Modeling far infrared graphene heating ceiling lamp

Abstract

The utility model discloses a modelable far infrared graphene heating ceiling lamp which comprises a lamp body, a base plate matched with the lamp body for installation and a plurality of pendant chains matched with the base plate and connected with the lamp body, and a plurality of graphene microcrystal heating plates are annularly arranged on the bottom face of the lamp body. A lighting lamp set is arranged on the outer side of the lamp body and surrounds the outer side of the graphene microcrystal heating plate. A mica sheet is arranged on the portion, corresponding to the upper portion of the graphene microcrystal heating plate, of the lamp body, a heat insulation plate is arranged above the mica sheet, the mica sheet insulates heat generated by operation of the graphene microcrystal heating plate, the heat insulation plate insulates heat left after heat insulation of the mica sheet again, and a far infrared radiation heat source generated by operation of the graphene microcrystal heating plate is fully utilized. The utilization rate of far infrared radiation generated by the graphene microcrystal heating plate is improved, and the modularized graphene microcrystal heating plate operates independently, so that electric energy is saved, the use cost is reduced, and the flexibility of environment heating is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of heating pendant lamps, in particular to a modelable far-infrared graphene heating pendant lamp. Background Art

[0002] In order to keep warm in colder areas, people will add a far-infrared graphene to the home lamp to achieve the effect of heating the home. Traditional homes usually use far-infrared graphene elements attached to the inside of the lampshade. When the home lamp with this structure is running, it generates far-infrared radiation through the far-infrared graphene element, thereby providing heat energy to the environment.

[0003] However, for this type of household lamp, since the lampshade is cup-shaped, the far-infrared radiation generated by the far-infrared graphene element inside the lampshade is projected obliquely, which reduces the range of far-infrared radiation heating and the effect of heating the environment. It cannot make good use of far-infrared radiation and wastes a certain amount of heat source.

[0004] Therefore, the utility model provides a modelable far-infrared graphene heating chandelier which effectively utilizes the far-infrared radiation generated by the far-infrared graphene element. Utility Model Content

[0005] The purpose of the utility model is to provide a modelable far-infrared graphene heating pendant lamp to solve the problems raised in the above-mentioned background technology.

[0006] In order to achieve the above purpose, the utility model provides the following technical solutions:

[0007] A modular far-infrared graphene heating pendant lamp comprises a lamp body, a chassis matched with the lamp body, and a plurality of hanging chains matched with the chassis and connected with the lamp body, wherein the chassis is fixedly connected with a lamp panel, and the two ends of the plurality of hanging chains are respectively connected with the outer edge of the bottom surface of the lamp panel and the outer edge of the top end of the lamp body;

[0008] The bottom surface of the lamp body is provided with a plurality of graphene microcrystal heating plates in a ring shape, and the outer side of the lamp body is provided with an illumination lamp group surrounding the outer side of the graphene microcrystal heating plates;

[0009] A mica sheet is arranged above the graphene microcrystal heating plate of the lamp body, and a heat insulation board is arranged above the mica sheet.

[0010] Furthermore, the chassis and the lamp panel are connected by a hanging rope, the chassis is used to be fixed to the ceiling, the chassis is used to hang the lamp panel by the hanging rope, and the length of the hanging rope is set according to the required height of the lamp body.

[0011] Furthermore, the circuit connecting the lamp driver in the lamp panel and the lighting lamp group runs through the hanging chain. The circuit is arranged in the hanging chain to cooperate with the lamp driver in the lamp panel to connect with the lighting lamp group on the lamp body. The hanging chain hangs the lamp body so that the circuit will not be damaged by the weight of the lamp body.

[0012] Furthermore, the lighting lamp group is provided with several lamps around the outside of the lamp body, and the lighting lamp group includes an upper bulb and a lamp holder. The lamp holder is provided on the outside of the lamp body, the upper bulb is vertically spirally connected to the lamp holder, and the bulb on the upper bulb is located above the lamp body.

[0013] Furthermore, a plurality of decorative holes are provided on the outer side of the lamp body corresponding to the lighting lamp groups, and the external state of the lamp body is decorated through the decorative holes.

[0014] Furthermore, the upper surface of the mica sheet is not in contact with the bottom surface of the insulation board, so that an insulating space is formed between the mica sheet and the insulation board, thereby reducing the heat loss rate caused by the floating of far-infrared radiation heat generated by the graphene microcrystalline heating plate during operation.

[0015] Furthermore, every three or two of the graphene microcrystal heating plates form a group to form a heating template, and each heating template is independently connected to a switch.

[0016] Compared with the prior art, the beneficial effects of the utility model are:

[0017] The patternable far-infrared graphene heating chandelier has a graphene microcrystal heating plate on the bottom surface of the lamp body, and a mica sheet and a heat insulation board that cooperate with the graphene microcrystal heating plate for heat insulation are arranged in the lamp body. When heating is needed, the graphene microcrystal heating plate is operated to generate a far-infrared radiation heat source, the mica sheet insulates the heat source generated by the operation of the graphene microcrystal heating plate, and the heat insulation board insulates the residual heat after the mica sheet is insulated again, thereby achieving a double-layer isolation effect on the heat source, so that the heat source cannot be upward, and the heat radiation is insulated by the mica sheet and the heat insulation board and can only release the heat source to the bottom of the lamp body, thereby heating the environment under the lamp body, reducing heat loss while increasing the scope of heating the environment, fully utilizing the far-infrared radiation heat source generated by the operation of the graphene microcrystal heating plate, and increasing the utilization rate of the far-infrared radiation generated by the graphene microcrystal heating plate;

[0018] Moreover, the graphene microcrystal heating panels are controlled modularly. In actual use, the modularized graphene microcrystal heating panels can be operated separately according to the heating needs of the environment, which saves electrical energy, reduces the cost of use, and improves the flexibility of environmental heating. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the structure of the utility model;

[0020] Figure 2It is a schematic diagram of the upward view structure of the lamp body of the utility model.

[0021] In the figure: 1. lamp body; 2. chassis; 3. hanging chain; 4. lamp panel; 5. hanging ring; 6. connecting ring; 7. graphene microcrystal heating plate; 8. lighting lamp group; 9. heat insulation board; 10. mica sheet; 11. hanging rope; 12. upper bulb; 13. lamp holder; 14. decorative hole. DETAILED DESCRIPTION

[0022] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0023] See also Figure 1-2 , the utility model provides a technical solution:

[0024] A modular far-infrared graphene heating pendant lamp comprises a lamp body 1, a chassis 2 mounted in conjunction with the lamp body 1, and a plurality of hanging chains 3 connected to the lamp body 1 in conjunction with the chassis 2, a lamp panel 4 being fixedly connected to the chassis 2, and two ends of the plurality of hanging chains 3 being respectively connected to a hanging ring 5 on the outer edge of the bottom surface of the lamp panel 4 and a connecting ring 6 on the outer edge of the top end of the lamp body 1;

[0025] The bottom surface of the lamp body 1 is provided with a plurality of graphene microcrystal heating plates 7 in a ring shape, and the outer side of the lamp body 1 is provided with an illumination lamp group 8 around the outer side of the graphene microcrystal heating plates 7;

[0026] A mica sheet 10 is provided above the lamp body 1 corresponding to the graphene microcrystal heating plate 7 , and a heat insulation board 9 is provided above the mica sheet 10 .

[0027] The chassis 2 and the lamp panel 4 are suspended by a suspension rope 11, and the top and bottom ends of the suspension rope 11 are respectively fixed to the axis of the bottom surface of the chassis 2 and the axis of the top surface of the lamp panel 4, so that the lamp panel 4 and the chassis 2 are kept coaxially fixed and suspended. The chassis 2 is used to be fixed to the ceiling, and the chassis 2 is used to suspend the lamp panel 4 by the suspension rope 11, and the length of the suspension rope 11 is set according to the required height of the lamp body 1.

[0028] The line connecting the lamp driver in the lamp panel 4 and the lighting lamp group 8 runs through the hanging chain 3. The line is arranged in the hanging chain 3 to cooperate with the lamp driver in the lamp panel 4 to connect with the lighting lamp group 8 on the lamp body 1. The hanging chain 3 suspends the lamp body 1 so that the line will not be damaged by the weight of the lamp body 1.

[0029] Several lighting lamp groups 8 are arranged around the outside of the lamp body 1, and the lighting lamp group 8 includes an upper bulb 12 and a lamp holder 13. The lamp holder 13 is arranged on the outside of the lamp body 1, and the upper bulb 12 is vertically spirally connected to the lamp holder 13. The bulb position on the upper bulb 12 is located above the lamp body 1.

[0030] A plurality of decorative holes 14 are provided on the outside of the lamp body 1 corresponding to the lighting lamp groups 8 , and the external state of the lamp body 1 is decorated through the decorative holes 14 .

[0031] The upper surface of the mica sheet 10 is not in contact with the bottom surface of the insulation board 9, so that an insulating space is formed between the mica sheet 10 and the insulation board 9, thereby reducing the heat loss rate caused by the floating of far-infrared radiation heat generated by the graphene microcrystalline heating plate 7 during operation.

[0032] Every three or two graphene microcrystal heating plates 7 form a heating template, and each heating template is independently connected to a switch for independently operating each heating template formed by the graphene microcrystal heating plates 7 according to the needs of environmental heating, thereby saving a certain amount of electrical energy.

[0033] The patternable far-infrared graphene heating chandelier is provided with a graphene microcrystalline heating plate 7 on the bottom surface of the lamp body 1, and a mica sheet 10 and a heat insulation board 9 that cooperate with the graphene microcrystalline heating plate 7 for heat insulation are provided in the lamp body 1. When heating is needed, the graphene microcrystalline heating plate 7 is operated to generate a far-infrared radiation heat source, the mica sheet 10 insulates the heat source generated by the operation of the graphene microcrystalline heating plate 7, and the heat insulation board 9 insulates the residual heat after the mica sheet 10 is insulated again, so as to achieve a double-layer isolation effect of the heat source, so that the heat source cannot be upward, and the heat insulation effect produced by the cooperation of the mica sheet 10 and the heat insulation board 9 makes the heat source only release the heat source to the bottom of the lamp body 1, and then heats the environment below the lamp body 1, reduces heat loss, and increases the scope of heating the environment, fully utilizes the far-infrared radiation heat source generated by the operation of the graphene microcrystalline heating plate 7, and improves the utilization rate of the far-infrared radiation generated by the graphene microcrystalline heating plate 7;

[0034] Moreover, the graphene microcrystal heating plates 7 are controlled modularly. In actual use, the modularized graphene microcrystal heating plates 7 can be operated separately according to the heating needs of the environment, thereby saving electric energy, reducing the use cost, and improving the flexibility of heating the environment.

[0035] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A modular far-infrared graphene heating pendant lamp, comprising a lamp body (1), a chassis (2) mounted in conjunction with the lamp body (1), and a plurality of hanging chains (3) connected to the chassis (2) and the lamp body (1), characterized in that: The chassis (2) is fixedly connected to a lamp panel (4), and the two ends of a plurality of the hanging chains (3) are respectively connected to a hanging ring (5) at the outer edge of the bottom surface of the lamp panel (4) and a connecting ring (6) at the outer edge of the top end of the lamp body (1); The bottom surface of the lamp body (1) is provided with a plurality of graphene microcrystal heating plates (7) in a ring shape, and an illumination lamp group (8) is provided on the outside of the lamp body (1) surrounding the outside of the graphene microcrystal heating plates (7); A mica sheet (10) is provided above the lamp body (1) corresponding to the graphene microcrystalline heating plate (7), and a heat insulation board (9) is provided above the mica sheet (10).

2. The patternable far-infrared graphene heating pendant lamp according to claim 1, characterized in that: The chassis (2) and the lamp panel (4) are suspended by a suspension rope (11).

3. The patternable far-infrared graphene heating pendant lamp according to claim 1, characterized in that: The line connecting the lamp driver in the lamp panel (4) and the lighting lamp group (8) runs through the hanging chain (3).

4. The patternable far-infrared graphene heating pendant lamp according to claim 1, characterized in that: The lighting lamp group (8) is provided with a plurality of lamps surrounding the outer side of the lamp body (1). The lighting lamp group (8) comprises an upper bulb (12) and a lamp holder (13). The lamp holder (13) is provided on the outer side of the lamp body (1). The upper bulb (12) is vertically spirally connected to the lamp holder (13).

5. The patternable far-infrared graphene heating pendant lamp according to claim 4, characterized in that: A plurality of decorative holes (14) are provided on the outer side of the lamp body (1) corresponding to the lighting lamp groups (8).

6. The patternable far-infrared graphene heating pendant lamp according to claim 1, characterized in that: The upper surface of the mica sheet (10) is arranged not to contact the bottom surface of the heat insulation board (9).

7. The patternable far-infrared graphene heating pendant lamp according to claim 1, characterized in that: Every three or two of the graphene microcrystal heating plates (7) form a group to form a heating template, and each heating template is independently connected to a switch.

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