Energy-saving LED lamp convenient to adjust

Abstract

The application discloses a kind of energy-saving LED lamps of being adjusted easily, belong to LED lamp technical field, including bearing seat, the metal shaped soft pole of fixedly connected with bearing seat is fixedly connected with bearing box at the end of metal shaped soft pole away from bearing seat, the inside of bearing box is fixedly connected with circulating diffuse reflection heat dissipation box, the inside of circulating diffuse reflection heat dissipation box is respectively opened with adsorption heat dissipation chamber and cooling chamber, cooling water inside cooling chamber with lower temperature is retransported to the inside of adsorption heat dissipation chamber, and cooling water inside adsorption heat dissipation chamber with higher temperature is transported to the inside of cooling chamber and is temporarily stored cooling, after cooling water with higher temperature enters the inside of cooling chamber, can be temporarily stored cooling away from LED lamp pearl, reduce the contact with LED lamp pearl and produce heat, by the cold and hot alternation of cooling water, realize the circulation use of cooling water, further increase the heat dissipation effect of cooling water to LED lamp pearl.

Description

Technical Field

[0001] The present invention relates to the technical field of LED lamps, and in particular to an energy-saving LED lamp that is easy to adjust. Background Art

[0002] With the intensification of the global energy crisis and rising environmental awareness, energy-saving lighting technology has become a key development direction for the lighting industry. As a new lighting source, LED (light-emitting diode) lamps, with their advantages of high efficiency, energy saving, long life, and environmental friendliness, have gradually replaced traditional incandescent and fluorescent lamps and become the mainstream product in the lighting market. However, as people's demands for quality of life continue to rise, they also place higher demands on the functionality and convenience of LED lamps.

[0003] Especially in lighting devices that need to be used independently, the demand for adjustment is higher and the conditions of use are higher. In the process of continuous searching and exploration, we learned that the patent name is a highly adjustable, foldable anti-dizziness piano lamp, and the patent with the publication number: CN202110266903.4. The patent proposes that most existing desk lamps cannot solve the problem of overheating of desk lamps caused by long study or work hours. Long-term overload use has greatly shortened the service life of the desk lamp. There is a lack of heat dissipation device, and the brightness of the LDE lamp is too high. When it is directly shone into the eyes, it will cause stinging and dizziness. The problems raised coincide with the problems we have encountered in independent lighting devices that have been used for a long time. A large amount of heat will be emitted through the LED lamp. The heat will first be transferred to the heat dissipation bin. The water in the heat dissipation bin is heated and expanded, which increases the water pressure in the heat dissipation bin. At this time The water in the heat dissipation chamber will generate pressure on the first raft plate, and the first raft plate will flip toward the first circulation chamber under pressure. At this time, the first circulation chamber is connected with the heat dissipation chamber, so that the hot water in the heat dissipation chamber flows into the first circulation chamber, the water pressure in the first circulation chamber increases, and flows toward the second circulation chamber. The water pressure in the second circulation chamber will also increase, and prompt the second raft plate to flip toward the heat dissipation chamber, so that the second circulation chamber is connected with the heat dissipation chamber, and the water with lower temperature in the second circulation chamber flows into the heat dissipation chamber and cools the LED lamp, thus forming a circulation effect, achieving the effect of effectively reducing the internal temperature of the LED lamp. However, during the test, we found that the water circulation cooling of the LED lamp was not stable, the overall space was reduced, the water circulation space was small, and the hotter water was circulated to the heat source position before it was sufficiently cooled during the circulation process, and the overall heat dissipation capacity was poor. For this reason, an energy-saving LED lamp that is easy to adjust is proposed. Summary of the Invention

[0004] The object of the present invention is to provide an energy-saving LED lamp that is easy to adjust, so as to solve the problems raised in the above background technology.

[0005] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: an energy-saving LED lamp that is easy to adjust, comprising a supporting seat, the supporting seat being fixedly connected to a metal shaped soft rod, the metal shaped soft rod being fixedly connected to a supporting box at one end away from the supporting seat, the interior of the supporting box being fixedly connected to a circulating diffuse reflection heat dissipation box, the interior of the circulating diffuse reflection heat dissipation box being respectively provided with an adsorption heat dissipation chamber and a cooling chamber, the exterior of the circulating diffuse reflection heat dissipation box being provided with a light-transmitting groove, the side wall of the light-transmitting groove being provided with a plurality of LED lamp beads, the interior of the circulating diffuse reflection heat dissipation box being provided with an upper water supply channel, the water inlet end of the upper water supply channel being connected to the adsorption heat dissipation chamber, the water outlet end of the upper water supply channel being connected to the cooling chamber, an upper one-way valve plate being fixedly connected at the water inlet end of the upper water supply channel, a plurality of flow pipes being connected between the cooling chamber and the adsorption heat dissipation chamber, and lower one-way valve plates being installed inside the plurality of flow pipes.

[0006] Preferably, the inner wall surface of the cooling chamber and the upper water supply channel are integrally formed with an inner layer extrusion bag, and a miniature bidirectional air pump is fixedly connected to the circulating diffuse reflection heat dissipation box, and the air outlet of the miniature bidirectional air pump is connected to a diversion box, and the outside of the diversion box is connected to three miniature electric control valves, and the air outlet of one of the miniature electric control valves is connected to a first air supply hose, and the end of the first air supply hose away from the diversion box passes through the inner wall surface of the circulating diffuse reflection heat dissipation box and is connected to the inner layer extrusion bag.

[0007] Preferably, the outer wall of the circulating diffuse reflection heat dissipation box is integrally formed with two soft reflective connecting layers, and the two soft reflective connecting layers are used to cut off the outer wall surface of the circulating diffuse reflection heat dissipation box to form a diffuse reflection area. The inner wall surface of the upper water supply channel is fixedly connected to two secondary propulsion airbags, and the side of the secondary propulsion airbag away from the circulating diffuse reflection heat dissipation box is fixedly connected to the side of the animated reflective area away from the LED lamp beads. The air outlets of the other two micro-electrically controlled valves are connected to a second air supply hose, and the ends of the two second air supply hoses away from the micro-electrically controlled valves are respectively connected to the two secondary propulsion airbags, and two through-slots are provided on the outside of the inner layer extrusion bag, and the secondary propulsion airbag is located inside the through-slots.

[0008] Preferably, a plurality of air outlet holes are provided on the outside of the inner extrusion bag, and the air outlet holes are square in shape. An electromagnet is fixedly connected to one side of the hole wall of the air outlet hole, and a strong magnet is fixedly connected to the other side of the hole wall of the air outlet hole.

[0009] Preferably, a plurality of movable slots are provided inside the electromagnet, a plurality of guide rods are fixedly connected to the outside of the strong magnet, and the guide rods are slidably connected to the inside of the movable slots.

[0010] Preferably, the inner bottom wall of the adsorption and heat dissipation chamber is fixedly connected with a first-stage push airbag, and the top of the first-stage push airbag is fixedly connected with an upper push plate.

[0011] Preferably, a water hole is opened on the outside of the upper push plate, and a water-repelling one-way valve is installed inside the water hole.

[0012] Preferably, the bottom of the bearing seat is rotatably connected to the base via a rotating shaft.

[0013] Preferably, a plurality of suction cups are installed on the bottom of the base.

[0014] Preferably, rubber sealing plates are clamped on both sides of the carrying box and the circulating diffuse reflection heat dissipation box.

[0015] Compared with the prior art, the present invention has the following beneficial effects:

[0016] In the present invention, an adsorption heat dissipation chamber and a cooling chamber are set during the cooling water circulation process. The adsorption heat dissipation chamber is used to receive the heat generated by the LED lamp beads, and cool the LED lamp beads through the cooling water inside. When the temperature generated by the LED lamp beads gradually causes the cooling water inside the adsorption heat dissipation chamber to expand and gradually enter the cooling chamber, the cooling water can be replaced, and the cooling water with a lower temperature inside the cooling chamber is re-transported to the inside of the adsorption heat dissipation chamber, and the cooling water with a higher temperature inside the adsorption heat dissipation chamber is transported to the inside of the cooling chamber for temporary storage and cooling. After the cooling water with a higher temperature enters the cooling chamber, it can be temporarily cooled away from the LED lamp beads, reducing contact with the heat generated by the LED lamp beads. The cooling water is circulated by alternating hot and cold cooling water, further increasing the heat dissipation effect of the cooling water on the LED lamp beads. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 Schematic diagram of the structure of an embodiment of the present invention;

[0018] Figure 2 Schematic diagram of the structure of the suction cup and the light-transmitting groove in an embodiment of the present invention;

[0019] Figure 3 Schematic diagram of the structure of the cooling chamber and the adsorption and heat dissipation chamber in an embodiment of the present invention;

[0020] Figure 4 This is a schematic structural diagram of the inner layer extrusion bladder in an expanded state according to an embodiment of the present invention;

[0021] Figure 5 This is a schematic structural diagram of a single two-stage propulsion airbag in an expanded state according to an embodiment of the present invention;

[0022] Figure 6Schematic diagram of the three-dimensional structure of the micro bidirectional air pump and the diverter box in an embodiment of the present invention;

[0023] Figure 7 For the embodiment of the present invention Figure 4 Schematic diagram of the enlarged structure of area A;

[0024] Figure 8 This is a schematic structural diagram of a slot insertion device according to an embodiment of the present invention;

[0025] Figure 9 Schematic diagram of the structure of the inner layer extrusion bag and the air outlet in an embodiment of the present invention;

[0026] Figure 10 Schematic diagram of the structure of the movable slot and the guide rod in an embodiment of the present invention;

[0027] Figure 11 For the embodiment of the present invention Figure 9 Schematic diagram of the enlarged structure of area B.

[0028] In the figure: 100, base; 101, bearing seat; 102, metal shaped soft rod; 103, bearing box; 104, circulating diffuse reflection heat dissipation box; 105, light-transmitting groove; 106, LED lamp beads; 107, cooling chamber; 108, adsorption heat dissipation chamber; 109, flow tube; 110, upper one-way valve; 111, lower one-way valve; 200, inner layer extrusion capsule; 201, micro two-way air pump; 202, diverter box; 203, first output Air hose; 204, micro electric control valve; 205, second air supply hose; 206, secondary propulsion airbag; 207, soft reflective connecting layer; 208, through-slot; 300, primary propulsion airbag; 301, upper propulsion plate; 302, water hole; 303, top water one-way valve; 400, air outlet; 401, strong magnet; 402, electromagnet; 500, movable slot; 501, guide rod; 600, suction cup; 700, rubber sealing plate. DETAILED DESCRIPTION

[0029] 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.

[0030] Example 1: Figure 1As shown, the present application discloses an energy-saving LED lamp that is easy to adjust, including a supporting base 101, a metal shaped soft rod 102 fixedly connected to the supporting base 101, a supporting box 103 fixedly connected to the end of the metal shaped soft rod 102 away from the supporting base 101, a circulating diffuse reflection heat dissipation box 104 fixedly connected to the interior of the supporting box 103, an adsorption heat dissipation chamber 108 and a cooling chamber 107 are respectively provided in the interior of the circulating diffuse reflection heat dissipation box 104, and a light-transmitting groove 105 is provided on the outside of the circulating diffuse reflection heat dissipation box 104. A plurality of LED lamp beads 106 are installed on the side wall of the light-transmitting groove 105, and an upper water supply channel is opened inside the circulating diffuse reflection heat dissipation box 104. The water inlet end of the upper water supply channel is connected to the adsorption heat dissipation chamber 108, and the water outlet end of the upper water supply channel is connected to the cooling chamber 107. An upper one-way valve plate 110 is fixedly connected to the water inlet end of the upper water supply channel. A plurality of flow pipes 109 are connected between the cooling chamber 107 and the adsorption heat dissipation chamber 108, and a lower one-way valve plate 111 is installed inside the plurality of flow pipes 109.

[0031] Specifically, during use, the user can adjust the position and direction of the carrier box 103 by bending the metal shaped soft rod 102. The metal shaped soft rod 102 is hollow inside, and the conductive cables and the like pass through the inside of the metal shaped soft rod 102. When the LED lamp bead 106 is continuously turned on, the LED lamp bead 106 will continue to emit light, and a certain amount of heat will be generated in the process of continuously emitting light. As the on time continues to extend, the heat emitted by the LED lamp bead 106 will gradually increase. In the process of gradually increasing the heat, the cooling water inside the adsorption heat dissipation chamber 108 will be gradually heated, and the cooling water inside the adsorption heat dissipation chamber 108 will be gradually heated. As the cooling water is gradually heated, the internal air will gradually expand after being heated, and the gradual expansion will push the cooling water upward. During the upward movement of the cooling water, the cooling water will gradually push open the upper one-way valve plate 110 and gradually enter the upper water supply channel. After the cooling water gradually enters the upper cooling channel, the cooling water will gradually enter the cooling chamber 107 due to gravity. After the cooling water gradually enters the cooling chamber 107, the heated cooling water will meet the original cooling water, thereby forming a phenomenon of alternating hot and cold, reducing the temperature of the cooling water flowing out of the adsorption heat dissipation chamber 108, and as the temperature gradually rises, the cooling water will be cooled by the upper water supply channel. The amount of cooling water entering the cooling chamber 107 through the channel gradually increases. When the amount of cooling water in the cooling chamber 107 gradually increases, the lower one-way valve plate 111 will be gradually pushed open and the cooling water will enter the adsorption heat dissipation chamber 108 through multiple flow pipes 109. As a result, the cooling water entering the adsorption heat dissipation chamber 108 from the cooling chamber 107 is at a lower temperature because it is far away from the adsorption heat dissipation chamber 108, and the cooling water of some temperature angles is stored in the cooling chamber 107. Therefore, when the cooling water in the cooling chamber 107 enters the adsorption heat dissipation chamber 108, the cooling water in the adsorption heat dissipation chamber 108 can be alternately cooled. The temperature of the cooling water inside the adsorption heat dissipation chamber 108 is lowered in one step. By lowering the temperature of the cooling water inside the adsorption heat dissipation chamber 108, the LED lamp beads 106 are cooled to achieve a good heat dissipation effect. The setting of the cooling chamber 107 can enable the cooling water to be alternately stored inside the cooling chamber 107 during the circulation process, so that the cooling water can be circulated after the temperature is lowered after cooling for a certain period of time. As a whole, the cooling water can be cooled to a certain extent before being circulated, thereby increasing its heat dissipation effect and avoiding the phenomenon that the cooling water is still circulated quickly after the temperature is not cooled enough, resulting in insufficient cooling and heat dissipation of the LED lamp beads 106.

[0032] like Figure 1 and Figure 2 As shown, rubber sealing plates 700 are clamped on both sides of the carrying box 103 and the circulating diffuse reflection heat dissipation box 104 .

[0033] Specifically, the supporting box 103 with openings at both ends and the circulating diffuse reflection heat dissipation box 104 can be sealed by setting the rubber sealing plate 700, and the rubber sealing plate 700 is made of partially transparent material, so the internal water flow can be observed from the outside, which makes it convenient for the staff to open the rubber sealing plate 700 and then replenish the cooling water inside the circulating diffuse reflection heat dissipation box 104.

[0034] like Figure 1 and Figure 2 As shown, the bottom of the supporting seat 101 is rotatably connected to the base 100 via a rotating shaft, and a plurality of suction cups 600 are installed on the bottom of the base 100.

[0035] Specifically, the setting of the base 100 makes it convenient for the user to rotate the supporting seat 101, thereby driving the overall rotation direction of the metal shaped soft rod 102 and the supporting box 103, and the setting of the suction cup 600 can adsorb the placement table to ensure the placement stability of the base 100 and the supporting seat 101.

[0036] like Figure 3-Figure 6 As shown, the inner bottom wall of the adsorption and heat dissipation chamber 108 is fixedly connected to a first-stage push airbag 300, and the top of the first-stage push airbag 300 is fixedly connected to an upper push plate 301. A water hole 302 is opened on the outside of the upper push plate 301, and a top water one-way valve plate 303 is installed inside the water hole 302.

[0037] Specifically, during use, the air is stored inside the first-stage push airbag 300. When the heat generated by the LED lamp beads 106 is gradually received inside the adsorption heat dissipation chamber 108, the air inside the first-stage push airbag 300 will also expand. When the first-stage push airbag 300 also expands, it will drive the upper push plate 301 to move upward. In the process of the upper push plate 301 moving upward, it will push the water flow inside the adsorption heat dissipation chamber 108 to move upward and gradually push the cooling water with a higher temperature inside the adsorption heat dissipation chamber 108 into the upper water supply. In the channel, the auxiliary water flow enters the upper water supply channel, and after the cooling water with a lower temperature inside the cooling chamber 107 is transported to the adsorption heat dissipation chamber 108 inside the circulation pipe 109, the cooling water with a lower temperature will first contact the first-stage propulsion airbag 300, thereby cooling the air inside the first-stage propulsion airbag 300. After being cooled by the cooling water with a lower temperature, the air inside the first-stage propulsion airbag 300 will no longer expand, and will shrink to a certain extent, thereby bringing the upper propulsion plate 301 back to its original position.

[0038] Furthermore, in order to avoid the circulation pipe 109 from being blocked by the upper push plate 301 when it transports the cooling water with lower temperature to the interior of the adsorption and heat dissipation chamber 108, a plurality of water holes 302 are opened on the outside of the upper push plate 301. The water flow transported through the circulation pipe 109 will pass through the water holes 302 and enter the interior of the adsorption and heat dissipation chamber 108, and in the process of the upper push plate 301 moving upward, the water-pushing one-way valve plate 303 will block the channel of the water hole 302, thereby avoiding the situation where the water flow again passes through the water hole 302 and falls to the bottom in the process of the upper push plate 301 pushing the water flow upward.

[0039] The technical solution in the above-mentioned embodiment of the present application has at least the following technical effects or advantages: Compared with the prior art, in this embodiment, by providing an adsorption heat dissipation chamber 108 and a cooling chamber 107 during the cooling water circulation process, the adsorption heat dissipation chamber 108 is used to receive the heat generated by the LED lamp beads 106 and cool the LED lamp beads 106 through the cooling water inside. When the temperature generated by the LED lamp beads 106 gradually causes the cooling water inside the adsorption heat dissipation chamber 108 to expand and gradually enter the cooling chamber 107, the cooling water can be replaced, and the cooling water with a lower temperature inside the cooling chamber 107 is re-transported to the interior of the adsorption heat dissipation chamber 108, while the cooling water with a higher temperature inside the adsorption heat dissipation chamber 108 is transported to the interior of the cooling chamber 107 for temporary storage and cooling. After the cooling water with a higher temperature enters the cooling chamber 107, it can be temporarily cooled away from the LED lamp beads 106, reducing contact with the heat generated by the LED lamp beads 106. The cooling water is circulated by alternating hot and cold cooling water, further increasing the heat dissipation effect of the cooling water on the LED lamp beads 106.

[0040] Embodiment 2: Considering that the cooling water circulation inside the circulating diffuse reflection heat dissipation box 104 is not stable during use, and the gas inside the circulating diffuse reflection heat dissipation box 104 may leak during long-term use, when the amount of gas inside the circulating diffuse reflection heat dissipation box 104 is small, the heated gas expands less and cannot push the cooling water to complete a full circulation. Moreover, because the presence of the cooling chamber 107 expands the water storage space, when the amount of gas is small and the driving force of the cooling water is poor, the water flow inside the cooling chamber 107 may not be able to fully enter the adsorption heat dissipation chamber 108 to cool the LED lamp beads 106. In response to the above technical problems, the present application proposes the following technical solutions to solve the above technical problems, specifically:

[0041] like Figure 2 and Figure 3As shown, the cooling chamber 107 and the inner wall surface of the upper water supply channel are integrally formed with an inner layer extrusion bag 200, and a micro bidirectional air pump 201 is fixedly connected to the circulating diffuse reflection heat dissipation box 104, and the air outlet of the micro bidirectional air pump 201 is connected to the diverter box 202, and the outside of the diverter box 202 is connected to three micro electric control valves 204, and the air outlet of one micro electric control valve 204 is connected to the first air supply hose 203, and the end of the first air supply hose 203 away from the diverter box 202 passes through the inner wall surface of the circulating diffuse reflection heat dissipation box 104 and is connected to the inner layer extrusion bag 200.

[0042] Specifically, during use, when the temperature generated by the LED lamp bead 106 is too high and the cooling water inside the adsorption heat dissipation chamber 108 cannot be circulated in time, the micro bidirectional air pump 201 is turned on at a fixed time to continuously deliver gas to the inside of the diversion box 202. When continuously delivering gas to the inside of the diversion box 202, a micro electric control valve 204 can also be opened to deliver gas to the inside of the first gas hose 203 connected to the inner layer extrusion bag 200. When continuously delivering gas to the inside of the first gas hose 203, the first gas hose 203 will continuously deliver gas to the inside of the inner layer extrusion bag 200. When gas continues to enter the inner layer extrusion bag 200, the inner layer extrusion bag 200 will expand. When the inner layer extrusion bag 200 expands, the expanded inner layer extrusion bag 200 00 The water flow inside the upper water supply channel and the cooling chamber 107 can be gradually squeezed into the interior of the circulation pipe 109, and the cooling water inside the cooling chamber 107 can be squeezed into the interior of the adsorption heat dissipation chamber 108 through the circulation pipe 109, thereby realizing active replacement of cooling water. By forcibly squeezing the cooling water inside the cooling chamber 107 into the interior of the adsorption heat dissipation chamber 108, after replacing the cooling water inside the adsorption heat dissipation chamber 108, the replaced cooling water is used to cool and dissipate heat for the LED lamp beads 106. After the water flow inside the adsorption heat dissipation chamber 108 is replaced, the cooling water with a lower temperature squeezed into the adsorption heat dissipation chamber 108 will push the cooling water with a higher temperature upward into the upper supply channel, and transport it to the interior of the cooling chamber 107 for temporary storage and cooling, thereby realizing active replacement of cooling water as a whole.

[0043] like Figure 5-Figure 6As shown, the outer wall of the circulating diffuse reflection heat dissipation box 104 is integrally formed with two soft reflective connecting layers 207, and the two soft reflective connecting layers 207 are used to cut off the outer wall surface of the circulating diffuse reflection heat dissipation box 104 to form a diffuse reflection area. The inner wall surface of the upper water supply channel is fixedly connected with two secondary propulsion airbags 206, and the side of the secondary propulsion airbag 206 away from the circulating diffuse reflection heat dissipation box 104 is fixedly connected to the side of the animated reflective area away from the LED lamp beads 106. The air outlets of the other two micro electric control valves 204 are connected to the second air supply hose 205, and the ends of the two second air supply hoses 205 away from the micro electric control valves 204 are respectively connected to the two secondary propulsion airbags 206, and two through-slots 208 are provided on the outside of the inner layer extrusion bag 200, and the secondary propulsion airbag 206 is located inside the through-slots 208.

[0044] Specifically, during the adjustment process, the micro bidirectional air pump 201 can be actively started to cooperate with the two second air supply hoses 205 to inject gas into the interior of the two secondary propulsion airbags 206 respectively. While continuously injecting gas into the interior of the secondary propulsion airbags 206, the expanded secondary propulsion airbags 206 can be used to push the diffuse reflection area to tilt, thereby changing the refraction direction of the diffuse reflection area to the LED lamp bead 106 light source, thereby changing the illumination condition of the light source, making it convenient for users to adjust the light source according to their own needs.

[0045] The technical solutions in the above-mentioned embodiments of the present application have at least the following technical effects or advantages: relative to embodiment one, in this embodiment, when the temperature of the LED lamp bead 106 is high and the cooling water cannot stably achieve circulation replacement cooling, the micro bidirectional air pump 201 is turned on at a fixed time to actively deliver gas to the interior of the inner layer extrusion bag 200, so that the inner layer extrusion bag 200 expands. When the inner layer extrusion bag 200 expands, the cooling water inside the cooling chamber 107 can be actively squeezed into the interior of the adsorption heat dissipation chamber 108, thereby actively squeezing the cooling water with a lower temperature inside the cooling chamber 107 into the interior of the adsorption heat dissipation chamber 108, thereby realizing the active replacement of cooling water as a whole. The active replacement of cooling water reduces the phenomenon that the cooling water cannot be sufficiently circulated to cool the LED lamp bead 106.

[0046] Embodiment 3: Although the inner squeeze capsule 200 can actively enter the airflow and store the airflow to promote the cooling water flow for active circulation heat dissipation, the gas inside the circulating diffuse reflection heat dissipation box 104 will still be lost under long-term use, and the gas inside the inner squeeze capsule 200 cannot be replenished to the circulating diffuse reflection heat dissipation box 104 in time. Under long-term use, the inner squeeze capsule 200 can only be used to actively promote the cooling water for circulation heat dissipation. In the case of long-term use of lighting alone, multiple active circulation heat dissipation is more wasteful of resources, and the number of active heat dissipation times is too many, and the waste of resources is more serious. In view of the above technical problems, the following technical solutions are proposed to solve the above technical problems, specifically:

[0047] like Figure 2-Figure 11 As shown, a plurality of air outlet holes 400 are opened on the outside of the inner layer extrusion bag 200. The air outlet holes 400 are square. An electromagnet 402 is fixedly connected to one side of the hole wall of the air outlet hole 400, and a strong magnet 401 is fixedly connected to the other side of the hole wall of the air outlet hole 400.

[0048] Specifically, during use, when the gas inside the adsorption heat dissipation chamber 108 is too little and the inner squeeze capsule 200 is expanded, the electromagnet 402 can be energized. After the electromagnet 402 is energized, the electromagnet 402 will generate magnetism, and after generating magnetism, the electromagnet 402 will generate a repulsive force with the strong magnet 401, and the air outlet 400 will be opened when the repulsive force is generated. After the air outlet 400 is opened, the gas inside the inner squeeze capsule 200 will be gradually transported to the inside of the circulating diffuse reflection heat dissipation box 104, thereby replenishing the gas inside the circulating diffuse reflection heat dissipation box 104, so that there is always enough gas inside the circulating diffuse reflection heat dissipation box 104. A large amount of gas is stored so that the gas is sufficient to push the cooling water to expand and circulate. When the gas expands, the excess gas will gradually enter the air outlet 400 and be discharged to the outside through the micro two-way air pump 201. When there is no need to replenish the air inside the circulating diffuse reflection heat dissipation box 104, the electromagnet 402 is always in the power-off state. The electromagnet 402 in the power-off state is an ordinary iron block. The iron block of ordinary material will be tightly adsorbed by the strong magnet 401. The air outlet 400 is closed by the tight adsorption of the electromagnet 402 and the strong magnet 401, so that the air outlet 400 will not leak when the inner layer extrusion bag 200 needs to expand to actively circulate the cooling water.

[0049] The technical solution in the above-mentioned embodiment of the present application has at least the following technical effects or advantages: relative to embodiment 2, in this embodiment, by opening the air outlet 400, the gas inside the circulating diffuse reflection heat dissipation box 104 can be replenished in time, so that the cooling water circulation is more stable, and when there is no need to replenish the cooling water inside the circulating diffuse reflection heat dissipation box 104, the electromagnet 402 and the strong magnet 401 are used for adsorption to complete the closure of the air outlet 400, so that the inner layer extrusion bag 200 can achieve active deflation and closed expansion, so that the cooling water can be passively circulated inside the circulating diffuse reflection heat dissipation box 104, and there is no need to actively squeeze and circulate the cooling water multiple times, thereby reducing waste of resources.

[0050] Example 4: Considering that canceling the power supply to the electromagnet 402 and allowing the strong magnet 401 to re-attract the electromagnet 402 may cause the strong magnet 401 and the electromagnet 402 to be misaligned, once the adsorption dislocation phenomenon occurs, the square through hole cannot be sealed, and the gas will continue to leak, and it is impossible to actively achieve extrusion reflux. In response to the above technical problems, the present application proposes the following technical solutions to solve the above technical problems, specifically:

[0051] like Figures 8-11 As shown, a plurality of movable slots 500 are provided inside the electromagnet 402 , and a plurality of guide rods 501 are fixedly connected to the outside of the strong magnet 401 , and the guide rods 501 are slidably connected to the inside of the movable slots 500 .

[0052] Specifically, during use, when the electromagnet 402 is energized so that the electromagnet 402 generates magnetism, a repulsive force will be generated between the electromagnet 402 and the strong magnet 401. When the repulsive force is generated, the electromagnet 402 will gradually push away the strong magnet 401, so that the air outlet 400 opens. At the same time, during the separation process between the strong magnet 401 and the electromagnet 402, the guide rod 501 will slide inside the movable groove 500, thereby guiding the separation between the strong magnet 401 and the electromagnet 402, so that the strong magnet 401 and the electromagnet 402 are separated vertically during separation and will not separate at will. At the same time, the inner wall of the movable groove 500 and the end of the guide rod 501 away from the strong magnet 401 are provided with blocking plates to prevent the guide rod 501 from detaching from the movable groove 500.

[0053] Furthermore, when the air outlet 400 does not need to be opened, the guide rod 501 will be reinserted into the interior of the movable slot 500, thereby driving the strong magnet 401 to be stably adsorbed with the electromagnet 402, so that the strong magnet 401 and the electromagnet 402 are stably aligned and adsorbed, and there will be no adsorption misalignment phenomenon.

[0054] The technical solution in the above-mentioned embodiment of the present application has at least the following technical effects or advantages: relative to embodiment three, in this embodiment, the guide rod 501 is inserted into the interior of the movable slot 500, thereby guiding the separation of the electromagnet 402 and the strong magnet 401 when they are separated, so that the two are in a stable separation state, and ensuring that the air outlet 400 can be stably opened, and there will be no secondary adsorption of the electromagnet 402 and the strong magnet 401, which will cause the air outlet 400 to open unstably and be too narrow, and the strong magnet 401 and the electromagnet 402 can also be adsorbed and guided when they are adsorbed again, so that the two can be smoothly aligned and adsorbed, and there will be no adsorption misalignment that will cause the air outlet 400 to be unable to be completely closed.

[0055] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Various modifications and variations are possible for those skilled in the art. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention shall be included within the scope of protection of the present invention.

Claims

1. An energy-saving LED lamp that is easy to adjust, comprising a bearing seat (101), a metal shaped soft rod (102) fixedly connected to the bearing seat (101), an end of the metal shaped soft rod (102) away from the bearing seat (101) fixedly connected to a bearing box (103), and a circulating diffuse reflection heat dissipation box (104) fixedly connected inside the bearing box (103), characterized in that: The circulating diffuse reflection heat dissipation box (104) is provided with an adsorption heat dissipation chamber (108) and a cooling chamber (107) respectively inside. The circulating diffuse reflection heat dissipation box (104) is provided with a light-transmitting groove (105) outside. A plurality of LED lamp beads (106) are installed on the side wall of the light-transmitting groove (105). An upper water supply channel is provided inside the circulating diffuse reflection heat dissipation box (104). The water inlet end of the upper water supply channel is connected to the adsorption heat dissipation chamber (108), and the water outlet end of the upper water supply channel is connected to the cooling chamber (107). An upper one-way valve (110) is fixedly connected to the water inlet end of the upper water supply channel. A plurality of flow pipes (109) are connected between the cooling chamber (107) and the adsorption heat dissipation chamber (108). Lower one-way valves (111) are installed inside the plurality of flow pipes (109). A micro bidirectional air pump (201) is fixedly connected to the circulating diffuse reflection heat dissipation box (104); an air outlet of the micro bidirectional air pump (201) is connected to a diversion box (202); and the outside of the diversion box (202) is connected to three micro electric control valves (204); The outer wall of the circulating diffuse reflection heat dissipation box (104) is integrally formed with two soft reflective connection layers (207), and the two soft reflective connection layers (207) are used to cut off the outer wall surface of the circulating diffuse reflection heat dissipation box (104) to form a diffuse reflection area. The inner wall surface of the upper water supply channel is fixedly connected to two secondary propulsion airbags (206), and the side of the secondary propulsion airbag (206) away from the circulating diffuse reflection heat dissipation box (104) is fixedly connected to the side of the animated reflective area away from the LED lamp bead (106). The air outlets of the other two micro-electrically controlled valves (204) are connected to a second air supply hose (205), and the ends of the two second air supply hoses (205) away from the micro-electrically controlled valves (204) are respectively connected to the two secondary propulsion airbags (206).

2. The energy-saving LED lamp that is easy to adjust according to claim 1, characterized in that: An inner layer extrusion bag (200) is integrally formed on the inner wall surface of the cooling chamber (107) and the upper water supply channel, and the air outlet of one of the micro-electrically controlled valves (204) is connected to a first air supply hose (203), and the end of the first air supply hose (203) away from the diversion box (202) passes through the inner wall surface of the circulating diffuse reflection heat dissipation box (104) and is connected to the inner layer extrusion bag (200).

3. The energy-saving LED lamp that is easy to adjust according to claim 2, characterized in that: Two through-slots (208) are provided on the outside of the inner layer extrusion bag (200), and the secondary propulsion air bag (206) is located inside the through-slots (208).

4. The energy-saving LED lamp that is easy to adjust according to claim 3, characterized in that: A plurality of air outlet holes (400) are provided on the outside of the inner layer extrusion bag (200), and the air outlet holes (400) are square in shape. An electromagnet (402) is fixedly connected to one side of the hole wall of the air outlet hole (400), and a strong magnet (401) is fixedly connected to the other side of the hole wall of the air outlet hole (400).

5. The energy-saving LED lamp that is easy to adjust according to claim 4, characterized in that: A plurality of movable slots (500) are provided inside the electromagnet (402), and a plurality of guide rods (501) are fixedly connected to the outside of the strong magnet (401), and the guide rods (501) are slidably connected to the inside of the movable slots (500).

6. The energy-saving LED lamp that is easy to adjust according to claim 1, characterized in that: The inner bottom wall of the adsorption and heat dissipation chamber (108) is fixedly connected to a first-stage propulsion airbag (300), and the top of the first-stage propulsion airbag (300) is fixedly connected to an upper propulsion plate (301).

7. The energy-saving LED lamp that is easy to adjust according to claim 6, characterized in that: A water hole (302) is provided on the outside of the upper push plate (301), and a water-receiving one-way valve (303) is installed inside the water hole (302).

8. The energy-saving LED lamp that is easy to adjust according to claim 1, characterized in that: The bottom of the bearing seat (101) is rotatably connected to the base (100) via a rotating shaft.

9. The energy-saving LED lamp that is easy to adjust according to claim 8, characterized in that: A plurality of suction cups (600) are installed at the bottom of the base (100).

10. The energy-saving LED lamp that is easy to adjust according to claim 1, characterized in that: Rubber sealing plates (700) are clamped on both sides of the carrying box (103) and the circulating diffuse reflection heat dissipation box (104).

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