High-heat-dissipation transformer
By introducing a sloping housing, a partition plate, and an automated water-air combined cooling system into the transformer, the problem of poor heat dissipation at high temperatures in the transformer was solved, achieving rapid and efficient heat dissipation and preventing damage to components.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2023-07-12
- Publication Date
- 2026-04-17
AI Technical Summary
Existing transformers have poor heat dissipation at high temperatures, which can easily lead to damage to internal components.
A high-heat-dissipation transformer was designed. By setting an inclined receiving part and a partition plate in a rectangular frame, heat dissipation is achieved by combining water and air. The structure includes a sliding baffle, a transmission part, a blower and water passage holes, etc., to realize the automated control of multiple water spraying and air blowing, and ensure rapid heat dissipation.
This effectively prevents high temperatures from damaging internal components, achieves rapid and efficient heat dissipation, and ensures the normal operation of the transformer.
Smart Images
Figure CN121885349A_ABST
Abstract
Description
Technical Field
[0001] This invention belongs to the field of transformer technology, and particularly relates to a high heat dissipation transformer. Background Technology
[0002] A transformer is a device that uses the principle of electromagnetic induction to change alternating current voltage. Its main components are the primary coil, secondary coil, and iron core. Its main functions include voltage transformation, current transformation, impedance transformation, isolation, and voltage stabilization. High-current transformers generate a large amount of heat during operation. If this heat is not dissipated in time, it can damage the internal coils and affect the transformer's normal operation. Current technologies mostly use simple heat sinks to dissipate heat. When the internal temperature of the transformer is too high and excessive heat accumulates, heat sinks alone cannot quickly dissipate the heat, easily causing damage to internal components due to high temperatures. Therefore, a transformer with enhanced heat dissipation is needed to prevent damage to internal components caused by high temperatures. Summary of the Invention
[0003] In view of this, the technical problem to be solved by the present invention is to provide a transformer that can enhance its own heat dissipation to avoid damage to internal components caused by high temperature.
[0004] A high-heat-dissipation transformer includes a transformer body, a rectangular frame and multiple heat dissipation fins fixedly connected to the transformer body, all of which are located within the rectangular frame. An inclined receiving portion is fixedly connected to the rectangular frame, and multiple partition plates are fixedly connected to the inclined receiving portion. Two sliding baffles are slidably connected to the rectangular frame, and a transmission ball is fixedly connected to each sliding baffle. A first compression spring is fixedly connected between each sliding baffle and the rectangular frame. A transmission part is slidably connected to the transformer body, and the transmission part can contact the two transmission balls.
[0005] The rectangular frame has multiple water passage holes on both the top and bottom sides.
[0006] It also includes a movable base connected to the transformer body, a connecting plate fixed to the movable base, and a blower detachably connected to the connecting plate by bolts.
[0007] It also includes a rotating rod rotatably connected to the transformer body, a matching rod connected to the rotating rod, a movable seat slidably connected to the transformer body, and a second compression spring fixed between the movable seat and the transformer body. Attached Figure Description
[0008] The present invention will now be described in further detail with reference to the accompanying drawings and specific implementation methods.
[0009] Figure 1 and Figure 2 This is a schematic diagram of the main structure of the transformer;
[0010] Figure 3 This is a schematic diagram of the transmission unit.
[0011] Figure 4 This is a schematic diagram of the rectangular frame structure;
[0012] Figure 5 This is a schematic diagram of the rotating rod structure;
[0013] Figure 6 This is a schematic diagram of the movable base;
[0014] Figure 7 This is a schematic diagram of the protective cover.
[0015] Figure 8 This is a schematic diagram of the test box structure;
[0016] Figure 9 and Figure 10 This is a schematic diagram of the overall structure of a high heat dissipation transformer. Detailed Implementation
[0017] like Figure 1-4 As shown;
[0018] This device includes a transformer body 101, a rectangular frame 102 and multiple heat dissipation fins 103 fixedly connected to the transformer body 101, all of which are located within the rectangular frame 102. An inclined receiving portion 105 is fixedly connected to the rectangular frame 102, and multiple partition plates 104 are fixedly connected to the inclined receiving portion 105. Two sliding baffles 202 are slidably connected to the rectangular frame 102, and a transmission ball 201 is fixedly connected to each sliding baffle 202. A first compression spring is fixedly connected between each sliding baffle 202 and the rectangular frame 102. A transmission part 301 is slidably connected to the transformer body 101, and the transmission part 301 can contact the two transmission balls 201. A first electric push rod that can push the transmission part 301 to slide is fixedly connected to the transformer body 101.
[0019] Under normal conditions, the transformer body 101 is cooled by multiple heat dissipation fins 103. Workers can pour water into the inclined receiving portion 105 or use it to collect rainwater. The water entering the inclined receiving portion 105 is automatically separated by multiple partitions 104. When the temperature inside the transformer body 101 becomes too high and excessive heat accumulates, making the heat dissipation requirements insufficient solely by the multiple heat dissipation fins 103, the transmission part 301 can be operated to slide upwards. This upward movement gradually pushes the two transmission balls 201 away from each other. The sliding mechanism causes the two sliding baffles 202 to slide away from each other until the two partition plates 104 closest to the middle of the transformer body 101 are exposed. At this point, some of the water on the inclined receiving part 105 is no longer blocked by the sliding baffles 202 and automatically slides from the inclined receiving part 105 onto the rectangular frame 102, and then falls onto the multiple heat dissipation fins 103. This water enhances the heat dissipation of the multiple heat dissipation fins 103, thereby quickly dissipating the excessive heat accumulated inside the transformer body 101 and achieving the effect of enhancing its own heat dissipation, thus preventing damage to internal components caused by high temperature.
[0020] The arrangement of multiple partition plates 104 allows the water on the inclined receiving portion 105 to be sprayed onto the rectangular frame 102 multiple times by controlling the distance of each slide of the transmission portion 301 during subsequent sliding of the transmission portion 301. This enables multiple enhanced heat dissipation effects without the need to replenish water.
[0021] The two first compression springs ensure that the two transmission balls 201 are always in close contact with both sides of the transmission part 301, guaranteeing the subsequent transmission effect.
[0022] like Figure 1 , Figure 4 As shown;
[0023] The rectangular frame 102 has multiple water passage holes 107 on both the top and bottom sides.
[0024] When the two sliding baffles 202 are slid away from each other, causing some water on the inclined receiving part 105 to spill out, the water that spills onto the rectangular frame 102 will automatically enter the rectangular frame 102 through multiple water passages 107 on the upper side of the rectangular frame 102, thereby performing subsequent enhanced heat dissipation work. When the water flows to the bottom of the rectangular frame 102, it will automatically flow out from multiple water passages 107 on the lower side of the rectangular frame 102 to avoid accumulation. At the same time, the multiple water passages 107 on the upper side of the rectangular frame 102 can filter the water to prevent impurities from entering the interior of the rectangular frame 102 and sticking to the heat dissipation fins 103, thereby affecting the normal heat dissipation work of the heat dissipation fins 103.
[0025] like Figure 6As shown;
[0026] It also includes a movable base 701 connected to the transformer body 101, a connecting plate 703 fixedly connected to the movable base 701, and a blower detachably connected to the connecting plate 703 by bolts.
[0027] After enhancing heat dissipation by spraying water onto multiple heat dissipation fins 103, the blower on the connecting plate 703 can be started to blow air from the side of the rectangular frame 102. The rapid airflow and the water adhering to the heat dissipation fins 103 further improve the heat dissipation effect of the multiple heat dissipation fins 103. At the same time, the air blown from the side of the rectangular frame 102 can blow away impurities that cannot pass through the multiple water holes 107 and remain on the upper side of the rectangular frame 102, thereby blowing away and removing the impurities remaining on the rectangular frame 102 to ensure a long-term filtration effect.
[0028] like Figure 4 As shown;
[0029] It also includes a fixed rod 405 fixedly connected to the transmission part 301, a rotating rod 501 rotatably connected to the transformer body 101, a cooperating rod 502 connected to the rotating rod 501, a movable seat 701 slidably connected to the transformer body 101, and a second compression spring fixedly connected between the movable seat 701 and the transformer body 101.
[0030] When blowing away impurities, the rotating rod 501 can be rotated, and then the moving seat 701 can be slid by the cooperating rod 502, thereby changing the position of the blower's air outlet, so as to fully blow away the impurities left on the upper side of the rectangular frame 102 and improve the blowing effect.
[0031] The second compression spring allows the movable seat 701 to automatically reset after being moved by the cooperating rod 502, thus facilitating subsequent re-movement.
[0032] like Figure 5 , Figure 6 , Figure 8 As shown;
[0033] It also includes a fixed rod 405 fixed to the transmission part 301, an auxiliary rod 406 slidably connected to the fixed rod 405, a stop bar 503 fixed to the rotating rod 501, a first torsion spring fixed between the rotating rod 501 and the cooperating rod 502, the stop bar 503 can block the cooperating rod 502, the setting of the stop bar 503 makes the cooperating rod 502 only able to rotate counterclockwise on the rotating rod 501, the moving seat 701 is provided with multiple arc protrusions 702, the torsional force of the first torsion spring is less than the elastic force of the first compression spring, a displacement sensor is fixed between the transformer body 101 and the moving seat 701, the moving end of the displacement sensor is fixed to the moving seat 701, the displacement sensor can control the start and stop of the blower, and a second electric push rod that can drive the auxiliary rod 406 to slide is fixed to the fixed rod 405.
[0034] When the transmission unit 301 slides upward, causing some water on the inclined receiving part 105 to flow out to enhance the heat dissipation effect, the fixed rod 405 will gradually push the rotating rod 501 to rotate clockwise. During this process, since the torsion of the first torsion spring is less than the elastic force of the first compression spring, the cooperating rod 502 will not push the moving seat 701 to slide. As a result, the moving seat 701 will not slide during the water spraying process, the displacement sensor will not receive a signal, and the blower will not start. This avoids the blower blowing randomly during the water spraying process, which would prevent some water from entering the rectangular frame 102 and thus affect the enhanced heat dissipation effect.
[0035] When the transmission part 301 slides downward, the operating auxiliary rod 406 slides to abut against the transformer body 101, and then the auxiliary rod 406 drives the rotating rod 501 to rotate counterclockwise. During this process, the cooperating rod 502 will gradually move downward until the lowest end of the cooperating rod 502 abuts against the upper side of a certain arc protrusion 702. Then, as the rotating rod 501 continues to rotate, because the lowest end of the cooperating rod 502 abuts against a certain arc protrusion 702, the cooperating rod 502 cannot continue to slide downward, and will gradually rotate on the rotating rod 501 and then return to a parallel posture with the rotating rod 501. During this process, the cooperating rod 502 can gradually push the moving seat 701, thereby causing the moving seat 701 to slide, and then start the blower. Thus, after the water spraying is finished, the blower is started to ensure that the water enters the rectangular frame 102 before being blown, so as to ensure enhanced heat dissipation.
[0036] As the mating rod 502 gradually rotates and abuts against the stop bar 503, the continuous rotation of the rotating rod 501 causes the mating rod 502 to gradually rotate counterclockwise in sync with the rotating rod 501, thereby gradually resetting the mating rod 502 and the rotating rod 501 to their original positions. Figure 6 As shown in the image, it awaits the next adjustment.
[0037] like Figure 2-3 As shown;
[0038] It also includes a protective cover 403 fixed to the transmission part 301. The protective cover 403 contains a plurality of wiping cotton strips 404, which can contact the left and right sides of the plurality of heat dissipation fins 103 respectively.
[0039] When the operating transmission unit 301 slides up and down on the transformer body 101, multiple wiping cotton strips 404 can wipe the left and right sides of multiple heat dissipation fins 103, thereby removing the dust adhering to the left and right sides of multiple heat dissipation fins 103, and further ensuring the long-term heat dissipation effect of multiple heat dissipation fins 103.
[0040] The protective cover 403 can shield and protect the wiping cotton swab 404, preventing external dust from coming into contact with the wiping cotton swab 404 for a long time, which would affect the wiping effect of the wiping cotton swab 404.
[0041] like Figure 3-4 As shown;
[0042] It also includes a connecting seat 401 that is detachably connected to the transmission part 301 by bolts, and a fan 402 is rotatably connected to the connecting seat 401.
[0043] When the installation environment permits, the connector 401 can be connected to the transmission part 301 by tightening the bolts. When the heat inside the transformer body 101 is too high, the fan 402 can rotate continuously and blow air onto different positions on multiple heat dissipation fins 103 as the transmission part 301 slides up and down, thereby further improving the heat dissipation effect.
[0044] like Figure 9-10 As shown;
[0045] It also includes an upper baffle 106 that is slidably connected to the transformer body 101, and a third electric push rod that can push the upper baffle 106 to slide is fixedly connected to the transformer body 101.
[0046] When water is added to the inclined surface receiving portion 105, the upper baffle 106 can be slid to block the upper side of the inclined surface receiving portion 105, thereby protecting the water in the inclined surface receiving portion 105 and preventing impurities from entering the water.
[0047] When it rains outdoors, the upper baffle 106 can be slid open, so that the inclined receiving part 105 can catch the rainwater again for subsequent heat dissipation.
[0048] like Figure 5 , Figure 6 , Figure 8 As shown;
[0049] It also includes a test box 601 connected to the rotating rod 501, a receiving part 602 fixedly connected to the test box 601, an auxiliary baffle 604 slidably connected to the test box 601, a second torsion spring fixedly connected between the rotating rod 501 and the transformer body 101, an angle sensor fixedly connected to the transformer body 101, the moving end of the angle sensor fixedly connected to the rotating rod 501, the test box 601 is an obliquely penetrating shell, the auxiliary baffle 604 can block the opening on the lower side of the test box 601, and a fourth electric push rod fixedly connected to the test box 601 that can push the auxiliary baffle 604 to slide.
[0050] The torsional force provided by the second torsion spring stabilizes the rotating rod 501. Figure 6 In the indicated posture, under normal conditions, the transmission part 301 continuously slides downwards, causing the fixed rod 405 to separate from the rotating rod 501, which is stabilized by the torsional force of the second torsion spring. When it rains, rainwater automatically flows in from the receiving part 602, gradually filling the test box 601. This causes the test box 601 to gradually collect a large amount of rainwater, gradually increasing the overall weight of the rotating rod 501. Consequently, the rotating rod 501 can gradually overcome the torsional force of the second torsion spring and rotate. The signal obtained from the angle sensor indicates that the rotating rod is rotating. The overall weight of 501 increases. When the rotating rod 501 rotates to a certain extent, the operating auxiliary baffle 604 slides on the test box 601, so that the test box 601 no longer blocks the opening on the lower side of the test box 601. If there is rainwater in the test box 601 at this time, the rainwater will naturally spill out from the test box 601, thereby restoring the weight of the rotating rod 501. Then, the signal obtained by the angle sensor can determine that the current situation is likely rainy weather. At this time, the upper baffle 106 can be slid open to collect the rainwater.
[0051] like Figure 5 , Figure 6 , Figure 8 As shown;
[0052] It also includes a filter plate 603 fixed to the receiving part 602, the test box 601 is rotatably connected to the rotating rod 501, and a motor that can drive the rotating rod 501 to rotate is fixed to the test box 601.
[0053] The filter plate 603 can filter external impurities, preventing them from entering the receiving part 602 and then the test box 601. The test box 601 can be rotated clockwise on the rotating rod 501 periodically, which causes the filter plate 603 to tilt downward, thereby dumping the impurities accumulated on the filter plate 603 and ensuring long-term filtration effect.
Claims
1. A high heat dissipating transformer characterized by, The transformer body (101) includes a rectangular frame (102) and multiple heat dissipation fins (103) fixedly connected to the transformer body (101). The multiple heat dissipation fins (103) are all located inside the rectangular frame (102). An inclined receiving part (105) is fixedly connected to the rectangular frame (102). Multiple partition plates (104) are fixedly connected to the inclined receiving part (105). Two sliding baffles (202) are slidably connected to the rectangular frame (102). A transmission ball (201) is fixedly connected to each sliding baffle (202). A first compression spring is fixedly connected between each sliding baffle (202) and the rectangular frame (102). A transmission part (301) is slidably connected to the transformer body (101). The transmission part (301) can contact the two transmission balls (201).
2. A high heat dissipating transformer according to claim 1, wherein The rectangular frame (102) has multiple water passage holes (107) on both the top and bottom sides.
3. A high heat dissipating transformer according to claim 2, wherein It also includes a movable base (701) connected to the transformer body (101), a connecting plate (703) fixedly connected to the movable base (701), and a blower detachably connected to the connecting plate (703) by bolts.
4. A high heat dissipating transformer according to claim 3, wherein It also includes a rotating rod (501) rotatably connected to the transformer body (101), a cooperating rod (502) connected to the rotating rod (501), a movable seat (701) slidably connected to the transformer body (101), and a second compression spring fixed between the movable seat (701) and the transformer body (101).
5. A high heat dissipating transformer according to claim 4, wherein It also includes a fixed rod (405) fixed to the transmission part (301), an auxiliary rod (406) slidably connected to the fixed rod (405), a stop bar (503) fixed to the rotating rod (501), a first torsion spring fixed between the rotating rod (501) and the cooperating rod (502), the stop bar (503) can block the cooperating rod (502), and multiple arc protrusions (702) are provided on the moving seat (701).
6. A high heat dissipating transformer as claimed in claim 1, wherein, It also includes a protective cover (403) fixed to the transmission part (301), and a plurality of wiping cotton strips (404) are wrapped inside the protective cover (403). The plurality of wiping cotton strips (404) can contact the left and right sides of the plurality of heat dissipation fins (103) respectively.
7. A high heat dissipating transformer as claimed in claim 1, wherein, It also includes a connecting seat (401) that is detachably connected to the transmission part (301) by bolts, and a fan (402) is rotatably connected to the connecting seat (401).
8. A high heat dissipating transformer according to claim 5, wherein It also includes an upper baffle (106) that is slidably connected to the transformer body (101).
9. A high heat dissipation transformer according to claim 8, characterized in that, It also includes a test box (601) connected to the rotating rod (501), a receiving part (602) fixedly connected to the test box (601), an auxiliary baffle (604) slidably connected to the test box (601), a second torsion spring fixedly connected between the rotating rod (501) and the transformer body (101), an angle sensor fixedly connected to the transformer body (101), the moving end of the angle sensor fixedly connected to the rotating rod (501), the test box (601) is a shell that runs obliquely through, and the auxiliary baffle (604) can block the opening on the lower side of the test box (601).
10. A high heat dissipating transformer according to claim 9, wherein It also includes a filter plate (603) fixed to the receiving part (602), and the test box (601) is rotatably connected to the rotating rod (501).