Energy-storage light-emitting device for electric power facility protection and assembly process of energy-storage light-emitting device

Abstract

The invention discloses an energy storage light-emitting device for electric power facility protection and an assembly process thereof, and belongs to the technical field of electric power equipment. The energy storage light-emitting device comprises a base which is arranged at the bottom of the power pole; the protection barrel is arranged on the base, and the protection barrel is formed by splicing a plurality of protection shells around the circumference of the power pole in an array mode; the inner interlayer is formed by splicing a plurality of inner shells around the power pole; the number of the clamping plates is equal to that of the internal shells, and the clamping plates are used for fixing the internal shells on the power pole; each buffer assembly comprises an abutting rod, the abutting rod comprises an upper section and a lower section, the middle of the abutting rod is hinged, a buffer plate attached to the inner wall of the protective barrel is arranged at the hinged position, and the angle, smaller than 180 degrees, of the hinged angle of the abutting rod faces the inner side; according to the protective barrel, the received impact force can be transmitted to the ground, so that the force unloading effect is achieved, and the protective effect of the protective barrel is improved.

Description

Technical Field

[0001] The invention relates to an energy storage luminous device for protecting electric power facilities and an assembly process thereof, belonging to the technical field of electric power equipment. Background Art

[0002] The electric power protection barrel device is a protective barrel device that can protect the electric poles and prevent the electric poles from being damaged in accidental situations.

[0003] Most existing protective barrels are filled with a buffer layer during installation to provide a buffering effect when the power pole is hit. However, the buffer layer does not have a force-relieving effect. When hit, the front of the protective barrel will be subjected to force and the impact force will be directly transferred to the power pole, greatly reducing the protective effect. Summary of the Invention

[0004] The technical problem to be solved by the present invention is to provide an energy storage light emitting device for protecting electric power facilities and an assembly process thereof, which solves the problem in the prior art that the protective barrel of the electric power pole is subjected to a large direct impact force when it encounters a collision.

[0005] The technical problem to be solved by the present invention is achieved by adopting the following technical solutions: an energy storage and light-emitting device for protecting electric power facilities, comprising a base, which is arranged at the bottom of a power pole; a protective barrel, which is arranged on the base, and the protective barrel is composed of a plurality of protective shells spliced together in an array around the circumference of the power pole; an internal interlayer, which is arranged inside the protective barrel, and the internal interlayer is composed of a plurality of internal shells spliced together around the power pole; a number of clamping plates equal to the number of the internal shells, which are arranged at the joint of the two internal shells for fixing the internal shells on the power pole; a plurality of buffer components, wherein the buffer component includes an abutment rod, which includes an upper and lower section, a hinged middle section, and a buffer plate that fits the inner wall of the protective barrel at the hinge, and the hinge angle of the abutment rod is less than one hundred and eighty degrees and faces inward; wherein, abutment surfaces are provided at the upper and lower ends of the protective barrel, and abutment rings are provided at the upper and lower ends of the buffer component, and the abutment ring slides toward the abutment surface when the buffer component is subjected to external pressure.

[0006] By adopting this technical solution, the impact force can be transferred to the ground, thereby acting as a force relief and improving the protective effect of the protective barrel. When the protective barrel is hit, the abutment rod in the buffer assembly flips, increasing the inward hinge angle. The impact force can be transmitted to the upper and lower ends of the protective barrel through the abutment rod, thereby reducing the direct impact force on the power pole.

[0007] The present invention is further configured as follows: the buffer assembly also includes a sliding member hinged to the other end of the abutment rod, the sliding member is provided with a card slot that is mutually engaged with the clamping plate, and the sliding member is also provided with an abutment head that is mutually connected with the abutment ring.

[0008] By adopting the above technical solution, the smoothness of the abutment rod's flipping can be improved, and it can play a guiding role when the abutment rod is flipped by an impact, preventing the abutment rod from deflecting during the flipping process. The interconnection between the abutment head and the abutment ring can improve the transmission effect of the impact force, so that the impact force on the abutment rod is more evenly transmitted to the two ends of the protective barrel through the abutment ring.

[0009] The present invention is further configured such that an elastic member is connected between the upper and lower ends of the abutting rod, and the elastic member contracts toward the center in a fixed state to bring the ends of the abutting rod closer to each other.

[0010] By adopting the above technical solution, the elastic member can apply a force to the two ends of the abutment rod to flip them closer to each other. When the protective barrel is hit, the flipping direction of the abutment rod after being subjected to the force is opposite to the direction of the pulling force applied by the elastic member to the abutment rod, so that the elastic member can play a buffering role and improve the buffering protection effect.

[0011] The present invention is further configured as follows: the abutment ring is formed by splicing together a number of arcuate rings, the number of which is equal to that of the buffer assembly; each arcuate ring is provided with a groove; the abutment head is clamped in the groove.

[0012] By adopting the above technical solution, each arc ring independently bears the load of the corresponding buffer component, avoiding stress concentration and extending the overall life.

[0013] The present invention is further configured as follows: a clamping plate extends outward on both sides of a single internal shell; when the internal shell is spliced, the clamping plates on the two internal shells are respectively fitted together and fixed by a clamping plate after fitting; the inner wall of the clamping plate is fitted to the arc surface of the internal shell.

[0014] By adopting this technical solution, the clamping plates fit together to form a double support, and combined with the tightening effect of the clamping plate, the bending and shear resistance of the spliced joint is significantly improved. Fixing directly with the clamping plate can improve the installation efficiency of the entire protective device and reduce time costs.

[0015] The present invention is further configured as follows: a long card slot is provided on the card plate, an inner slot is provided on the clamping plate for clamping with the card plate, and an inner card strip extends inwardly from the inner slot for clamping with the long card slot.

[0016] By adopting the above technical solution, the clamping plate can be stably fixed to the card board, improving the compactness between the card board and the clamping plate. When installing the clamping plate, it is inserted from both ends of the card board so that the inner card strips are locked into the long card slots, which can be quickly installed.

[0017] The present invention is further configured as follows: a plurality of folding airbags are provided between the abutting ring and the abutting surface; and a plurality of protective plates are provided between the inner wall surfaces at the upper and lower ends of the protective barrel and the power pole.

[0018] By adopting the above technical solution, the foldable airbag can play a buffering role when subjected to pressure from the abutment ring, while preventing the abutment ring from directly colliding with the abutment surface. The foldable airbag can be compressed in the direction of the pressure when squeezed, preventing it from separating from the abutment ring when under pressure.

[0019] The present invention is further configured as follows: a plurality of deflated anti-collision airbags are arranged between the protective plate and the outer wall of the power pole, the inner cavity of the anti-collision airbag is connected to the inner cavity of the folding airbag, and the gas in the folding cavity can be squeezed into the anti-collision airbag after the anti-collision barrel is hit.

[0020] By adopting this technical solution, the anti-collision airbag can be inflated, further protecting the power pole and enhancing the protective effect of the upper and lower ends of the protective barrel on the power pole. When the protective barrel is hit, the abutment rod pushes the abutment ring to compress the folded airbag. The gas in the folded airbag is squeezed and flows into the anti-collision airbag, causing the deflated anti-collision airbag to expand and tightly adhere to the power pole and the protective plate, thereby improving the protective effect at the points of direct contact between the ends of the protective barrel and the power pole.

[0021] The present invention is further configured as follows: a plurality of light-emitting grooves are provided on the outer ring of the protective barrel, and a plurality of light-emitting sources are arranged in an equidistant array in the light-emitting grooves.

[0022] By adopting the above technical solution, the light source can produce a warning effect at night. The light source forms a uniform bright light on the outer circle of the protective barrel, making the power facilities clearly visible at night or in foggy weather, reducing the risk of accidental collisions by vehicles and pedestrians.

[0023] This application also relates to an assembly process of an energy storage light-emitting device for protecting power facilities, which specifically includes the following steps: S1. First, place two inner shells on the power pole and clamp the clamping plate on the clamping plates of the two inner shells. Then, assemble the two inner shells. Then, use the clamping plate to sequentially fit the remaining inner shells on the power pole so that the inner shells are connected end to end to wrap the power pole. S2. Assemble the buffer assembly, connect the sliding member to the abutment rod, install the abutment ring on the sliding member at the lower end of the abutment rod through the abutment joint, and attach the folded airbag to the bottom of the abutment ring; S3. Attach each assembled buffer assembly to the clamping plate through the clamping slot, and install an elastic member on the buffer assembly, with both ends of the elastic member fixed to the two ends of the abutment rod respectively; S4. After the two protective shells wrap the entire assembly mounted on the power pole, the two protective shells are fastened together by bolts.

[0024] The beneficial effects of the present invention are: Through the setting of the buffer component, when the protective barrel is subjected to external impact, the impact force can be transmitted to the upper end of the protective barrel and the ground through the buffer component, thereby achieving a force unloading effect, reducing the impact force on the power pole, and improving the protective effect of the protective barrel on the power pole. Through the abutment ring and abutment rod on the buffer component, the protective barrel can be fixed on the power pole when the protective barrel is hit, preventing the protective barrel from detaching from the power pole.

[0025] The folding airbag and the anti-collision airbag work together to enhance the protection of power poles. The upper and lower ends of the protective barrel directly contact the power pole through protective plates. When the barrel is impacted, the anti-collision airbag inflates through the folding airbag, allowing the anti-collision airbag to quickly adhere to the outer wall of the power pole, preventing the protective plates from directly impacting the power pole. This reduces the concentrated stress generated when the upper and lower ends of the protective barrel directly contact the power pole and acts as a buffer against the impact.

[0026] The provision of a light-emitting slot and light source effectively enhances the warning effect of the crash barrel, providing a more prominent warning to oncoming vehicles at night, thereby reducing the risk of collision. Solar panels are installed on the crash barrel to provide power for the light source, saving energy and protecting the environment. The light source is placed in the light-emitting slot, so that when the crash barrel is hit, the light source will not be directly squeezed or hit by the impacting object, thus preventing damage to the light source. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 This is a schematic diagram of the three-dimensional structure of the present invention when it is installed and used; Figure 2 It is a schematic diagram of the internal three-dimensional structure of the present invention; Figure 3 This is an exploded view of the internal structure of the protective barrel of the present invention; Figure 4 This is a schematic diagram of the three-dimensional structure of the protective barrel after assembly of the present invention; Figure 5 This is a top view of the internal structure of the present invention after assembly; Figure 6Schematic diagram of the three-dimensional structure of the inner shell end of the present invention Figure 7 It is a schematic diagram of the three-dimensional structure of the end portion of the clamping plate of the present invention; Figure 8 This is a schematic diagram of the three-dimensional structure of the protective shell and half of the base when assembled according to the present invention; Figure 9 It is a schematic diagram of the three-dimensional structure of another embodiment of the present invention.

[0028] In the figure: 1. base; 101. sinking groove; 102. inverted plane; 103. arc-shaped card slot; 2. power pole; 3. protective barrel; 4. protective shell; 401. card block; 402. trough body; 403. arc-shaped card plate; 5. inner shell; 501. card plate; 502. long card slot; 6. clamping plate; 601. inner groove; 602. inner card strip; 7. buffer assembly; 701. abutment rod; 702. sliding member; 7021. card slot; 7022. abutment head; 703. elastic member; 8. buffer plate; 801. notch end; 802. protruding end; 9. abutment ring; 901. arc-shaped ring; 902. groove; 10. abutment surface; 11. folding airbag; 12. protective plate; 13. light-emitting groove; 14. light source; 15. solar panel. DETAILED DESCRIPTION

[0029] In order to make the technical means, creative features, objectives and effects of the present invention easier to understand, the present invention is further explained below with reference to specific illustrations.

[0030] like Figure 1 As shown, an energy storage light-emitting device for protecting power facilities includes a base 1 mounted at the bottom of a power pole 2 and a protective barrel 3 mounted on the base 1. The protective barrel 3 is composed of several protective shells 4 arranged in an array around the circumference of the power pole 2. The protective shells 4 are connected to each other by bolts.

[0031] like Figure 2 and Figure 3 As shown, an internal interlayer is provided inside the protective barrel 3, and the internal interlayer is formed by several internal shells 5 spliced around the power pole 2; the outer layer of the internal interlayer is provided with clamping plates 6 equal to the number of the internal shells 5, and each clamping plate 6 is clamped at the joint of two internal shells 5 to fix the internal shells 5 on the power pole 2.

[0032] Furthermore, a buffer assembly 7 is provided in the protective barrel 3, and the buffer assembly 7 includes an abutment rod 701. The abutment rod 701 includes two upper and lower sections, which are hinged in the middle, and a buffer plate 8 is provided at the hinge that fits the inner wall of the protective barrel 3. The hinge angle of the abutment rod 701 is less than one hundred and eighty degrees and faces inward; wherein, abutment surfaces 10 are provided at the upper and lower ends of the interior of the protective barrel 3, and abutment rings 9 are provided at the upper and lower ends of the buffer assembly 7. When the buffer assembly 7 is subjected to external pressure, the abutment ring 9 slides toward the abutment surface 10.

[0033] The impact force can be relieved by the buffer assembly 7, so that the impact force is transmitted to the upper end of the protective barrel 3 and the ground through the abutment rod 701 and the abutment ring 9, thereby reducing the impact force directly received by the power pole 2.

[0034] In this embodiment, two protective shells 4 are constructed, their cross-sections fitting together to form a hollow cavity within which the power pole 2 is enclosed. Four internal shells 5 form the inner interlayer. Each internal shell 5 is a flexible sheet that can be bent and attached to power poles 2 of varying diameters. Therefore, during installation, different numbers of internal shells 5 can be assembled to create internal interlayers of varying apertures, adapting to varying pole diameters and increasing the applicability of the internal shells 5.

[0035] Furthermore, the buffer assembly 7 further includes a sliding member 702 hingedly connected to the other end of the abutment rod 701. The sliding member 702 is provided with a slot 7021 that engages with the clamping plate 6. The sliding member 702 is also provided with an abutment head 7022 that is connected to the abutment ring 9. An elastic member 703 is connected between the upper and lower ends of the abutment rod 701. When the elastic member 703 is fixed, it contracts toward the center to bring the ends of the abutment rod 701 closer together.

[0036] In this embodiment, each buffer assembly 7 comprises two abutment rods 701. The ends of the two hinged rods are pivotally connected to the ends of the sliding member 702. A reinforcement rod is mounted at the hinge point, and a buffer plate 8 is fixed to the reinforcement rod. Each reinforcement rod is mounted with a buffer plate 8. In a normal state, when the protective barrel 3 is not impacted, a buffer space is reserved between the ends of the buffer plates 8. This allows the buffer plates 8 to move smoothly toward the power pole 2 when impacted without interfering with buffer plates 8 in other directions.

[0037] Specifically, when the protective barrel 3 is hit, the protective shell 4 first transmits the impact force to the buffer plate 8, and the buffer plate 8 pushes the two abutment rods 701, so that the hinge angle of the two abutment rods 701 toward the power pole 2 increases, and the impact force is transmitted to the upper and lower ends along the hinge point of the abutment rod 701, pushing the abutment rings 9 at both ends of the abutment rod 701 to move toward both ends respectively, so that the impact force is transmitted to the upper and lower ends of the protective barrel 3 through the abutment rings 9, thereby realizing the conversion of the horizontal impact force into the vertical impact force, reducing the direct force on the power pole 2.

[0038] Secondly, because the abutment rings 9 are pressed against the upper and lower ends of the protective barrel 3 during an impact, the protective barrel 3 can be stably fixed to the power pole 2 through the abutment rings 9. When the protective barrel 3 is hit from an eccentric direction, the protective barrel 3 will not be directly separated from the power pole 2, thereby providing a more stable protective effect.

[0039] In this embodiment, the elastic member 703 is specifically a spring, and one or more springs can be arranged between the two hinged rods according to the specific construction conditions. A fixing plate is also installed near the two sliding members 702, and the two ends of the elastic member 703 are fixed to the fixing plate.

[0040] By installing the elastic member 703, a force can be applied to the two ends of the abutment rod 701 to flip them closer to each other. When the protective barrel 3 is hit, the flipping direction of the abutment rod 701 after being subjected to the force is opposite to the direction of the pulling force applied to the abutment rod 701 by the elastic member 703, so that the elastic member 703 can play a buffering role and improve the buffering protection effect.

[0041] In another embodiment, the elastic member 703 may also be an elastic rope or a combination of an elastic rope and a spring.

[0042] When the elastic member 703 is a combination of a spring and an elastic rope, the elastic rope can be arranged in the inner ring of the spring, which can reduce the installation volume of the two, so that more groups of elastic members 703 can be arranged on the fixed plate, thereby improving the impact resistance of the buffer assembly 7.

[0043] In another embodiment, Figure 9 As shown, the two ends of the buffer plate 8 are respectively provided with a protruding end 802 and a notch end 801, and the protruding end 802 is clamped in the notch end 801. When the protective barrel 3 is hit, the buffer plate 8 moves inward, thereby preventing interference between adjacent buffer plates 8 and increasing the force-bearing area.

[0044] like Figure 3 and Figure 4As shown, the abutment ring 9 is composed of a number of arcuate rings 901, the same number as the buffer assembly 7, joined together. Each arcuate ring 901 is provided with a groove 902, into which the abutment head 7022 engages. The arcuate rings 901 are slidably engaged via the engaging grooves 7021. The arcuate rings 901 are connected end to end to form the abutment ring 9. The outer diameter of the abutment ring 9 is equal to the inner diameter of the protective barrel 3, and the abutment ring 9 can slide up and down along the inner wall of the protective barrel 3.

[0045] Specifically, the abutment joint 7022 is inserted into the groove 902, and the arc rings 901 can slide relative to each other in the vertical direction. When the abutment rod 701 pushes the abutment ring 9 to slide, it will not affect the sliding of the other arc rings 901. As a result, when the protective barrel 3 is subjected to different forces in different force directions, the thrusts received by each arc ring 901 are also different, and the pressures applied to the two ends of the protective barrel 3 after sliding to the protective barrel 3 are also different. By independently setting the arc ring 901 and the buffer assembly 7, when the protective barrel 3 is damaged by an impact, the arc ring 901 and the buffer assembly 7 at the back side of the impact will not be significantly damaged. Therefore, when the protective barrel 3 is maintained or replaced, these components can be reused, thereby improving the utilization efficiency of the entire protective barrel 3 and reducing the cost of use.

[0046] The impact force on the abutting rod 701 is transmitted to both ends of the protective barrel 3 via the abutting ring 9 , so that the impact force can be evenly transmitted to the abutting surface 10 , thereby reducing the concentrated stress on the abutting surface 10 .

[0047] like Figures 5 to 7 As shown, a single inner shell 5 has a retaining plate 501 extending outward from both sides thereof. Each retaining plate 501 has a long retaining groove 502. When the inner shells 5 are spliced together, the retaining plates 501 on the two inner shells 5 are respectively fitted together and then secured by a clamping plate 6. The clamping plate 6 has an inner groove 601 that engages with the retaining plate 501. The inner groove 601 clamps the two fitted retaining plates 501. After the retaining plate 6 is clamped on the two retaining plates 501, its inner wall fits against the arc surface of the inner shell 5.

[0048] An inner clip 602 extends inward from the inner groove 601 and is engaged with the long clip groove 502. By engaging the inner clip 602 in the long clip groove 502, the clamping plate 6 can be prevented from falling directly off the clip plate 501 due to impact, thereby improving the fastening of the clamping plate 6.

[0049] Specifically, during the installation process, first, two inner shells 5 are placed on the power pole 2, so that the clamping plates 501 on both sides of the inner shell 5 are aligned with each other. Then, the clamping plate 6 is inserted from the top of the inner shell 5, so that the clamping plates 501 are locked into the inner groove 601 and the inner clamping strip 602 is locked into the long clamping groove 502. The remaining number of inner shells 5 are spliced in sequence until the power pole 2 is completely covered by the inner shell 5.

[0050] The two clamping plates 501 are fitted together to form a double support structure, and combined with the tightening effect of the clamping plate 6, the bending and shear resistance of the joint is significantly improved. Fixing directly through the clamping plate 6 can improve the installation efficiency of the entire protective device and reduce time costs. Secondly, by clamping the clamping plate 501 with the inner groove 601 and the inner clamping strip 602 with the long clamping groove 502, the entire assembly process is more convenient and faster, accelerating installation efficiency and reducing construction time costs.

[0051] In one embodiment, if Figure 1 and Figure 3 As shown, several foldable airbags 11 are disposed between the abutment ring 9 and the abutment surface 10. Several protective plates 12 are disposed between the inner walls of the upper and lower ends of the protective barrel 3 and the power pole 2. Between the protective plates 12 and the outer wall of the power pole 2, there are deflated airbags (not shown) equal in number to the arc-shaped rings 901. The inner cavities of these airbags communicate with the inner cavities of the foldable airbags 11, allowing the gas in the foldable cavities to be squeezed into the airbags after the barrel is impacted.

[0052] Specifically, the anti-collision airbag is generally arc-shaped, with one side adhered to the protective plate 12 and the other to the power pole 2. The protective plate 12 is fixed to the inner wall surface of the end of the protective shell 4. The provision of the folding airbag 11 further enhances the cushioning capacity of the ends of the abutment rod 701, allowing the impact force on the abutment rod 701 to be partially offset by the compression of the folding airbag 11. Combined with the elastic member 703, this effectively enhances the force-relieving effect of the buffer assembly 7. Secondly, the protective plates 12 and anti-collision airbags are provided at the upper and lower ends of the protective barrel 3. Before the protective barrel 3 is impacted, the anti-collision airbag is in a compressed and deflated state, with no gas inside. After the protective barrel 3 is impacted, the abutment ring 9 compresses the folding airbag 11, squeezing the gas inside the folding airbag 11 into the anti-collision airbag, thereby inflating the anti-collision airbag and protecting the wrapped power pole 2.

[0053] After an impact, the protective barrel 3's ends typically have poor protection, failing to adequately protect the power pole 2. Installing airbags at both ends of the barrel improves the protective effect of the barrel on the power pole 2. The impact triggers the inflation of the airbags, allowing them to maintain a small storage volume under normal conditions. Furthermore, since the airbags are gas-free and smaller, their area exposed to direct sunlight is reduced. Compared to airbags deployed directly on the power pole 2 after inflation, they can be stored for longer periods of time, resulting in a longer service life.

[0054] like Figure 1 As shown, the outer ring of the crash bucket 3 is provided with a plurality of light-emitting slots 13, within which a plurality of light sources 14 are arranged in an equidistant array. The provision of light sources 14 enables the crash bucket to display its shape at night or in foggy weather, alerting surrounding vehicles and reducing the risk of accidental collisions. In this embodiment, light sources 14 are specifically LED light strips that automatically power on and flash at night.

[0055] Furthermore, a solar panel 15 is provided at the upper end of the protective barrel 3 , and the solar panel 15 provides power to the light source 14 , thereby improving energy utilization.

[0056] In this embodiment, if Figure 2 As shown, on the left and right sides of the splicing surface of the protective housing 4, there are three outward-protruding blocks 401 and inward-concave grooves 402, respectively. They are evenly spaced vertically on the protective housing 4, and through-holes are opened at the center of the blocks 401 and grooves 402. When the protective housing 4 is spliced, the blocks 401 are snapped into the grooves 402 to achieve a preliminary connection, and further fixed by external bolts passing through the through-holes.

[0057] like Figure 8 As shown, base 1 is composed of two joined semicircular plates, each with mounting holes defined in its outer ring. External bolts are inserted into the holes to secure base 1 to the bottom of power pole 2. A sunken trough 101 is located in the center of base 1, and the inner wall of sunken trough 101 has chamfered flat surfaces 102 parallel to the ends of the protective housing. When protective barrel 3 is installed, the chamfered surface at the lower end of the protective housing aligns with chamfered flat surface 102 on the inner wall of sunken trough 101.

[0058] In another embodiment, an arc-shaped slot 103 is provided on the chamfered surface, and an arc-shaped clamping plate 403 is provided on the chamfered surface of the lower end of the protective shell. When the base 1 is installed, the arc-shaped clamping plate 403 is clamped in through the arc-shaped slot 103, which can further limit the protective barrel 3 and improve the degree of fastening connection between the protective barrel 3 and the power pole 2.

[0059] This application also relates to an assembly process of an energy storage light-emitting device for protecting power facilities, which specifically includes the following steps: S1. First, place two inner shells 5 on the power pole 2, and clamp the clamping plate 6 on the clamping plates 501 of the two inner shells 5. Combine the two inner shells 5, and then use the clamping plate 6 to sequentially install the remaining inner shells 5 on the power pole 2, so that the inner shells 5 are connected end to end to wrap the power pole 2. S2. Assemble the buffer assembly 7, connect the sliding member 702 to the abutting rod 701, install the abutting ring 9 on the sliding member 702 at the lower end of the abutting rod 701 through the abutting joint 7022, and attach the folded airbag 11 to the bottom of the abutting ring 9; S3. Attach each assembled buffer assembly 7 to the clamping plate 6 through the clamping slot 7021 , and install the elastic member 703 on the buffer assembly 7 , with both ends of the elastic member 703 fixed to the two ends of the abutting rod 701 ; S4. After the two protective shells 4 wrap the entire assembly mounted on the power pole 2, the two protective shells 4 are fastened together by bolt connection.

[0060] Working principle: The protective barrel 3 encases the power pole 2. When impacted, the buffer assembly 7 converts the impact force perpendicular to the power pole 2 into a vertical force. This force is directed upward and downward toward the power pole 2, reducing the direct impact force on the power pole 2 and utilizing the impact force to secure the protective barrel 3 to the power pole 2, preventing it from separating from the pole 2 in the event of an oblique impact.

[0061] When the protective barrel 3 is subjected to a positive impact, the force on the outer wall of the protective barrel 3 will push the buffer plate 8, and the buffer plate 8 will push the abutment rod 701, so that the hinge angle of the abutment rod 701 toward the power pole 2 gradually expands, and the two ends of the abutment rod 701 move toward the two ends of the protective barrel 3 respectively, pushing the sliding member 702 connected to the end, and the sliding member 702 pushes the abutment ring 9 to fix the two ends of the protective barrel 3 at the position of the power pole 2 through the abutment ring 9, and guides the impact force exerted on the protective barrel 3 to the ground, thereby reducing the impact force directly exerted on the power pole 2.

[0062] When a foldable airbag 11 is provided between the abutment ring 9 and the abutment surface 10, the abutment member compresses the foldable airbag 11, squeezing the gas in the foldable airbag 11 into the anti-collision airbag. This inflates the deflated anti-collision airbag, making it fit more closely against the power pole 2 and effectively protecting the most vulnerable points on both ends of the power pole 2. Because multiple anti-collision airbags are provided, the anti-collision airbag at the impact location expands the most in volume in the event of an impact, providing effective protection for the power pole 2 while minimizing damage to the internal buffer components of the anti-collision barrel at other locations.

[0063] When the crash barrel is hit from the side, Figure 5 As shown, the impact point deviates from the center of the protective barrel 3, and the force direction of the protective barrel 3 is relatively biased. The outer wall of the protective barrel 3 pushes the two buffer plates 8 close to the impact point, the buffer plates 8 push the abutment rod 701, and the abutment rod 701 pushes the abutment ring 9. After the abutment ring 9 and the abutment surface 10 or the folding airbag 11 are fitted with each other, the lower end of the protective barrel 3 is stably pressed on the base 1, thereby preventing the protective barrel 3 from deviating from the power pole 2 when it is hit from the side.

[0064] The basic principles, main features, and advantages of the present invention are shown and described above. Those skilled in the art will appreciate that the present invention is not limited to the foregoing embodiments and that various modifications and improvements may be made to the present invention without departing from the spirit and scope of the present invention. Such modifications and improvements are intended to fall within the scope of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An energy storage light-emitting device for protecting power facilities, characterized in that: include: A base (1) is arranged at the bottom of the power pole (2); A protective barrel (3) is arranged on the base (1), and the protective barrel (3) is formed by splicing a plurality of protective shells (4) in a circular array around the power pole (2); An internal interlayer is arranged inside the protective barrel (3), and the internal interlayer is formed by splicing a plurality of internal shells (5) around the power pole (2); Clamping plates (6) equal in number to the inner shells (5) are provided at the joint of the two inner shells (5) and are used to fix the inner shells (5) on the power pole (2); A plurality of buffer assemblies (7), wherein the buffer assemblies (7) include an abutting rod (701), the abutting rod (701) includes an upper and a lower section, the middle section of which is hinged, and a buffer plate (8) is provided at the hinge, which is in contact with the inner wall of the protective barrel (3), and the hinge angle of the abutting rod (701) is less than 180 degrees and faces inward; The protective barrel (3) is provided with abutment surfaces (10) at both upper and lower ends, and the buffer assembly (7) is provided with abutment rings (9) at both upper and lower ends. When the buffer assembly (7) is subjected to external pressure, the abutment rings (9) slide toward the abutment surfaces (10).

2. The energy storage light-emitting device for protecting electric power facilities according to claim 1, characterized in that: The buffer assembly (7) further comprises a sliding member (702) hinged to the other end of the abutting rod (701), the sliding member (702) being provided with a slot (7021) for mutually engaging with the clamping plate (6), and the sliding member (702) being further provided with an abutting head (7022) for mutually connecting with the abutting ring (9).

3. The energy storage light-emitting device for protecting electric power facilities according to claim 2, characterized in that: An elastic member (703) is connected between the upper and lower ends of the abutting rod (701), and the elastic member (703) contracts toward the center in a fixed state so that the ends of the abutting rod (701) are close to each other.

4. The energy storage light-emitting device for protecting electric power facilities according to claim 2, characterized in that: The abutment ring (9) is formed by splicing together a number of arc-shaped rings (901) equal in number to the buffer assembly (7); each arc-shaped ring (901) is provided with a groove (902), and the abutment head (7022) is snap-fitted into the groove (902).

5. The energy storage light-emitting device for protecting electric power facilities according to claim 1, characterized in that: A clamping plate (501) extends outward from both sides of a single piece of the inner shell (5). When the inner shell (5) is spliced, the clamping plates (501) on the two inner shells (5) are respectively fitted to each other and fixed by a clamping plate (6) after fitting. The inner wall of the clamping plate (6) fits on the arc surface of the inner shell (5).

6. The energy storage light-emitting device for protecting electric power facilities according to claim 5, characterized in that: The card plate (501) is provided with a long card slot (502), the clamping plate (6) is provided with an inner slot (601) that is engaged with the card plate (501), and an inner card strip (602) that extends inwardly from the inner slot (601) and is engaged with the long card slot (502).

7. The energy storage light-emitting device for protecting electric power facilities according to claim 1, characterized in that: A plurality of folding air bags (11) are provided between the abutment ring (9) and the abutment surface (10), and a plurality of protective plates (12) are provided between the inner wall surfaces at the upper and lower ends of the protective barrel (3) and the power pole (2).

8. The energy storage light-emitting device for protecting electric power facilities according to claim 7, characterized in that: A plurality of deflated anti-collision airbags are provided between the protective plate (12) and the outer wall of the power pole (2). The inner cavity of the anti-collision airbag is connected to the inner cavity of the folding airbag (11). When the anti-collision barrel is hit, the gas in the folding cavity can be squeezed into the anti-collision airbag.

9. The energy storage light-emitting device for protecting electric power facilities according to claim 1, characterized in that: The outer ring of the protective barrel (3) is provided with a plurality of light-emitting slots (13), and a plurality of light-emitting sources (14) are arranged in an equidistant array in the light-emitting slots (13).

10. An assembly process for an energy storage light emitting device for protecting electric power facilities, specifically applied to the energy storage light emitting device according to any one of claims 1 to 9, characterized in that: The following steps are involved: S1. First, two inner shells (5) are placed on the power pole (2), and a clamping plate (6) is clamped on the clamping plate (501) of the two inner shells (5). The two inner shells (5) are combined, and the remaining inner shells (5) are sequentially mounted on the power pole (2) through the clamping plate (6), so that the inner shells (5) are connected from head to tail to wrap the power pole (2); S2, assembling the buffer assembly (7), connecting the sliding member (702) to the abutting rod (701), installing the abutting ring (9) on the sliding member (702) at the lower end of the abutting rod (701) through the abutting joint (7022), and attaching the folded airbag (11) to the bottom of the abutting ring (9); S3, clamping each assembled buffer assembly (7) on the clamping plate (6) through the clamping slot (7021), and installing the elastic member (703) on the buffer assembly (7), with the two ends of the elastic member (703) respectively fixed to the two ends of the abutting rod (701); S4. After the two protective shells (4) wrap the entire assembly mounted on the power pole (2), the two protective shells (4) are fastened together by bolt connection.

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