Energy-saving LED lamp and lamp

Abstract

The energy-saving LED lamp comprises a base, universal wheels, a security and protection mechanism, a heat dissipation mechanism, a temporary protection mechanism and a multi-light-distribution mechanism. The security and protection mechanism comprises a first waste gas treatment mechanism, the first waste gas treatment mechanism comprises an automatic telescopic pipe and a gas suction head, and the automatic telescopic pipe is connected with a vacuum pump unit; a first multi-axis rotating mechanism is installed on the end face of the upper side of the base, a second LED lamp is installed on the end face of one side of the first multi-axis rotating mechanism, and the heat dissipation mechanism comprises a liquid cooling plate and a cooling mechanism. Downward light distribution is achieved through the lens, lamplight is gathered downwards, waste of a lamp source is reduced, heat dissipation is conducted on the lamp through the heat dissipation mechanism, the service life of the lamp is prolonged, energy conservation and environmental protection are achieved, illumination can be enhanced through the multiple light distribution mechanisms when white fog influencing vision appears in the environment, escape personnel can be helped to find an escape channel in time, and the escape effect is improved. And rapid escape is realized.

Description

Technical Field

[0001] The present invention belongs to the technical field of lighting lamps, and particularly relates to an energy-saving LED lamp and a lighting fixture. Background Art

[0002] LED energy-saving lamps use high-brightness white light-emitting diodes as light sources, with high luminous efficiency, low power consumption, long lifespan, easy control, maintenance-free, safe and environmentally friendly; they are a new generation of solid cold light sources. However, the current lighting fixture has poor light transmittance of the lampshade, and the light of the bulb cannot reach the ground, mostly wasted in the air. Moreover, when illuminating a mobile lighting lamp used in a laboratory, since there are many high-temperature experiments during experiments, and when performing close-range illumination, the heat of the lighting fixture is relatively high, which may cause damage to the lighting fixture and shorten its service life.

[0003] Secondly, when conducting research experiments, due to operational errors or accidents, dangerous gas leakage may occur in reagent bottles storing chemical reagents, causing serious harm to the physical health of personnel.

[0004] Therefore, in view of the above technical problems, it is necessary to provide an energy-saving LED lamp and a lighting fixture.

[0005] The information disclosed in this background art section is only intended to enhance the overall understanding of the present invention and should not be regarded as an admission or any form of implication that this information constitutes prior art already known to those of ordinary skill in the art. Summary of the Invention

[0006] The purpose of the present invention is to provide an energy-saving LED lamp and a lighting fixture, which can solve the above problems.

[0007] To achieve the above purpose, the technical solution provided by a specific embodiment of the present invention is as follows:

[0008] An energy-saving LED lamp includes a base, universal wheels, a security mechanism, a heat dissipation mechanism, a temporary protection mechanism, and a multi-light distribution mechanism. The security mechanism includes a first waste gas treatment mechanism, and the first waste gas treatment mechanism includes an automatic telescopic tube and a suction head, and the automatic telescopic tube is connected to a vacuum pump unit; on the upper side end face of the base, a first multi-axis rotation mechanism is installed, and on one side end face of the first multi-axis rotation mechanism, a second LED lamp is installed. The heat dissipation mechanism includes a liquid cooling plate and a cooling mechanism, and the cooling mechanism includes a plurality of heat dissipation nozzles. The plurality of heat dissipation nozzles are located on the peripheral end faces of the second LED lamp. The heat dissipation nozzles are connected to a gas storage box, and a cooling gas is stored in the gas storage box. The gas storage box conveys the cooling gas to the heat dissipation nozzles for spraying to dissipate heat from multiple end faces of the second LED lamp; the temporary protection mechanism includes air holes and a vacuum pump unit. A plurality of air holes are opened on multiple end faces of the base. The end face of the base close to the air holes is connected to a gas delivery plate, the gas delivery plate is connected to a gas delivery pipe, and the gas delivery pipe is connected to the vacuum pump unit. A multi-light distribution mechanism is arranged on the upper side end face of the base. The multi-light distribution mechanism includes an automatic lifting mechanism, an automatic turntable, a transmitter, and a emission port. A plurality of light source rescue discs are stored in the transmitter, and the light source rescue discs include a main power supply system, an auxiliary lighting lamp, and an airbag layer.

[0009] In one or more embodiments of the present invention, a first LED lamp is fixedly connected to the upper side end face of the base, a housing is installed on one side end face of the first multi-axis rotation mechanism, and a second LED lamp is installed inside the housing. The heat dissipation nozzles are arranged on multiple end faces of the housing. A first heat conduction rod is arranged between the housing and the second LED lamp. The bottom end face of the base is connected to a heat dissipation rod, and the first heat conduction rod is connected to the heat dissipation rod.

[0010] In one or more embodiments of the present invention, the first waste gas treatment mechanism further includes a waste gas storage box. The automatic telescopic tube is connected to a first waste gas delivery pipe, and the first waste gas delivery pipe is connected to a second vacuum pump, and the second vacuum pump is installed on the inner wall end face of the waste gas storage box.

[0011] In one or more embodiments of the present invention, the automatic lifting mechanism is fixedly connected to the inner wall end face of the base, the automatic lifting mechanism is fixedly connected to the automatic turntable, the top end face of the automatic turntable is connected to the transmitter, and an emission port is arranged on one side end face of the transmitter.

[0012] In one or more embodiments of the present invention, a plurality of auxiliary lighting lamps are provided on the upper side end face of the main power supply system. The outer side end face of the main power supply system is wrapped with a first silica gel pad. A strengthened lighting layer is provided on the upper side end face of the main power supply system. A strengthened pipe is fixedly connected to the top end face of the lighting layer. A plurality of strengthened nozzles are connected to the top end face of the main power supply system located in the strengthened lighting layer. The inner end face of the auxiliary lighting layer is filled with nano-fluorescent particles or carbon nano-suspension liquid.

[0013] In one or more embodiments of the present invention, an airbag layer is adhesively bonded to the bottom end face of the main power supply system. Oxygen is filled in the airbag layer. A puncturing assembly is installed on the bottom end face of the airbag layer.

[0014] In one or more embodiments of the present invention, the puncturing assembly includes a button and a fixed seat. The fixed seat is fixedly connected to the bottom end face of the main power supply system. A limiting frame is fixedly connected to the inner end face of the fixed seat. A sliding bottom plate is slidably connected in the limiting frame. A button is fixedly connected to one side end face of the sliding bottom plate. A spring is fixedly connected to the other side end face of the sliding bottom plate. A plurality of thorns are fixedly connected to the top end face of the sliding column. A sliding hole matching the sliding column is provided on the fixed seat.

[0015] In one or more embodiments of the present invention, the temporary protection mechanism further includes a waste dust recovery mechanism. The waste dust recovery mechanism includes a second multi-axis rotation mechanism and a waste dust recovery intelligent box. The waste dust recovery intelligent box is fixedly connected to one side end face of the second multi-axis rotation mechanism. A plurality of recovery holes are provided on the waste dust recovery intelligent box. A first recovery groove and a second recovery groove are provided on the inner end face of the waste dust recovery intelligent box. First air ducts are connected to the inner side end faces of the first recovery groove and the second recovery groove. The first air ducts are connected to an exhaust gas storage box. A plurality of adsorption holes are provided on the first air ducts. Heat conduction pipes are provided on the inner end faces of the first recovery groove and the second recovery groove. The heat conduction pipes are connected to a first heat conduction rod.

[0016] In one or more embodiments of the present invention, the security mechanism further includes a second exhaust gas treatment mechanism. The second exhaust gas treatment mechanism includes an automatically telescopic plate. Automatically telescopic plates are fixedly connected to a pair of opposite end faces of the waste dust recovery intelligent box. The automatically telescopic plate includes a first telescopic plate. A plurality of first air suction holes are provided on the first telescopic plate. The automatically telescopic plate is connected to a second exhaust gas delivery pipe. The second exhaust gas delivery pipe is connected to a second vacuum pump. A heat conduction nozzle is fixedly connected to the bottom end face of the waste dust recovery intelligent box. A blower is connected to the upper side end face of the heat conduction nozzle. A heat storage box is connected to the blower. The heat conduction pipe is connected to the heat storage box.

[0017] An energy-saving LED lamp, a lens is fixedly installed on the outer side end face of the lamp.

[0018] Compared with the prior art, an energy-saving LED lamp and a lighting fixture of the present invention have the following benefits;

[0019] 1) The lower light distribution is achieved by using a lens to gather the light downward, reducing the waste of the light source;

[0020] 2) The lighting fixture is cooled by a heat dissipation mechanism to extend the service life of the lighting fixture. When there is white fog that affects vision in the environment, enhanced lighting can be achieved through a multi-light distribution mechanism to help escapees find the escape route in time and escape quickly;

[0021] 3) When an accidental gas leakage occurs, the gas is adsorbed by a temporary protection mechanism, and a protection space is formed to provide temporary protection for personnel, protecting the physical health of personnel and improving safety performance. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] In order to more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the drawings in the following description are only some embodiments recorded in the present invention. For those of ordinary skill in the art, without creative efforts, other drawings can also be obtained based on these drawings.

[0023] Figure 1 It is a schematic structural diagram of an energy-saving LED lamp in Embodiment 1 of the present invention;

[0024] Figure 2 It is a schematic structural diagram of the lens in Embodiment 1 of the present invention;

[0025] Figure 3 It is a schematic structural diagram of the lighting fixture in Embodiment 1 of the present invention;

[0026] Figure 4 It is a cross-sectional view of an energy-saving LED lamp in Embodiment 1 of the present invention;

[0027] Figure 5 It is a schematic structural diagram of the heat dissipation mechanism in Embodiment 1 of the present invention

[0028] Figure 6 It is a schematic structural diagram of an energy-saving LED lamp in Embodiment 2 of the present invention Figure 1 ;

[0029] Figure 7 It is a schematic structural diagram of an energy-saving LED lamp in Embodiment 2 of the present invention Figure 2 ;

[0030] Figure 8 It is Figure 7 a schematic structural diagram of the structure at A of;

[0031] Figure 9 Schematic diagram of the practical state of an energy-saving LED lamp in the second embodiment of the present invention;

[0032] Figure 10 Partial cross-sectional view of the waste dust recovery mechanism 7 in the second embodiment of the present invention;

[0033] Figure 11 Schematic structure of the light source rescue tray in the second embodiment of the present invention Figure 1 ;

[0034] Figure 12 Schematic structure of the light source rescue tray in the second embodiment of the present invention Figure 2 ;

[0035] Figure 13 Partial cross-sectional view of the light source rescue tray in the second embodiment of the present invention;

[0036] Description of the main reference numerals:

[0037] 1 - Base, 101 - Gas storage box, 102 - Vacuum pump unit, 103 - Exhaust gas storage box, 104 - Automatic lifting mechanism, 105 - Vent hole, 2 - First LED lamp, 3 - Lens, 4 - Universal wheel, 5 - Lamp, 6 - Heat dissipation mechanism, 601 - First multi-axis rotation mechanism, 602 - Liquid cooling plate, 603 - Outer housing, 604 - Second LED lamp, 605 - Heat dissipation nozzle, 606 - First heat conduction rod, 7 - Waste dust recovery mechanism, 701 - Second multi-axis rotation mechanism, 702 - Waste dust recovery intelligent box, 703 - Recovery hole, 704 - Heat conduction nozzle, 705 - Automatic telescopic plate, 706 - First telescopic plate, 707 - First suction hole, 708 - First recovery groove, 709 - First air duct, 710 - Heat conduction pipe, 711 - Second recovery groove, 8 - First exhaust gas treatment mechanism, 801 - Automatic telescopic pipe, 802 - Suction head, 9 - Light source rescue tray, 901 - First silica gel pad, 902 - Main power supply system, 903 - Auxiliary lighting lamp, 904 - Strengthening nozzle, 905 - Button, 906 - Fixed seat, 907 - Airbag layer, 908 - Limit frame, 909 - Sliding bottom plate, 910 - Slide post, 911 - Pricking needle, 912 - Spring, 10 - Multi-light distribution mechanism, 1001 - Automatic turntable, 1002 - Transmitter, 1003 - Ejection port. Detailed implementation manners

[0038] To enable those skilled in the art to better understand the technical solutions in the present invention, the following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with 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.

[0039] Embodiment 1

[0040] As Figures 1 - 3 shown, an energy-saving LED lamp and a lighting fixture in an embodiment of the present invention. In the energy-saving LED lamp, a lighting fixture 5 is installed inside the first LED lamp 2, and a lens 3 is fixedly installed on the outer end face of the lighting fixture 5. When in use, the lens 3 is installed on the outer end face of the lighting fixture of the first LED lamp 2. When the LED emits light, the light enters the lens 3. Part of the reflected light will directly obliquely irradiate the ground, and the other part of the light that enters the condensing wall of the lens 3 will also irradiate the ground when it exits from the condensing wall. It can guide more light to irradiate from a high place to the ground, reduce the light irradiating into the air, reduce light loss, and reduce the negative impact of light pollution.

[0041] As Figure 2 shown, among them, the condensing wall is the convex end face of the lens 3, which can gather the light scattered in the air and reflect it to the ground for lighting, effectively improving the lighting efficiency.

[0042] The energy-saving LED lamp includes a security mechanism, a heat dissipation mechanism 6, and a temporary protection mechanism. It can achieve the aggregation of light downward, reduce the waste of the light source, dissipate heat from the lighting fixture, extend the service life, and at the same time, when dangerous gas leaks, it can also adsorb the dangerous gas and reduce the gas hazard.

[0043] As Figures 1 - 5 shown, an energy-saving LED lamp includes a base 1 and universal wheels 4. A power system is arranged inside the base 1 to control lighting. The bottom end face of the base 1 is fixedly connected to the universal wheels 4. The universal wheels 4 drive the base 1 to move. A driving power source is arranged inside the universal wheels 4. The top end face of the base 1 is fixedly connected to the first LED lamp 2. The first LED lamp 2 is 604 higher than the second LED lamp, so that it can be fixed at a high place and provide lighting at a high place. It is suitable for the situation where the high-place lighting lamp in the laboratory is damaged or some experiments require enhanced high-place lighting, and the first LED lamp 2 can be started for lighting.

[0044] The security mechanism includes a first waste gas treatment mechanism 8. The first waste gas treatment mechanism 8 includes an automatic telescopic pipe 801 and a suction head 802. The automatic telescopic pipe 801 is connected to a vacuum pump unit 102. The automatic telescopic pipe 801 is fixedly connected to the lower side end face of the side wall of the base 1. The first waste gas treatment mechanism 8 further includes a waste gas storage box 103. The automatic telescopic pipe 801 is connected to a first waste gas delivery pipe, and the first waste gas delivery pipe is connected to a second vacuum pump. The second vacuum pump is installed on the inner wall end face of the waste gas storage box 103, so as to output negative pressure through the second vacuum pump and enter the suction head 802 through the first waste gas delivery pipe to output negative pressure outward. When dangerous gases leak in the laboratory due to unexpected situations, they can be adsorbed into the waste gas storage box 103 through the suction head 802 for storage.

[0045] Among them, the automatic telescopic pipe 801 is an automatic telescopic rod. The middle end face of the automatic telescopic rod is a hollow structure inside, and a third waste gas delivery pipe is arranged inside the hollow structure. The third waste gas delivery pipe is connected to the first waste gas delivery pipe, and the automatic telescopic pipe 801 is communicated with the suction head 802 to transport negative pressure. Through the expansion and contraction of the automatic telescopic pipe 801, dangerous gases at different distances can be adsorbed.

[0046] The upper side end face of the base 1 is installed with a first multi-axis rotation mechanism 601. One side end face of the first multi-axis rotation mechanism 601 is installed with a second LED lamp 604. The heat dissipation mechanism 6 includes a liquid cooling plate 602 and a cooling mechanism. The liquid cooling plate 602 is fixedly connected to the bottom end face of the outer shell 603. The liquid cooling plate 602 is closely attached to the outer shell 603 to initially cool the outer shell 603 through the liquid cooling plate 602.

[0047] The cooling mechanism includes a plurality of heat dissipation nozzles 605. The plurality of heat dissipation nozzles 605 are located on the peripheral end face of the second LED lamp 604. The heat dissipation nozzles 605 are connected to a gas storage box 101. The gas storage box 101 stores a cooling gas. The gas storage box 101 transports the cooling gas to the heat dissipation nozzles 605 for spraying to dissipate heat from multiple end faces of the second LED lamp 604, so as to achieve rapid cooling and ensure the normal operation of the second LED lamp 604.

[0048] The cooling gas is nitrogen.

[0049] The upper side end face of the base 1 is fixedly connected with a first LED lamp 2. The upper side end face of the base 1 is installed with a first multi-axis rotation mechanism 601. One side end face of the first multi-axis rotation mechanism 601 is installed with an outer shell 603. A second LED lamp 604 is installed inside the outer shell 603. The heat dissipation nozzles 605 are arranged on multiple end faces of the outer shell 603. The heat dissipation nozzles 605 contact the second LED lamp 604 to dissipate the high temperature generated during the operation of the second LED lamp 604.

[0050] Preferably, the first multi-axis rotation mechanism 601 is a metal shaping hose, which has a shaping function and can also move the second LED lamp 604 to any position for use. Of course, the first multi-axis rotation mechanism 601 can also be a robotic arm adjustment bracket, which is composed of multiple rotating shafts and robotic arms. The support arm adjusts the angle through the movement of the rotating shaft. Its working principle and structural composition are the same as the robotic arm adjustment bracket structure commonly placed behind the battery screen in the prior art.

[0051] A first heat conducting rod 606 is arranged between the outer shell 603 and the second LED lamp 604, and a heat dissipation rod is connected to the bottom end surface of the base 1, and the first heat conducting rod 606 is connected to the heat dissipation rod. The heat generated by the second LED lamp 604 during operation is absorbed by the first heat conducting rod 606 and discharged through the heat dissipation rod.

[0052] The temporary protection mechanism includes air holes 105 and a vacuum pump unit 102. Multiple end faces of the base 1 are provided with multiple air holes 105. The end face height of the base 1 close to the air holes 105 is connected with a gas delivery plate, the gas delivery plate is connected to the gas delivery pipe, and the gas delivery pipe is connected to the vacuum pump unit 102, so that the air flow delivered by the vacuum pump unit 102 is delivered to the gas delivery plate through the gas delivery pipe and output through multiple air holes 105. When dangerous gas leaks in the laboratory, the air flow output by the multiple air holes 105 forms an air wall, isolating the dangerous gas on the outer end face of the air wall, forming a relatively safe temporary protection space. Laboratory personnel can hide in the temporary protection space to protect their own safety, and start to escape after the external environment is safe, thereby reducing the harm to them from the external environment.

[0053] During use, the LED lamp can be placed at a high place where lighting is required by the first LED lamp 2, or when the laboratory needs to contact the experimental position for close-range lighting, the first multi-axis rotation mechanism 601 can be adjusted to drive the second LED lamp 604 to a suitable position for lighting.

[0054] When a dangerous air flow leak occurs during the experiment, the temporary protection mechanism is activated, and the vacuum pump unit 102 delivers air flow through the vacuum pump unit 102 into multiple air holes 105 to form a relatively safe temporary protection space for the experimenters to temporarily hide.

[0055] Example 2

[0056] On the upper side end face of the base 1, there are multiple light distribution mechanisms. The multiple light distribution mechanism 10 includes an automatic lifting mechanism 104, an automatic turntable 1001, a transmitter 1002, and a emission port 1003. The automatic lifting mechanism 104 is fixedly connected to the inner wall end face of the base 1. The automatic lifting mechanism 104 is fixedly connected to the automatic turntable 1001. The automatic lifting mechanism 104 can drive the automatic turntable 1001 to move up and down, and then drive the transmitter 1002 to move up and down to multiple areas to spray the light source rescue disk 9.

[0057] Among them, the automatic turntable 1001 includes a base and a turntable. The top end face of the base is connected to the turntable. The bottom end face of the automatic turntable 1001 is fixedly connected to the top end face of the automatic lifting mechanism 104. The automatic lifting mechanism 104 penetrates the top end face of the base 1 to drive the automatic turntable 1001 to move. At the same time, the automatic turntable 1001 can drive the transmitter 1002 to rotate 360 degrees to find the escape route, and spray the light source rescue disk 9 for auxiliary lighting. At night or during the experiment, some gases react to generate a large amount of smoke (for example, ammonia and hydrogen chloride combine to form white smoke), or when a fire occurs and there is smoke, it will cause the surrounding environment to be unable to be seen clearly, and the gas is highly dangerous. It is necessary to escape in time. The light source rescue disk 9 helps people to quickly see the route clearly with the assistance of the light for escape.

[0058] Among them, an infrared laser lamp is installed on one side end face of the emission port 1003. The escape route is in the direction of the room exit. People can quickly escape from the room exit. The room exit is pre-positioned in advance. When an emergency occurs, the infrared laser lamp will irradiate in the direction of the exit, indicating the escape route for people. At the same time, when spraying the light source rescue disk 9, multiple light source rescue disks 9 will be distributed on the ground in sequence along the direction of the infrared ray irradiation to help people quickly identify the route and escape.

[0059] The top end face of the automatic turntable 1001 is connected to the transmitter 1002. On one side end face of the transmitter 1002, there is an emission port 1003. The transmitter 1002 stores multiple light source rescue disks 9. When there is a thick fog that affects the line of sight in the room, the transmitter 1002 can be activated to emit multiple light source rescue disks 9 to help people illuminate the escape route.

[0060] Furthermore, the light source rescue disk 9 includes a main power supply system 902. On the upper side end face of the main power supply system 902, there are multiple auxiliary lighting lamps 903. When the light source rescue disk 9 falls to the ground, the auxiliary lighting lamps 903 are turned on for lighting, forming a lighting route to help people quickly confirm the lighting route and escape.

[0061] The outer end face of the main power supply system 902 is wrapped with a first silica gel pad 901. The outer end face of the main power supply system 902 is surrounded by the first silica gel pad 901 for wrapping protection. The first silica gel pad 901 has a thickness of 3 - 5 cm, and its shell is relatively soft, playing a role in shock absorption and protection of the main power supply system 902. At the same time, when the transmitter 1002 emits the light source rescue disk 9, it will give a voice prompt to the surrounding people to pay attention, start emitting the light source rescue disk 9, and pay attention to avoiding. When the light source rescue disk 9 hits a person because the person fails to avoid, due to the flexible material on its outer surface, the harm to the person's body is relatively small.

[0062] On the upper end face of the main power supply system 902, there is a strengthened lighting layer. The inner end face of the auxiliary lighting layer is filled with nano-fluorescent particles or carbon nano-suspension liquid. A strengthened pipe is fixedly connected to the top end face of the lighting layer. The main power supply system 902 is connected to a plurality of strengthened nozzles 904 at the top end face of the strengthened lighting layer. By spraying nano-fluorescent particles or carbon nano-suspension liquid through the strengthened nozzles 904, the influence of the thick fog on the light source can be reduced, the lighting brightness of the light source can be improved, helping people quickly see the light source and judge the orientation.

[0063] It is worth noting that the nano-fluorescent particles can adhere to the surface of the fog droplets, enhancing the directional propagation of light in the fog. And the carbon nano-suspension liquid reduces scattering by regulating the refractive index matching, and the light penetration will be significantly enhanced.

[0064] As Figures 11 - 13 shown, an airbag layer 907 is adhesively bonded to the bottom end face of the main power supply system 902. Oxygen is filled in the airbag layer 907, and a puncturing component is installed at the bottom end face of the airbag layer 907. When people are in the process of escaping, some dangerous gases will affect the respiratory health of people. In severe cases, they cannot walk. At this time, if people breathe oxygen, it can relieve the symptoms of people, alleviate the harm caused by the dangerous gases, and then they can escape after relief. Therefore, when people are escaping, they can take the light source rescue disk 9 at a nearby position, use the puncturing component to puncture the airbag layer 907, release oxygen to help people quickly relieve the symptoms. After relief, put the light source rescue disk 9 back to its original position and continue to escape.

[0065] The puncturing component includes a button 905 and a fixed seat 906. The fixed seat 906 is fixedly connected to the bottom end face of the main power supply system 902. A limiting frame 908 is fixedly connected to the inner end face of the fixed seat 906. A sliding bottom plate 909 is slidably connected in the limiting frame 908. A button 905 is fixedly connected to one side end face of the sliding bottom plate 909, so that the sliding bottom plate 909 slides in the limiting frame 908 to drive the sliding column 910 to move.

[0066] On the other end face of the sliding base plate 909, a spring 912 is fixedly connected. On the other end face of the spring 912, a sliding column 910 is fixedly connected. On the top end face of the sliding column 910, a plurality of thorns 911 are fixedly connected. A sliding hole matching the sliding column 910 is provided on the fixing seat 906. When the button 905 pushes the sliding base plate 909 to move, the sliding column 910 is driven to slide. Under the limitation of the spring 912, the sliding base plate 909 is controlled to slide within the limit frame 908, and the thorns 911 can be controlled to slide out of the sliding hole to pierce the airbag layer 907 to release oxygen.

[0067] As Figures 7 - 10 shown, the waste dust recycling mechanism 7 includes a second multi-axis rotation mechanism 701 and a waste dust recycling intelligent box 702. The second multi-axis rotation mechanism 701 has the same structural principle as the first multi-axis rotation mechanism 601. The second multi-axis rotation mechanism 701 drives the waste dust recycling intelligent box 702 to be adjusted to any position to adapt to the lighting requirements of the experiment.

[0068] On one end face of the second multi-axis rotation mechanism 701, a waste dust recycling intelligent box 702 is fixedly connected. A plurality of recycling holes 703 are provided on the waste dust recycling intelligent box 702. On the inner end face of the waste dust recycling intelligent box 702, a first recycling groove 708 and a second recycling groove 711 are provided. On the inner end faces of the waste dust recycling intelligent box 702 located inside the first recycling groove 708 and the second recycling groove 711, a first air duct 709 is connected. The first air duct 709 is connected to an exhaust gas storage box 103. A plurality of adsorption holes are provided on the first air duct 709. The negative pressure output by the second vacuum pump enters the recycling holes 703 through the plurality of adsorption holes on the first air duct 709 for spraying, so as to adsorb the smoke generated during the experiment and help the experimenter reduce the influence caused by the smoke.

[0069] On the inner end faces of the first recycling groove 708 and the second recycling groove 711, a heat conduction pipe 710 is provided. The heat conduction pipe 710 is connected to the first heat conduction rod 606. On the bottom end face of the waste dust recycling intelligent box 702, a heat conduction nozzle 704 is fixedly connected. On the upper end face of the heat conduction nozzle 704, a blower is connected. The heat storage box is connected to the blower. The blower and the heat storage box are located on the inner wall end face of the waste dust recycling intelligent box 702. The heat conduction pipe 710 is connected to the heat storage box to convey the heat through the heat storage box.

[0070] When preheating work is required, the heat absorbed by the second LED lamp 604 during operation is introduced into the heat conduction pipe 710 by the first heat conduction rod 606 for heat transfer. After being stored in the heat storage box, the blower adsorbs and conveys it to the heat conduction nozzle 704 for spraying. When heating is required in the experiment, the items to be heated are preheated in advance, the heating time is reduced, the heat is recycled, and energy consumption is saved.

[0071] As Figure 9As shown in the figure, the security mechanism further includes a second waste gas treatment mechanism. The second waste gas treatment mechanism includes an automatic telescopic plate 705. A pair of opposite end faces of the waste dust recovery intelligent box 702 are fixedly connected with the automatic telescopic plate 705. The automatic telescopic plate 705 includes a first telescopic plate 706. Limiting grooves are provided on the inner wall end faces of the automatic telescopic plate 705 and the first telescopic plate 706, and a fifth waste gas delivery pipe is connected in the limiting grooves.

[0072] Among them, the automatic telescopic plate 705 is an automatically telescopic mechanism that can drive the first telescopic plate 706 to extend a certain distance to adsorb dangerous gases at a long distance into the waste gas storage box 103 for storage.

[0073] A plurality of first suction holes 707 are provided on the first telescopic plate 706. The bottom end face of the automatic telescopic plate 705 is connected with a second waste gas delivery pipe. The second waste gas delivery pipe is connected with the fifth waste gas delivery pipe, and the second waste gas delivery pipe is connected with a second vacuum pump. The second vacuum pump delivers negative pressure to the fifth waste gas delivery pipe and the second waste gas delivery pipe, and then sprays through the plurality of first suction holes 707 to adsorb dangerous gases.

[0074] It should be noted that the difference between Embodiment 1 and Embodiment 2 is that Embodiment 1 does not adopt the multi-light distribution mechanism and the waste dust recovery mechanism 7. Embodiment 1 is only suitable for laboratory use in simple experiments, while Embodiment 2 is suitable for larger laboratories and laboratories with a high risk coefficient.

[0075] When in use, as Figure 6 shown in the figure, when a large amount of fog appears due to an operation error or an accident during the reaction between gases or a fire occurs, and the room is filled with smoke, first start the multi-light distribution mechanism 10. The automatic lifting mechanism 104 drives the emitter 1002 to move upward to a position matching the outlet, and controls the automatic turntable 1001 to drive the emitter 1002 to rotate to a position opposite to the outlet. The infrared laser lamp is started to irradiate in the direction of the outlet. At the same time, a voice reminder starts to launch the light source rescue plate 9, and other people take shelter. The light source rescue plate 9 descends along the optimal route of the outlet to form a guiding route. The auxiliary lighting lamp 903 provides illumination, and the enhanced nozzle 904 sprays nano-fluorescent particles or carbon nano-suspensions to reduce the influence of the fog on the light source, improve the illumination brightness of the light source, help people quickly see the light source, judge the orientation, and quickly escape.

[0076] As Figure 9As shown, when dangerous gas leaks indoors, first start the temporary protection mechanism to form a relatively safe temporary protection space for experimental personnel to take temporary shelter. Then start the waste dust recovery mechanism 7. The automatic telescopic plate 705 controls the first telescopic plate 706 to move forward a certain distance. The automatic telescopic plate 705 and the ventilation holes 105 are in opposite directions and do not affect each other. The automatic telescopic plate 705 starts to adsorb dangerous gas into the waste gas storage box 103 for storage through the first telescopic plate 706.

[0077] For those skilled in the art, it is obvious that the present invention is not limited to the details of the above exemplary embodiments, and without departing from the spirit or basic characteristics of the present invention, the present invention can be implemented in other specific forms. Therefore, from any point of view, the embodiments should be regarded as exemplary and non-restrictive. The scope of the present invention is defined by the appended claims rather than the above description. Therefore, all changes falling within the meaning and scope of the equivalent elements of the claims are intended to be included in the present invention. Any reference signs in the claims should not be construed as limiting the claims involved.

[0078] In addition, it should be understood that although this specification is described according to embodiments, not every embodiment only contains an independent technical solution. This narrative manner of the specification is only for clarity. Those skilled in the art should regard the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. An energy-saving LED lamp, comprising a base and universal wheels, characterized in that, Including: A security mechanism, including a first waste gas treatment mechanism, the first waste gas treatment mechanism including an automatic telescopic tube and a suction head, the automatic telescopic tube being connected to a vacuum pump unit; A heat dissipation mechanism, a first multi-axis rotation mechanism being installed on the upper side end face of the base, a second LED lamp being installed on one side end face of the first multi-axis rotation mechanism, the heat dissipation mechanism including a liquid cooling plate and a cooling mechanism, the cooling mechanism including a plurality of heat dissipation nozzles, the plurality of heat dissipation nozzles being located on the peripheral end faces of the second LED lamp, the heat dissipation nozzles being connected to a gas storage box, a cooling gas being stored in the gas storage box, and the gas storage box delivering the cooling gas to the heat dissipation nozzles for ejection to dissipate heat from multiple end faces of the second LED lamp; A temporary protection mechanism, including ventilation holes and a vacuum pump unit, a plurality of ventilation holes being opened on multiple end faces of the base, a gas delivery plate being connected to the end face of the base near the ventilation holes, the gas delivery plate being connected to a gas delivery pipe, and the gas delivery pipe being connected to the vacuum pump unit; A multi-light distribution mechanism, a multi-light distribution mechanism being provided on the upper side end face of the base, the multi-light distribution mechanism including an automatic lifting mechanism, an automatic turntable, a transmitter, and a emission port, a plurality of light source rescue discs being stored in the transmitter, the light source rescue discs including a main power system, auxiliary lighting lamps, and an airbag layer.

2. An energy-saving LED lamp according to claim 1, characterized in that, A first LED lamp is fixedly connected to the upper side end face of the base, a housing is installed on one side end face of the first multi-axis rotation mechanism, a second LED lamp is installed inside the housing, the heat dissipation nozzles are provided on multiple end faces of the housing, a first heat conducting rod is provided between the housing and the second LED lamp, a heat dissipation rod is connected to the bottom end face of the base, and the first heat conducting rod is connected to the heat dissipation rod.

3. The energy-saving LED lamp according to claim 2, characterized in that, The first waste gas treatment mechanism further includes a waste gas storage box, the automatic telescopic tube being connected to a first waste gas delivery pipe, the first waste gas delivery pipe being connected to a second vacuum pump, and the second vacuum pump being installed on the inner wall end face of the waste gas storage box.

4. An energy-saving LED lamp according to claim 1, characterized in that, The automatic lifting mechanism is fixedly connected to the inner wall end face of the base, the automatic lifting mechanism is fixedly connected to the automatic turntable, the top end face of the automatic turntable is connected to the transmitter, and an emission port is provided on one side end face of the transmitter.

5. An energy-saving LED lamp according to claim 4, characterized in that, A plurality of auxiliary lighting lamps are provided on the upper side end face of the main power system, a first silica gel pad is wrapped around the outer side end face of the main power system, a strengthened lighting layer is provided on the upper side end face of the main power system, a strengthening pipe is fixedly connected to the top end face of the lighting layer, a plurality of strengthening nozzles are connected to the top end face of the main power system located in the strengthened lighting layer, and nano-fluorescent particles or carbon nano-suspension liquid is filled in the inner end face of the auxiliary lighting layer.

6. An energy-saving LED lamp according to claim 5, characterized in that, An airbag layer is adhesively bonded to the bottom end face of the main power system, oxygen is filled in the airbag layer, and a puncturing assembly is installed on the bottom end face of the airbag layer.

7. An energy-saving LED lamp according to claim 6, characterized in that The puncturing component includes a button and a fixed seat. The bottom end face of the main power supply system is fixedly connected to the fixed seat. The inner end face of the fixed seat is fixedly connected with a limiting frame. A sliding bottom plate is slidably connected inside the limiting frame. One side end face of the sliding bottom plate is fixedly connected with the button, and the other side end face of the sliding bottom plate is fixedly connected with a spring. The top end face of the sliding column is fixedly connected with a plurality of thorns. The fixed seat is provided with a sliding hole matching the sliding column.

8. An energy-saving LED lamp according to claim 1 or 7, characterized in that, The temporary protection mechanism further includes a waste dust recycling mechanism. The waste dust recycling mechanism includes a second multi-axis rotating mechanism and a waste dust recycling intelligent box. One side end face of the second multi-axis rotating mechanism is fixedly connected with the waste dust recycling intelligent box. The waste dust recycling intelligent box is provided with a plurality of recycling holes. The inner end face of the waste dust recycling intelligent box is provided with a first recycling groove and a second recycling groove. The inner side end faces of the waste dust recycling intelligent box located in the first recycling groove and the second recycling groove are both connected with a first air duct. The first air duct is connected with an exhaust gas storage box. The first air duct is provided with a plurality of adsorption holes. The inner end faces of the first recycling groove and the second recycling groove are provided with heat conduction tubes, and the heat conduction tubes are connected with a first heat conduction rod.

9. An energy-saving LED lamp according to claim 8, characterized in that, The security mechanism further includes a second exhaust gas treatment mechanism. The second exhaust gas treatment mechanism includes an automatic expansion plate. The opposite end faces of the waste dust recycling intelligent box are both fixedly connected with the automatic expansion plate. The automatic expansion plate includes a first expansion plate. The first expansion plate is provided with a plurality of first air suction holes. The automatic expansion plate is connected with a second exhaust gas conveying pipe. The second exhaust gas conveying pipe is connected with a second vacuum pump. The bottom end face of the waste dust recycling intelligent box is fixedly connected with a heat conduction spray head. The upper side end face of the heat conduction spray head is connected with a blower. The heat storage box is connected with the blower. The heat conduction tube is connected with the heat storage box.

10. An energy-saving LED lamp, characterized in that, Applied to the energy-saving LED lamp according to claims 1 to 9, a lens is fixedly installed on the outer end face of the lamp.

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