Power taking structure of track lamp

Abstract

The utility model relates to the technical field of track lamps, and discloses a track lamp electricity taking structure which comprises a ceiling part, a hanging rod, an electricity taking assembly and a guide rail, and the guide rail penetrates through the electricity taking assembly and can be powered on, so that a power source is supplied to the guide rail from a transformer; electrifying rods are installed in two channels formed in the guide rail, and after the guide rail electricity taking base is matched with the guide rail in an inserted mode, guide rail electricity taking thimbles on the guide rail electricity taking base make contact with the electrifying rods on the guide rail to form electrification; and the metal electrifying ring on the electrifying cover is contacted with the electrifying ring electrifying thimble on the guide rail electrifying seat to form electrifying. Power is directly supplied through the guide rail system, and wiring workload and construction difficulty are reduced. When the lamp is installed, automatic power supply can be achieved only by inserting the lamp into the guide rail, and installation efficiency is improved. The guide rail system allows the lamp to move and adjust the position at will. The power supply is separated from the lamp, the electric shock risk is reduced, and electrical faults caused by improper wiring are reduced.

Description

Technical Field

[0001] The utility model belongs to the technical field of guide rail lamps, and particularly relates to a power taking structure of a guide rail lamp. Background Technique

[0002] Existing guide rail lamps mainly take power by embedding a guide rail box in the wall and then inserting the guide rail head of the lamp into the guide rail box to form an energized connection.

[0003] Since this structure is installed by using a preset guide rail groove, and the guide rail box is embedded during the wall construction, once the construction is completed, if it is necessary to adjust the lighting design or increase or decrease the lamps in the later stage, it will be very difficult and costly. This limits the flexibility of the design and the future adjustability. The preset guide rail groove method requires determining the lighting layout during the wall construction stage, which restricts the change of the lighting layout in the later decoration stage or during the use process.

[0004] The guide rail box and the guide rail head may be exposed on the wall after installation, affecting the overall aesthetics. Especially for a home environment that pursues simplicity and beauty, this installation method may not be ideal. If the guide rail lamp fails and needs to be repaired, since it is installed in the wall, the repair difficulty and cost will increase. The home environment usually pursues a warm and comfortable atmosphere, while the industrial style of the guide rail lamp may not match this atmosphere. Especially in areas such as the bathroom and bedroom, the cold and hard texture of the guide rail lamp may be out of place with the home environment. It increases the difficulty in changing the lighting in the later design. In addition, the guide rail lamp does not meet the requirements of home lighting. Content of the Utility Model

[0005] The present invention aims to solve the technical problems in the above-mentioned existing technology, that is, taking power by embedding a guide rail box in the wall and then inserting the guide rail head of the lamp into the guide rail box, which has poor flexibility, limited installation, poor aesthetics and difficult maintenance.

[0006] To achieve the above object, the utility model provides the following technical solution: A power taking structure of a guide rail lamp, comprising a ceiling mounting member, a suspension rod, a power taking assembly and a guide rail. The guide rail passes through the power taking assembly and can be energized, so that the power supply provides power to the guide rail from a transformer;

[0007] The power taking assembly includes a power-on cover and a guide rail power taking seat which are arranged in a vertically arranged and threaded connection; the guide rail power taking seat is provided with a guide rail power taking thimble and a power-on coil power taking thimble electrically connected to the guide rail power taking thimble; the power-on cover is provided with a metal power-on coil;

[0008] Two channel grooves are opened in the guide rail, and power-on rods are installed in the channel grooves. After the guide rail power taking seat is inserted and matched with the guide rail, the guide rail power taking thimble on the guide rail power taking seat contacts the power-on rod on the guide rail to form power-on. After the power-on cover and the guide rail power taking seat are threaded, the metal power-on coil on the power-on cover contacts the power-on coil power taking thimble on the guide rail power taking seat to form power-on.

[0009] In a mechanical and electromagnetic connection manner, power is supplied from a transformer to the guide rail, enabling the inside of the guide rail to be electrified. Since the power is transmitted through the guide rail, the wiring workload can be reduced and the construction difficulty can be lowered. Compared with the traditional wiring method, the power-taking structure of the guide rail lamp is more aesthetically pleasing, which is beneficial to enhancing the overall visual effect of the space. The power-taking structure of the guide rail lamp has high flexibility, and the installation position and quantity of the lamps can be adjusted according to needs, making full use of the space, especially suitable for some long and narrow or complex space scenarios. Since the power supply and the lamps are connected through the guide rail, it is more convenient to perform maintenance and repair in case of a failure.

[0010] Preferably, the ceiling-sucking member is fixed on the ceiling or the wall panel.

[0011] Preferably, the upper end of the suspension rod is fixedly connected to the ceiling-sucking member, and the lower end is fixedly connected to the power-taking assembly.

[0012] Preferably, the guide rail power-taking seat is provided with a U-shaped opening channel that is in mating plug contact with the guide rail, and the guide rail power-taking thimble is located in the U-shaped opening channel. The U-shaped opening channel matches the shape of the guide rail, enabling the guide rail power-taking thimble to be inserted into the corresponding channel of the guide rail.

[0013] Preferably, when the upper and lower layers of the power-taking assemblies are docked, the energizing cover on the lower-layer power-taking assembly is threadedly connected to the guide rail power-taking seat on the upper-layer power-taking assembly, and the energizing cover on the lower-layer power-taking assembly is electrically connected to the guide rail power-taking seat on the upper-layer power-taking assembly through an electric wire. This ensures the stability of the upper and lower layer assemblies and the reliability of the power connection.

[0014] Preferably, a lamp that makes contact with the guide rail for energization is inserted into the guide rail. The lamp includes a guide rail power-taking seat and a lamp body that is electrically connected to the guide rail power-taking seat. The lamp power-taking thimble provided on the guide rail power-taking seat contacts the energizing rod of the guide rail to form energization. The lamp can then obtain power from the guide rail and thus emit light.

[0015] Preferably, an upper cover located above the guide rail is threadedly connected to the guide rail power-taking seat of the lamp.

[0016] Compared with the prior art, the technical effects and advantages of the present utility model are:

[0017] The ceiling-mounted component of the power-taking structure of this track light is fixed on the ceiling or wall panel. The hanging rod connects the ceiling-mounted component and the power-taking component, forming a vertical support structure. The power-taking component includes a power-on cover and a track power-taking base. The track power-taking base is provided with a U-shaped opening channel that matches the track. The track power-taking thimble is located in the U-shaped opening channel and is used to contact the power-on rod on the track to form an electrical connection. The metal power-on coil on the power-on cover contacts the power-on coil power-taking thimble on the track power-taking base to further form an electrical connection. When the power-taking components of the upper and lower layers are docked, the power-on cover of the lower layer is threadedly connected to the track power-taking base of the upper layer and is electrically connected to the track power-taking base of the upper layer through an electric wire, ensuring that the power is transmitted from the transformer to the lamps on each layer through the track. The lamp includes a track power-taking base and a lamp body. The lamp power-taking thimble on the track power-taking base contacts the power-on rod of the track to form power-on. In this way, the lamp can obtain power from the track and thus emit light.

[0018] Direct power supply through the track system reduces the wiring workload and construction difficulty. When installing the lamp, simply inserting the lamp into the track can automatically supply power, improving the installation efficiency. The track system allows the lamps to be moved and adjusted in position at will. The power supply is separated from the lamp, reducing the risk of electric shock and electrical faults caused by improper wiring. The track system is more aesthetically pleasing than the traditional wiring method and is suitable for modern minimalist decoration styles. If a problem occurs with a certain lamp or power supply component, it can be replaced or repaired quickly and conveniently. The power-taking structure of the track light can make full use of space and is especially suitable for some narrow or complex space scenarios.

[0019] This power-taking structure of the track light is particularly suitable for places that require a large number of lamps, such as shopping malls, museums, art galleries, etc., because it provides an efficient installation and maintenance solution. Brief Description of the Drawings

[0020] Figure 1 It is a schematic structural diagram of the first perspective of the present utility model;

[0021] Figure 2 It is a schematic structural diagram of the second perspective of the present utility model;

[0022] Figure 3 It is an exploded view of the power-taking component of the present utility model;

[0023] Figure 4 It is a schematic structural diagram of the power-on cover of the present utility model;

[0024] Figure 5 It is a schematic structural diagram of the lamp of the present utility model;

[0025] Figure 6 It is a schematic structural diagram of the lamp of the present utility model installed on the track.

[0026] In the figure: 1. Ceiling-mounted part; 2. Suspension rod; 3. Power-taking component; 31. Guide-rail power-taking base; 3101. Guide-rail power-taking thimble; 3102. Energized-coil power-taking thimble; 3103. U-shaped opening channel; 32. Energized cover; 3201. Metal energized coil; 4. Guide rail; 5. Energized rod; 6. Lighting fixture; 7. Lamp body; 8. Lighting-fixture power-taking thimble; 9. Upper cover. Detailed implementation mode

[0027] The following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to 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.

[0028] The following is further described in detail with reference to the attached Figure 1-6 This application is further described in detail.

[0029] The power-taking structure for a guide-rail 4 lamp in the embodiment of this application includes a ceiling-mounted part 1, a suspension rod 2, a power-taking component 3 and a guide rail 4. The ceiling-mounted part 1 is fixed on the ceiling or wall panel.

[0030] The upper end of the suspension rod 2 is fixedly connected to the ceiling-mounted part 1, and the lower end is fixedly connected to the power-taking component 3.

[0031] The guide rail 4 passes through the power-taking component 3 and can be energized, so that the power supply provides power to the guide rail 4 from the transformer;

[0032] The power-taking component 3 includes an energized cover 32 and a guide-rail power-taking base 31 which are arranged in sequence from top to bottom and are threadedly connected; the guide-rail power-taking base 31 is provided with a guide-rail power-taking thimble 3101 and an energized-coil power-taking thimble 3102 electrically connected to the guide-rail power-taking thimble 3101; the energized cover 32 is provided with a metal energized coil 3201;

[0033] Two channels are opened in the guide rail 4, and an energized rod 5 is installed in the channels. After the guide-rail power-taking base 31 is inserted and matched with the guide rail 4, the guide-rail power-taking thimble 3101 on the guide-rail power-taking base 31 contacts the energized rod 5 on the guide rail 4 to form energization. After the energized cover 32 and the guide-rail power-taking base 31 are threaded, the metal energized coil 3201 on the energized cover 32 contacts the energized-coil power-taking thimble 3102 on the guide-rail power-taking base 31 to form energization.

[0034] The power supply is provided to the guide rail 4 from the transformer through mechanical and electromagnetic connections, enabling the energization inside the guide rail 4. Specifically, the energization is achieved by the contact between the energization pin 3101 on the power-taking base 31 of the guide rail and the energization rod 5 on the guide rail 4. The metal energization coil 3201 on the energization cover 32 contacts the energization coil power-taking pin 3102 on the power-taking base 31 of the guide rail, further forming energization. In this way, the power supply can be transmitted along the guide rail 4 to provide power for the lamps 6 installed on the guide rail 4.

[0035] Since the power supply is transmitted through the guide rail 4, the wiring workload can be reduced, and the construction difficulty can be lowered. Compared with the traditional wiring method, the power-taking structure of the guide rail 4 lamp is more aesthetically pleasing, which is conducive to enhancing the overall visual effect of the space. The power-taking structure of the guide rail 4 lamp has high flexibility and can adjust the installation position and quantity of the lamps 6 according to needs. Through the threaded connection between the power-taking base 31 of the guide rail and the energization cover 32, the stability and safety of the power connection can be ensured. The power-taking structure of the guide rail 4 lamp can make full use of the space, especially suitable for some narrow or complex space scenarios. Since the power supply and the lamps 6 are connected through the guide rail 4, it is more convenient to perform maintenance and repair in case of failures.

[0036] A U-shaped opening channel 3103 that is matched and inserted in contact with the guide rail 4 is provided on the power-taking base 31 of the guide rail, and the energization pin 3101 of the guide rail is located within the U-shaped opening channel 3103.

[0037] A U-shaped opening channel 3103 is provided on the power-taking base 31 of the guide rail to match the shape of the guide rail 4, enabling the energization pin 3101 of the guide rail to be inserted into the corresponding channel of the guide rail 4. When the energization pin 3101 of the guide rail is located within the U-shaped opening channel 3103, it can contact the energization rod 5 on the guide rail 4, thus achieving electrical connection.

[0038] When the power-taking components 3 of the upper and lower layers are docked, the energization cover 32 on the lower-layer power-taking component 3 is threadedly connected to the power-taking base 31 of the upper-layer power-taking component 3, and the energization cover 32 on the lower-layer power-taking component 3 is electrically connected to the power-taking base 31 of the upper-layer power-taking component 3 through an electric wire.

[0039] When the power-taking components 3 of the upper and lower layers are docked, the energization cover 32 of the lower layer is threadedly connected to the power-taking base 31 of the upper layer. This docking method ensures the stability of the upper and lower layer components and the reliability of the power connection. At the same time, the energization cover 32 of the lower layer is electrically connected to the power-taking base 31 of the upper layer through an electric wire, so that the power supply can be transmitted from the transformer through the guide rail 4 to the lamps 6 on each layer.

[0040] A lamp 6 which is inserted on the guide rail 4 and contacts with it for power supply is provided. The lamp 6 includes a power take-off base 31 for the guide rail and a lamp body 7 electrically connected to the power take-off base 31 for the guide rail. A lamp power take-off thimble 8 provided on the power take-off base 31 for the guide rail contacts with a power supply rod 5 of the guide rail 4 to form power supply. A top cover 9 located above the guide rail 4 is threadedly connected to the power take-off base 31 for the guide rail of the lamp 6.

[0041] The lamp 6 inserted on the guide rail 4 includes a power take-off base 31 for the guide rail and a lamp body 7. The lamp power take-off thimble 8 on the power take-off base 31 for the guide rail contacts with the power supply rod 5 on the guide rail 4 to form power supply. In this way, the lamp 6 can obtain power from the guide rail 4 and thus emit light.

[0042] For the power take-off structure of the guide rail 4 lamp, direct power supply through the guide rail 4 system can simplify the traditional wiring method and reduce the use of cables, especially in places where a large number of lamps 6 are required. Since the power supply is transmitted through the guide rail 4, when installing the lamp 6, only by inserting the lamp 6 into the guide rail 4 can it be automatically powered, improving the installation efficiency. The guide rail 4 system allows the lamp 6 to be moved and adjusted in position at will because the power supply is movable. Since the power supply is separated from the lamp 6, the risk of electric shock is reduced, and at the same time, the electrical faults caused by improper wiring are also reduced. If there is a problem with a certain lamp 6 or the power supply component, it can be replaced or repaired quickly and conveniently. The guide rail 4 system is usually more beautiful than the traditional wiring method and is suitable for the modern minimalist decoration style. This power take-off structure of the guide rail 4 lamp is particularly suitable for places where a large number of lamps 6 are required, such as shopping malls, museums, galleries, etc., because it provides an efficient installation and maintenance solution.

[0043] Finally, it should be noted that the above are only the preferred embodiments of the present invention and are not used to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, for those skilled in the art, they can still modify the technical solutions recorded in the foregoing embodiments, or perform equivalent replacement on some of the technical features. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A track light power supply structure, comprising a ceiling member (1), a suspension rod (2), a power supply assembly (3) and a track (4), characterized in that: The guide rail (4) passes through the power supply assembly (3) and can be powered, so that the power supply from the transformer is provided to the guide rail (4); The power supply assembly (3) comprises a power supply cover (32) and a guide rail power supply seat (31) arranged from top to bottom and threadedly connected; the guide rail power supply seat (31) is provided with a guide rail power supply ejector pin (3101) and a power supply ring power supply ejector pin (3102) electrically connected to the guide rail power supply ejector pin (3101); the power supply cover (32) is provided with a metal power supply ring (3201); Two grooves provided in the guide rail (4) are provided with a power supply rod (5). After the guide rail power supply seat (31) is plugged into the guide rail (4), the guide rail power supply ejector pin (3101) on the guide rail power supply seat (31) contacts the power supply rod (5) on the guide rail (4) to form power supply. After the power supply cover (32) and the guide rail power supply seat (31) are threaded, the metal power supply ring (3201) on the power supply cover (32) contacts the power supply ring power supply ejector pin (3102) on the guide rail power supply seat (31) to form power supply.

2. A track light power supply structure according to claim 1, characterized in that: The ceiling fixture (1) is fixed to the ceiling or wall panel.

3. The track light power supply structure according to claim 1, characterized in that: The upper end of the suspension rod (2) is fixedly connected to the ceiling member (1), and the lower end is fixedly connected to the power extraction component (3).

4. The track light power supply structure according to claim 1, characterized in that: The guide rail power supply seat (31) is provided with a U-shaped opening groove (3103) that matches and plugs into the guide rail (4), and the guide rail power supply ejector pin (3101) is located in the U-shaped opening groove (3103).

5. The track light power supply structure according to claim 1, characterized in that: When the upper and lower power supply components (3) are butt-jointed, the power supply cover (32) on the lower power supply component (3) is threadedly connected to the guide rail power supply seat (31) on the upper power supply component (3), and the power supply cover (32) on the lower power supply component (3) is electrically connected to the guide rail power supply seat (31) on the upper power supply component (3) via an electric wire.

6. The track light power supply structure according to claim 1, characterized in that: A lamp (6) is inserted into the guide rail (4) and contacts the guide rail to be energized. The lamp (6) comprises a guide rail power supply socket (31) and a lamp body (7) electrically connected to the guide rail power supply socket (31). A lamp power supply pin (8) provided on the guide rail power supply socket (31) contacts a energizing rod (5) of the guide rail (4) to form an energizer.

7. A track light power supply structure according to claim 6, characterized in that: An upper cover (9) located above the guide rail (4) is threadedly connected to the guide rail power socket (31) of the lamp.

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