LED light source heat dissipation platform
Technical Field
The invention relates to the field of heat dissipation devices, in particular to an LED light source heat dissipation platform.
Background
It is well known that LED lamps are operated with high temperature characteristics, especially for light sources used by professional stage lamps. The power of the lamp is generally higher, a large amount of heat can be generated, if the lamp cannot timely emit the heat, irreversible damage can be caused to a light source, the light source efficiency is directly reduced due to the fact that the temperature of the light source is too high, and electronic components are burnt out, so that the stage lamp light source module needs to timely emit the redundant heat.
Most of the LED lamps in the market are provided with radiators, the existing radiators are generally formed by arranging sheet radiating fins on a base to form a whole radiating structure, and in order to improve the radiating effect, a complex pattern structure is added on the radiating fins to increase the radiating area.
Disclosure of Invention
The invention aims to provide an LED light source heat dissipation platform aiming at the defects in the prior art, and the LED light source heat dissipation platform has the characteristics of high heat dissipation efficiency and good heat dissipation effect.
In order to achieve the above purpose, the present invention adopts the following technical scheme:
A LED light source cooling platform comprises a fixed platform, a light source fixed on the fixed platform, a cooling assembly and a plurality of cooling fans; the light source is arranged at the position of the through hole, the light emitting surface of the light source faces the through hole, and the heat radiating component is arranged on the backlight surface of the light source and is in close contact with the light source;
The heat dissipation assembly comprises a light source fixing plate, a heat conduction copper pipe clamping plate, a heat conduction copper pipe top plate, first to fourth heat conduction copper pipe modules and heat dissipation fins, wherein the light source fixing plate, the heat conduction copper pipe clamping plate and the heat conduction copper pipe top plate are sequentially stacked from bottom to top;
the heat conducting copper pipe module comprises a first heat conducting copper pipe module body, a second heat conducting copper pipe module body, a heat conducting copper pipe top plate and a heat conducting copper pipe.
In the first heat conduction copper pipe module, two ends of the plurality of heat conduction copper pipes are bent to one side of the light source fixing plate and one side of the heat conduction copper pipe clamping plate, and two ends of the heat conduction copper pipes are respectively fixedly provided with a heat radiation fin;
in the second heat conduction copper pipe module, two ends of the plurality of heat conduction copper pipes are bent to the other sides of the light source fixing plate and the heat conduction copper pipe clamping plate, and two ends of the heat conduction copper pipes are respectively fixedly provided with a heat radiation fin.
Further, the heat conduction copper pipes in the first heat conduction copper pipe module are bent to be in a waist-round shape, the heat conduction copper pipes are sequentially and parallelly nested and arranged from inside to outside, the heat conduction copper pipes in the second heat conduction copper pipe module are bent to be in a waist-round shape, the heat conduction copper pipes are sequentially and parallelly nested and arranged from inside to outside, and the distribution of the heat conduction copper pipes in the second heat conduction copper pipe module is symmetrical to that of the first heat conduction copper pipe module.
Further, a fixing frame is arranged on the fixing platform, and the heat conduction copper pipes in the first heat conduction copper pipe module and the second heat conduction copper pipe module are fixed on the fixing platform through the fixing frame.
Further, a cooling fan is correspondingly arranged below each cooling fin arranged on the first heat conduction copper pipe module and the second heat conduction copper pipe module respectively, the cooling fan is fixed on the fixed platform, and the air outlet side of the cooling fan faces the cooling fins.
The third heat conduction copper pipe module comprises a plurality of heat conduction copper pipes which are bent to be U-shaped, the plurality of heat conduction copper pipes are sequentially nested and arranged from inside to outside in the third heat conduction copper pipe module, the fourth heat conduction copper pipe module comprises a plurality of heat conduction copper pipes which are bent to be U-shaped, the plurality of heat conduction copper pipes are sequentially nested and arranged from inside to outside in the fourth heat conduction copper pipe module, and U-shaped openings between the heat conduction copper pipes of the third heat conduction copper pipe module and the heat conduction copper pipes of the fourth heat conduction copper pipe module are oppositely arranged and are mutually inserted and arranged.
Further, the middle parts of the heat conduction copper pipes in the third heat conduction copper pipe module and the fourth heat conduction copper pipe module are clamped and fixed between the heat conduction copper pipe clamping plates and the heat conduction copper pipe top plate, and the U-shaped end and the other tail end of the heat conduction copper pipe are exposed to the outside.
Further, a radiator fan is correspondingly arranged below the two ends of the third heat conduction copper pipe module and the fourth heat conduction copper pipe module, which are exposed out of the heat conduction copper pipe module, respectively, the radiator fan is fixed on the fixed platform, and the air outlet side of the radiator fan faces the heat conduction copper pipe.
Further, a cooling fan is arranged above the cooling fins on the top surface of the heat conduction copper pipe top plate, the cooling fan is fixed on the fixed platform, and the air outlet side of the cooling fan is back to the heat conduction copper pipe top plate.
Further, a plurality of semicircular fixing grooves which are parallel to each other and matched with the outer contour of the heat conduction copper pipe are formed in the opposite surfaces among the light source fixing plate, the heat conduction copper pipe clamping plate and the heat conduction copper pipe top plate, and two sides of the light source fixing plate, the heat conduction copper pipe clamping plate and the heat conduction copper pipe top plate are fixed through fastening screws.
The LED light source cooling platform provided by the invention has the advantages that the whole cooling structure design is more reasonable, the cooling copper pipe, the cooling fins and the cooling fan are more efficiently matched for use, the heat emitted by the light source is diffused to the periphery through the cooling copper pipe on the cooling component, and then the heat is radiated through the cooling fins and the cooling fan, so that the LED light source cooling platform has the characteristics of high cooling efficiency and good cooling effect.
Drawings
Fig. 1 is a schematic diagram of the overall structure of a backlight surface of a heat dissipation platform for an LED light source according to an embodiment of the present invention.
Fig. 2 is a schematic diagram of the overall structure of the light emitting surface of the LED light source heat dissipation platform according to the embodiment of the present invention.
Fig. 3 is an exploded view of an LED light source heat dissipation platform according to an embodiment of the present invention.
Fig. 4 is another exploded view of an LED light source heat sink platform according to an embodiment of the present invention.
Fig. 5 is a schematic diagram of the overall structure of a heat dissipating assembly according to an embodiment of the present invention.
Fig. 6 is an exploded view of a heat dissipating assembly in an embodiment of the present invention.
Detailed Description
The technical scheme of the invention will be described in detail below with reference to the accompanying drawings and specific embodiments.
As shown in fig. 1 to 6, the LED light source cooling platform provided by the invention comprises a fixed platform 1, a light source 2 fixed on the fixed platform, a cooling assembly 3 and a plurality of cooling fans 4, wherein a through hole is formed in the middle of the fixed platform 1, the light source 2 is installed at the through hole, the light emitting surface of the light source 2 faces the through hole, the cooling assembly 3 is arranged on the backlight surface of the light source 2 and is in close contact with the light source 2, a plurality of cooling fins 30 are arranged on the cooling assembly 3, each cooling fan 4 is correspondingly arranged at each cooling fin 30, and the air outlet side of each cooling fan 4 faces one side of the backlight surface of the light source 2, so that the whole air flow direction of the LED light source cooling platform faces the backlight surface of the light source 2.
As shown in fig. 5 and 6, the heat dissipation assembly 3 includes a light source fixing plate 31, a heat conduction copper pipe clamping plate 32, a heat conduction copper pipe top plate 33, first to fourth heat conduction copper pipe modules 61, 62, 63, 64, and heat dissipation fins 30. The light source fixing plate 31, the heat conduction copper pipe clamping plate 32 and the heat conduction copper pipe top plate 33 are sequentially stacked from bottom to top, and the bottom surface of the light source fixing plate 31 is in close contact with the light source 2;
The first heat conduction copper pipe module 61 and the second heat conduction copper pipe module 62 are respectively provided with a plurality of heat dissipation fins 30, and the top surface of the heat conduction copper pipe top plate 33 is fixed with a heat dissipation fin 30.
Specifically, the first heat-conducting copper pipe module 61 comprises a plurality of heat-conducting copper pipes arranged in parallel, wherein the middle parts of the plurality of heat-conducting copper pipes are clamped and fixed between the light source fixing plate 31 and the heat-conducting copper pipe clamping plate 32;
The second heat conduction copper tube module 62 is the same as the first heat conduction copper tube module 61, and also comprises a plurality of heat conduction copper tubes arranged in parallel, wherein the middle parts of the plurality of heat conduction copper tubes are clamped and fixed between the light source fixing plate 31 and the heat conduction copper tube clamping plate 32, two ends of the plurality of heat conduction copper tubes are bent to the other sides of the light source fixing plate 31 and the heat conduction copper tube clamping plate 32 in the second heat conduction copper tube module 62, and two ends of the heat conduction copper tubes are respectively fixedly provided with a heat dissipation fin 30.
More specifically, the heat-conducting copper tubes in the first heat-conducting copper tube module 61 are bent to form a waist-round shape, the heat-conducting copper tubes are sequentially nested and arranged from inside to outside, namely, the heat-conducting copper tubes are sequentially arranged from inside to outside to form an outward diffusion multi-layer ring shape according to the outer contour, the heat-conducting copper tubes in the second heat-conducting copper tube module 62 are bent to form a waist-round shape, the heat-conducting copper tubes are sequentially nested and arranged from inside to outside, and the distribution of the heat-conducting copper tubes in the second heat-conducting copper tube module 62 is symmetrical to that of the first heat-conducting copper tube module 61.
As an improvement, the fixing frame 5 is provided on the fixing platform 1, and the heat conduction copper pipes in the first heat conduction copper pipe module 61 and the second heat conduction copper pipe module 62 are fixed on the fixing platform 1 through the fixing frame 5. And holes matched with the pipe diameters of the heat conduction copper pipes are formed in the fixing frame 5 and are used for installing and fixing the heat conduction copper pipes.
Further, a cooling fan 4 is correspondingly disposed below each cooling fin 30 mounted on the first heat conduction copper tube module 61 and the second heat conduction copper tube module 62, the cooling fan 4 is fixed on the fixed platform 1, and the air outlet side of the cooling fan 1 faces the cooling fins 30.
Further, the third copper tube module 63 includes a plurality of U-shaped bent copper tubes, in the third copper tube module 63, the copper tubes are sequentially nested and arranged from inside to outside, i.e., the copper tubes are sequentially arranged from inside to outside according to the outer contour to form a multi-layer U-shape surrounded by each other, the fourth copper tube module 64 includes a plurality of U-shaped bent copper tubes, in the fourth copper tube module 64, the copper tubes are sequentially nested and arranged from inside to outside, and the U-shaped openings between the copper tubes of the third copper tube module 63 and the fourth copper tube module 64 are relatively arranged, i.e., one end of the copper tube of the third copper tube module 63 is inserted into the U-shaped opening of the copper tube of the fourth copper tube module 64, and one end of the copper tube of the fourth copper tube module 64 is inserted into the U-shaped opening of the copper tube of the third copper tube module 63.
Further, the middle parts of the heat conduction copper pipes in the third heat conduction copper pipe module 63 and the fourth heat conduction copper pipe module 64 are clamped and fixed between the heat conduction copper pipe clamping plate 32 and the heat conduction copper pipe top plate 33, and the U-shaped end and the other tail end of the heat conduction copper pipe are exposed to the outside.
The heat conducting copper pipes in the third heat conducting copper pipe module 63 and the fourth heat conducting copper pipe module 64 are respectively and correspondingly provided with a cooling fan 4 below the two ends exposed to the outside, the cooling fan 4 is fixed on the fixed platform 1, and the air outlet side of the cooling fan 4 faces the heat conducting copper pipes.
As an improvement, a plurality of semicircular fixing grooves which are parallel to each other and matched with the outer contour of the heat conduction copper pipe are arranged on the opposite surfaces among the light source fixing plate 31, the heat conduction copper pipe clamping plate 32 and the heat conduction copper pipe top plate 33, and two sides of the light source fixing plate 31, the heat conduction copper pipe clamping plate 32 and the heat conduction copper pipe top plate 33 are fixed through fastening screws 34.
Further, a cooling fan 4 is disposed above the cooling fins 30 on the top surface of the heat conduction copper tube top plate 33, the cooling fan 4 is fixed on the fixed platform 1, and the air outlet side of the cooling fan 4 is away from the heat conduction copper tube top plate 33.
The LED light source cooling platform provided by the invention has the advantages that the whole cooling structure design is more reasonable, the cooling copper pipe, the cooling fins and the cooling fan are more efficiently matched for use, the heat emitted by the light source is diffused to the periphery through the cooling copper pipe on the cooling component, and then the heat is radiated through the cooling fins and the cooling fan, so that the LED light source cooling platform has the characteristics of high cooling efficiency and good cooling effect.
The foregoing examples illustrate only a few embodiments of the invention and are described in detail herein without thereby limiting the scope of the invention. It should be noted that it will be apparent to those skilled in the art that several variations and modifications can be made without departing from the spirit of the invention, which are all within the scope of the invention. Accordingly, the scope of protection of the present invention is to be determined by the appended claims.