Air-cooled radiator with anti-blocking effect

Abstract

The invention relates to the technical field of air-cooled radiators, and particularly discloses an air-cooled radiator with an anti-blocking effect. Comprising a round sleeve shell, a conical round shell is fixedly connected to the inner wall of the round sleeve shell, a filtering round hole is formed in one side of the conical round shell, a first arc hole is formed in the outer side of the round sleeve shell, a round through hole is formed in the side, close to the conical round shell, of the inner wall of the round sleeve shell, and an annular electric sliding rail is fixedly connected to the side, close to a first pipeline, of the round sleeve shell; according to the air-cooled radiator with the anti-blocking effect, the conical round shell with the gradually-increased radius is arranged at the position, in butt joint with the first pipeline, of the inner wall of the round sleeve shell, so that the flow of oil liquid is conveniently increased; the situation that when a filter plate with the same radius as a pipeline is arranged for filtering, the area without filter holes blocks oil, the oil flow is affected, and the heat dissipation effect is poor is avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of air-cooled radiators, and particularly to an air-cooled radiator with an anti-blocking effect. Background Technique

[0002] A radiator is an important device for engineering vehicles. It is mainly used to control the heat generated by each moving part in mechanical equipment within a certain appropriate range, such as the rapid heat dissipation of lubricating oil and power hydraulic oil. An air-cooled radiator is a common heat dissipation device. When an engineering vehicle is working, a large amount of heat is generated inside. This heat is conducted to the radiator fins through heat conduction pipes or directly. The radiator fins are usually made of materials with good thermal conductivity such as aluminum or copper, which can quickly absorb and conduct heat, increase the contact area with air, and thus improve the heat dissipation efficiency. The fan inhales external cold air and makes it pass through the surface of the radiator fins, taking away the heat on the radiator fins. After the cold air flows through the radiator fins, it becomes hot air and is discharged, completing the process of heat exchange;

[0003] When preventing blockage of the oil flowing into the heat conduction pipe, usually a filter plate is set to filter out particulate impurities for anti-blocking treatment. However, when a filter plate with the same radius as the pipe is set for filtering, there is an area without filter holes that blocks the oil, affecting the oil flow rate and resulting in poor heat dissipation effect. Therefore, we propose an air-cooled radiator with an anti-blocking effect. Summary of the Invention

[0004] To solve the above technical problems, the present invention provides an air-cooled radiator with an anti-blocking effect, including a first pipe. A first fixing bracket is sleeved and fixedly connected to the outer side of the first pipe. The water inlet of the first pipe is communicated with an anti-blocking device. A waste discharging device is sleeved and fixedly connected to the outer side of the anti-blocking device. A vertical pipe is communicated with the outer side of the first pipe. A radiator fin is fixedly connected to the outer side of the vertical pipe. The top of the vertical pipe is communicated with a second pipe. A second fixing bracket is sleeved and fixedly connected to the outer side of the second pipe. A cleaning device is fixedly connected to one side of the second fixing bracket. A concave side frame is fixedly connected to the side of the second fixing bracket away from the cleaning device. An electric fan is rotatably connected to the inner side of the concave side frame through a rotating bolt;

[0005] The anti-blocking device includes a circular sleeve. A conical circular shell is fixedly connected to the inner wall of the circular sleeve. By setting a conical circular shell with a gradually increasing radius at the position where the inner wall of the circular sleeve is docked with the first pipe, it is convenient to increase the oil flow rate and prevent the situation that when a filter plate with the same radius as the pipe is set for filtering, there is an area without filter holes that blocks the oil, affecting the oil flow rate and resulting in poor heat dissipation effect. A filtering round hole is opened on one side of the conical circular shell;

[0006] One side of the concave side frame near the bottom is fixedly connected to one side of the first fixing bracket, and one side of the cleaning device near the bottom is fixedly connected to one side of the first fixing bracket;

[0007] One side of the circular housing is communicated with the water inlet of the first pipeline. The outer side of the circular housing is fixedly connected to the inner side of the impurity discharging device. The conical circular shell is a conical shell with a conical cavity inside;

[0008] A first arc-shaped hole is formed in the outer side of the circular housing. A circular through-hole is formed in one side of the inner wall of the circular housing close to the conical circular shell. One side of the circular housing close to the first pipeline is fixedly connected with an annular electric slide rail. A side slide rod is rotatably connected to the inner side of the annular electric slide rail. An arc-shaped baffle is fixedly connected to the outer side of the side slide rod. By arranging a co-rotating arc-shaped baffle on the outer side of the side slide rod, the annular guide groove of the annular electric slide rail is always covered and protected, preventing the particulate impurities filtered by the filtering round holes from accumulating in the annular guide groove of the annular electric slide rail along with the oil flow and affecting the use. One end of the side slide rod away from the annular electric slide rail is fixedly connected with a strip-shaped scraping rod. When the strip-shaped scraping rod rotates with the side slide rod, it always scrapes and cleans the surface of the conical circular shell where the filtering round holes are formed, preventing some of the filtered particulate impurities from being affected by the oil flow and adhering to the surface of the conical circular shell where the filtering round holes are formed and covering it to affect the passage of the oil. A triangular scraping block is fixedly connected to one side of the strip-shaped scraping rod close to the side slide rod. When the triangular scraping block rotates, it scrapes and cleans the included angle position between the conical inclined surface of the conical circular shell and the inner wall of the circular housing, preventing some of the filtered particulate impurities from accumulating at the included angle position between the conical inclined surface of the conical circular shell and the inner wall of the circular housing and being difficult to handle;

[0009] There are two first arc-shaped holes, and the two first arc-shaped holes are respectively distributed at the top and bottom positions of the outer surface of the circular housing. The circular through-hole is arranged at a position on one side of the circular housing aligned with the annular path of the annular electric slide rail. There are two side slide rods, and the two side slide rods are distributed on the inner side of the annular electric slide rail.

[0010] Furthermore, the impurity removal device includes a concave ring sleeve. A second arc-shaped hole is formed on the outer side of the concave ring sleeve. By providing the second arc-shaped hole on the outer side of the concave ring sleeve, it is convenient to discharge the particulate impurities collected inside, preventing the filtered particulate impurities from continuously accumulating in the concave ring sleeve until they overflow into the area of the circular sleeve and affecting the filtering effect. A first arc-shaped plate penetrates and is slidably connected to a position on one side of the concave ring sleeve close to the first arc-shaped hole. By moving the first arc-shaped plate into the concave ring sleeve, the first arc-shaped hole can be covered and blocked, preventing a large amount of oil in the circular sleeve from leaking out through the first arc-shaped hole together when discharging the accumulated particulate impurities. A strip-shaped connecting block is fixedly connected to the inner side of the first arc-shaped plate. One end of the strip-shaped connecting block away from the first arc-shaped plate is fixedly connected to a second arc-shaped plate. By covering and blocking the second arc-shaped hole with the second arc-shaped plate, it is prevented that when the concave ring sleeve and the circular sleeve are connected again to collect the filtered particulate impurities, the oil entering together leaks to the outside. A side square block is fixedly connected to one side of the second arc-shaped plate. A stretching spring is fixedly connected to the side of the side square block close to the second arc-shaped plate. By constantly applying a stretching force to the side square block through the stretching spring, the second arc-shaped plate constantly presses and blocks the second arc-shaped hole, preventing the oil from driving the second arc-shaped plate to shake under the influence of the thrust of liquid flow when the oil surges into the circular sleeve and the concave ring sleeve, resulting in the oil leaking to the outside through the second arc-shaped hole. The concave ring sleeve is sleeved on the circular sleeve and fixedly connected to the circular sleeve. The end of the stretching spring away from the side square block is fixedly connected to one side of the circular sleeve. There are two second arc-shaped holes, and the two second arc-shaped holes are distributed at the top and bottom positions on the outer side of the concave ring sleeve. The length of the second arc-shaped hole is longer than that of the first arc-shaped hole. There are two first arc-shaped plates, and the two first arc-shaped plates are distributed at a position on one side of the concave ring sleeve close to the second arc-shaped hole.

[0011] Furthermore, the cleaning device includes a T-shaped connecting plate and an annular rod, one side of the T-shaped connecting plate is slidably connected to an electric slide rail, and both sides of the T-shaped connecting plate are fixedly connected to toothed circular plates, and the toothed circular plates perform scraping cleaning on the heat sink from which dust particles have been cleaned together with the triangular sponge, to prevent the surface of the heat sink from being adhered to blocks of debris that are difficult to clean with the triangular sponge and affect the use of the heat sink, the top and bottom of the toothed circular plate are fixedly connected to the triangular sponge, and the triangular sponge performs wiping cleaning on the outer surface of the heat sink when it moves, to prevent the heat sink from being adhered to too many dust particles and impurities on the surface after long-term use, which may cause damage due to hard friction contact with the toothed circular plate and affect its use, and a vertical block is sleeved and fixedly connected to the outer side of the annular rod, and both sides of the vertical block are fixedly connected to external The brush and the external brushes on both sides of the vertical block rub and clean the surface of the triangular sponge when they come into contact with the triangular sponge, so as to prevent excessive dust particles from being mixed in the air permeable holes on the surface of the triangular sponge when cleaning the dust particles, thereby affecting the subsequent cleaning effect. An inverted V-shaped plate is fixedly connected to the bottom of the vertical block, and the cleaned particle impurities fall downward on the inverted V-shaped plate and slide down to both sides through the inclined surface of the inverted V-shaped plate, thereby preventing a large amount of cleaned dust particles from covering the surface of the first pipe and affecting the heat dissipation effect of the first pipe. One side of the electric slide rail is fixedly connected to one side of the first fixed bracket, one side of the electric slide rail is fixedly connected to one side of the second fixed bracket, the top of the vertical block is fixedly connected to the bottom of the heat sink, and the toothed circular plate is configured as a circular plate with toothed holes on the surface.

[0012] The present invention provides an air-cooled radiator with anti-blocking effect. It has the following beneficial effects:

[0013] 1. The air-cooled radiator with anti-blocking effect is convenient for increasing the flow rate of oil by arranging a tapered circular shell with a gradually increasing radius at the position where the inner wall of the circular shell and the first pipeline are connected, so as to prevent the area without filter holes from blocking the oil when filtering with a filter plate with the same radius as the pipeline, affecting the flow rate of oil and resulting in poor heat dissipation effect; a second arc hole is arranged on the outer side of the concave ring shell to facilitate the discharge of particulate impurities collected inside, so as to prevent the filtered particulate impurities from constantly accumulating in the concave ring shell and overflowing in the area of ​​the circular shell to affect the filtering effect; the triangular sponge is wiped and cleaned on the outer surface of the heat sink when it moves, so as to prevent the heat sink from being damaged easily by hard friction contact with the tooth hole circular plate after long-term use with excessive dust and particulate impurities attached to the surface, affecting the use.

[0014] 2. The air-cooled radiator with anti-blocking effect is provided with an anti-blocking device. By setting a conical circular shell with a gradually increasing radius at the position where the inner wall of the circular sleeve is docked with the first pipe, it is convenient to increase the flow rate of the oil fluid, preventing the situation that when a filter plate with the same radius as the pipe is used for filtration, there is an area without filter holes that blocks the oil fluid and affects the oil fluid flow rate, resulting in poor heat dissipation effect. By setting an arc-shaped baffle that rotates together on the outside of the side-mounted slide bar to always cover and protect the annular guide groove of the annular electric slide rail, it prevents the particulate impurities filtered by the filter round holes from accumulating in the annular guide groove of the annular electric slide rail along with the oil fluid flow, affecting the use. When the strip-shaped scraping rod rotates with the side-mounted slide bar, it always scrapes and cleans the side of the conical circular shell where the filter round holes are opened, preventing some of the filtered particulate impurities from being affected by the oil fluid flow and constantly adhering to the side of the conical circular shell where the filter round holes are opened, covering it and affecting the passage of the oil fluid. When the triangular scraping block rotates, it scrapes and cleans the included angle position between the conical inclined surface of the conical circular shell and the inner wall of the circular sleeve, preventing some of the filtered particulate impurities from accumulating at the included angle position between the conical inclined surface of the conical circular shell and the inner wall of the circular sleeve and being difficult to handle.

[0015] 3. The air-cooled radiator with anti-blocking effect is provided with a waste discharging device. By moving the first arc plate into the concave ring sleeve to cover and block the first arc hole, it prevents the oil fluid in the circular sleeve from leaking outwards in large amounts through the first arc hole when discharging the accumulated particulate impurities. By opening a second arc hole on the outside of the concave ring sleeve, it is convenient to discharge the particulate impurities collected inside, preventing the filtered particulate impurities from continuously accumulating in the concave ring sleeve until they overflow in the area of the circular sleeve and affecting the filtration effect. By using the second arc plate to cover and block the second arc hole, it prevents the oil fluid that enters together when the concave ring sleeve and the circular sleeve are connected again to collect the filtered particulate impurities from leaking outwards. By the extension spring constantly applying an extension force to the side-mounted square block, the second arc plate is constantly pressed against the second arc hole to block it, preventing the oil fluid from driving the second arc plate to shake under the influence of the thrust of the liquid flow when pouring into the circular sleeve and the concave ring sleeve, resulting in the oil fluid leaking outwards through the second arc hole.

[0016] 4. The air-cooled radiator with anti-blocking effect is provided with a cleaning device. When the triangular sponge moves, it wipes and cleans the outer surface of the heat sink, preventing excessive dust particle impurities from adhering to the surface of the heat sink after long-term use and causing damage to the heat sink due to hard friction contact with the toothed hole plate, which affects its use. After the triangular sponge, the toothed hole plate also scrapes and cleans the heat sink from which the dust particles have been removed, preventing debris agglomerates that are difficult to clean by the triangular sponge from adhering to the surface of the heat sink and affecting the use of the heat sink. When the external brushes on both sides of the vertical square block contact the triangular sponge, they frictionally clean the surface of the triangular sponge, preventing excessive dust particles from being trapped in the air-permeable small holes on the surface of the triangular sponge during the cleaning of dust particles, which affects the subsequent cleaning effect. The removed particle impurities fall downward onto the inverted V-shaped plate and slide down both sides along the inclined surface of the inverted V-shaped plate, preventing a large amount of the removed dust particles from covering the surface of the first pipe and affecting the heat dissipation effect of the first pipe. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 Schematic structural diagram of the air-cooled radiator of the present invention;

[0018] Figure 2 Schematic side structural diagram of the air-cooled radiator of the present invention;

[0019] Figure 3 Schematic structural diagram of the anti-blocking device of the present invention;

[0020] Figure 4 Schematic side sectional structural diagram of the anti-blocking device of the present invention;

[0021] Figure 5 Schematic side sectional structural diagram of the impurity discharging device of the present invention;

[0022] Figure 6 Schematic structural diagram of the impurity discharging device of the present invention;

[0023] Figure 7 Schematic structural diagram of the cleaning device I of the present invention;

[0024] Figure 8 Schematic structural diagram of the cleaning device II of the present invention.

[0025] In the figure: 1. First pipeline; 2. First fixing bracket; 3. Anti-blocking device; 4. Impurity discharging device; 5. Vertical pipeline; 6. Radiating fin; 7. Second pipeline; 8. Second fixing bracket; 9. Cleaning device; 10. Concave side frame; 11. Electric fan; 301. Circular housing; 302. Conical circular shell; 303. Filter round hole; 304. First arc hole; 305. Circular through hole; 306. Annular electric slide rail; 307. Side slide bar; 308. Arc-shaped baffle; 309. Strip-shaped scraping rod; 310. Triangular scraping block; 401. Concave ring housing; 402. Second arc hole; 403. First arc plate; 404. Strip-shaped connecting block; 405. Second arc plate; 406. Side square block; 407. Extension spring; 901. T-shaped connecting plate; 902. Annular rod; 903. Electric slide rail; 904. Tooth-hole circular plate; 905. Triangular sponge; 906. Vertical square block; 907. External brush; 908. Inverted V-shaped plate. Detailed implementation manner

[0026] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0027] Please refer to Figures 1-4 , the present invention provides an air-cooled radiator with an anti-blocking effect, including a first pipeline 1. A first fixing bracket 2 is sleeved and fixedly connected to the outer side of the first pipeline 1. The water inlet of the first pipeline 1 is communicated with an anti-blocking device 3. A discharging device 4 is sleeved and fixedly connected to the outer side of the anti-blocking device 3. The outer side of the first pipeline 1 is communicated with a vertical pipeline 5. A radiating fin 6 is fixedly connected to the outer side of the vertical pipeline 5. The top of the vertical pipeline 5 is communicated with a second pipeline 7. A second fixing bracket 8 is sleeved and fixedly connected to the outer side of the second pipeline 7. A cleaning device 9 is fixedly connected to one side of the second fixing bracket 8. A concave side frame 10 is fixedly connected to the side of the second fixing bracket 8 away from the cleaning device 9. An electric fan 11 is rotatably connected to the inner side of the concave side frame 10 through a rotating bolt;

[0028] The anti-blocking device 3 includes a circular housing 301. A conical circular shell 302 is fixedly connected to the inner wall of the circular housing 301. A filter round hole 303 is opened on one side of the conical circular shell 302;

[0029] One side of the concave side frame 10 near the bottom is fixedly connected to one side of the first fixing bracket 2. One side of the cleaning device 9 near the bottom is fixedly connected to one side of the first fixing bracket 2;

[0030] One side of the circular housing 301 is connected to the water inlet of the first pipe 1, and the outer side of the circular housing 301 is fixedly connected to the inner side of the impurity discharge device 4. The conical circular shell 302 is a conical shell with a conical cavity inside;

[0031] On the outer side of the circular housing 301, a first arc hole 304 is provided. On the inner wall of the circular housing 301, close to one side of the conical circular shell 302, a circular through hole 305 is provided. On one side of the circular housing 301 close to the first pipe 1, an annular electric slide rail 306 is fixedly connected. On the inner side of the annular electric slide rail 306, a side slide bar 307 is rotatably connected. On the outer side of the side slide bar 307, an arc-shaped baffle 308 is fixedly connected. At one end of the side slide bar 307 away from the annular electric slide rail 306, a strip-shaped scraping bar 309 is fixedly connected. On one side of the strip-shaped scraping bar 309 close to the side slide bar 307, a triangular scraping block 310 is fixedly connected;

[0032] There are two first arc holes 304, and the two first arc holes 304 are respectively distributed at the top and bottom positions on the outer surface of the circular housing 301. The circular through hole 305 is provided at a position on one side of the circular housing 301 that is aligned with the circular path of the annular electric slide rail 306. There are two side slide bars 307, and the two side slide bars 307 are distributed on the inner side of the annular electric slide rail 306;

[0033] The impurity removal device 4 includes a concave ring casing 401, a second arc hole 402 is opened on the outer side of the concave ring casing 401, a first arc plate 403 is penetrated and slidably connected to a portion of the concave ring casing 401 near the first arc hole 304 on one side, a strip connecting block 404 is fixedly connected to the inner side of the first arc plate 403, an end of the strip connecting block 404 away from the first arc plate 403 is fixedly connected to a second arc plate 405, a side block 406 is fixedly connected to one side of the second arc plate 405, a side block 406 is fixedly connected to a stretching spring 407 on a side close to the second arc plate 405, the concave ring casing 401 is sleeved on the circular casing 301 and fixedly connected to the circular casing 301, and an end of the stretching spring 407 away from the side block 406 is fixedly connected to one side of the circular casing 301 Next, two second arc holes 402 are provided, and the two second arc holes 402 are distributed on the outside of the concave ring shell 401 at the top and bottom positions. The length of the second arc hole 402 is longer than the first arc hole 304. Two first arc plates 403 are provided, and the two first arc plates 403 are distributed on one side of the concave ring shell 401 near the second arc hole 402. When in use, the oil after absorbing heat and heating enters the first pipe 1 after being filtered by the anti-blocking device 3, and the filtered particles and debris will accumulate in the impurity removal device 4. After the oil fills the first pipe 1, it enters the second pipe 7 through the vertical pipe 5 and is discharged from the other end. When the oil flows through the vertical pipe 5, the heat is transferred to the heat sink 6. At this time, the heat sink 6 is blown by the electric fan 11 so that the oil in the pipe The heat sink 6 is cooled by the liquid. After long-term use, the surface of the heat sink 6 can be cleaned of dust and debris through the cleaning device 9. At the same time, when there are too many particles and debris filtered and accumulated in the anti-blocking device 3, the debris removal device 4 is disconnected and connected with the anti-blocking device 3, and the particles and debris accumulated in the debris removal device 4 are discharged. The oil after absorbing heat and heating enters the circular shell 301 and enters the conical shell 302 through the filtering hole 303 and flows into the first pipeline 1. The filtered particles and debris will be accumulated in the debris removal device 4 through the first arc hole 304 opened on the circular shell 301. The conical shell 302 with a gradually increasing radius is set at the position where the inner wall of the circular shell 301 and the first pipeline 1 are connected, which is convenient for increasing the flow rate of the oil. At the same time, the annular electric slide rail 306 is used to filter the oil. The side slide bar 307 is driven to rotate, driving the arc baffle plate 308 and the strip scraper bar 309 to rotate together. The arc baffle plate 308 that rotates together is arranged on the outer side of the side slide bar 307 to cover and protect the annular guide groove of the annular electric slide rail 306 at all times. The strip scraper bar 309 scrapes and cleans the side of the conical shell 302 with the filtering circular hole 303 at all times as the side slide bar 307 rotates. When the strip scraper bar 309 rotates, it drives the triangular scraper block 310 on one side to rotate together. When the triangular scraper block 310 rotates, it scrapes and cleans the angle between the conical inclined surface of the conical shell 302 and the inner wall of the circular shell 301. The filtered particulate impurities will finally pass through the first arc hole 304 and be deposited on the first arc plate 403 on the inner wall of the concave ring shell 401.When a certain amount of filter impurities accumulate in the concave ring sleeve 401, it pushes the side square 406 to drive the second arc plate 405 to move into the concave ring sleeve 401 and compress the extension spring 407. When the second arc plate 405 moves into the concave ring sleeve 401, it gradually covers and blocks the first arc hole 304. When the second arc plate 405 moves, it drives the first arc plate 403 to move towards the outside of the concave ring sleeve 401 through the strip connecting block 404. When the first arc plate 403 moves towards the outside of the concave ring sleeve 401, it no longer covers and blocks the second arc hole 402. At this time, the particulate impurities accumulated in the concave ring sleeve 401 will be discharged to the outside through the second arc hole 402. The first arc plate 403 moves into the concave ring sleeve 401 to cover and block the first arc hole 304. By opening the second arc hole 402 on the outside of the concave ring sleeve 401, it is convenient to discharge the particulate impurities collected inside. After the particulate impurities are completely discharged, the pushing pressure on the side square 406 is released. At this time, the extension spring 407 drives the side square 406 to drive the first arc plate 403 to move towards the outside of the circular sleeve 301 through the extension force. When the first arc plate 403 moves towards the outside of the circular sleeve 301, it drives the second arc plate 405 to move into the concave ring sleeve 401 and block the second arc hole 402 through the strip connecting block 404. The second arc plate 405 covers and blocks the second arc hole 402. The extension spring 407 constantly applies an extension force to the side square 406 so that the second arc plate 405 constantly presses and blocks the second arc hole 402.,

[0034] Please refer to Figures 1-8, the present invention provides an air-cooled radiator with an anti-blocking effect: The cleaning device 9 includes a T-shaped connecting plate 901 and an annular rod 902. One side of the T-shaped connecting plate 901 is slidably connected to an electric slide rail 903. Tooth-hole circular plates 904 are fixedly connected to both sides of the T-shaped connecting plate 901. Triangular sponges 905 are fixedly connected to the top and bottom of the tooth-hole circular plates 904. A vertical square block 906 is sleeved and fixedly connected to the outer side of the annular rod 902. External brushes 907 are fixedly connected to both sides of the vertical square block 906. An inverted V-shaped plate 908 is fixedly connected to the bottom of the vertical square block 906. One side of the electric slide rail 903 is fixedly connected to one side of the first fixing bracket 2, and one side of the electric slide rail 903 is fixedly connected to one side of the second fixing bracket 8. The top of the vertical square block 906 is fixedly connected to the bottom of the heat sink 6. The tooth-hole circular plate 904 is a circular plate with tooth holes on its surface. During use, the electric slide rail 903 drives the T-shaped connecting plate 901 to drive the tooth-hole circular plates 904 on both sides to move together. When the tooth-hole circular plates 904 move, they drive the triangular sponges 905 at the top and bottom to move together. When the triangular sponges 905 move, they perform wiping cleaning on the outer surface of the heat sink 6. After the triangular sponges 905 clean the heat sink 6, the tooth-hole circular plates 904 perform scraping cleaning on the heat sink 6 that has already had dust particles removed. When the tooth-hole circular plates 904 drive the triangular sponges 905 to gradually move downward, they will contact and pass through the external brushes 907 on both sides of the vertical square block 906. When the external brushes 907 on both sides of the vertical square block 906 contact the triangular sponges 905, they perform frictional cleaning on the surface of the triangular sponges 905. The removed particulate impurities fall downward onto the inverted V-shaped plate 908 and slide down to both sides along the inclined surface of the inverted V-shaped plate 908.

[0035] When the present invention is in operation, the oil liquid after absorbing heat and rising in temperature enters the first pipeline 1 after being filtered by the anti-blocking device 3. The filtered particulate impurities will accumulate in the impurity discharging device 4. After the first pipeline 1 is filled with the oil liquid, it enters the second pipeline 7 through the vertical pipeline 5 and is discharged to the other end. When the oil liquid flows through the vertical pipeline 5, it transfers heat to the heat sink 6. At this time, an electric fan 11 blows air on the heat sink 6 to cool the oil liquid in the pipeline. After the heat sink 6 is used for a long time, the cleaning device 9 can be used to clean the dust and impurities on the surface of the heat sink 6. At the same time, when there are too many particulate impurities accumulated in the filtration of the anti-blocking device 3, the impurity discharging device 4 is disconnected from the anti-blocking device 3, and the particulate impurities accumulated in the impurity discharging device 4 are discharged. The oil liquid after absorbing heat and rising in temperature enters the circular housing 301 and enters the conical circular housing 302 through the filtration of the filtering circular holes 303 and then flows into the first pipeline 1. The filtered particulate impurities will accumulate in the impurity discharging device 4 through the first arc holes 304 opened on the circular housing 301. By arranging the conical circular housing 302 with a gradually increasing radius at the position where the inner wall of the circular housing 301 is docked with the first pipeline 1, it is convenient to increase the flow rate of the oil liquid. At the same time, the side-mounted sliding rod 307 is driven to rotate by the annular electric slide rail 306, driving the arc-shaped baffle 308 and the strip-shaped scraping rod 309 to rotate together. By arranging the arc-shaped baffle 308 that rotates together on the outside of the side-mounted sliding rod 307, the annular guide groove of the annular electric slide rail 306 is always covered and protected. When the strip-shaped scraping rod 309 rotates with the side-mounted sliding rod 307, it always scrapes and cleans the surface of the conical circular housing 302 where the filtering circular holes 303 are opened. When the strip-shaped scraping rod 309 rotates, it drives the triangular scraping block 310 on one side to rotate together. When the triangular scraping block 310 rotates, it scrapes and cleans the included angle position between the conical inclined surface of the conical circular housing 302 and the inner wall of the circular housing 301. The filtered particulate impurities will finally be deposited on the first arc plate 403 on the inner wall of the concave ring housing 401 through the first arc holes 304. When a certain amount of filtered impurities accumulates in the concave ring housing 401, the side-mounted square block 406 is pushed to drive the second arc plate 405 to move towards the inside of the concave ring housing 401 and compress the extension spring 407. When the second arc plate 405 moves towards the inside of the concave ring housing 401, it gradually covers and blocks the first arc holes 304. When the second arc plate 405 moves, it drives the first arc plate 403 to move towards the outside of the concave ring housing 401 through the strip-shaped connecting block 404. When the first arc plate 403 moves towards the outside of the concave ring housing 401, it no longer covers and blocks the second arc holes 402. At this time, the particulate impurities accumulated in the concave ring housing 401 will be discharged to the outside through the second arc holes 402. By moving the first arc plate 403 towards the inside of the concave ring housing 401 to cover and block the first arc holes 304, and by opening the second arc holes 402 on the outside of the concave ring housing 401, it is convenient to discharge the particulate impurities collected inside. After the particulate impurities are completely discharged, the pushing pressure on the side-mounted square block 406 is released. At this time, the extension spring 407 drives the side-mounted square block 406 to drive the first arc plate 403 to move towards the outside of the circular housing 301 through the extension force,When the first arc plate 403 moves towards the outside of the circular housing 301, it drives the second arc plate 405 to move towards the inside of the concave ring housing 401 through the strip-shaped connecting block 404 and seals the second arc hole 402. The second arc plate 405 covers and seals the second arc hole 402. The extension spring 407 constantly exerts an extension force on the side square block 406, so that the second arc plate 405 constantly presses and seals the second arc hole 402. The electric slide rail 903 drives the T-shaped connecting plate 901 to drive the toothed hole circular plates 904 on both sides to move together. When the toothed hole circular plates 904 move, they drive the triangular sponges 905 at the top and bottom to move together. When the triangular sponges 905 move, they perform wiping cleaning on the outer surface of the heat sink 6. After the triangular sponges 905, the toothed hole circular plates 904 perform scraping cleaning on the heat sink 6 from which the dust particles have been cleaned. When the toothed hole circular plates 904 drive the triangular sponges 905 to gradually move downwards, they will contact and pass through the external brushes 907 on both sides of the vertical square block 906. When the external brushes 907 on both sides of the vertical square block 906 contact the triangular sponges 905, they perform frictional cleaning on the surface of the triangular sponges 905. The cleaned particle impurities fall down onto the inverted V-shaped plate 908 and slide down to both sides through the inclined surface of the inverted V-shaped plate 908.,

[0036] Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art and related fields without creative efforts shall fall within the protection scope of the present invention. The structures, devices, and operation methods not specifically described and explained in the present invention, unless otherwise specified and limited, are implemented according to the conventional means in the art.

Claims

1. An air-cooled radiator with an anti-blocking effect, comprising a first pipe (1), characterized in that: A first fixing bracket (2) is sleeved and fixedly connected to the outside of the first pipeline (1). The water inlet of the first pipeline (1) is communicated with an anti-blocking device (3). A waste discharging device (4) is sleeved and fixedly connected to the outside of the anti-blocking device (3). A vertical pipeline (5) is communicated with the outside of the first pipeline (1). Heat dissipation fins (6) are fixedly connected to the outside of the vertical pipeline (5). The top of the vertical pipeline (5) is communicated with a second pipeline (7). A second fixing bracket (8) is sleeved and fixedly connected to the outside of the second pipeline (7). A cleaning device (9) is fixedly connected to one side of the second fixing bracket (8). A concave side frame (10) is fixedly connected to the side of the second fixing bracket (8) away from the cleaning device (9). An electric fan (11) is rotatably connected to the inside of the concave side frame (10) through a rotating bolt. The anti-blocking device (3) includes a circular sleeve (301). A conical circular shell (302) is fixedly connected to the inner wall of the circular sleeve (301). A filtering round hole (303) is opened on one side of the conical circular shell (302).

2. The air-cooled radiator with anti-blocking effect according to claim 1, wherein: One side of the concave side frame (10) near the bottom is fixedly connected to one side of the first fixing bracket (2). One side of the cleaning device (9) near the bottom is fixedly connected to one side of the first fixing bracket (2).

3. The air-cooled radiator with anti-blocking effect according to claim 1, characterized in that: One side of the circular sleeve (301) is communicated with the water inlet of the first pipeline (1). The outside of the circular sleeve (301) is fixedly connected to the inside of the waste discharging device (4). The conical circular shell (302) is arranged as a conical shell with a conical cavity inside.

4. The air-cooled radiator with anti-blocking effect according to claim 1, characterized in that: A first arc hole (304) is opened on the outside of the circular sleeve (301). A circular through hole (305) is opened on the inner wall of the circular sleeve (301) near the conical circular shell (302). An annular electric slide rail (306) is fixedly connected to the side of the circular sleeve (301) near the first pipeline (1). A side slide bar (307) is rotatably connected to the inside of the annular electric slide rail (306). An arc-shaped baffle (308) is fixedly connected to the outside of the side slide bar (307). A strip-shaped scraping bar (309) is fixedly connected to the end of the side slide bar (307) away from the annular electric slide rail (306). A triangular scraping block (310) is fixedly connected to the side of the strip-shaped scraping bar (309) near the side slide bar (307).

5. The air-cooled radiator with anti-blocking effect according to claim 4, characterized in that: There are two first arc holes (304), and the two first arc holes (304) are respectively distributed at the top and bottom positions on the outer surface of the circular sleeve (301). The circular through hole (305) is arranged at a position on one side of the circular sleeve (301) aligned with the annular path of the annular electric slide rail (306). There are two side slide bars (307), and the two side slide bars (307) are distributed inside the annular electric slide rail (306).

6. The air-cooled radiator with anti-blocking effect according to claim 1, characterized in that: The impurity removal device (4) includes a concave ring sleeve (401). A second arc-shaped hole (402) is formed on the outer side of the concave ring sleeve (401). One side of the concave ring sleeve (401) near the first arc-shaped hole (304) penetrates and is slidably connected with a first arc-shaped plate (403). A strip-shaped connecting block (404) is fixedly connected to the inner side of the first arc-shaped plate (403). One end of the strip-shaped connecting block (404) far from the first arc-shaped plate (403) is fixedly connected to a second arc-shaped plate (405). A side square block (406) is fixedly connected to one side of the second arc-shaped plate (405). A stretching spring (407) is fixedly connected to one side of the side square block (406) close to the second arc-shaped plate (405).

7. The air-cooled radiator with anti-blocking effect according to claim 6, characterized in that: The concave ring sleeve (401) is sleeved on the circular sleeve (301) and fixedly connected to the circular sleeve (301). One end of the stretching spring (407) far from the side square block (406) is fixedly connected to one side of the circular sleeve (301).

8. The air-cooled radiator with anti-blocking effect according to claim 6, characterized in that: There are two second arc-shaped holes (402), and the two second arc-shaped holes (402) are distributed at the top and bottom positions on the outer side of the concave ring sleeve (401). The length of the second arc-shaped hole (402) is longer than that of the first arc-shaped hole (304). There are two first arc-shaped plates (403), and the two first arc-shaped plates (403) are distributed at a position on one side of the concave ring sleeve (401) close to the second arc-shaped hole (402).

9. The air-cooled radiator with anti-blocking effect according to claim 1, characterized in that: The cleaning device (9) includes a T-shaped connecting plate (901) and an annular rod (902). An electric slide rail (903) is slidably connected to one side of the T-shaped connecting plate (901). Tooth hole circular plates (904) are fixedly connected to both sides of the T-shaped connecting plate (901). Triangular sponges (905) are fixedly connected to the top and bottom of the tooth hole circular plates (904). The outer side of the annular rod (902) is sleeved and fixedly connected with a vertical square block (906). External brushes (907) are fixedly connected to both sides of the vertical square block (906). An inverted V-shaped plate (908) is fixedly connected to the bottom of the vertical square block (906).

10. The air-cooled radiator with anti-blocking effect according to claim 9, characterized in that: One side of the electric slide rail (903) is fixedly connected to one side of the first fixing bracket (2). One side of the electric slide rail (903) is fixedly connected to one side of the second fixing bracket (8). The top of the vertical square block (906) is fixedly connected to the bottom of the heat sink (6). The tooth hole circular plate (904) is a circular plate with tooth holes formed on its surface.

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