High-reliability energy-saving LED illuminating lamp

Abstract

The invention relates to the technical field of LED illuminating lamps, in particular to a high-reliability energy-saving LED illuminating lamp. Comprising a mounting base, an energy-saving LED lamp, a soaking plate and two heat dissipation assemblies symmetrically arranged on the mounting base, each heat dissipation assembly comprises a dustproof net, a scraping cover, a scraping strip, a discharging unit and a collecting box, the scraping covers are started, the scraping strips are driven to move, a layer of formed dust and hair are scraped and collected into the scraping covers, finally, the scraping covers enter an extrusion bin, and the dust and the hair enter the extrusion bin. At the moment, a discharging unit pushes and discharges the collected dust and hair into an extrusion bin, then a collecting box stores the dust and hair, free drifting is avoided, and an energy-saving LED lamp is turned on in a rotating mode so that a worker can conveniently take out the hair for treatment; therefore, dust in the LED illuminating lamp can be collected and discharged in an anti-drifting mode, and the indoor environment is effectively prevented from being polluted when the dust is treated.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of LED lighting, in particular to a high-reliability energy-saving LED lighting. BACKGROUND

[0002] At present, indoor decoration usually uses a down lamp for lighting, and the down lamp is actually an LED lighting. When the LED lighting works, the internal components will generate heat. The accumulation of heat will reduce the service life of the working components, reduce the performance, and even cause damage to the components. Therefore, a ventilation and heat dissipation mechanism is usually arranged inside the LED lighting. External air is sucked through the heat dissipation fins, so that the heat dissipation fins dissipate heat and cool the core heating components of the LED lighting, so that the LED lighting operates in a safe and stable operating range, thereby improving the reliability of the LED lighting.

[0003] In the foregoing prior art, when the heat dissipation mechanism sucks external air, dust and hair in the room will inevitably be brought into the interior of the LED lighting. Long-term use will cause dust to adhere and accumulate in the heat dissipation fins and the interior of the LED lighting, causing the internal space to be blocked and affecting the heat dissipation effect. The traditional way usually relies on setting a dust screen to separate dust and hair, and is equipped with a scraping strip to be scraped regularly, so that the dust screen remains clean. However, when the scraping strip scrapes dust and hair, it will make them fly everywhere and eventually re-mix into the indoor environment, thereby polluting the indoor environment. There are obvious disadvantages in indoor environment use. SUMMARY

[0004] The purpose of the present application is to provide a high-reliability energy-saving LED lighting that solves the problem that in the prior art, when the heat dissipation mechanism sucks external air, dust and hair in the room will inevitably be brought into the interior of the LED lighting. Long-term use will cause dust to adhere and accumulate in the heat dissipation fins and the interior of the LED lighting, causing the internal space to be blocked and affecting the heat dissipation effect. The traditional way usually relies on setting a dust screen to separate dust and hair, and is equipped with a scraping strip to be scraped regularly, so that the dust screen remains clean. However, when the scraping strip scrapes dust and hair, it will make them fly everywhere and eventually re-mix into the indoor environment, thereby polluting the indoor environment. There are obvious disadvantages in indoor environment use.

[0005] Therefore, the present application provides a high-reliability energy-saving LED lighting, which comprises a mounting base, an energy-saving LED lamp, a heat spreader and two symmetrical heat dissipation assemblies arranged on the mounting base. The energy-saving LED lamp is rotatably connected to the lower part of the mounting base, and the heat spreader is arranged above the energy-saving LED lamp. The heat dissipation assembly comprises a dustproof net, a scraping cover, a scraping strip, a material discharging unit and a collecting box, the dustproof net is arranged inside the mounting base, the scraping cover is arranged on one side of the dustproof net, the scraping strip is arranged at one end of the scraping cover, the material discharging unit is arranged inside the scraping cover, the mounting base is provided with a pressing bin, and the collecting box is arranged inside the pressing bin.

[0006] The heat dissipation assembly further comprises an unlocking mechanism and a remote intelligent controller, the unlocking mechanism is arranged inside the pressing bin, and the remote intelligent controller is arranged inside the energy-saving LED lamp.

[0007] The unlocking mechanism comprises a locking block, a first electromagnet and a locking spring, the collecting box is provided with a limiting groove, the energy-saving LED lamp is provided with a groove, the locking block is in sliding connection with the groove, the first electromagnet is arranged on the inner side wall of the groove, the two ends of the locking spring are movably connected with the locking block and the inner side wall of the groove, and the locking block and the limiting groove are matched with each other.

[0008] The heat dissipation assembly further comprises a plurality of blocking rods and a scraping screw rod machine, the plurality of blocking rods are sequentially arranged on the side of the scraping cover away from the dustproof net, the scraping screw rod machine is arranged at the inner top of the energy-saving LED lamp, and the output end of the scraping screw rod machine is provided with the scraping cover.

[0009] The heat dissipation assembly further comprises two dust extruding units, and the two dust extruding units are symmetrically arranged inside the mounting base. The dust extruding unit comprises a rotating plate, an extruding cotton and an extruding rotary self-locking motor, the rotating plate is rotatably connected with the mounting base and located at the inner top of the mounting base, the extruding cotton is arranged on one side of the rotating plate, the extruding rotary self-locking motor is arranged inside the mounting base, and the output end of the extruding rotary self-locking motor is fixedly connected with the rotating plate.

[0010] The high-reliability energy-saving LED illuminating lamp further comprises a plurality of fans, two air outlets, two spring buckles and a plurality of sound-light alarms, the plurality of fans are sequentially arranged inside the mounting base, the two air outlets are arranged above the mounting base, the two spring buckles are symmetrically arranged outside the mounting base, and the plurality of sound-light alarms are sequentially arranged below the energy-saving LED lamp.

[0011] The high-reliability energy-saving LED lighting lamp also includes a rotating and unfolding self-locking motor, two second electromagnets, and a quick-release buckle. The rotating and unfolding self-locking motor is located below the mounting base, and its output end is fixedly connected to the energy-saving LED lamp. The two second electromagnets are respectively located inside the energy-saving LED lamp and the mounting base, and the quick-release buckle is located on the mounting base.

[0012] The discharge unit includes an electric push rod, a discharge plate, a discharge ramp, a discharge spring, a pressure sensor, a scraping spring, and a third electromagnet. The electric push rod is located inside the scraping cover, the discharge plate is located at the output end of the electric push rod, the discharge ramp is slidably connected to the discharge plate, the two ends of the discharge spring are movably connected to the inner wall of the discharge plate and the discharge ramp, the pressure sensor is located on one side of the scraping cover, the two ends of the scraping spring are movably connected to the scraping ramp and the inner wall of the scraping cover, and the third electromagnet is located inside the scraping cover.

[0013] The extrusion unit includes an extrusion screw, an extrusion shaped plate, and an extrusion protrusion. The extrusion screw is located inside the extrusion chamber, the extrusion shaped plate is located at the output end of the extrusion screw, and the extrusion protrusion is located inside the collection box. The extrusion protrusion and the extrusion shaped plate are mutually compatible.

[0014] The high-reliability energy-saving LED lighting lamp also includes a lifting frame, multiple lifting screw motors, and multiple heat sinks. The lifting frame is slidably connected to the interior of the mounting base. The multiple lifting screw motors are sequentially arranged inside the mounting base. The output end of the lifting screw motor is fixedly connected to the lifting frame. The multiple heat sinks are sequentially arranged inside the lifting frame. The heat spreader has multiple sockets, and one end of each of the multiple heat sinks is inserted into the corresponding socket.

[0015] This invention discloses a high-reliability energy-saving LED lighting fixture. The fixture is installed by connecting the mounting base to an opening in the ceiling. The heat generated by the energy-saving LED light is absorbed by the heat spreader. The heat dissipation assembly is then activated, drawing in air from the outside. This air, filtered through a dust filter, enters the mounting base and cools the heat spreader, ensuring stable operation and high reliability of the energy-saving LED light. Over time, dust and hair accumulate on the dust filter. The scraper is then activated, moving the scraper strip to collect the dust and hair. The scraper then enters the compression chamber, where the discharge unit pushes the collected dust and hair into the chamber. A collection box then collects the dust and hair, preventing them from scattering. Users can preset the number of compressions via a remote intelligent controller. Once the preset number of compressions is reached, sufficient dust and hair have been collected. The energy-saving LED light then rotates and unfolds, allowing staff to process the collected hair. Therefore, by setting up the scraping cover, dust and hair are prevented from scattering everywhere when scraping. At the same time, the squeezing operation is used to collect the dust and hair in the squeezing chamber and gather them into relatively compact clumps, so that they will not scatter when ejected later. After a certain amount is collected, they are processed uniformly. In the end, this application can collect and discharge dust inside LED lights in a way that prevents it from scattering, effectively preventing indoor environmental pollution when handling dust. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall structure of the high-reliability energy-saving LED lighting lamp of the present invention.

[0017] Figure 2 This is a cross-sectional view of the high-reliability energy-saving LED lighting lamp of the present invention.

[0018] Figure 3 This is the invention Figure 2 A sectional view along line AA.

[0019] Figure 4 This is the invention Figure 2 BB line section view.

[0020] Figure 5 This is the invention Figure 4 CC-line sectional view.

[0021] Figure 6 This is the invention Figure 4 Enlarged view of the local structure at point D.

[0022] Figure 7 This is the invention Figure 5Enlarged view of the local structure at point E.

[0023] Figure 8 This is an internal structural diagram of the mounting base of the present invention.

[0024] Figure 9 This is a schematic diagram of the structure of the dustproof net of the present invention.

[0025] Figure 10 This is a schematic diagram of the scraping cover of the present invention.

[0026] The markings in the diagram represent: 101-Mounting base, 102-Energy-saving LED light, 103-Heat spreader, 104-Dustproof net, 105-Scraper cover, 106-Scraper strip, 107-Collection box, 108-Extrusion chamber, 109-Insert, 110-Remote intelligent controller, 111-Locking block, 112-First electromagnet, 113-Locking spring, 114-Limit groove, 115-Groove, 116-Barrier rod, 117-Scraper screw compressor, 118-Rotating plate, 119-Extruded cotton, 120-Extrusion rotary self-locking motor 121-Fan, 122-Exhaust port, 123-Spring buckle, 124-Audible and visual alarm, 125-Rotating self-locking motor, 126-Second electromagnet, 127-Quick release buckle, 128-Electric push rod, 129-Discharge plate, 130-Discharge slant bar, 131-Discharge spring, 132-Pressure sensor, 133-Scraper spring, 134-Third electromagnet, 135-Extrusion screw, 136-Extrusion shaped plate, 137-Extrusion protrusion, 138-Lifting frame, 139-Lifting screw, 140-Heat sink. Detailed Implementation

[0027] The technical solutions of the embodiments of this application will be clearly described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this application. All other embodiments obtained by those skilled in the art based on the embodiments of this application are within the scope of protection of this application.

[0028] Please see Figures 1-10 The present invention provides a high-reliability energy-saving LED lighting lamp, including a mounting base 101, an energy-saving LED lamp 102, a heat dissipation plate 103, and two heat dissipation components symmetrically arranged on the mounting base 101. The energy-saving LED lamp 102 is rotatably connected to the lower part of the mounting base 101, and the heat dissipation plate 103 is arranged above the energy-saving LED lamp 102. The heat dissipation assembly includes a dustproof mesh 104, a scraper cover 105, a scraper bar 106, a discharge unit, and a collection box 107. The dustproof mesh 104 is disposed inside the mounting base 101, the scraper cover 105 is disposed on one side of the dustproof mesh 104, the scraper bar 106 is disposed at one end of the scraper cover 105, the discharge unit is disposed inside the scraper cover 105, the mounting base 101 has a compression chamber 108, and the collection box 107 is disposed inside the compression chamber 108.

[0029] In this embodiment, the lighting fixture is installed by aligning the mounting base 101 with an opening in the indoor ceiling. The heat generated by the energy-saving LED lamp 102 is absorbed by the heat spreader 103. At this time, the heat dissipation assembly is activated, drawing in air from the outside. The air is filtered through the dust filter 104 and then enters the mounting base 101, cooling the heat spreader 103. This ensures the stable operation of the energy-saving LED lamp 102, giving it high reliability. Over time, a layer of dust and hair accumulates on the dust filter 104. At this time, the scraper cover 105 is activated, moving the scraper strip 106. The resulting layer of dust and hair is scraped and collected inside the scraper cover 105. Finally, the scraper cover 105 enters the squeezing chamber 108. At this time, the discharge unit pushes the collected dust and hair into the squeezing chamber 108. Then, the collection box 107 collects the hair and dust to prevent the dust from scattering. The user can preset the number of squeezing times through the remote intelligent controller. When the preset number of squeezing times is reached, it means that enough dust and hair have been collected inside. At this time, the energy-saving LED light 102 rotates and unfolds, so that the squeezing chamber is located outside the mounting base 101. Then, the staff can process the hair and dust in the collection box 107.

[0030] Furthermore, the heat dissipation assembly also includes an unlocking mechanism and a remote intelligent controller 110. The unlocking mechanism is located inside the extrusion chamber, and the remote intelligent controller 110 is located inside the energy-saving LED lamp 102.

[0031] In this embodiment, the remote intelligent controller 110 is connected to the host system, which facilitates the remote setting of dust removal and dust removal operations for LED lights by staff or users.

[0032] Furthermore, the unlocking mechanism includes a locking block 111, a first electromagnet 112, and a locking spring 113. The collection box 107 has a limiting groove 114, and the energy-saving LED light 102 has a recess 115. The locking block 111 is slidably connected to the recess 115. The first electromagnet 112 is disposed on the inner sidewall of the recess 115. The two ends of the locking spring 113 are movably connected to the inner sidewall of the locking block 111 and the recess 115, respectively. The locking block 111 and the limiting groove 114 are mutually adapted.

[0033] In this embodiment, when the collection box is full of dust and hair, the first electromagnet 112 is energized. Since the locking block 111 is made of metal, it is attracted and retracted, causing it to detach from the limiting groove 114. At this time, the worker can take out the collection box 107 and process the collected hair and dust. When it is necessary to put the collection box 107 back, the energy-saving LED light 102 rotates back into the mounting base 101. At this time, the first electromagnet 112 is de-energized, and the locking spring 113 drives the locking block 111 into the limiting groove 114, thereby restoring the limiting position of the collection box 107, which facilitates reuse.

[0034] Furthermore, the heat dissipation assembly also includes a plurality of barrier rods 116 and a scraping screw motor 117. The plurality of barrier rods 116 are sequentially arranged on the side of the scraping cover 105 away from the dustproof net 104. The scraping screw motor 117 is arranged on the inner top of the energy-saving LED lamp 102, and the scraping cover 105 is provided at the output end of the scraping screw motor 117.

[0035] In this embodiment, the barrier rod 116 is used to protect the components inside the mounting base 101 and prevent workers from directly touching the internal equipment and causing damage. After the scraping screw motor 117 is started, it can drive the scraping cover 105 to move, thereby relying on the scraping cover 105 and the scraping strip 106 to collect dust and hair on the dustproof net 104.

[0036] Furthermore, the heat dissipation assembly also includes two dust extrusion units, which are symmetrically arranged inside the mounting base 101; The dust extrusion unit includes a rotating plate 118, extruded cotton 119, and an extrusion rotary self-locking motor 120. The rotating plate 118 is rotatably connected to the mounting base 101 and is located at the inner top of the mounting base 101. The extruded cotton 119 is disposed on one side of the rotating plate 118. The extrusion rotary self-locking motor 120 is disposed inside the mounting base 101, and the output end of the extrusion rotary self-locking motor 120 is fixedly connected to the rotating plate 118.

[0037] In this embodiment, before scraping the dust off the dustproof net 104, the extrusion rotary self-locking motor 120 needs to be started to drive the rotating plate 118 to rotate to one side of the dustproof net 104. At this time, the extruded cotton 119 is located between the rotating plate 118 and the dustproof net 104. The extruded cotton 119 abuts against the dustproof net 104, thereby squeezing out the dust and hair in the pores of the dustproof net 104. Then, it is scraped off by the subsequent scraping strip 106, thereby enabling the scraping strip 106 to effectively scrape off the dust and hair in the pores of the dustproof net 104.

[0038] Furthermore, the high-reliability energy-saving LED lighting lamp also includes multiple fans 121, two exhaust ports 122, two spring clips 123, and multiple audible and visual alarms 124. The multiple fans 121 are sequentially arranged inside the mounting base 101, the two exhaust ports 122 are arranged above the mounting base 101, the two spring clips 123 are symmetrically arranged outside the mounting base 101, and the multiple audible and visual alarms 124 are sequentially arranged below the energy-saving LED lamp 102.

[0039] In this embodiment, the fan 121 is activated, drawing outside air into the mounting base 101 to cool the heat spreader 103 and the heat sink 140, and finally the air is discharged from the exhaust port 122. When installing LED lights, the spring clip 123 can be adapted to the opening in the ceiling for quick installation. When dust is ejected, the audible and visual alarm 124 sounds an alarm to prevent nearby staff or users from noticing the dust clumps being ejected.

[0040] Furthermore, the high-reliability energy-saving LED lighting lamp also includes a rotary self-locking motor 125, two second electromagnets 126, and a quick-release buckle 127. The rotary self-locking motor 125 is disposed below the mounting base 101, and the output end of the rotary self-locking motor 125 is fixedly connected to the energy-saving LED lamp 102. The two second electromagnets 126 are respectively disposed inside the energy-saving LED lamp 102 and the mounting base 101. The quick-release buckle 127 is disposed on the mounting base 101.

[0041] In this embodiment, when the lump needs to be ejected, the two second electromagnets 126 are first de-energized, so that the energy-saving LED lamp 102 is no longer locked to the mounting base 101. Then, the rotary unfolding self-locking motor 125 is started, driving the energy-saving LED lamp 102 to rotate and unfold. In addition, when the energy-saving LED lamp 102 is docked with the mounting base 101, the quick-release buckle 127 enters the interior of the energy-saving LED lamp 102 to achieve quick positioning, and then is locked by the second electromagnets 126. Finally, the rotary unfolding self-locking motor 125 self-locks, thereby fully ensuring the stability of the energy-saving LED lamp 102.

[0042] Furthermore, the discharge unit includes an electric push rod 128, a discharge plate 129, a discharge ramp 130, a discharge spring 131, a pressure sensor 132, a scraping spring 133, and a third electromagnet 134. The electric push rod 128 is disposed inside the scraping cover 105, the discharge plate 129 is disposed at the output end of the electric push rod 128, the discharge ramp 130 is slidably connected to the discharge plate 129, the two ends of the discharge spring 131 are movably connected to the inner wall of the discharge plate 129 and the discharge ramp 130, respectively, the pressure sensor 132 is disposed on one side of the scraping cover 105, the two ends of the scraping spring 133 are movably connected to the scraping bar 106 and the inner wall of the scraping cover 105, respectively, and the third electromagnet 134 is disposed inside the scraping cover 105.

[0043] In this embodiment, when the scraping bar 106 scrapes away dust and hair, the scraping spring 133 provides a supporting force for the scraping bar 106, allowing it to abut against one side of the dustproof net 104, thus improving the scraping effect. After the scraping bar 106 finishes scraping, it is located inside the extrusion chamber 108. At this time, the third electromagnet 134 is activated, causing the scraping bar 106 to retract into the scraping cover 105. Simultaneously, due to the tight fit between the scraping bar 106 and the scraping cover 105, the dust and hair attached to the scraping bar 106 are expelled. At this time, the electric push rod 128 is activated, causing the discharge plate 129 to move. The discharge inclined bar 130, through the action of the discharge spring 131, is always in contact with the scraping bar. The inner wall of the rotating cover 105 abuts against the dust and hair, pushing the collected dust and hair into the squeezing chamber 108. Simultaneously, if the scraper bar 106 does not retract, the discharge ramp 130 can also move forward a certain distance under the action of the discharge spring 131, continuously abutting against the scraper bar 106 and discharging all the dust and hair from it. During retraction, the inclined surface of the discharge ramp 130 allows it to retract freely between the scraper bar 106 and the scraper cover 105. Furthermore, when the scraper cover 105 enters the squeezing chamber 108, the pressure sensor 132 will contact the inner wall of the squeezing chamber 108, generating a numerical change. This indicates that the scraper cover 105 is now in the discharge area, ready for dust and hair discharge.

[0044] Furthermore, the extrusion unit includes an extrusion screw 135, an extrusion shaped plate 136, and an extrusion protrusion 137. The extrusion screw 135 is disposed inside the extrusion chamber 108, the extrusion shaped plate 136 is disposed at the output end of the extrusion screw 135, and the extrusion protrusion 137 is disposed inside the collection box 107. The extrusion protrusion 137 and the extrusion shaped plate 136 are mutually adapted.

[0045] In this embodiment, when the dust and hair inside the scraper cover 105 are pushed, the extrusion screw 135 starts, driving the extrusion shaped plate 136 to move downward. One end of the extrusion shaped plate 136 is aligned with the discharge plate 129 which has extended to its limit position. As the extrusion shaped plate 136 moves downward, the dust and hair pushed out by the discharge plate 129 are pressed into the inner bottom wall of the extrusion chamber 108, that is, inside the collection box 107. In addition, the irregular shape of the extrusion shaped plate 136 can play a role in wrapping and protecting, preventing the pressed dust and hair from scattering everywhere. At the same time, due to the irregular shape, there will be gaps when the hair is pressed. Therefore, the extrusion protrusion 137 is used to fill the gaps and improve the extrusion effect.

[0046] Furthermore, the high-reliability energy-saving LED lighting lamp also includes a lifting frame 138, multiple lifting screw motors 139, and multiple heat sinks 140. The lifting frame 138 is slidably connected to the interior of the mounting base 101. The multiple lifting screw motors 139 are sequentially arranged inside the mounting base 101, and the output end of the lifting screw motor 139 is fixedly connected to the lifting frame 138. The multiple heat sinks 140 are sequentially arranged inside the lifting frame 138. The heat spreader 103 has multiple sockets 109, and one end of each of the multiple heat sinks 140 is inserted into the corresponding socket 109.

[0047] In this embodiment, since the heat spreader 103 is mounted on the energy-saving LED lamp 102, the heat spreader 103 will move when the energy-saving LED lamp 102 is unfolded, which may cause it to conflict with the heat sink 140. Therefore, before the energy-saving LED lamp 102 is unfolded, the lifting screw motor 139 needs to be started to move the lifting frame 138 upward, so that the heat sink 140 is disengaged from the socket 109, and then the energy-saving LED lamp 102 can be unfolded.

[0048] When using the high-reliability energy-saving LED lighting lamp of this application, the installation of the lighting lamp is completed by connecting the mounting base 101 with the opening in the indoor ceiling. The heat generated by the energy-saving LED lamp 102 is absorbed by the heat spreader 103. At this time, the fan 121 is started, and the air enters the interior of the mounting base 101 after being filtered by the dustproof net 104, cooling the heat spreader 103, thereby ensuring the stable operation of the energy-saving LED lamp 102 and making it highly reliable. As the usage time accumulates, a layer of dust and hair will form on the dustproof net 104. At this time, the scraper cover 105 is activated, which drives the scraper strip 106 to move, scraping and collecting the layer of dust and hair into the scraper cover 105. Finally, the scraper cover 105 enters the extrusion chamber 108, and the pressure sensor 132 will come into contact with the inner wall of the extrusion chamber 108. This generates a numerical change, indicating that the scraper cover 105 is now in the discharge area, ready for dust and hair discharge. At this time, the third electromagnet 134 is activated, causing the scraper bar 106 to retract into the scraper cover 105. Simultaneously, due to the tight fit between the scraper bar 106 and the scraper cover 105, the dust and hair attached to the scraper bar 106 are scraped off. Then, the electric push rod 128 is activated, moving the discharge plate 129. The discharge inclined bar 130, under the action of the discharge spring 131, remains against the inner wall of the scraper cover 105, pushing the collected dust and hair into the extrusion chamber 108. If the scraper bar 106 does not retract, the discharge inclined bar 130 can also move forward a distance under the action of the discharge spring 131, continuously resisting the scraper bar 106 and discharging all the dust and hair from it.

[0049] After the dust and hair inside the scraper cover 105 are pushed out, the extrusion screw 135 starts, driving the extrusion shaped plate 136 to move downwards. One end of the extrusion shaped plate 136 is aligned with the discharge plate 129 extending to its limit position. As the extrusion shaped plate 136 moves downwards, the dust and hair pushed out by the discharge plate 129 are pressed into the inner bottom wall of the extrusion chamber 108, i.e., inside the collection box 107. In addition, the irregular shape of the extrusion shaped plate 136 can play a role in wrapping and protecting, preventing the pressed dust and hair from scattering everywhere. At the same time, due to the irregular shape, there will be gaps when the hair is compressed. Therefore, the extrusion protrusions 137 are used to fill the gaps, improve the extrusion effect, reduce the volume of dust and hair, and prevent them from scattering randomly. In addition, the number of extrusions can be preset remotely. After a preset number of squeezes, indicating that enough dust and hair have been collected, the energy-saving LED light 102 rotates and unfolds, placing the collection box 107 outside the mounting base 101. Then, the first electromagnet 112 is energized. Since the locking block 111 is made of metal, it is attracted and retracted, causing it to disengage from the limiting groove 114. At this point, the worker can remove the collection box 107 and process the collected hair and dust. When it is necessary to put the collection box 107 back, the energy-saving LED light 102 rotates back into the mounting base 101. At this point, the first electromagnet 112 is de-energized, and the locking spring 113 drives the locking block 111 into the limiting groove 114, restoring the limiting position of the collection box 107, thus facilitating reuse.

[0050] With the above structural design, the scraping cover 105 protects the scraping area, preventing dust and hair from scattering during scraping. Simultaneously, a squeezing operation collects the dust and hair in the squeezing chamber 108, forming a relatively compact mass to prevent scattering during subsequent ejection. Once a certain amount is collected, the collection box 107 is removed for unified processing. Ultimately, this application enables the anti-scattering collection and discharge of dust inside LED lights, effectively preventing indoor environmental pollution during dust handling.

[0051] The embodiments of this application have been described above with reference to the accompanying drawings. Unless otherwise specified, the embodiments and features in the embodiments of this application can be combined with each other. This application is not limited to the specific embodiments described above. The specific embodiments described above are merely illustrative and not restrictive. Those skilled in the art can make many other forms under the guidance of this application without departing from the spirit and scope of the claims, and all of these forms are within the protection scope of this application.

Claims

1. A high-reliability energy-saving LED lighting lamp, comprising a mounting base (101), an energy-saving LED lamp (102), and a heat spreader (103), wherein the energy-saving LED lamp (102) is rotatably connected to the lower part of the mounting base (101), and the heat spreader (103) is disposed above the energy-saving LED lamp (102), characterized in that, It also includes two heat dissipation components symmetrically arranged on the mounting base (101); The heat dissipation assembly includes a dustproof mesh (104), a scraper cover (105), a scraper strip (106), a discharge unit, and a collection box. The dustproof mesh (104) is disposed inside the mounting base (101), the scraper cover (105) is disposed on one side of the dustproof mesh (104), the scraper strip (106) is disposed at one end of the scraper cover (105), the discharge unit is disposed inside the scraper cover (105), the mounting base (101) has a compression chamber (108), and the collection box (107) is disposed inside the compression chamber (108).

2. The high-reliability energy-saving LED lighting lamp as described in claim 1, characterized in that, The heat dissipation assembly also includes an unlocking mechanism and a remote intelligent controller (110). The unlocking mechanism is located inside the extrusion chamber, and the remote intelligent controller (110) is located inside the energy-saving LED lamp (102).

3. The high-reliability energy-saving LED lighting lamp as described in claim 2, characterized in that, The unlocking mechanism includes a locking block (111), a first electromagnet (112), and a locking spring (113). The collection box has a limiting groove (114), and the energy-saving LED lamp (102) has a groove (115). The locking block (111) is slidably connected to the groove (115). The first electromagnet (112) is disposed on the inner sidewall of the groove (115). The two ends of the locking spring (113) are movably connected to the inner sidewall of the locking block (111) and the groove (115), respectively. The locking block (111) and the limiting groove (114) are mutually adapted.

4. The high-reliability energy-saving LED lighting lamp as described in claim 3, characterized in that, The heat dissipation assembly also includes multiple barrier rods (116) and a scraper screw motor (117). The multiple barrier rods (116) are arranged sequentially on the side of the scraper cover (105) away from the dustproof net (104). The scraper screw motor (117) is arranged on the inner top of the energy-saving LED lamp (102). The scraper cover (105) is provided at the output end of the scraper screw motor (117).

5. The high-reliability energy-saving LED lighting lamp as described in claim 4, characterized in that, The heat dissipation assembly also includes two dust extrusion units, which are symmetrically arranged inside the mounting base (101); The dust extrusion unit includes a rotating plate (118), extruded cotton (119), and an extrusion rotary self-locking motor (120). The rotating plate (118) is rotatably connected to the mounting base (101) and is located at the inner top of the mounting base (101). The extruded cotton (119) is disposed on one side of the rotating plate (118). The extrusion rotary self-locking motor (120) is disposed inside the mounting base (101). The output end of the extrusion rotary self-locking motor (120) is fixedly connected to the rotating plate (118).

6. The high-reliability energy-saving LED lighting lamp as described in claim 5, characterized in that, The high-reliability energy-saving LED lighting lamp also includes multiple fans (121), two exhaust ports (122), two spring clips (123), and multiple audible and visual alarms (124). The multiple fans (121) are arranged sequentially inside the mounting base (101), the two exhaust ports (122) are arranged above the mounting base (101), the two spring clips (123) are symmetrically arranged outside the mounting base (101), and the multiple audible and visual alarms (124) are arranged sequentially below the energy-saving LED lamp (102).

7. The high-reliability energy-saving LED lighting lamp as described in claim 6, characterized in that, The high-reliability energy-saving LED lighting lamp also includes a rotating self-locking motor (125), two second electromagnets (126), and a quick-release buckle (127). The rotating self-locking motor (125) is located below the mounting base (101). The output end of the rotating self-locking motor (125) is fixedly connected to the energy-saving LED lamp (102). The two second electromagnets (126) are respectively located inside the energy-saving LED lamp (102) and the mounting base (101). The quick-release buckle (127) is located on the mounting base (101).

8. The high-reliability energy-saving LED lighting lamp as described in claim 7, characterized in that, The discharge unit includes an electric push rod (128), a discharge plate (129), a discharge ramp (130), a discharge spring (131), a pressure sensor (132), a scraper spring (133), and a third electromagnet (134). The electric push rod (128) is located inside the scraper cover (105), and the discharge plate (129) is located at the output end of the electric push rod (128). The discharge ramp (130) and the discharge plate (129) are connected. The material discharge spring (131) is movably connected to the inner wall of the material discharge plate (129) and the material discharge inclined bar (130) respectively. The pressure sensor (132) is located on one side of the scraper cover (105). The scraper spring (133) is movably connected to the scraper bar (106) and the inner wall of the scraper cover (105) respectively. The third electromagnet (134) is located inside the scraper cover (105).

9. The high-reliability energy-saving LED lighting lamp as described in claim 8, characterized in that, The extrusion unit includes an extrusion screw (135), an extrusion shaped plate (136), and an extrusion protrusion (137). The extrusion screw (135) is located inside the extrusion chamber (108). The extrusion shaped plate (136) is located at the output end of the extrusion screw (135). The extrusion protrusion (137) is located inside the collection box (107). The extrusion protrusion (137) and the extrusion shaped plate (136) are mutually compatible.

10. The high-reliability energy-saving LED lighting lamp as described in claim 9, characterized in that, The high-reliability energy-saving LED lighting lamp also includes a lifting frame (138), multiple lifting screw motors (139), and multiple heat sinks (140). The lifting frame (138) is slidably connected to the interior of the mounting base (101). The multiple lifting screw motors (139) are sequentially arranged inside the mounting base (101). The output end of the lifting screw motor (139) is fixedly connected to the lifting frame (138). The multiple heat sinks (140) are sequentially arranged inside the lifting frame (138). The heat spreader (103) has multiple sockets (109). One end of each of the multiple heat sinks (140) is inserted into the corresponding socket (109).

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