will not be pulled out of the baffle groove. After the baffle plate moves upward, the geothermal source in the heating tank is transported to the external geothermal source return pipe via the connecting pipe and the pressure relief pipe. The external geothermal source return pipe then returns the discharged geothermal source to the ground. This addresses the common problem of energy-saving heating devices for buildings that only provide heating and deliver geothermal sources to buildings but lack pressure relief. This makes it difficult to ensure that the pressure in the heating tank remains at a normal value, potentially leading to excessive geothermal source entering the tank, causing excessive pressure and safety hazards.
[0008] Preferably, a first square groove is provided at the center of the top of the drive plate corresponding to the position of the first support vertical plate, the top of the first support vertical plate is inserted into the first square groove, and the top of the first support vertical plate is rotatably connected to the drive plate through a rotating shaft.
[0009] Preferably, an opening slot is provided on the rear side of the top of the drive plate corresponding to the position of the drive rod, the top end of the drive rod is inserted into the opening slot, and the top end of the drive rod is rotatably connected to the drive plate through a rotating shaft.
[0010] Preferably, a second square groove is provided at the middle of the top of the driven plate, corresponding to the position of the second supporting vertical plate. The top of the second supporting vertical plate is inserted into the interior of the second square groove, and the top of the second supporting vertical plate is rotatably connected to the driven plate through a rotating shaft.
[0011] Preferably, a groove is provided on the front side of the driven plate corresponding to the position of the hanging plate, the top of the hanging plate is inserted into the groove, and the top of the hanging plate is slidably connected to the driven plate through a rotating shaft.
[0012] Preferably, the rear side of the top of the driven plate is attached to the front side of the bottom of the drive plate, a connecting pipe is provided in the middle of the top front of the heating box, a connecting frame is provided at the front end of the connecting pipe, a pressure relief pipe is provided in the center of the front side of the connecting frame, a barrier groove is provided at the top of the connecting frame, and the bottom end of the barrier plate is inserted into the interior of the barrier groove.
[0013] Preferably, an installation plate is provided in the middle of the bottom rear side of the heating box, a water pump is provided on the top of the installation plate, a water supply pipe is connected to the output end of the water pump, the front end of the water supply pipe is connected to the heating box, and a heat delivery pipe is provided in the middle of the bottom front side of the heating box.
[0014] The beneficial effects of this utility model are:
[0015] 1. The buoyancy of the hollow sphere pushes the rear end of the drive plate upward. Simultaneously, the front end of the drive plate moves downward. This downward movement of the drive plate's front end pushes the rear end of the driven plate downward, and vice versa. The upward movement of the driven plate's front end then causes the baffle plate to move upward via the hanging plate. Due to the limited rotation angle of the drive and driven plates, the baffle plate does not detach from the baffle groove. After the baffle plate moves upward, the geothermal energy in the heating tank is transported to the external geothermal energy return pipe via the connecting pipe and pressure relief pipe. The external geothermal energy return pipe then returns the discharged geothermal energy to the ground. This addresses the common problem of energy-saving heating devices for buildings that only provide heating and deliver geothermal energy to buildings but lack pressure relief. This makes it difficult to ensure the pressure in the heating tank remains at a normal level, potentially leading to excessive geothermal energy entering the tank, causing excessive pressure and safety hazards. Attached Figure Description
[0016] Figure 1 The diagram shown is a front view of the overall structure of the energy-saving heating device for buildings according to this utility model.
[0017] Figure 2 The diagram shown is a rear view of the overall structure of the energy-saving heating device for buildings according to this utility model.
[0018] Figure 3 The diagram shown is a schematic representation of the drive assembly of the energy-saving heating device for buildings according to this utility model.
[0019] Figure 4 The diagram shown is a schematic representation of the driven component of the energy-saving heating device for buildings according to this utility model.
[0020] Figure 5 The diagram shown is a structural schematic of the pressure relief component of the energy-saving heating device for buildings according to this utility model.
[0021] Explanation of reference numerals in the attached drawings: 1. Heating box; 2. First support vertical plate; 3. Drive plate; 4. Drive rod; 5. Hollow ball; 6. Second support vertical plate; 7. Driven plate; 8. Hanging plate; 9. Barrier plate; 10. First square groove; 11. Open groove; 12. Second square groove; 13. Sliding groove; 14. Connecting pipe; 15. Connecting frame; 16. Pressure relief pipe; 17. Barrier groove; 18. Mounting plate; 19. Water pump; 20. Water delivery pipe; 21. Heat delivery pipe. Detailed Implementation
[0022] The present invention will be further described below with reference to the accompanying drawings and embodiments.
[0023] Please see Figures 1-5This utility model provides an embodiment of an energy-saving heating device for buildings, including a heating box 1; it also includes a first supporting vertical plate 2, a driving plate 3, a driving rod 4, a hollow ball 5, a second supporting vertical plate 6, a driven plate 7, a hanging plate 8, and a barrier plate 9. The first supporting vertical plate 2 is arranged in the middle of the rear side of the top of the heating box 1. The driving plate 3 is arranged above the first supporting vertical plate 2. The driving rod 4 is arranged at the rear end of the bottom of the driving plate 3. The bottom end of the driving rod 4 passes through the heating box 1 and is connected to the hollow ball 5. The second supporting vertical plate 6 is arranged in the middle of the front side of the top of the heating box 1. The driven plate 7 is arranged above the second supporting vertical plate 6. The hanging plate 8 is arranged at the front end of the bottom of the driven plate 7. The barrier plate 9 is arranged at the bottom end of the hanging plate 8. The buoyancy of the hollow ball 5 pushes the rear end of the driving plate 3 to move upward. While the rear end of the driving plate 3 moves upward, its front end moves downward. At this time, due to the buoyancy of the front end of the driving plate 3, the rear end of the driving plate 3 moves upward. The descent of the driven plate 7 will push the rear end of the driven plate 7 downward. As the rear end of the driven plate 7 moves downward, its front end will move upward. At this time, the rise of the front end of the driven plate 7 will drive the baffle plate 9 upward through the hanging plate 8. Due to the limited rotation angle of the driving plate 3 and the driven plate 7, the baffle plate 9 will not be pulled out from the inside of the baffle groove 17. After the baffle plate 9 moves upward, the geothermal source in the heating box 1 will be transported to the external geothermal source return pipe through the connecting pipe 14 and the pressure relief pipe 16. The external geothermal source return pipe will send the discharged geothermal source back to the ground. This solves the problem that common energy-saving heating devices for buildings only include heating function and can transport geothermal source to the building, but lack pressure relief function. They cannot ensure that the pressure in the heating tank is always kept at a normal value. It is easy for too much geothermal source to enter the heating tank, resulting in excessive pressure in the tank and causing safety hazards.
[0024] Please see Figures 2-5 In this embodiment, the rear side of the top of the driven plate 7 is attached to the front side of the bottom of the drive plate 3. A connecting pipe 14 is provided in the middle of the top front side of the heating box 1. A connecting frame 15 is provided at the front end of the connecting pipe 14. A pressure relief pipe 16 is provided in the center of the front side of the connecting frame 15. A barrier groove 17 is provided at the top of the connecting frame 15. The bottom end of the barrier plate 9 is inserted into the interior of the barrier groove 17. An installation plate 18 is provided in the middle of the bottom rear side of the heating box 1. A water pump 19 is provided at the top of the installation plate 18. The water pump 19 has a front end... The outlet is connected to a water supply pipe 20, the front end of which is connected to the heating box 1. A heat delivery pipe 21 is installed in the middle of the bottom front side of the heating box 1. The external pipe of the geothermal source extraction equipment is connected to the input end of the water pump 19. The external pipe of the geothermal source return equipment is connected to the pressure relief pipe 16. Then, the external pipe connecting the building is connected to the heat delivery pipe 21. The water pump 19 delivers the geothermal source to the interior of the heating box 1 through the water supply pipe 20. The geothermal source inside the heating box 1 is then delivered to the building through the heat delivery pipe 21.
[0025] Please see Figures 1-5In this embodiment, a first square groove 10 is formed through the center of the top of the drive plate 3, corresponding to the position of the first supporting vertical plate 2. The top of the first supporting vertical plate 2 is inserted into the first square groove 10. The top of the first supporting vertical plate 2 is rotatably connected to the drive plate 3 via a rotating shaft. An opening groove 11 is formed through the rear side of the top of the drive plate 3, corresponding to the position of the drive rod 4. The top of the drive rod 4 is inserted into the opening groove 11. The top of the drive rod 4 is rotatably connected to the drive plate 3 via a rotating shaft. A second square groove 12 is formed through the middle of the top of the driven plate 7, corresponding to the position of the second supporting vertical plate 6. The top of the second supporting vertical plate 6 is inserted into the second square groove 12. The top of the second supporting vertical plate 6 is rotatably connected to the driven plate 7 via a rotating shaft. A sliding groove 13 is formed through the front side of the top of the driven plate 7, corresponding to the position of the hanging plate 8. The top of the hanging plate 8 is inserted into the sliding groove 13. The top of the hanging plate 8 is slidably connected to the driven plate 7 via a rotating shaft. When the amount of geothermal source discharged from the heating box 1 is less than the amount of geothermal source discharged, the geothermal source then... The geothermal source inside the heating box 1 will be stored and rise. When the geothermal source inside the heating box 1 rises to the hollow sphere 5, the buoyancy of the hollow sphere 5 will push the rear end of the drive plate 3 to move upward. At the same time, the front end of the drive plate 3 will move downward. At this time, the descent of the front end of the drive plate 3 will push the rear end of the driven plate 7 to move downward. At the same time, the front end of the driven plate 7 will move upward. At this time, the rise of the front end of the driven plate 7 will drive the baffle plate 9 to move upward through the hanging plate 8. Due to the limited rotation angle of the drive plate 3 and the driven plate 7, the baffle plate 9 will not be pulled out from the inside of the baffle groove 17. After the baffle plate 9 moves upward, the geothermal source inside the heating box 1 will be transported to the external geothermal source return pipe through the connecting pipe 14 and the pressure relief pipe 16. The external geothermal source return pipe will send the discharged geothermal source back to the ground, realizing the pressure relief function and preventing the excessive geothermal source entering the heating box 1 from causing excessive pressure in the tank and creating safety hazards.
[0026] During operation, the external pipe of the geothermal source extraction equipment is connected to the input end of the water pump 19, and the external pipe of the geothermal source return equipment is connected to the pressure relief pipe 16. Then, the external pipe connecting the building is connected to the heat supply pipe 21. The water pump 19 transports the geothermal source to the interior of the heating box 1 through the water supply pipe 20. The geothermal source inside the heating box 1 is then transported to the building through the heat supply pipe 21. When the amount of geothermal source discharged from the heating box 1 is less than the amount discharged, the geothermal source will be stored and rise inside the heating box 1. When the geothermal source inside the heating box 1 rises to the hollow sphere 5, the buoyancy of the hollow sphere 5 pushes the rear end of the drive plate 3 upward. The rear end of the drive plate 3 moves upward... As the drive plate 3 moves upward, its front end moves downward. At this time, the downward movement of the front end of the drive plate 3 will push the rear end of the driven plate 7 downward. As the rear end of the driven plate 7 moves downward, its front end moves upward. At this time, the upward movement of the front end of the driven plate 7 will drive the baffle plate 9 upward through the hanging plate 8. Due to the limited rotation angle of the drive plate 3 and the driven plate 7, the baffle plate 9 will not be pulled out from the inside of the baffle groove 17. After the baffle plate 9 moves upward, the geothermal source in the heating box 1 will be transported to the external geothermal source return pipe through the connecting pipe 14 and the pressure relief pipe 16. The external geothermal source return pipe will send the discharged geothermal source back to the ground, thus realizing the pressure relief function.
[0027] Through the above steps, the buoyancy of the hollow sphere 5 pushes the rear end of the drive plate 3 upward. Simultaneously, the front end of the drive plate 3 moves downward. This downward movement of the front end of the drive plate 3 pushes the rear end of the driven plate 7 downward. Conversely, the front end of the driven plate 7 moves upward, and this upward movement of the front end of the driven plate 7 causes the barrier plate 9 to move upward via the hanging plate 8. Because the rotation angle of the drive plate 3 and the driven plate 7 is limited, the barrier plate 9 will not be pulled out of the barrier groove 17. After the baffle plate 9 moves upward, the geothermal source in the heating box 1 will be transported to the external geothermal source return pipe through the connecting pipe 14 and the pressure relief pipe 16. The external geothermal source return pipe will then send the discharged geothermal source back to the ground. This solves the problem that common energy-saving heating devices for buildings only include heating function and can transport geothermal source to the building, but lack pressure relief function. They cannot ensure that the pressure in the heating tank is always kept at a normal value, which can easily lead to excessive geothermal source entering the heating tank, causing excessive pressure in the tank and creating safety hazards.
Claims
1. An energy-saving heating device for buildings, comprising a heating box (1); characterized in that: It also includes a first support vertical plate (2), a drive plate (3), a drive rod (4), a hollow ball (5), a second support vertical plate (6), a driven plate (7), a hanging plate (8), and a barrier plate (9). The first support vertical plate (2) is provided in the middle of the rear side of the top of the heating box (1). The drive plate (3) is provided above the first support vertical plate (2). The drive rod (4) is provided at the rear end of the bottom of the drive plate (3). The bottom end of the drive rod (4) passes through the heating box (1) and is connected to the hollow ball (5). The second support vertical plate (6) is provided in the middle of the front side of the top of the heating box (1). The driven plate (7) is provided above the second support vertical plate (6). The hanging plate (8) is provided at the front end of the bottom of the driven plate (7). The barrier plate (9) is provided at the bottom end of the hanging plate (8).
2. The energy-saving heating device for buildings according to claim 1, characterized in that: The center of the top of the drive plate (3) is provided with a first square groove (10) through which the first support vertical plate (2) is located. The top of the first support vertical plate (2) is inserted into the interior of the first square groove (10). The top of the first support vertical plate (2) is rotatably connected to the drive plate (3) through a rotating shaft.
3. The energy-saving heating device for buildings according to claim 1, characterized in that: An opening slot (11) is provided on the rear side of the top of the drive plate (3) corresponding to the position of the drive rod (4). The top end of the drive rod (4) is inserted into the opening slot (11), and the top end of the drive rod (4) is rotatably connected to the drive plate (3) through a rotating shaft.
4. The energy-saving heating device for buildings according to claim 1, characterized in that: A second square groove (12) is provided through the middle of the top of the driven plate (7) corresponding to the position of the second support vertical plate (6). The top of the second support vertical plate (6) is inserted into the interior of the second square groove (12). The top of the second support vertical plate (6) is rotatably connected to the driven plate (7) through a rotating shaft.
5. The energy-saving heating device for buildings according to claim 1, characterized in that: A groove (13) is provided on the front side of the top of the driven plate (7) corresponding to the position of the hanging plate (8). The top of the hanging plate (8) is inserted into the groove (13), and the top of the hanging plate (8) is slidably connected to the driven plate (7) through a rotating shaft.
6. The energy-saving heating device for buildings according to claim 1, characterized in that: The rear side of the top of the driven plate (7) is attached to the front side of the bottom of the drive plate (3). A connecting pipe (14) is provided in the middle of the top front side of the heating box (1). A connecting frame (15) is provided at the front end of the connecting pipe (14). A pressure relief pipe (16) is provided in the center of the front side of the connecting frame (15). A barrier groove (17) is opened at the top of the connecting frame (15). The bottom end of the barrier plate (9) is inserted into the interior of the barrier groove (17).
7. The energy-saving heating device for buildings according to claim 1, characterized in that: A mounting plate (18) is provided in the middle of the bottom rear side of the heating box (1). A water pump (19) is provided on the top of the mounting plate (18). A water supply pipe (20) is connected to the output end of the water pump (19). The front end of the water supply pipe (20) is connected to the heating box (1). A heat delivery pipe (21) is provided in the middle of the bottom front side of the heating box (1).