LED lamp strip direct distance light perspective lens lamp with copper pipe for heat conduction

Abstract

The utility model relates to the field of LED lamp strip direct distance light perspective lens lamps, in particular to an LED lamp strip direct distance light perspective lens lamp with a copper pipe for heat conduction. The technical problems that in the process that an LED lamp strip directly irradiates a distance light perspective lens lamp, heat dissipation is conducted on the LED lamp strip through a single heat dissipation structure, the heat dissipation effect of the LED lamp strip is poor, especially under the condition of high-temperature environment or long-time use, the LED lamp is possibly affected by overheating, and therefore the performance and the service life of the LED lamp strip are affected are solved. According to the technical scheme, the LED lamp strip perpendicular incidence distance light perspective lens lamp with the copper pipe for heat conduction comprises a heat dissipation upper cover; the LED lamp further comprises a heat dissipation lower cover. The vacuum heat conduction copper pipe is matched with the fan to blow air to dissipate heat, so that overheating in operation of the perspective lens lamp is avoided, the heat dissipation surface area is increased under the arrangement of the heat dissipation upper cover, the heat dissipation lower cover, the upper distance light radiator, the lower distance light radiator and the radiator fins, and more heat is promoted to be dissipated into air.

Description

Technical Field

[0001] The utility model relates to the field of LED strip direct far - light perspective lens lamps, in particular to an LED strip direct far - light perspective lens lamp with copper tube heat conduction. Background Art

[0002] The LED strip direct far - light perspective lens lamp is a lighting fixture with high brightness and perspective function, suitable for places that require high - brightness lighting and spotlighting effects, such as garages, etc. However, during the use of the existing LED strip direct far - light perspective lens lamps, most of them are cooled by a single heat - dissipation structure, resulting in poor heat - dissipation effect. Especially in high - temperature environments or during long - term use, the LED lamps may be affected by overheating, thus affecting their performance and lifespan. Summary of the Utility Model

[0003] In order to overcome the problem that during the process of the LED strip direct far - light perspective lens lamp, due to heat dissipation through a single heat - dissipation structure, the heat - dissipation effect is poor. Especially in high - temperature environments or during long - term use, the LED lamps may be affected by overheating, thus affecting their performance and lifespan.

[0004] The technical solution of the utility model is: an LED strip direct far - light perspective lens lamp with copper tube heat conduction, including a heat - dissipation upper cover; it also includes a heat - dissipation lower cover, a low - beam reflecting bowl, a far - light direct - light optical lens, a rotatable adjustable movable claw, radiator fins, a vacuum heat - conducting copper tube, a bracket, a waterproof ring, an upper far - light radiator, a lower far - light radiator, a fixed positioning column, a far - and - near - light copper substrate, a PCB adapter board, a fan, a far - light copper substrate, a fixed pin adapter board, pins, and a second pin adapter board. The lower end of the heat - dissipation upper cover is fixedly connected to the heat - dissipation lower cover by bolts.

[0005] Preferably, with the cooperation of the vacuum heat - conducting copper tube and the fan, during the operation of the perspective lens lamp, it is blown for heat dissipation, thus avoiding overheating of the perspective lens lamp during operation and affecting its service performance and lifespan. And with the settings of the heat - dissipation upper cover, the heat - dissipation lower cover, the upper and lower far - light radiators, and the radiator fins, the heat - dissipation surface area is increased, the heat - dissipation efficiency is improved, and more heat is promoted to be dissipated into the air, further improving the heat - dissipation efficiency of the perspective lens lamp.

[0006] As a preference, a fan is arranged at the front end inside between the heat - dissipation upper cover and the heat - dissipation lower cover, radiator fins are arranged at the rear end of the fan, a lower far - light radiator is arranged at the bottom end at the rear of the heat - dissipation upper cover, and the lower far - light radiator is arranged at the rear end of the radiator fins. Vacuum heat - conducting copper tubes are arranged at both the upper and lower ends at the rear of the radiator fins, and the vacuum heat - conducting copper tubes are symmetrically arranged on both sides of the lower far - light radiator.

[0007] Preferably, a high and low beam copper substrate is provided at the rear end of the radiator fins, and the high and low beam copper substrate is arranged inside the low beam radiator. A PCB adapter board is clamped on the right side of the high and low beam copper substrate, and the PCB adapter board is arranged on the rear end surface of the radiator fins.

[0008] Preferably, fixed positioning columns are connected between the upper radiator cover and the lower radiator cover. Rotatable adjustment movable claws are provided at the rear ends of the upper radiator cover and the lower radiator cover, and the rotatable adjustment movable claws are sleeved on the outside of the upper radiator cover. The second pin adapter board is arranged between the upper radiator cover and the lower radiator cover.

[0009] Preferably, an upper high beam radiator is sleeved on the top of the rear side of the upper radiator cover, and the upper high beam radiator and the lower high beam radiator are bolted and fixed. A low beam reflector is arranged between the upper high beam radiator and the lower high beam radiator.

[0010] Preferably, a fixed pin adapter board is provided on the front end surface inside the upper high beam radiator and the lower high beam radiator. Pins are arranged opposite to each other at the front ends of the upper high beam radiator and the lower high beam radiator, and the fixed pin adapter board and the upper high beam radiator are fixedly connected by the pins.

[0011] Preferably, a bracket is clamped on the top of the low beam reflector, and the bracket is arranged between the upper high beam radiator and the lower high beam radiator. A high beam copper substrate is provided at the rear ends of the lower high beam radiator and the upper high beam radiator, and a high beam direct light optical lens is bolted to the rear end of the high beam copper substrate.

[0012] 1. Through the cooperation of the vacuum heat conduction copper tube and the fan, when the perspective lens lamp is operating, it blows air for heat dissipation, thus avoiding overheating of the perspective lens lamp during operation, which affects its service performance and life. And with the settings of the upper radiator cover, the lower radiator cover, the upper and lower high beam radiators and the radiator fins, the heat dissipation surface area is increased, the heat dissipation efficiency is improved, and more heat is dissipated into the air, further improving the heat dissipation efficiency of the perspective lens lamp. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1 Fig. 1 shows a first three-dimensional structural schematic diagram of the LED strip direct high beam perspective lens lamp with copper tube heat conduction of the present utility model;

[0014] Figure 2 Fig. 2 shows a second three-dimensional structural schematic diagram of the LED strip direct high beam perspective lens lamp with copper tube heat conduction of the present utility model;

[0015] Figure 3 Fig. 3 shows a third three-dimensional structural schematic diagram of the LED strip direct high beam perspective lens lamp with copper tube heat conduction of the present utility model;

[0016] Figure 4The figure shows a three-dimensional schematic structure diagram of a pressing component of an LED strip direct far-light perspective lens lamp with copper tube heat conduction according to the present utility model.

[0017] Explanation of reference numerals: 1, upper heat dissipation cover; 2, lower heat dissipation cover; 3, low-beam reflecting bowl; 4, far-beam direct light optical lens; 5, rotatable adjustable movable claw; 6, radiator fins; 7, vacuum heat conduction copper tube; 8, bracket; 9, waterproof ring; 10, upper far-beam radiator; 11, lower far-beam radiator; 12, fixed positioning column; 13, low-beam and far-beam copper substrate; 14, PCB adapter board; 15, fan; 16, far-beam copper substrate; 17, fixed pin adapter board; 18, pin; 19, second pin adapter board. Detailed implementation manners

[0018] The present utility model will be further described below in conjunction with the drawings and embodiments.

[0019] Please refer to Figure 1 , Figure 4 , the present utility model provides an embodiment: an LED strip direct far-light perspective lens lamp with copper tube heat conduction, including an upper heat dissipation cover 1; further including a lower heat dissipation cover 2, a low-beam reflecting bowl 3, a far-beam direct light optical lens 4, a rotatable adjustable movable claw 5, radiator fins 6, a vacuum heat conduction copper tube 7, a bracket 8, a waterproof ring 9, an upper far-beam radiator 10, a lower far-beam radiator 11, a fixed positioning column 12, a low-beam and far-beam copper substrate 13, a PCB adapter board 14, a fan 15, a far-beam copper substrate 16, a fixed pin adapter board 17, a pin 18, and a second pin adapter board 19. The lower end of the upper heat dissipation cover 1 is fixedly connected to the lower heat dissipation cover 2 by bolts; a fixed positioning column 12 is connected between the upper heat dissipation cover 1 and the lower heat dissipation cover 2. A rotatable adjustable movable claw 5 is arranged at the rear end of the upper heat dissipation cover 1 and the rotatable adjustable movable claw 5 is sleeved outside the upper heat dissipation cover 1. The second pin adapter board 19 is arranged between the upper heat dissipation cover 1 and the lower heat dissipation cover 2; the top of the rear side of the upper heat dissipation cover 1 is sleeved with an upper far-beam radiator 10, and the upper far-beam radiator 10 and the lower far-beam radiator 11 are fixedly connected by bolts. A low-beam reflecting bowl 3 is arranged between the upper far-beam radiator 10 and the lower far-beam radiator 11. With the arrangements of the upper heat dissipation cover 1, the lower heat dissipation cover 2, the upper far-beam radiator 10, the lower far-beam radiator 11 and the radiator fins 6, the heat dissipation surface area is increased.

[0020] Please refer to Figures 2-3, in this embodiment, a fan 15 is provided at the inner front end between the upper heat dissipation cover 1 and the lower heat dissipation cover 2. A radiator fin 6 is provided at the rear end of the fan 15. A lower high beam radiator 11 is provided at the bottom end of the rear side of the upper heat dissipation cover 1, and the lower high beam radiator 11 is disposed at the rear end of the radiator fin 6. Vacuum heat conduction copper tubes 7 are provided at both the upper and lower ends of the rear end of the radiator fin 6, and the vacuum heat conduction copper tubes 7 are symmetrically arranged on both sides of the lower high beam radiator 11; a high and low beam copper substrate 13 is provided at the rear end of the radiator fin 6, and the high and low beam copper substrate 13 is disposed within the lower high beam radiator 11. A PCB adapter board 14 is snap-connected to the right side of the high and low beam copper substrate 13, and the PCB adapter board 14 is disposed on the rear surface of the radiator fin 6; fixed pin adapter boards 17 are provided on the front surface of the inner front end of the upper high beam radiator 10 and the lower high beam radiator 11. Pins 18 are oppositely arranged at the front ends of the upper high beam radiator 10 and the lower high beam radiator 11, and the fixed pin adapter board 17 and the upper high beam radiator 10 are fixedly connected through the pins 18; a bracket 8 is snap-connected to the top end of the low beam reflector 3, and the bracket 8 is disposed between the upper high beam radiator 10 and the lower high beam radiator 11. A high beam copper substrate 16 is provided at the rear ends of the lower high beam radiator 11 and the upper high beam radiator 10. A high beam direct light optical lens 4 is bolted to the rear end of the high beam copper substrate 16. With the cooperation of the vacuum heat conduction copper tubes 7 and the fan 15, when the perspective lens lamp operates, it is blown for heat dissipation, thereby preventing the perspective lens lamp from overheating during operation, affecting its service performance and life, improving the heat dissipation efficiency, promoting more heat to be dissipated into the air, and further improving the heat dissipation efficiency of the perspective lens lamp.

[0021] When installing the perspective lens lamp, the fan 15 is placed between the upper heat dissipation cover 1 and the lower heat dissipation cover 2, the radiator fin 6 is placed at the rear end of the fan 15, the upper heat dissipation cover 1 and the lower heat dissipation cover 2 are connected by fixed positioning posts 12, the upper high beam radiator 10 and the lower high beam radiator 11 are sleeved outside the upper heat dissipation cover 1 and the lower heat dissipation cover 2, the low beam reflector 3 is snap-connected into the bracket 8. After the snap connection is completed, it is installed in the upper high beam radiator 10 and the lower high beam radiator 11, and the high beam direct light optical lens 4 is snap-connected to the rear ends of the upper high beam radiator 10 and the lower high beam radiator 11, thus completing the assembly of the internal parts of the perspective lens lamp. When the perspective lens lamp operates, the fan 15 reduces the temperature generated by the high beam direct light optical lens 4, which helps to improve the heat dissipation efficiency. At the same time, the radiator fin 6 and the vacuum heat conduction copper tubes 7 cooperate to effectively conduct the heat generated by the perspective lens lamp to other components or the surrounding environment, improve its heat dissipation efficiency, and effectively increase the service life of the perspective lens lamp.

[0022] Through the above steps, with the cooperation of the vacuum heat-conducting copper tube 7 and the fan 15, when the perspective lens lamp is operating, it is blown for heat dissipation, thereby preventing the perspective lens lamp from overheating during operation, which may affect its performance and service life. Moreover, with the settings of the upper heat dissipation cover 1, the lower heat dissipation cover 2, the upper high beam radiator 10, the lower high beam radiator 11 and the radiator fins 6, the heat dissipation surface area is increased, the heat dissipation efficiency is improved, and more heat is promoted to be dissipated into the air, further enhancing the heat dissipation efficiency of the perspective lens lamp.

[0023] The embodiments of the present invention have been described in detail above in conjunction with the accompanying drawings. However, the present invention is not limited to the above embodiments. Within the scope of knowledge possessed by those skilled in the art, various changes can be made without departing from the gist of the present invention.

Claims

1. An LED light strip with copper tube heat conduction and direct high-beam perspective lens lamp, comprising a heat dissipation upper cover (1); characterized in that: The invention also comprises a heat dissipation lower cover (2), a low beam reflective bowl (3), an optical lens with a high beam direct light (4), a rotatable adjustable movable claw (5), a radiator fin (6), a vacuum heat-conducting copper tube (7), a bracket (8), a waterproof ring (9), an upper high beam radiator (10), a lower high beam radiator (11), a fixed positioning column (12), a high and low beam copper substrate (13), a PCB adapter board (14), a fan (15), a high beam copper substrate (16), a fixed pin adapter board (17), a pin (18), and a second pin adapter board (19). The lower end of the heat dissipation upper cover (1) is fixedly connected to the heat dissipation lower cover (2) by bolts.

2. The LED light strip with copper tube heat conduction according to claim 1, characterized in that: A fan (15) is arranged at the front end of the interior between the heat dissipation upper cover (1) and the heat dissipation lower cover (2), a radiator fin (6) is arranged at the rear end of the fan (15), a lower high-beam radiator (11) is arranged at the bottom end of the rear side of the heat dissipation upper cover (1), and the lower high-beam radiator (11) is arranged at the rear end of the radiator fin (6), and vacuum heat-conducting copper tubes (7) are arranged at both upper and lower ends of the rear end of the radiator fin (6), and the vacuum heat-conducting copper tubes (7) are arranged symmetrically on both sides of the lower high-beam radiator (11).

3. The LED light strip with copper tube heat conduction according to claim 2, characterized in that: A high and low beam copper substrate (13) is provided at the rear end of the radiator fin (6), and the high and low beam copper substrate (13) is arranged in the lower high beam radiator (11), a PCB adapter board (14) is clamped on the right side of the high and low beam copper substrate (13), and the PCB adapter board (14) is arranged on the rear end surface of the radiator fin (6).

4. The LED light strip with copper tube heat conduction according to claim 1, characterized in that: A fixed positioning column (12) is connected between the heat dissipation upper cover (1) and the heat dissipation lower cover (2). The rear ends of the heat dissipation upper cover (1) and the heat dissipation lower cover (2) are provided with rotatable and adjustable movable claws (5), and the rotatable and adjustable movable claws (5) are sleeved on the outer side of the heat dissipation upper cover (1), and the second pin adapter plate (19) is arranged between the heat dissipation upper cover (1) and the heat dissipation lower cover (2).

5. The LED light strip with copper tube heat conduction according to claim 2, characterized in that: An upper high-beam radiator (10) is sleeved on the top end of the rear side of the heat dissipation upper cover (1), and the upper high-beam radiator (10) and the lower high-beam radiator (11) are fixed by bolts, and a low-beam reflective bowl (3) is arranged between the upper high-beam radiator (10) and the lower high-beam radiator (11).

6. The LED light strip with copper tube heat conduction according to claim 2, characterized in that: A fixed pin adapter plate (17) is provided on the front end surfaces inside the upper high-beam radiator (10) and the lower high-beam radiator (11), and pins (18) are relatively provided at the front ends of the upper high-beam radiator (10) and the lower high-beam radiator (11), and the fixed pin adapter plate (17) and the upper high-beam radiator (10) are fixedly connected via the pins (18).

7. The LED light strip direct high-beam perspective lens lamp with copper tube heat conduction according to claim 5, characterized in that: A bracket (8) is clamped on the top of the low-beam reflective bowl (3), and the bracket (8) is arranged between an upper high-beam radiator (10) and a lower high-beam radiator (11). A high-beam copper base plate (16) is arranged at the rear ends of the lower high-beam radiator (11) and the upper high-beam radiator (10), and a high-beam direct optical lens (4) is bolted to the rear end of the high-beam copper base plate (16).

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