An energy-saving intelligent solar buried lamp and its installation method

Abstract

The present invention discloses an energy-saving intelligent solar ground lamp and its installation method, specifically relating to the technical field of lighting lamps. It includes a ground lamp body and an embedded part. An installation cavity is formed inside the embedded part, and the ground lamp body is installed in the installation cavity. Through the setting of the water removal component in the present invention, when there is rainwater above the ground lamp body, the heat of the ground lamp body will push the first magnetic plate to drive the second magnetic plate to move downward in the water removal cavity, pumping the accumulated water above the ground lamp body into the water removal cavity, and when the second magnetic plate moves upward, squeezing the rainwater through the water outlet channel and the water outlet to the outside of the ground lamp body, so that the rainwater can be automatically cleaned. On the one hand, it can avoid the accumulated water from blocking the light and affecting the lighting effect, and ensure that the light always maintains the best state. On the other hand, it can prevent the accumulated water from seeping into the inside of the ground lamp body, thereby prolonging the service life of the ground lamp.

Description

Technical Field

[0001] The present invention relates to the technical field of lighting lamps. More specifically, the present invention relates to an energy-saving intelligent solar buried lamp and an installation method thereof. Background Art

[0002] A solar buried lamp is a lamp that uses sunlight as energy. It mainly charges during the day and is used at night. It does not require complex and expensive pipeline laying, can adjust the layout of the lamps arbitrarily, is safe, energy-saving, and pollution-free. The charging and on / off processes adopt intelligent control, with a light-controlled automatic switch, no manual operation required, stable and reliable operation, saving electricity bills, and being maintenance-free.

[0003] Chinese Patent with application number CN201610464230.2 discloses a solar buried lamp, which includes a lamp housing, a solar panel, a circuit board, and a battery combination. The solar panel, the circuit board, and the battery combination are electrically connected. The lamp housing is composed of a transparent cover, a lamp base, and a bottom cover plate arranged in sequence from top to bottom. The inner cavity of the lamp base is divided into upper and lower cavities by a partition. The solar panel and the circuit board are arranged in the upper cavity and are both fixed on the partition. The solar panel is arranged above the circuit board. A light guide column perforation is provided at the center position of the solar panel. An LED lamp bead is integrated at a position on the circuit board opposite to the light guide column perforation. A light guide column that passes through the light guide column perforation and approaches the LED lamp bead is provided inside the transparent cover. The battery combination is installed in the lower cavity and is fixed on the partition. The solar buried lamp in this invention has the advantages of compact and reasonable structure, beautiful appearance, and good lighting effect.

[0004] Although the solar buried lamp in the above invention has the advantages of compact and reasonable structure, beautiful appearance, and good lighting effect, when the solar buried lamp is installed on a cement ground, since the installation height of the buried lamp needs to be lower than the road surface, rainwater will accumulate on the surface of the buried lamp, and dust and impurities in the rainwater will gradually deposit on the surface of the buried lamp, which will affect the energy storage and illumination of the buried lamp. And if the accumulated rainwater is not cleaned in time, it will affect the sealing of the buried lamp, causing the accumulated water to seep into the interior of the lamp, resulting in a short circuit or corrosion of the circuit, and causing the lamp to fail to work properly or even be completely damaged.

[0005] The present invention provides an energy-saving intelligent solar buried lamp and an installation method thereof, aiming to solve the problems that dust and impurities in rainwater deposit on the surface of the buried lamp, affecting the energy storage and illumination of the buried lamp, and the sealing of the buried lamp is affected, resulting in the lamp being unable to work properly or even being completely damaged. Summary of the Invention

[0006] The purpose of the present invention is to provide an energy-saving intelligent solar buried lamp and its installation method, so as to solve the problems proposed in the above-mentioned background technology, that is, dust and impurities in rainwater deposit on the surface of the buried lamp, affecting the energy storage and illumination of the buried lamp, and the sealing of the buried lamp is affected, resulting in the lamp not being able to work properly or even being completely damaged.

[0007] To achieve the above object, the present invention provides the following technical solution: An energy-saving intelligent solar buried lamp, including a buried lamp body and a pre-embedded part. An installation cavity is opened inside the pre-embedded part, and the buried lamp body is installed in the installation cavity. It also includes: a water removal component, which is arranged inside the pre-embedded part and includes a first magnetic plate and a second magnetic plate. The accumulated water on the buried lamp body is cleaned by the up and down movement of the first magnetic plate and the second magnetic plate; the water removal component includes a first magnetic plate and a second magnetic plate. Inside the pre-embedded part, a driving cavity is separated by a heat-conducting partition on the outer peripheral side of the installation cavity. An water removal cavity is opened on the outer peripheral side of the driving cavity inside the pre-embedded part. The first magnetic plate is hermetically slidably connected in the driving cavity, and the second magnetic plate is hermetically slidably connected in the water removal cavity. The magnetic poles of the first magnetic plate and the second magnetic plate are opposite, and when the first magnetic plate moves, it can drive the second magnetic plate to move synchronously through magnetic force; a cleaning component, which is arranged inside the pre-embedded part and is used to cooperate with the water removal component to clean the impurities on the buried lamp body.

[0008] Preferably, a first elastic member is connected between the bottom of the first magnetic plate and the driving cavity, and a second elastic member is connected between the bottom of the second magnetic plate and the water removal cavity.

[0009] Preferably, the elastic coefficient of the first elastic member is less than that of the second elastic member. When the first magnetic plate drives the second magnetic plate to compress the second elastic member and move to the limit position, the first magnetic plate can continue to compress the first elastic member and move downward. When the first magnetic plate continues to move downward and is no longer in correspondence with the position of the second magnetic plate, the second magnetic plate will move upward under the elastic return action of the second elastic member.

[0010] Preferably, a diversion groove is opened at the upper part of the installation cavity, which is used to divert the accumulated water on the buried lamp body. A water inlet channel connecting the water removal cavity and the diversion groove is opened inside the pre-embedded part. A water outlet channel connecting the water removal cavity is opened inside the pre-embedded part. An inclined water outlet communicating with the outside is opened inside the pre-embedded part, and the water outlet channel is connected to the water outlet.

[0011] Preferably, a plugging groove penetrating through the water inlet channel and the water outlet channel is formed inside the embedded part, a control groove communicating with the plugging groove is formed inside the embedded part, a plugging plate is slidably connected inside the plugging groove, a control plate slidably connected inside the control groove is fixedly connected to one side of the plugging plate, a communication hole capable of communicating the water inlet channel and the water outlet channel is formed in the plugging plate, a first magnetic member and a second magnetic member are fixedly embedded in the control plate, and a thermally expandable gas is arranged between the inside of the driving cavity and the side of the first magnetic plate away from the first magnetic member.

[0012] Preferably, when the second magnetic plate moves downward to the limit position, the second magnetic plate and the second magnetic member can drive the control plate and the plugging plate to move by the same-sex repulsion of the magnetic poles of the second magnetic member, so that the position of the communication hole corresponds to that of the water outlet channel, and the water inlet channel is plugged.

[0013] Preferably, when the second magnetic plate moves upward to the limit position, the positions of the second magnetic plate and the first magnetic member correspond, and the second magnetic plate can drive the control plate and the plugging plate to move by the opposite-sex attraction of the magnetic poles of the first magnetic member, so that the position of the communication hole corresponds to that of the water inlet channel, and the water outlet channel is plugged.

[0014] Preferably, the cleaning assembly includes an impeller. A rotating cavity is formed in the upper part of the embedded part. The impeller is rotatably connected in the rotating cavity. The rotating cavity communicates with the water outlet channel and the water outlet. When water flows through the water outlet channel and enters the rotating cavity, the water can push the impeller to rotate and discharge outward through the water outlet.

[0015] Preferably, a limiting groove communicating the rotating cavity with the installation cavity is formed in the upper part of the embedded part. Two symmetrically arranged clamping plates are fixedly connected to the inner peripheral side of the impeller. Both clamping plates are slidably connected in the limiting groove. A cleaning plate is fixedly connected between the two clamping plates. The cleaning plate is detachably connected to the two clamping plates. The cleaning plate is used to clean impurities on the buried lamp body. A water baffle for preventing water from flowing back is arranged at the top of the embedded part.

[0016] A method for installing an energy-saving intelligent solar buried lamp is also provided, including the following steps:

[0017] S1. Use a drilling device to position and drill holes at the installation position;

[0018] S2. Use a hole-chiseling device to chisel and clean the holes, and use a blowing device to clean the powder layer in the holes;

[0019] S3. Apply glue to the edges and bottom of the hole.

[0020] S4. Install the embedded part in the hole, and install the underground lamp body in the embedded part through bolts.

[0021] S5. Install the cleaning plate between the two clamping plates.

[0022] Technical effects and advantages of the present invention:

[0023] 1. Through the setting of the water removal component in the present invention, when there is rainwater above the underground lamp body, the heat of the underground lamp body will push the first magnetic plate to drive the second magnetic plate to move downward in the water removal cavity, and the accumulated water above the underground lamp body will be pumped into the water removal cavity through the water inlet channel and the diversion groove. When the first magnetic plate drives the second magnetic plate to move downward to the limit position, the second magnetic plate will move upward in the water removal cavity under the rebound action of the second elastic member, and squeeze the rainwater through the water outlet channel and the water outlet to the outside of the underground lamp body, and prevent the rainwater from flowing back through the blockage of the water baffle, so as to be able to automatically clean the rainwater. On the one hand, it can avoid the accumulated water from blocking the light and affecting the lighting effect, and can ensure that the light always maintains the best state. On the other hand, it can prevent the accumulated water from seeping into the inside of the underground lamp body, thereby prolonging the service life of the underground lamp.

[0024] 2. Through the setting of the cleaning component in the present invention, when the second magnetic plate moves upward in the water removal cavity to squeeze the rainwater into the water outlet channel, the rainwater in the water outlet channel will enter the rotating cavity, and the water pressure of the rainwater will push the impeller to rotate, and then discharge it outward through the water outlet. During the rotation of the impeller, the cleaning plate will be driven to rotate through the two clamping plates, and the impurities on the underground lamp body will be cleaned by the rotation of the cleaning plate, so as to prevent the accumulation of impurities, ensure the cleanliness of the lamp surface, reduce the influence of impurities on the underground lamp, and further prolong the service life of the underground lamp. Description of the drawings

[0025] Figure 1 It is a schematic diagram of the overall structure of the underground lamp body of the present invention.

[0026] Figure 2 It is an exploded view of the underground lamp body of the present invention.

[0027] Figure 3 It is a cross-sectional view of the exploded view of the underground lamp body of the present invention.

[0028] Figure 4 It is a cross-sectional view of the structure of the underground lamp body, the embedded part and the water removal component of the present invention.

[0029] Figure 5 For the present invention Figure 4 Enlarged view of the structure of part A.

[0030] Figure 6 This is a schematic structural diagram of the embedded part of the present invention.

[0031] Figure 7 This is a cross-sectional view of the internal structure of the embedded part of the present invention.

[0032] Figure 8 This is a schematic structural diagram of the underground lamp body of the present invention.

[0033] Figure 9 This is a schematic structural diagram of the impeller part of the present invention.

[0034] Figure 10 This is a schematic structural diagram of the plugging plate part of the present invention.

[0035] The reference numerals are: 1, underground lamp body; 2, embedded part; 21, installation cavity; 22, water baffle; 3, water removal assembly; 31, first magnetic plate; 32, second magnetic plate; 33, heat conduction partition; 34, drive cavity; 35, water removal cavity; 36, first elastic member; 37, second elastic member; 38, diversion groove; 39, water inlet channel; 310, water outlet channel; 311, water outlet; 312, plugging groove; 313, control groove; 314, plugging plate; 315, control plate; 316, communication hole; 317, first magnetic member; 318, second magnetic member; 4, cleaning assembly; 41, impeller; 42, rotation cavity; 43, limiting groove; 44, clamping plate; 45, cleaning plate. Detailed implementation manners

[0036] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described 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.

[0037] Embodiment 1

[0038] When the solar underground lamp is installed on the cement ground, since the installation height of the underground lamp needs to be lower than the road surface, rainwater will accumulate on the surface of the underground lamp. If the accumulated rainwater is not cleaned in time, it will affect the sealing of the underground lamp, causing the accumulated water to seep into the lamp body, resulting in short circuit or corrosion of the circuit, causing the lamp to malfunction or even be completely damaged.

[0039] Reference Figures 1 to 10, an energy-saving intelligent solar buried lamp according to an embodiment of the present invention includes a buried lamp body 1 and a pre-embedded part 2. An installation cavity 21 is provided inside the pre-embedded part 2, and the buried lamp body 1 is installed in the installation cavity 21. A water baffle 22 for preventing water from flowing back is provided at the top of the pre-embedded part 2. The buried lamp body 1 is composed of a photovoltaic panel and a number of lamp beads. The top of the buried lamp body 1 is sealed by a transparent plate. A battery for storing electricity and supplying power to a number of lamp beads is provided inside the buried lamp body 1. A light sensor and a controller are also provided inside the buried lamp body 1. The photovoltaic panel, a number of lamp beads, the battery, and the light sensor are all electrically connected to the controller. The controller controls the turning off and on of a number of lamp beads by receiving the signal transmitted by the light sensor.

[0040] Reference Figures 2 to 7 , further including a water removal component 3. The water removal component 3 is provided inside the pre-embedded part 2 and includes a first magnetic plate 31 and a second magnetic plate 32. The accumulated water on the buried lamp body 1 is cleaned by the up and down movement of the first magnetic plate 31 and the second magnetic plate 32. A driving cavity 34 is separated by a heat-conducting partition 33 on the outer peripheral side of the installation cavity 21 inside the pre-embedded part 2 of the water removal component 3. A water removal cavity 35 is provided on the outer peripheral side of the driving cavity 34 inside the pre-embedded part 2. The first magnetic plate 31 is hermetically slidably connected in the driving cavity 34, and the second magnetic plate 32 is hermetically slidably connected in the water removal cavity 35. The magnetic poles of the first magnetic plate 31 and the second magnetic plate 32 are opposite. When the first magnetic plate 31 moves, it can drive the second magnetic plate 32 to move synchronously through magnetic force. A first elastic member 36 is connected between the bottom of the first magnetic plate 31 and the driving cavity 34, and a second elastic member 37 is connected between the bottom of the second magnetic plate 32 and the water removal cavity 35. The elastic coefficient of the first elastic member 36 is less than the elastic coefficient of the second elastic member 37. When the first magnetic plate 31 drives the second magnetic plate 32 to compress the second elastic member 37 and move to the limit position, the first magnetic plate 31 can continue to compress the first elastic member 36 and move downward. When the first magnetic plate 31 continues to move downward and is no longer corresponding to the position of the first magnetic plate 31, the second magnetic plate 32 will move upward under the rebound action of the second elastic member 37.

[0041] Reference Figure 4 and Figure 5, a diversion groove 38 is provided at the upper part of the installation cavity 21. The diversion groove 38 is used to divert the accumulated water on the ground buried lamp body 1. An inlet channel 39 communicating the water removal cavity 35 and the diversion groove 38 is provided inside the embedded part 2. An outlet channel 310 communicating the water removal cavity 35 is provided inside the embedded part. An outlet 311 communicating with the outside and arranged obliquely is provided inside the embedded part 2. The outlet channel 310 and the outlet 311 are communicated with each other. A plugging groove 312 penetrating the inlet channel 39 and the outlet channel 310 is provided inside the embedded part 2. A control groove 313 communicated with the plugging groove 312 is provided inside the embedded part 2. A plugging plate 314 is slidably connected inside the plugging groove 312. A control plate 315 slidably connected inside the control groove 313 is fixedly connected to one side of the plugging plate 314. A communication hole 316 capable of communicating the inlet channel 39 and the outlet channel 310 is provided on the plugging plate 314. A first magnetic member 317 and a second magnetic member 318 are fixedly embedded on the control plate 315. A thermal expansion gas is provided between the inside of the driving cavity 34 and the side of the first magnetic plate 31 away from the first magnetic member 317.

[0042] When the second magnetic plate 32 moves downward to the limit position, the positions of the second magnetic plate 32 and the second magnetic member 318 correspond. The second magnetic plate 32 can drive the control plate 315 and the plugging plate 314 to move by the same-sex repulsion of the magnetic poles with the second magnetic member 318, so that the position of the communication hole 316 corresponds to that of the outlet channel 310 and the inlet channel 39 is plugged.

[0043] When the second magnetic plate 32 moves upward to the limit position, the positions of the second magnetic plate 32 and the first magnetic member 317 correspond. The second magnetic plate 32 can drive the control plate 315 and the plugging plate 314 to move by the opposite-sex attraction of the magnetic poles with the first magnetic member 317, so that the position of the communication hole 316 corresponds to that of the inlet channel 39 and the outlet channel 310 is plugged.

[0044] During actual use, when there is rainwater above the buried lamp body 1, the heat generated when the buried lamp body 1 works to illuminate or the heat generated by sunlight irradiation will be conducted into the driving cavity 34 through the heat-conducting partition 33, causing the temperature in the driving cavity 34 to rise. The increase in the temperature in the driving cavity 34 will cause the internal thermally expanded gas to expand. The expanded gas will push the first magnetic plate 31 to compress the first elastic member 36 and move downward in the driving cavity 34. During the downward movement of the first magnetic plate 31, it will drive the second magnetic plate 32 to move downward in the water removal cavity 35 through magnetic force and compress the second elastic member 37. Since the second magnetic plate 32 will be pushed by the elastic force of the second elastic member 37 to the extreme position at the top of the water removal cavity 35 in the initial state, the position of the second magnetic plate 32 corresponds to that of the first magnetic member 317. The second magnetic plate 32 will drive the control plate 315 and the plugging plate 314 to move through the attraction of opposite magnetic poles with the first magnetic member 317, making the position of the water inlet channel 39 correspond to that of the communication hole 316 and causing the plugging plate 314 to block the water outlet channel 310. Therefore, during the downward movement of the second magnetic plate 32 in the water removal cavity 35, the accumulated water above the buried lamp body 1 will be pumped into the water removal cavity 35 through the water inlet channel 39 and the diversion groove 38, thus avoiding the long-term accumulation of rainwater.

[0045] Since the elastic coefficient of the first elastic member 36 is smaller than that of the second elastic member 37, when the thermally expanded gas continuously expands and pushes the first magnetic plate 31 to drive the second magnetic plate 32 to compress the second elastic member 37 and move to the extreme position, the second magnetic plate 32 cannot continue to move downward, while the first magnetic plate 31 can still continue to compress the first elastic member 36 and move downward. When the first magnetic plate 31 continues to move downward and is no longer in correspondence with the position of the second magnetic plate 32, the second magnetic plate 32 will move upward in the water removal cavity 35 under the rebounding action of the second elastic member 37. Since the second magnetic plate 32 will correspond to the position of the second magnetic member 318 when it moves downward to the extreme position, the second magnetic plate 32 can drive the control plate 315 and the plugging plate 314 to move through the repulsion of like magnetic poles with the second magnetic member 318, making the position of the communication hole 316 correspond to that of the water outlet channel 310 and blocking the water inlet channel 39. Therefore, during the upward movement of the second magnetic plate 32 in the water removal cavity 35, the rainwater will be squeezed to the outside of the buried lamp body 1 through the water outlet channel 310 and the water outlet 311, and the backflow of rainwater will be avoided through the blockage of the water baffle 22, so that the rainwater can be automatically cleaned and the long-term accumulation of rainwater can be avoided.

[0046] To sum up, through the setting of the water removal component 3, when there is rainwater above the underground lamp body, the heat of the underground lamp body 1 will push the first magnetic plate 31 to drive the second magnetic plate 32 to move downward in the water removal chamber 35, and the accumulated water above the underground lamp body 1 will be drawn into the water removal chamber 35 through the water inlet channel 39 and the guide groove 38. When the first magnetic plate 31 drives the second magnetic plate 32 to move downward to the extreme position, the second magnetic plate 32 will move upward in the water removal chamber 35 under the rebound action of the second elastic member 37, and squeeze the rainwater to the outside of the underground lamp body 1 through the water outlet channel 310 and the water outlet 311, and prevent the rainwater from flowing back through the water baffle 22, so that the rainwater can be automatically cleaned. On the one hand, it can prevent the accumulated water from blocking the light and affecting the lighting effect, and ensure that the light always remains in the best state. On the other hand, it can prevent the accumulated water from seeping into the interior of the underground lamp body 1, thereby extending the service life of the underground lamp.

[0047] Embodiment 2

[0048] During actual use, dust and impurities in rainwater will gradually settle on the surface of the underground lamp, affecting the energy storage and lighting of the underground lamp. These impurities will also accelerate the temperature aging and corrosion of the underground lamp, shortening the service life of the underground lamp. Therefore, this embodiment improves the device described in the above embodiment.

[0049] refer to Figures 4 to 10 , also includes a cleaning component 4, which is arranged inside the embedded part 2 and is used to cooperate with the water removal component 3 to clean impurities on the underground lamp body 1. The cleaning component 4 includes an impeller 41. A rotating chamber 42 is opened at the upper part of the embedded part 2. The impeller 41 is rotatably connected in the rotating chamber 42. The rotating chamber 42 is connected with the water outlet channel 310 and the water outlet 311. When the water flows into the rotating chamber 42 through the water outlet channel 310, the water flow can drive the impeller 41 to rotate and be discharged outward through the water outlet 311. A limiting groove 43 connecting the rotating chamber 42 and the installation chamber 21 is opened at the upper part of the embedded part 2. Two symmetrically arranged clamping plates 44 are fixedly connected to the inner circumference side of the impeller 41. The two clamping plates 44 are both slidably connected in the limiting groove 43. A cleaning plate 45 is fixedly connected between the two clamping plates 44. The cleaning plate 45 is detachably connected to the two clamping plates 44. The cleaning plate 45 is used to clean impurities on the underground lamp body 1.

[0050] During actual use, when the second magnetic plate 32 moves upward in the water removal cavity 35 to squeeze rainwater into the water outlet channel 310, the rainwater in the water outlet channel 310 will enter the rotating cavity 42. The water pressure of the rainwater will push the impeller 41 to rotate, and then it will be discharged outward through the water outlet 311. During the rotation of the impeller 41, the cleaning plate 45 will be driven to rotate through the two clamping plates 44. The impurities on the buried lamp body 1 will be cleaned by the rotation of the cleaning plate 45, and the residual rainwater will be cleaned into the diversion groove 38 by the centrifugal force when the cleaning plate 45 rotates, further ensuring the rainwater cleaning effect, thereby preventing impurity accumulation, ensuring the cleanliness of the lamp surface, reducing the impact of impurities on the buried lamp, and further extending the service life of the buried lamp.

[0051] It should be noted that when there is no rainwater above the buried lamp body 1, the second magnetic plate 32 will squeeze air into the rotating cavity 42, and the air pressure can still push the impeller 41 and the cleaning plate 45 to rotate, further improving the cleaning effect;

[0052] When the sun rises or is about to set, the temperature will drop, and the thermally expandable gas in the drive cavity 34 will stop expanding. The first magnetic plate 31 will return to its initial position under the elastic rebound of the first elastic member 36, preparing for the next water removal and cleaning.

[0053] In summary, through the setting of the cleaning assembly 4, when the second magnetic plate 32 moves upward in the water removal cavity 35 to squeeze rainwater into the water outlet channel 310, the rainwater in the water outlet channel 310 will enter the rotating cavity 42. The water pressure of the rainwater will push the impeller 41 to rotate, and then it will be discharged outward through the water outlet 311. During the rotation of the impeller 41, the cleaning plate 45 will be driven to rotate through the two clamping plates 44. The impurities on the buried lamp body 1 will be cleaned by the rotation of the cleaning plate 45, thereby preventing impurity accumulation, ensuring the cleanliness of the lamp surface, reducing the impact of impurities on the buried lamp, and further extending the service life of the buried lamp.

[0054] Embodiment III

[0055] An installation method of an energy-saving intelligent solar buried lamp includes the following steps:

[0056] S1. Use a drilling device to position and drill holes at the installation location;

[0057] S2. Use a hole chiseling device to level and clean the holes, and use a blowing device to clean the powder layer in the holes;

[0058] S3. Apply glue to the edges and bottom of the holes;

[0059] S4. Install the embedded part 2 in the holes, and install the buried lamp body 1 in the embedded part 2 through bolts;

[0060] S5. Install the cleaning plate 45 between the two clamping plates 44.

[0061] Finally, the above are only the preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. An energy-saving intelligent solar underground lamp, comprising an underground lamp body (1) and an embedded part (2), wherein the embedded part (2) has an installation cavity (21) formed therein, and the underground lamp body (1) is installed in the installation cavity (21), characterized in that: Also includes: a water removal component (3), the water removal component (3) being arranged inside the embedded component (2), comprising a first magnetic plate (31) and a second magnetic plate (32), and clearing the accumulated water on the underground lamp body (1) by moving the first magnetic plate (31) and the second magnetic plate (32) up and down; The interior of the embedded component (2) is separated from the installation cavity (21) by a heat-conducting partition plate (33) by a driving cavity (34); the interior of the embedded component (2) is provided with a dewatering cavity (35) on the outer peripheral side of the driving cavity (34); the first magnetic plate (31) is sealingly slidably connected in the driving cavity (34); the second magnetic plate (32) is sealingly slidably connected in the dewatering cavity (35); the magnetic poles of the first magnetic plate (31) and the second magnetic plate (32) are opposite; when the first magnetic plate (31) moves, it can drive the second magnetic plate (32) to move synchronously through magnetic force; a cleaning component (4), the cleaning component (4) being arranged inside the embedded component (2) and being used to cooperate with the water removal component (3) to clean impurities on the underground lamp body (1); A first elastic member (36) is connected between the bottom of the first magnetic plate (31) and the driving cavity (34), and a second elastic member (37) is connected between the bottom of the second magnetic plate (32) and the water removal cavity (35); The elastic coefficient of the first elastic member (36) is smaller than the elastic coefficient of the second elastic member (37); when the first magnetic plate (31) drives the second magnetic plate (32) to compress the second elastic member (37) and move to an extreme position, the first magnetic plate (31) can continue to compress the first elastic member (36) and move downward; when the first magnetic plate (31) continues to move downward and no longer corresponds to the position of the second magnetic plate (32), the second magnetic plate (32) moves upward under the rebound action of the second elastic member (37); A guide groove (38) is provided at the upper portion of the installation cavity (21), and the guide groove (38) is used to guide the accumulated water on the underground lamp body (1); a water inlet channel (39) communicating with the water removal cavity (35) and the guide groove (38) is provided inside the embedded component (2); a water outlet channel (310) communicating with the water removal cavity (35) is provided inside the embedded component (2); a water outlet (311) communicating with the outside and arranged in an inclined shape is provided inside the embedded component (2); and the water outlet channel (310) and the water outlet (311) are connected; The embedded component (2) is provided with a blocking groove (312) penetrating the water inlet channel (39) and the water outlet channel (310), the embedded component (2) is provided with a control groove (313) connected to the blocking groove (312), a blocking plate (314) is slidably connected to the inside of the blocking groove (312), one side of the blocking plate (314) is fixedly connected to a control plate (315) slidably connected to the control groove (313), the blocking plate (314) is provided with a connecting hole (316) capable of connecting the water inlet channel (39) and the water outlet channel (310), a first magnetic component (317) and a second magnetic component (318) are fixedly embedded on the control plate (315), and a heat expansion gas is provided between the inside of the driving cavity (34) and a side of the first magnetic plate (31) away from the first magnetic component (317); When the second magnetic plate (32) moves downward to the extreme position, the positions of the second magnetic plate (32) and the second magnetic member (318) correspond, and the second magnetic plate (32) can drive the control plate (315) and the blocking plate (314) to move by repelling the like-pole magnetic poles of the second magnetic member (318), so that the communication hole (316) corresponds to the position of the water outlet channel (310), and the water inlet channel (39) is blocked; When the second magnetic plate (32) moves upward to the extreme position, the positions of the second magnetic plate (32) and the first magnetic member (317) correspond, and the second magnetic plate (32) can drive the control plate (315) and the blocking plate (314) to move by attracting opposite poles of the magnetic poles of the first magnetic member (317), so that the communication hole (316) corresponds to the position of the water inlet channel (39), and the water outlet channel (310) is blocked; The cleaning component (4) comprises an impeller (41); a rotating chamber (42) is provided at the upper portion of the embedded component (2); the impeller (41) is rotatably connected in the rotating chamber (42); the rotating chamber (42) is connected to the water outlet channel (310) and the water outlet (311); when water flows into the rotating chamber (42) through the water outlet channel (310), the water can drive the impeller (41) to rotate and be discharged to the outside through the water outlet (311); A limiting groove (43) connecting the rotating chamber (42) and the mounting chamber (21) is provided at the upper portion of the embedded component (2); two symmetrically arranged clamping plates (44) are fixedly connected to the inner circumference of the impeller (41); the two clamping plates (44) are both slidably connected in the limiting groove (43); a cleaning plate (45) is fixedly connected between the two clamping plates (44); the cleaning plate (45) is detachably connected to the two clamping plates (44); the cleaning plate (45) is used to clean impurities on the underground lamp body (1); and a water baffle (22) is provided at the top of the embedded component (2) for preventing the backflow of accumulated water.

2. A method for installing an energy-saving intelligent solar underground lamp, the method for installing the energy-saving intelligent solar underground lamp according to claim 1, characterized in that: The following steps are involved: S1. Use a punching device to perform positioning punching at the installation location; S2. Use a drilling device to flatten and clean the hole, and use a blowing device to clean the powder layer in the hole; S3. Apply glue to the edge and bottom of the hole; S4, installing the embedded part (2) in the hole, and installing the underground lamp body (1) in the embedded part (2) by means of bolts; S5. Install the cleaning plate (45) between the two clamping plates (44).

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