Smart home lamp convenient to adjust

Abstract

The invention relates to the technical field of smart home lamps, and discloses a smart home lamp convenient to adjust, which comprises a lamp shell and two symmetrically arranged display shells, shear type telescopic mechanisms and corrugated covers are arranged between the lamp shell and the two display shells, and a transmission module for driving the two shear type telescopic mechanisms to synchronously stretch out and draw back is arranged on the lamp shell. A winding roller driven by a motor is rotationally mounted on each of the two display shells, a flexible functional film is wound between the two winding rollers, and a maintenance opening, an air treatment section, a projection display area and a group of light-transmitting areas with different transmission spectrum characteristics are respectively arranged on the flexible functional film. Through the collaborative design of the shear type telescopic mechanism and the transmission module, the motor is adopted to drive the double transmission lead screws for synchronous control, it is ensured that telescopic adjustment of the lamp shell and the display shell is flexible and accurate, and by combining multifunctional integration of the flexible functional film, a user can switch the illumination range, the light color mode and the air purification function through a microcontroller in a one-key mode.

Description

Technical Field

[0001] The present invention relates to the technical field of smart home lamps, and more particularly to a smart home lamp that is easy to adjust. Background Art

[0002] In the prior art, patent document CN220287334U discloses a smart home lighting lamp, comprising a mounting frame, a mounting plate, and a lighting lamp. The lighting lamp comprises a lamp housing and a lamp base, wherein the lamp housing and the lamp base are fixedly connected. A plurality of first connecting rods are fixedly connected to the bottom surface of the mounting plate, one end of each of the first connecting rods is fixedly connected to the connecting frame, and a plurality of second connecting rods are fixedly connected between the connecting frame and the lamp housing. The above device enables the smart home lighting lamp to adjust lighting at multiple angles, thereby expanding the lighting range of the device. However, the above lighting lamp has the following technical problems when used: Traditional smart lamps focus solely on mechanical adjustment of lighting angles and lack multifunctional integration. Existing lamp size adjustment relies on fixed telescopic structures or manual operation, making it impossible to achieve synchronized and precise control. Traditional lamps rely on passive heat dissipation designs, resulting in low heat dissipation efficiency. Existing lamps have uneven light distribution, resulting in blind spots, and light color switching relies on fixed filters or a single light source. Dynamic mechanical structures cannot achieve intelligent adjustment of light scattering direction and intensity, impacting visual comfort. Based on this, the present invention provides a smart home lamp that is easy to adjust to solve the technical problems raised in the above background technology. Summary of the Invention

[0003] In order to overcome the shortcomings of the existing technology, the present invention provides a smart home lamp that is easy to adjust. The present invention adopts the collaborative design of the scissor-type telescopic mechanism and the transmission module, and adopts a motor-driven dual transmission screw for synchronous control to ensure that the telescopic adjustment of the lamp housing and the display housing is flexible and precise. Combined with the multifunctional integration of the flexible functional membrane, the user can switch the lighting range, light color mode and air purification function with one click through the microcontroller.

[0004] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: an easily adjustable smart home lamp, comprising a lamp housing and two symmetrically arranged display housings, wherein a scissor-type telescopic mechanism and a corrugated cover are provided between the lamp housing and the two display housings, the lamp housing is provided with a transmission module for driving the two scissor-type telescopic mechanisms to synchronously extend and retract, a roller driven by a motor is rotatably mounted on each of the two display housings, a flexible functional film is wound between the two rollers, the flexible functional film is respectively provided with an inspection opening, an air handling section, a projection display area and a group of light-transmitting areas with different transmission spectral characteristics, the two display housings are provided with a group of ventilators, a deformation component for driving the flexible functional membrane to change its layout state, and an ultraviolet decomposer and an electric heater coordinated with the air handling section, each of the scissor-type telescopic mechanisms is provided with a group of light source modules with adjustable spacing, an air pump and a projector are installed on the lamp housing, and an air outlet port of the air pump is provided with an air distribution hose; The light source module includes a light box and two booms connected to a scissor-type telescopic mechanism. A fixed frame is installed on the top surface of the light box. The two booms are slidably connected to the fixed frame. A connecting arm is slidably installed between the two booms. The sides of the two booms are installed with limit springs limited by the fixed frame. A water-cooling chamber is provided inside the light box. A lamp tube is provided inside the water-cooling chamber. The light box is provided with a vibration system driven by an air distribution hose. The vibration system drives the lamp tube to rotate and vibrate back and forth in the water-cooling chamber. The vibration frequency and vibration stroke of the lamp tube in the water-cooling chamber change cyclically.

[0005] As a preferred technical solution of the present invention, the scissor-type telescopic mechanism includes a group of "X"-shaped frames hinged in sequence, the lamp housing and the display housing are hinged to the "X"-shaped frames at adjacent positions, and the hinges of the two "X"-shaped frames and the hinges of the lamp housing and the display housing with the adjacent "X"-shaped frames are provided with two symmetrically arranged pin tubes, and connecting rods are fixedly installed on the two booms, and each of the connecting rods is rotatably connected to the pin tube at the corresponding position.

[0006] As a preferred technical solution of the present invention, the transmission module includes two transmission screws rotatably connected to the lamp housing and a motor installed on the lamp housing. The two transmission screws respectively drive the two scissor-type telescopic mechanisms to extend and retract. A driving gear is installed on the output shaft end of the motor, and a driven gear is installed on each of the two transmission screws. Both of the driven gears are engaged with the driving gear.

[0007] As a preferred technical solution of the present invention, the deformation component includes a deformation frame, on which a guide roller in contact with the flexible functional membrane is rotatably installed, and a group of adjusting push rods are installed between the deformation frame and the display shell at the corresponding position, and the axis of the adjusting push rod is perpendicular to the axis of the guide roller. Two flexible slide rails are installed on the inner wall of the corrugated cover, and a U-shaped silicone slide groove is provided in the flexible slide rail. The U-shaped silicone slide groove is slidably engaged with the flange on the side of the flexible functional membrane. When the adjusting push rod drives the deformation frame to displace, the flexible functional membrane pulls the corrugated cover to expand and contract synchronously in the up and down directions, and the flexible slide rail maintains the seal between the flexible functional membrane and the corrugated cover through elastic deformation.

[0008] As a preferred technical solution of the present invention, the air treatment section includes an air filtration area, an air aroma area and an activated carbon adsorption area respectively. The lengths of the maintenance opening, the air filtration area, the air aroma area, the activated carbon adsorption area, the projection display area and each light-transmitting area are the same. The length of the light-transmitting area is 2.2 to 2.5 times the maximum telescopic distance of the scissors-type telescopic frame. The air filtration area is made of nanofiber filter material, the air aroma area is made of transparent gel material containing natural plant fragrances, the activated carbon adsorption area is made of activated carbon material, the projection display area is made of optical resin material, and the light-transmitting area is made of light-transmitting film material. The transmission spectrum characteristics of the light-transmitting film on each of the light-transmitting areas are different.

[0009] As an optimal technical solution of the present invention, the vibration system includes a vibration frame, a power cylinder installed on a fixed frame, a pneumatic shaft rotatably installed on the power cylinder, a group of pneumatic blades distributed in a circular array are installed on the pneumatic shaft and at a position corresponding to the inner side of the power cylinder, the air inlet port of the power cylinder is fixedly connected to the air distribution hose, the air outlet port of the power cylinder is connected to an air outlet pipe, the lamp tube is rotatably installed on the vibration frame, the lamp tube is driven by the pneumatic shaft, a ball screw is rotatably installed on the power cylinder, the ball screw is transmission-connected to the vibration frame, an intermittent large gear and an intermittent small gear are respectively installed on the pneumatic shaft, two symmetrically arranged torsion spring reset sections are provided on the pneumatic shaft and at a position corresponding to the intermittent large gear and the intermittent small gear, a low-frequency gear connected to the intermittent small gear and a high-frequency gear connected to the intermittent large gear are respectively installed on the ball screw, and an energy storage torsion spring is provided at the rotation connection between the ball screw and the power cylinder.

[0010] As a preferred technical solution of the present invention, the intermittent large gear and the intermittent small gear are staggered on the pneumatic shaft, the central angle corresponding to the intermittent large gear is 200°, the central angle corresponding to the intermittent small gear is 100°, the central angle corresponding to the two torsion spring reset sections is 30°, the radius of the intermittent small gear is 1.5 to 2 times the radius of the low-frequency gear, and the radius of the intermittent large gear is 6 to 8 times the radius of the high-frequency gear.

[0011] As a preferred technical solution of the present invention, a coupling section is fixedly provided at one end of the lamp tube, a key slot with a front end opening is fixedly provided inside the coupling section, a key shaft section slidingly connected to the key slot is fixedly provided on the pneumatic shaft, and the cross-sections of the key slot and the key shaft section are both regular hexagons.

[0012] As a preferred technical solution of the present invention, the light box and the lamp tube are both made of transparent glass, a group of heat dissipation fins are installed on both sides of the light box, the water-cooling cavity is filled with insulating coolant, the axis of the lamp tube is parallel to the axis of the roller, and a microcontroller and a mounting bracket are installed on the lamp housing.

[0013] Compared with the prior art, the present invention has the following beneficial effects: 1. The present invention adopts the coordinated design of the scissor-type telescopic mechanism and the transmission module, and adopts a motor-driven dual-drive screw for synchronous control, ensuring flexible and precise telescopic adjustment of the lamp housing and the display housing. Combined with the multifunctional integration of the flexible functional membrane, the user can switch the lighting range, light color mode and air purification function with one click through the microcontroller, which completely solves the drawbacks of traditional lamps that rely on fixed telescopic structures or manual operation and have single functions. Compared with the existing technology, this solution dynamically integrates mechanical adjustment, light effect switching and air treatment, significantly improving the adaptability and user experience in smart home scenarios.

[0014] 2. The present invention uses an air pump-driven oscillation system to achieve a composite motion of rotation and reciprocating vibration in the water-cooled chamber. The vibration frequency and stroke are dynamically adjusted by an intermittent gear set. This design not only significantly improves heat dissipation efficiency through water-cooling liquid convection, but also changes the light scattering path through the dynamic movement of the lamp, eliminating blind spots in lighting. Experiments have shown that this structure can improve lighting uniformity and extend the life of the lamp, solving the core problem of insufficient heat dissipation in the prior art, resulting in severe light decay and uneven light distribution.

[0015] 3. The flexible functional membrane of the present invention innovatively integrates a nanofiber filtration area, a plant fragrance gel area and an activated carbon adsorption area, and combines the sterilization and drying modules of the UV decomposer and the electric heater to achieve an air purification efficiency of more than 95%. The projection display area is made of optical resin material, and with the adjustment of the guide rollers of the deformation component, a flat projection surface can be formed. This design enables the lamp to have air purification, atmosphere creation and multimedia display functions. Compared with traditional lamps with only a single lighting function, the functional integration is increased by more than 3 times, meeting the complex needs of multiple scenes such as living rooms and bedrooms.

[0016] 4. The present invention adjusts the linkage control of the push rod and the roller motor through the deformation component. The lamp can automatically adjust the radiation area and direction of the light-transmitting zone according to parameters such as ambient light intensity and user position. The intermittent gear transmission of the oscillation system cooperates with the energy storage torsion spring to make the motion parameters of the lamp tube change periodically, creating a dynamic lighting effect. Compared with the existing technology that relies on fixed filters or a single light source, this solution realizes real-time intelligent adjustment of light intensity, color temperature and scattering direction through the creative design of the mechanical structure. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 This is a schematic structural diagram of an easily adjustable smart home lamp according to the present invention; Figure 2 This is a schematic structural diagram of the expansion shell and the flexible functional membrane of the present invention; Figure 3 This is a schematic structural diagram of the display shell and the gas distribution hose of the present invention; Figure 4 Schematic diagram of the cross-sectional structure of the winding roller and the deformation frame of the present invention; Figure 5 This is a schematic structural diagram of the transmission screw and the light box of the present invention; Figure 6 It is a structural schematic diagram of the boom and connecting rod of the present invention; Figure 7 This is a schematic structural diagram of the air outlet pipe and the power cylinder of the present invention; Figure 8 For the present invention Figure 7 Schematic diagram of the local enlarged structure at A in the middle; Figure 9 This is a schematic diagram of the exploded structure of the lamp tube and the pneumatic shaft of the present invention; Figure 10 Schematic diagram of the structure of the flexible functional film of the present invention.

[0018] In the figure: 1. lamp housing; 2. display housing; 3. corrugated cover; 4. roller; 5. flexible functional film; 6. ventilator; 7. UV decomposer; 8. electric heater; 9. air pump; 10. projector; 11. light box; 12. boom; 13. fixing frame; 14. limit spring; 15. lamp tube; 16. air distribution hose; 17. "X"-shaped frame; 18. pin tube; 19. connecting rod; 20. transmission screw; 21. motor; 22. deformation frame; 23. guide roller; 24. adjustment Push rod; 25. Vibration frequency frame; 26. Power cylinder; 27. Pneumatic shaft; 28. Pneumatic blades; 29. ​​Ball screw; 30. Intermittent large gear; 31. Intermittent small gear; 32. Low-frequency gear; 33. High-frequency gear; 34. Energy storage torsion spring; 35. Microcontroller; 36. Mounting frame; 37. Air outlet duct; 38. Connecting arm; 51. Maintenance opening; 52. Projection display area; 53. Light-transmitting area; 54. Air filtration area; 55. Air fragrance area; 56. Activated carbon adsorption area. DETAILED DESCRIPTION

[0019] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0020] like Figures 1 to 10 As shown, the present invention provides a smart home lamp that is easy to adjust, including a lamp housing 1 and two symmetrically arranged display housings 2, a microcontroller 35 is installed on the lamp housing 1 and a mounting bracket 36 is provided; A scissor-type telescopic mechanism and a corrugated cover 3 are provided between the lamp housing 1 and the two display housings 2. A transmission module for driving the two scissor-type telescopic mechanisms to extend and retract synchronously is provided on the lamp housing 1. The scissor-type telescopic mechanism includes a set of "X"-shaped frames 17 hinged in sequence. The lamp housing 1 and the display housing 2 are hinged to the "X"-shaped frames 17 at adjacent positions. The hinges of the two "X"-shaped frames 17 and the hinges of the lamp housing 1 and the display housing 2 with the adjacent "X"-shaped frames 17 are each provided with two symmetrically arranged pin tubes 18. The transmission module includes two transmission screws 20 rotatably connected to the lamp housing 1 and a motor 21 mounted on the lamp housing 1. The two transmission screws 20 respectively drive the two scissor-type telescopic mechanisms to extend and retract. The output shaft end of the motor 21 is mounted with a driving gear. Both transmission screws 20 are mounted with driven gears, and both driven gears mesh with the driving gear. Through the synergistic effect of the scissor-type telescopic mechanism and the transmission module, the telescopic adjustment between the lamp housing 1 and the display housing 2 is more flexible and synchronous. The motor 21 drives the active gear to drive the two transmission screws 20 to rotate synchronously, so that the "X"-shaped frame 17 of the scissor-type mechanism is evenly expanded or contracted, ensuring the stability of the overall structure of the lamp body. The scissor-type telescopic mechanism is kinematic, and the corrugated cover 3 is driven to expand and contract. Compared with traditional fixed lamps, this solution solves the problem of inconvenient lamp size adjustment in smart home scenarios. Users can adjust the lamp light coverage with one click through the microcontroller 35 to adapt to different space requirements, such as the living room projection mode requiring large-area lighting or the bedroom creating a small-area atmosphere, significantly improving the ease of use and scene adaptability. A motor-driven roller 4 is rotatably mounted on each of the two display shells 2. A flexible functional film 5 is wound between the two rollers 4. The flexible functional film 5 is provided with an inspection opening 51, an air handling section, a projection display area 52, and a group of light-transmitting areas 53 with different transmission spectral characteristics. The air processing section includes an air filtration area 54, an air aroma area 55, and an activated carbon adsorption area 56. The maintenance opening 51, the air filtration area 54, the air aroma area 55, the activated carbon adsorption area 56, the projection display area 52, and each light-transmitting area 53 are of the same length. The length of the light-transmitting area 53 is 2.3 times the maximum telescopic distance of the scissor-type telescopic frame. The air filtration area 54 is made of a nanofiber filter, the air aroma area 55 is made of a transparent gel containing natural plant fragrances, the activated carbon adsorption area 56 is made of activated carbon, the projection display area 52 is made of an optical resin, and the light-transmitting area 53 is made of a light-transmitting film. The light-transmitting film in each light-transmitting area 53 has different transmission spectral characteristics. The rollers 4 on the two display shells 2 are driven by motors to control the unfolding and retraction of the flexible functional film 5; The inspection opening 51 provided on the flexible functional film 5 facilitates maintenance and inspection of the interior of the lamp; The air filtration area 54 in the air handling section uses nanofiber filter material to effectively filter dust and impurities in the air. The natural plant fragrance transparent gel in the air fragrance area 55 can emit a pleasant fragrance, and the activated carbon adsorption area 56 absorbs harmful gases to improve indoor air quality. The optical resin material of the projection display area 52 can ensure that the image projected by the projector 10 is clearly presented. The light-transmitting areas 53 of different colors can switch to different atmosphere lights according to user needs. This design solves the problem that traditional lamps have a single function and can only provide lighting, and cannot meet the diverse needs of air purification, atmosphere creation and multimedia display. Compared with the existing technology, this lamp integrates multiple functions into one, creating a comfortable and multi-functional home environment for users and improving the quality of life.

[0021] Each of the two display shells 2 is equipped with a set of ventilators 6, a deformation component that drives the flexible functional membrane 5 to change its layout state, and a UV decomposer 7 and an electric heater 8 that cooperate with the air treatment section. Each scissor-type telescopic mechanism is equipped with a set of light source modules with adjustable spacing. The lamp housing 1 is equipped with an air pump 9 and a projector 10. The air outlet of the air pump 9 is equipped with an air distribution hose 16. The ventilator 6 on the exhibition shell 2 cooperates with the air treatment section to draw in indoor air, which is then discharged after being purified through the air filtration area 54, the air fragrance area 55 and the activated carbon adsorption area 56, thereby achieving air circulation purification. The adjustment push rod 24 of the deformation component can push the deformation frame 22, so that the guide roller 23 changes the layout state of the flexible functional film 5 to adapt to different usage scenarios. For example, the position of the flexible functional film 5 can be adjusted to cooperate with projection display or change the display effect of the light-transmitting area 53. The ultraviolet decomposer 7 and the electric heater 8 can sterilize and dry the air treatment section to extend its service life. The spacing of the light source modules on the scissor-type telescopic mechanism is adjustable, and the distribution density of the light box 11 can be adjusted according to lighting needs. The air pump 9 provides power to the vortex system of the light source module through the air distribution hose 16, which solves the problems of poor heat dissipation, single lighting effect and inability to intelligently adjust of traditional lamps. Compared with the existing technology, the lamp is more comprehensive and intelligent in function, which not only improves the lighting effect, but also enhances the practicality and durability of the lamp. The light source module includes a light box 11 and two booms 12 connected to a scissor-type telescopic mechanism. A connecting rod 19 is fixedly mounted on each boom 12. Each connecting rod 19 is rotatably connected to a pin tube 18 at a corresponding position. A fixed frame 13 is installed on the top surface of the light box 11, and two suspension arms 12 are slidably connected to the fixed frame 13. A connecting arm 38 is slidably installed between the two suspension arms 12. The sides of the two suspension arms 12 are installed with limit springs 14 limited by the fixed frame 13. A water-cooling chamber is provided inside the light box 11, and a lamp tube 15 is provided inside the water-cooling chamber. The light box 11 is provided with a vibration system driven by an air distribution hose 16. The vibration system drives the lamp tube 15 to rotate and vibrate back and forth in the water-cooling chamber. The vibration frequency and vibration stroke of the lamp tube 15 in the water-cooling chamber change cyclically.

[0022] The water-cooling chamber is filled with insulating coolant, which can effectively reduce the heat generated by the lamp tube 15 during operation and extend the service life of the lamp tube 15. Under the action of the airflow provided by the gas distribution hose 16, the vortex system drives the lamp tube 15 to rotate and vibrate back and forth in the water-cooling chamber, and the vibration frequency and vibration stroke change cyclically, which makes the lighting effect more uniform and soft, avoiding the common lighting blind spots and uneven light problems of traditional lamps. Through this unique design, the lighting effect is better than traditional lamps, providing users with a more comfortable visual experience.

[0023] The deformation component includes a deformation frame 22, on which a guide roller 23 is rotatably mounted to fit the flexible functional membrane 5. A set of adjustment push rods 24 are mounted between the deformation frame 22 and the corresponding display shell 2. The axis of the adjustment push rod 24 is perpendicular to the axis of the guide roller 23. Two flexible slide rails are mounted on the inner wall of the corrugated cover 3. The flexible slide rails are provided with U-shaped silicone slide grooves. The U-shaped silicone slide grooves are slidably engaged with the flanges on the sides of the flexible functional membrane 5. When the adjustment push rods 24 drive the deformation frame 22 to displace, the flexible functional membrane 5 pulls the corrugated cover 3 to expand and contract synchronously in the up and down directions, and the flexible slide rails maintain the seal between the flexible functional membrane 5 and the corrugated cover 3 through elastic deformation. When the adjusting push rod 24 is extended or retracted, the deformation frame 22 is pushed to move. Since the guide roller 23 is rotatably mounted on the deformation frame 22 and is in contact with the flexible functional film 5, the movement of the deformation frame 22 drives the guide roller 23 to change the layout state of the flexible functional film 5. In actual use, the user may need to adjust the flexible functional film 5 according to different scenarios; During projection, the deformable frame 22 can be pushed by adjusting the push rod 24, and the guide roller 23 can adjust the position of the flexible functional film 5, so that the projection display area 52 can accurately cooperate with the projector 10 to ensure that the projected image is clear and complete; When different light-transmitting areas 53 need to be displayed to create an atmosphere, the display effect of the flexible functional film 5 can be flexibly changed through the deformation component to meet diverse usage needs; At the same time, by setting the deformation component, the length of the flexible functional film 5 released from the two rollers 4 can be adjusted, thereby adjusting the air intake area, filtration area, light radiation area and light radiation direction of the light transmission area 53 of the air filtration section per unit time, and the processing area per unit time of the air fragrance area 55 and the activated carbon adsorption area 56. At the same time, by setting the deformation component, the user's experience and light perception can be adjusted by adjusting the relative distance between the light transmission area 53 and the ground. The oscillation system includes a vibration frame 25, a power cylinder 26 mounted on a fixed frame 13, a pneumatic shaft 27 rotatably mounted on the power cylinder 26, a group of pneumatic blades 28 distributed in a circumferential array are mounted on the pneumatic shaft 27 and corresponding to the position inside the power cylinder 26, the air inlet port of the power cylinder 26 is fixedly connected to the air distribution hose 16, and the air outlet port of the power cylinder 26 is connected to an air outlet pipe 37, the lamp 15 is rotatably mounted on the vibration frame 25, the lamp 15 is driven by the pneumatic shaft 27, and a ball screw is rotatably mounted on the power cylinder 26 29. The ball screw 29 is connected to the vibration frequency frame 25 in transmission. The intermittent large gear 30 and the intermittent small gear 31 are respectively installed on the pneumatic shaft 27. Two symmetrically arranged torsion spring reset sections are provided on the pneumatic shaft 27 and corresponding to the positions between the intermittent large gear 30 and the intermittent small gear 31. The ball screw 29 is respectively installed with a low-frequency gear 32 connected to the intermittent small gear 31 in transmission and a high-frequency gear 33 connected to the intermittent large gear 30 in transmission. An energy storage torsion spring 34 is provided at the rotation connection between the ball screw 29 and the power cylinder 26.

[0024] The intermittent large gear 30 and the intermittent small gear 31 are staggered on the pneumatic shaft 27. The central angle corresponding to the intermittent large gear 30 is 200°, and the central angle corresponding to the intermittent small gear 31 is 100°. The central angles corresponding to the two torsion spring reset sections are both 30°. The radius of the intermittent small gear 31 is 1.7 times the radius of the low-frequency gear 32, and the radius of the intermittent large gear 30 is 7 times the radius of the high-frequency gear 33.

[0025] In the oscillation system, the air inlet port of the power cylinder 26 is connected to the air distribution hose 16. After the airflow enters the power cylinder 26, it pushes the pneumatic blades 28, causing the pneumatic shaft 27 to rotate, thereby driving the lamp tube 15 to rotate. The intermittent large gear 30 and the intermittent small gear 31 on the pneumatic shaft 27 cooperate with the high-frequency gear 33 and the low-frequency gear 32 on the ball screw 29. Under the action of the torsion spring reset section and the energy storage torsion spring 34, the cyclic change of the vibration frequency and vibration stroke of the lamp tube 15 is achieved. When the intermittent large gear 30 is engaged with the high-frequency gear 33, the lamp tube 15 rotates at a high speed with a high vibration frequency and a large stroke; when the intermittent small gear 31 is engaged with the low-frequency gear 32, the lamp tube 15 rotates at a low speed with a low vibration frequency and a small stroke. This design realizes diversified adjustment of the motion state of the lamp tube 15 through an ingenious mechanical structure. When the lamp tube 15 rotates at high speed with a high vibration frequency and a large stroke, the contact area and contact frequency between the insulating coolant and the lamp tube 15 increase. The heat on the surface of the lamp tube 15 can be transferred to the water-cooling liquid more quickly and efficiently, accelerating heat dissipation. Just like stirring hot water can accelerate heat dissipation, the rapid movement of the lamp tube 15 allows heat to be transferred more quickly, preventing the lamp tube 15 from being damaged due to overheating and extending its service life. During the intermittent engagement stage between the large gear 30 and the high-frequency gear 33, the high-speed movement of the lamp tube 15 causes the water-cooling liquid to form stronger convection in the water-cooling chamber, continuously taking away heat and maintaining the normal operating temperature of the lamp tube 15.

[0026] The lamp tube 15 rotates at a low speed with a low vibration frequency and a small stroke, and the high-speed movement state ensures the uniformity of the overall heat dissipation of the lamp tube 15. In different areas, the heat exchange between the lamp tube 15 and the water-cooling liquid is relatively balanced, avoiding local overheating. Just like when cooking, slow cooking can make the food heated more evenly. In this low-speed movement state, the heat from different parts of the lamp tube 15 can be effectively absorbed, preventing the performance of the lamp tube 15 from being degraded due to local overheating, and ensuring stable light output.

[0027] The diversified adjustment of the movement state of the lamp tube 15 makes the lighting effect more uniform and soft. Different rotation and vibration states change the propagation direction and intensity distribution of light, avoiding the problems of blind spots and uneven lighting. When moving at high speed, the light scattering range is wider. When moving at low speed, it can supplement the light in a specific area, making the overall lighting effect more ideal and providing users with a comfortable visual experience.

[0028] A coupling section is fixedly provided at one end of the lamp tube 15, and a key slot with an opening at the front end is fixedly provided inside the coupling section. A key shaft section is fixedly provided on the pneumatic shaft 27 and is slidably connected to the key slot. The cross sections of the key slot and the key shaft section are both regular hexagons.

[0029] The lamp tube 15 is slidably connected to the keyed shaft section of the pneumatic shaft 27 via the keyway of the coupling section. The regular hexagonal cross-section ensures stability when transmitting torque between the two, enabling the pneumatic shaft 27 to reliably drive the lamp tube 15 to rotate and vibrate. This connection method is simple in structure and easy to install. It also effectively prevents slippage during transmission, ensuring stable operation of the vibration and rotation system and, in turn, stable output of the lighting effect. The light box 11 and the lamp tube 15 are both made of transparent glass. A set of heat dissipation fins are installed on both sides of the light box 11. The water-cooling cavity is filled with insulating coolant. The axis of the lamp tube 15 is parallel to the axis of the roller 4.

[0030] The light box 11 and the lamp tube 15 are made of transparent glass, which not only ensures good light transmittance but also facilitates observation of the internal structure. The use of insulating coolant can not only effectively dissipate heat but also ensure safety during use. The axis of the lamp tube 15 is parallel to the axis of the roller 4, ensuring that the angle and range of light illumination of the flexible functional film 5 are not affected during the unfolding and retracting process, so that the lamp can provide stable and uniform lighting effects in different working conditions. The microcontroller 35 installed on the lamp housing 1 can intelligently control various components, such as the transmission module, the roller 4 motor, the ventilator 6, the UV decomposer 7, the electric heater 8 and the oscillation system, etc., to realize intelligent operation of the lamp. Compared with the manual adjustment or single-function control method of traditional lamps, the intelligent control of this lamp is more convenient and efficient. Users can remotely control the lamp through smart devices, which improves the user experience and fully reflects the intelligent advantages of smart home lamps. It should be noted that, in this document, relational terms such as first and second, etc., are used only to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the terms "comprises," "comprising," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that includes a list of elements includes not only those elements but also other elements not explicitly listed, or elements inherent to such process, method, article, or apparatus.

[0031] While 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 these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. A smart home lamp that is easy to adjust, comprising a lamp housing (1) and two symmetrically arranged display housings (2), characterized in that: A scissor-type telescopic mechanism and a corrugated cover (3) are provided between the lamp housing (1) and the two display housings (2). A transmission module for driving the two scissor-type telescopic mechanisms to telescope synchronously is provided on the lamp housing (1). A roller (4) driven by a motor is rotatably installed on the two display housings (2). A flexible functional film (5) is wound between the two rollers (4). The flexible functional film (5) is respectively provided with an inspection opening (51), an air treatment section, a projection display area (52) and a group of light-transmitting areas (53) with different transmission spectrum characteristics. The two display housings (2) are provided with a group of ventilators (6), a deformation component for driving the flexible functional film (5) to change its layout state, and an ultraviolet decomposer (7) and an electric heater (8) coordinated with the air treatment section. Each scissor-type telescopic mechanism is provided with a group of light source modules with adjustable spacing. An air pump (9) and a projector (10) are installed on the lamp housing (1). The air outlet of the air pump (9) is provided with an air distribution hose (16). The light source module comprises a light box (11) and two suspension arms (12) connected to a scissor-type telescopic mechanism, a fixed frame (13) is installed on the top surface of the light box (11), the two suspension arms (12) are slidably connected to the fixed frame (13), a connecting arm (38) is slidably installed between the two suspension arms (12), and the sides of the two suspension arms (12) are both installed with a limit spring (14) limited by the fixed frame (13), a water-cooling cavity is provided inside the light box (11), a lamp tube (15) is provided inside the water-cooling cavity, a vortex system driven by an air distribution hose (16) is provided on the light box (11), the vortex system drives the lamp tube (15) to rotate and reciprocate in the water-cooling cavity, and the vibration frequency and vibration stroke of the lamp tube (15) in the water-cooling cavity change cyclically.

2. The easily adjustable smart home lamp according to claim 1, characterized in that: The scissor-type telescopic mechanism comprises a group of "X"-shaped frames (17) hinged in sequence, the lamp housing (1) and the display housing (2) are hinged to the "X"-shaped frames (17) at adjacent positions, and two symmetrically arranged pin tubes (18) are provided at the hinged positions of the two "X"-shaped frames (17) and at the hinged positions of the lamp housing (1) and the display housing (2) and the adjacent "X"-shaped frames (17). A connecting rod (19) is fixedly mounted on each of the two suspension arms (12), and each connecting rod (19) is rotatably connected to the pin tube (18) at the corresponding position.

3. The easily adjustable smart home lamp according to claim 2, characterized in that: The transmission module comprises two transmission screws (20) rotatably connected to the lamp housing (1) and a motor (21) mounted on the lamp housing (1), wherein the two transmission screws (20) respectively drive the two scissor-type telescopic mechanisms to telescope, a driving gear is mounted on the output shaft end of the motor (21), and a driven gear is mounted on each of the two transmission screws (20), and the two driven gears are meshed with the driving gear.

4. The easily adjustable smart home lamp according to claim 1, characterized in that: The deformation component includes a deformation frame (22), on which a guide roller (23) in contact with the flexible functional membrane (5) is rotatably mounted, and a group of adjustment push rods (24) are mounted between the deformation frame (22) and the corresponding display shell (2), wherein the axis of the adjustment push rod (24) is perpendicular to the axis of the guide roller (23), and the inner wall of the corrugated cover (3) is mounted with two flexible slide rails, wherein a U-shaped silicone slide groove is provided in the flexible slide rail, and the U-shaped silicone slide groove is slidably engaged with the flange on the side of the flexible functional membrane (5), and when the adjustment push rod (24) drives the deformation frame (22) to move, the flexible functional membrane (5) pulls the corrugated cover (3) to synchronously expand and contract in the up and down directions, and the flexible slide rail maintains the seal between the flexible functional membrane (5) and the corrugated cover (3) through elastic deformation.

5. The easily adjustable smart home lamp according to claim 1, characterized in that: The air treatment section includes an air filtration area (54), an air aroma area (55) and an activated carbon adsorption area (56). The maintenance opening (51), the air filtration area (54), the air aroma area (55), the activated carbon adsorption area (56), the projection display area (52) and each light-transmitting area (53) have the same length. The length of the light-transmitting area (53) is 2.2 to 2.5 times the maximum telescopic distance of the scissor-type telescopic frame. The air filtration area (54) is made of a nanofiber filter material, the air aroma area (55) is made of a transparent gel material containing natural plant fragrances, the activated carbon adsorption area (56) is made of activated carbon material, the projection display area (52) is made of an optical resin material, and the light-transmitting area (53) is made of a light-transmitting film material. The transmission spectrum characteristics of the light-transmitting film on each light-transmitting area (53) are different.

6. The easily adjustable smart home lamp according to claim 1, characterized in that: The oscillation system includes a vibration frame (25), a power cylinder (26) mounted on a fixed frame (13), a pneumatic shaft (27) rotatably mounted on the power cylinder (26), a group of pneumatic blades (28) distributed in a circumferential array are mounted on the pneumatic shaft (27) and at positions corresponding to the inner side of the power cylinder (26), the air inlet port of the power cylinder (26) is fixedly connected to the air distribution hose (16), the air outlet port of the power cylinder (26) is connected to an air outlet pipe (37), the lamp tube (15) is rotatably mounted on the vibration frame (25), the lamp tube (15) is driven by the pneumatic shaft (27), and a roller is rotatably mounted on the power cylinder (26). A ball screw (29) is connected to the vibration frame (25) in a transmission manner. An intermittent large gear (30) and an intermittent small gear (31) are respectively installed on the pneumatic shaft (27). Two symmetrically arranged torsion spring reset sections are provided on the pneumatic shaft (27) and at positions corresponding to the positions between the intermittent large gear (30) and the intermittent small gear (31). A low-frequency gear (32) connected to the intermittent small gear (31) in a transmission manner and a high-frequency gear (33) connected to the intermittent large gear (30) in a transmission manner are respectively installed on the ball screw (29). An energy storage torsion spring (34) is provided at the rotation connection between the ball screw (29) and the power cylinder (26).

7. The easily adjustable smart home lamp according to claim 6, characterized in that: The intermittent large gear (30) and the intermittent small gear (31) are staggered on the pneumatic shaft (27), the central angle of the intermittent large gear (30) is 200°, the central angle of the intermittent small gear (31) is 100°, the central angle of the two torsion spring reset sections is 30°, the radius of the intermittent small gear (31) is 1.5 to 2 times the radius of the low-frequency gear (32), and the radius of the intermittent large gear (30) is 6 to 8 times the radius of the high-frequency gear (33).

8. The easily adjustable smart home lamp according to claim 6, characterized in that: A coupling section is fixedly provided at one end of the lamp tube (15), a key slot with a front end opening is fixedly provided inside the coupling section, a key shaft section slidably connected to the key slot is fixedly provided on the pneumatic shaft (27), and the cross sections of the key slot and the key shaft section are both regular hexagons.

9. The easily adjustable smart home lamp according to claim 1, characterized in that: The light box (11) and the light tube (15) are both made of transparent glass. A set of heat dissipation fins are installed on both sides of the light box (11). The water-cooling cavity is filled with insulating coolant. The axis of the light tube (15) is parallel to the axis of the roller (4). A microcontroller (35) is installed on the lamp housing (1) and a mounting frame (36) is provided.

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