SUMMERY OF THE UTILITY MODEL
The utility model aims to provide a lighting device, and aims to solve the technical problem that the existing sensor is integrated on an LED lamp bank, and the sensor cannot effectively receive infrared light signals outside the lighting device, so that the LED lighting device can be controlled only at a short distance by infrared remote control.
The present invention provides a lighting device comprising: the lamp body with the lamp shade encloses and establishes and form the light source chamber, the light source module set up in the light source chamber, and with the lamp shade interval sets up, the lamp shade is the printing opacity piece, so that the light source module sent can pass through the lamp shade jets out, receive module set up in the light source chamber, and with the light source module electricity is connected, receive module connect in on the lamp shade, receive module including deviating from the receiving face that the light source module set up, the receiving face is used for receiving infrared light signal.
In one embodiment, the lamp shade is provided with an installation part, one side of the installation part, which is close to the light source cavity, is provided with an installation groove, and the receiving module is at least partially accommodated in the installation groove, so that the receiving surface is assembled in the installation groove.
In one embodiment, the mounting portion includes a guide surface disposed around the receiving surface, and the guide surface is configured to converge the infrared light signal to the receiving surface.
In one of them embodiment, the lamp shade includes inner wall and the outer wall of relative setting, the inner wall orientation deviates from the outer wall direction extends and forms the installation department, the installation department is frustum form, the conical surface of installation department forms the spigot surface.
In one embodiment, a fresnel circle array structure is arranged on the outer wall of the lampshade corresponding to the mounting part;
the Fresnel circle array structure comprises a plurality of annular grooves which are arranged from small to large in sequence and are concentric.
In one embodiment, the receiving module is an infrared sensor; and/or
The light source module comprises a plurality of LEDs.
In one embodiment, the lighting device further includes a lens disposed between the lamp cover and the light source module.
In one embodiment, the lighting device further includes a fixing member disposed in the light source cavity and used for supporting the light source module and the lens.
In one embodiment, a connecting column is arranged on the lamp housing, a connecting hole is arranged on the connecting column, and the lighting device further comprises a connecting piece which penetrates through the fixing piece and is inserted into the connecting hole so as to fix the fixing piece in the light source cavity; and/or
The lamp shell is provided with a positioning piece, and the fixing piece is provided with a positioning hole matched with the positioning piece in a positioning way; and/or
The mounting includes the supporting part and centers on the outer structure of following that the supporting part set up, the supporting part is used for the installation the light source module with lens, the outside of following the structure outward can with the inner wall location fit of lamp body, with the mounting assembly is in the inner chamber of lamp body.
In one embodiment, the lighting device further includes an electrical component, the electrical component is disposed in the lamp housing, the electrical component and the light source module are disposed on two sides of the fixing member respectively, and the electrical component is electrically connected to the light source module and is configured to control the brightness of the light source module and supply power to the light source module.
The embodiment of the utility model has the following beneficial effects:
by adopting the lighting device, the receiving module is connected to the lamp shade so as to be arranged at the outer side of the lighting device, the receiving module can be closer to an infrared light signal outside the lighting device, the infrared light signal outside the lighting device can be more easily received by the receiving module, and further the receiving capability of the infrared light signal of the lighting device is enhanced.
Detailed Description
The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.
It should be noted that all the directional indicators (such as up, down, left, right, front, and rear … …) in the embodiment of the present invention are only used to explain the relative position relationship between the components, the movement situation, etc. in a specific posture (as shown in the drawing), and if the specific posture is changed, the directional indicator is changed accordingly.
The embodiment of the utility model discloses a lighting device which can be applied indoors or outdoors to provide light for lighting, and an infrared remote control can emit an infrared light signal to control the lighting device so as to change the illumination brightness and intensity of the lighting device.
Referring to fig. 1 to 3, an embodiment of a lighting device includes a lamp housing 100, a lamp housing 200, a light source module (not shown) and a receiving module 300, the lamp housing 100 and the lamp housing 200 enclose a light source cavity 400, the light source module is disposed in the light source cavity 400 and spaced apart from the lamp housing 200, the lamp housing 200 is a light-transmitting member, so that the light emitted from the light source module can be emitted through the lamp housing 200, the receiving module 300 is disposed in the light source cavity 400 and electrically connected to the light source module, the receiving module 300 is connected to the lamp housing 200, by connecting the receiving module 300 with the lampshade 200, the receiving module 300 can be closer to the infrared light signal outside the lighting device, the infrared light signal outside the lighting device can be more easily received by the receiving module 300, meanwhile, the interference of light rays emitted by the light source module in the lighting device can be reduced, and the receiving capability of infrared light signals of the lighting device is further enhanced.
In this embodiment, the receiving module 300 includes a receiving surface 310 disposed away from the light source module, and the receiving surface 310 is used for receiving the infrared light signal, and since the receiving surface 310 for receiving the infrared light signal is disposed away from the light source module, interference of light emitted by other components and the light source module in the lighting device on receiving the infrared light signal by the receiving module 300 can be reduced, so as to further improve the infrared light signal receiving capability of the lighting device.
It can be understood that, in the conventional lighting device, the receiving module 300 is disposed in the middle of the light source cavity 400, and the infrared light signal of the infrared remote control needs to pass through the lamp cover 200 and pass through a part of the light source cavity 400 and the related devices before being received by the receiving module 300. On one hand, since the infrared light signal has a certain loss when passing through a part of the light source cavity 400 and related devices, the infrared light signal emitted by the infrared remote control at a short distance can be received by the receiving module 300, and when the infrared remote control is far away from the lighting device and the infrared light signal emitted by the infrared remote control reaches the receiving module 300, the intensity of the infrared light signal is not enough to be received by the receiving module 300, which results in the failure of the infrared remote control to control the lighting device; on the other hand, since the receiving module 300 is disposed in the middle of the light source cavity 400, stray light of the light source module and other light emitting devices will form light pollution, which will interfere with the infrared light signal receiving capability of the receiving module 300, and further will cause the control failure of the infrared remote control on the lighting device.
In this embodiment, the receiving module 300 is disposed on the lamp shade 200, on one hand, loss of the infrared light signal when passing through a part of the light source cavity 400 and related devices is avoided, so that the infrared light signal outside the lighting device is more easily received by the receiving module 300, and the receiving capability of the infrared light signal of the lighting device is improved; on the other hand, since the receiving module 300 is disposed on the lampshade 200 and the receiving surface 310 for receiving the infrared light signal is disposed away from the light source module, the influence of the light pollution of the light source module and other light emitting devices on the receiving capability of the receiving module 300 can be minimized.
Therefore, by changing the installation position of the receiving module 300, the receiving module 300 can receive the infrared light signal emitted by the infrared remote control at a distance farther away, so as to better complete the control of the lighting device and improve the remote detection capability of the receiving module 300.
In an embodiment, referring to fig. 4 and 5, the lamp housing 200 is provided with a mounting portion 210, a mounting groove 211 is formed on a side of the mounting portion 210 close to the light source cavity 400, and the receiving module 300 is at least partially received in the mounting groove 211, so that the receiving surface 310 is received in the mounting groove 211.
The mounting portion 210 can fix the receiving module 300 on the lamp housing 200, and the receiving module 300 can be fixed to the mounting groove 211 in a snap-fit manner, so that the receiving module 300 can be mounted on the lamp housing 200.
Because the receiving surface 310 is installed in the installation groove 211, the interference of the light emitted by the light source module to the receiving module 300 can be reduced, and the receiving capability of the infrared light signal of the receiving module 300 is further ensured.
It is understood that the orientation of the receiving surface 310 is the receiving direction of the infrared light signal, and the orientation of the receiving surface 310 can be adjusted appropriately to change the receiving capability of the receiving module 300 for receiving the infrared light signal in a specific direction. The receiving surface 310 may be arranged at an angle alpha with respect to the axial direction of the illumination device, e.g. 10 deg. ≦ alpha ≦ 30 deg..
It is understood that the position and orientation of the receiving surface 310 relative to the lamp housing 100 can be selected according to the requirements of installation and infrared signal control.
Preferably, the receiving surface 310 is a curved surface, which facilitates the reception of infrared light signals in various directions.
In one embodiment, referring to fig. 8, the mounting portion 210 includes a guiding surface 212 disposed around the receiving surface 310, and the guiding surface 212 is used for converging the infrared light signal to the receiving surface 310. The guide surface 212 may be curved or inclined. The guide surface 212 may change the direction of propagation of the infrared light signal by refraction.
The arrow trace in fig. 8 is the propagation path of the infrared light signal. The infrared signal emitted by the infrared remote control can be guided to the receiving surface 310 by the guiding surface 212, so that the sensitivity of receiving the infrared signal of the receiving module 300 can be improved, the receiving module 300 can receive the infrared signal more conveniently, and the infrared signal receiving capability of the lighting device is further improved.
Since the control signal sent by the infrared remote control is an infrared signal, the infrared signal received by the receiving module 300 in this embodiment is an infrared signal.
Further, the lampshade 200 includes an inner wall and an outer wall which are oppositely arranged, the inner wall extends towards a direction departing from the outer wall to form a mounting portion 210, the mounting portion 210 is in a frustum shape, and a conical surface of the mounting portion 210 forms a guide surface 212. Of course, the mounting portion 210 may also be a raised crater structure.
The infrared signal emitted by the infrared remote control can pass through the outer wall of the lampshade 200 and is converged to the receiving surface 310 through the refraction of the guide surface 212, which is more beneficial for the receiving module 300 to receive the infrared signal.
Therefore, by the structural arrangement of the mounting portion 210, the detection range and the detection angle of the infrared light signal of the receiving module 300 can be increased, so that the receiving module 300 can detect the infrared light signal in a wider range, and the detection and receiving angle of view of the infrared light signal by the receiving module 300 can reach more than 180 degrees.
In an embodiment, the outer wall of the lamp housing 200 corresponding to the mounting portion 210 is provided with a fresnel circle array structure. The Fresnel circle array structure comprises a plurality of annular grooves which are arranged from small to large in sequence and are concentric.
Due to the Fresnel circle array structure, the receiving capability of the infrared light signal of the outer wall of the lampshade 200 corresponding to the receiving module 300 can be increased, the detection angle of the infrared light signal of the lighting device can be increased, and the receiving module 300 can be more beneficial to receiving the infrared light signal.
In an embodiment, the lighting device further includes a lens 700, and the lens 700 is disposed between the lamp cover 200 and the light source module. The light source module emits light rays, and after the light rays are refracted by the lens 700, the service efficiency and the luminous efficiency of the light rays can be enhanced, so that the illumination brightness and the intensity of the lighting device are improved. The receiving module 300 is disposed on an inner wall of the lamp housing 200 near the lens 700.
Further, a light-gathering cup may be disposed between the light source module and the lamp cover 200, and the light-gathering cup may gather the light emitted from the light source module to the lens 700, so as to further improve the illumination brightness and intensity of the lighting device. The light source module can comprise a plurality of LEDs, and the LED solid-state lighting has the advantages of environmental protection, energy conservation and long service life.
Preferably, the lamp housing 200 has a disk shape.
In an embodiment, referring to fig. 6 and fig. 7, the lighting device further includes a fixing member 500, where the fixing member 500 is disposed in the light source cavity 400 and is used for supporting the light source module and the lens 700 to implement the installation of the light source module and the lens 700.
Further, in this embodiment, the lamp housing 100 is provided with the connection post 110, the connection post 110 is provided with the connection hole 111, and the lighting device further includes a connection member, the connection member penetrates through the fixing member 500 and is inserted into the connection hole 111 to fix the fixing member 500 in the light source cavity 400, so as to implement the installation of the fixing member 500.
Further, in this embodiment, the lamp housing 100 is provided with a positioning member 120, the fixing member 500 is provided with a positioning port 510 that is in positioning fit with the positioning member 120, and after the fixing member 500 is installed in the inner cavity of the lamp housing 100, the positioning port 510 of the fixing member 500 can be in positioning fit with the positioning member 120, so as to fix the fixing member 500 in the inner cavity of the lamp housing 100.
Since the fixing member 500 can be limited to the designated position of the inner cavity of the lamp housing 100 by the positioning member 120 and the positioning opening 510, the alignment of the mounting hole on the fixing member 500 and the connection hole 111 is facilitated, and the mounting and fixing of the connection member are facilitated.
Further, in this embodiment, the fixing member 500 includes a supporting portion 520 and an outer edge structure 530 disposed around the supporting portion 520, the supporting portion 520 is used for mounting the light source module and the lens 700, and an outer side of the outer edge structure 530 can be in positioning fit with an inner wall of the lamp housing 100 to mount the fixing member 500 in the inner cavity of the lamp housing 100.
The fixing member 500 can be stably assembled in the inner cavity of the lamp housing 100 by the positioning fit of the outer side of the outer edge structure 530 and the inner wall of the lamp housing 100.
In an embodiment, the lighting device further includes an electrical component 600, the electrical component 600 is disposed in the lamp housing 100, the electrical component 600 and the light source module are respectively disposed on two sides of the fixing member 500, and the electrical component 600 is electrically connected to the light source module and used for supplying power to the light source module.
Specifically, the receiving module 300 may be an infrared sensor for detecting an illuminance value of a working surface, and the electrical component 600 may include an LED driving circuit, an MCU control circuit, and an MCU power supply circuit.
The above disclosure is only for the purpose of illustrating the preferred embodiments of the present invention, and it is therefore to be understood that the utility model is not limited by the scope of the appended claims.