Solar stay-cable warning light and installation method therefor

Abstract

A solar stay-cable warning light (10) and an installation method therefor. The solar stay-cable warning light (10) comprises: an energy storage assembly (100) and a light guide assembly (200). The energy storage assembly (100) comprises a housing (110), a solar panel (120), and a power source (130) located in the housing (110). The solar panel (120) is arranged on the outer side of the housing (110), and the solar panel (120) is electrically connected to the power source (130). The light guide assembly (200) comprises a light guide tube (210) and a light source (220). The light guide tube (210) is sleeved on a stay cable (11), and the light guide tube (210) is connected to the housing (110). The light source (220) is electrically connected to the power source (130), the light source (220) being arranged towards the light guide tube (210).

Description

Solar cable-stayed line warning lamp and installation method thereof TECHNICAL FIELD

[0001] The present application relates to the technical field of warning lamps, in particular to a solar cable-stayed line warning lamp. BACKGROUND

[0002] In order to maintain the stability of buildings such as lamp poles, power poles and iron towers which have small footprint and high height, and to avoid their collapse, cable-stayed lines are usually provided to provide support. Due to the elongated characteristics of the cable-stayed lines, they are not easy to be noticed, especially at night or in areas with weak light, the problem of tripping pedestrians or causing traffic accidents caused by vehicles hitting the cable-stayed lines often occurs.

[0003] The cable-stayed line is inclined between the ground and the bound building, and when a pedestrian walks away from the building, he / she is easy to be tripped; when a pedestrian walks close to the building, his / her upper body is also blocked by the cable-stayed line. Therefore, in order to avoid the collision between pedestrians and the cable-stayed line during walking close to the building, the coverage area of the light guide pipe should be increased as much as possible to enable pedestrians to observe the distribution of the cable-stayed line more comprehensively. However, the closer to the fixed point of the building the cable-stayed line is, the farther the distance from the ground is, which leads to the need for the use of ladders and other climbing tools to assist in erecting the energy storage components. The buildings provided with the cable-stayed line are usually thin and long in structure, which is not conducive to the erection of ladders. TECHNICAL PROBLEM

[0004] How to increase or shorten the coverage area of the light guide pipe on the cable-stayed line according to actual needs, and how to reduce the difficulty of adjusting the length of the light guide pipe. TECHNICAL SOLUTION

[0005] The purpose of the present application is achieved by the following technical solutions:

[0006] A solar cable-stayed line warning lamp, comprising: an energy storage component and a light guide component;

[0007] The energy storage component comprises a shell, a solar panel and a power supply located in the shell, the solar panel is arranged on the outer side of the shell, and the solar panel is electrically connected with the power supply;

[0008] The light guide component comprises a light guide pipe and a light source, the light guide pipe is sleeved on the cable-stayed line, and the light guide pipe is connected with the shell, the light source is electrically connected with the power supply, and the light source is arranged towards the light guide pipe;

[0009] The light guide pipe comprises an upper light guide cover and a lower light guide cover, the upper light guide cover is provided with a light transmission cavity and a butt joint groove, the lower light guide cover is provided with a buckle, and the buckle is used for buckling with the butt joint groove to wrap the cable-stayed line together with the upper light guide cover and the lower light guide cover;

[0010] The light guide pipe further comprises a clamp, which is used to clamp the upper light guide cover and the lower light guide cover, and the upper light guide cover and the lower light guide cover are provided with silica gel pads at positions in contact with the cable-stayed line.

[0011] The light guide pipe further comprises a plurality of splicing strips, each of which is provided with a limiting pin, a positioning hole and a clamping part for clamping the cable-stayed line, the upper light guide cover is located on one side of the cable-stayed line close to the ground, one end of the upper light guide cover away from the ground is connected with the splicing strip, a plurality of the splicing strips are sequentially connected along the cable-stayed line, and the splicing strip located at the highest position is connected with the shell; wherein, when a plurality of the splicing strips are connected, the limiting pin is inserted into the positioning hole of another splicing strip adjacent thereto.

[0012] In one of the embodiments, the light guide assembly further comprises a light guide head, the light source is accommodated in the shell, the light guide head is arranged on the emitting end of the light source, and the light guide head is inserted into the inner cavity of the light guide pipe.

[0013] In one of the embodiments, the light guide pipe is provided with a fixed support at a position connected with the shell, and the light source is arranged on the fixed support.

[0014] In one of the embodiments, the solar panel is provided with two, the shell is provided with an end cover support at a position connected with the solar panel, and the solar panel is rotationally connected with the end cover support.

[0015] In one of the embodiments, the energy storage assembly further comprises a clamping cover, the clamping cover is provided with an arc-shaped groove, the clamping cover is arranged at the bottom of the shell, the arc-shaped groove cooperates with the bottom of the shell to clamp the cable-stayed line, the clamping cover is provided with a stop screw, and the stop screw abuts against the cable-stayed line.

[0016] In one of the embodiments, the light guide pipe further comprises a reflecting plate, which is arranged at one end of the upper light guide cover away from the shell.

[0017] A method for installing a solar cable-stayed line warning light, based on the above-mentioned solar cable-stayed line warning light, comprising the following steps:

[0018] S1: placing the upper light guide cover on the cable-stayed line and placing the silica gel pad at the position in contact between the upper light guide cover and the cable-stayed line, aligning the lower light guide cover with the upper light guide cover and placing the silica gel pad at the position in contact between the lower light guide cover and the cable-stayed line;

[0019] S2: pressing the lower light guide cover until the buckle is embedded in the butt joint groove, and using the clamp to bind the upper light guide cover and the lower light guide cover;

[0020] S3: After connecting the splicing strip with the shell, the splicing strip is buckled on the cable-stayed line;

[0021] S4: Holding the splicing strip and pushing the splicing strip along the cable-stayed line, the energy storage assembly is pushed to a high place, when the distance between the splicing strip and the upper light guide cover is greater than the splicing strip, the next splicing strip is picked up and placed in the above distance, and the splicing strip is connected with the previous splicing strip;

[0022] S5: Repeat step S4 until all splicing strips are connected;

[0023] S6: The last splicing strip is connected with the upper light guide cover. Beneficial effects

[0024] 1. After starting the light source, the light guide pipe can be illuminated to warn pedestrians of the distribution position of the cable-stayed line, and the light guide pipe sleeve is on the cable-stayed line, so that the lighting range is wider and the cable-stayed line position is easier to observe.

[0025] 2. The solar panel is used to supply power to the light source, which not only saves energy, but also allows the warning light to be set in areas where electricity cannot be connected.

[0026] 3. The splicing strip is equivalent to splitting the light guide pipe into multiple sections, making it easy to carry. When docking, only the limiting needle on the splicing strip needs to be inserted into the positioning hole on the adjacent splicing strip, which is convenient to operate. The number of splicing strips can be flexibly increased or decreased to allow the light guide pipe to adapt to different lengths of cable-stayed lines, increase the coverage area of the light guide pipe, and improve the warning effect.

[0027] 4. The positioning hole cooperates with the limiting needle to keep the direction of the connected splicing strips consistent, and the shell and the upper light guide cover are connected with the splicing strips. After the upper light guide cover and the lower light guide cover are fixed by the clamp, the shell and the splicing strips are also locked, and the assembly process is simple.

[0028] 5. During the continuous loading of the splicing strips, the shell is continuously lifted, and the operator standing on the ground can complete the installation of the warning light, without the need to fix the energy storage assembly at a high place, reducing the installation difficulty of the warning light and improving the installation efficiency. BRIEF DESCRIPTION OF DRAWINGS

[0029] Figure 1 is a schematic view of the solar cable-stayed line warning light fixed on the cable-stayed line;

[0030] Figure 2 is a schematic view of the structure of the solar cable-stayed line warning light;

[0031] Figure 3 is a schematic view of the cooperation between the shell and the light guide pipe;

[0032] Figure 4 is a schematic view of the disassembly of the solar cable-stayed line warning light shown in Figure 3;

[0033] Fig. 5 is a structural schematic diagram of the energy storage assembly;

[0034] Fig. 6 is a split schematic diagram of the energy storage assembly shown in Fig. 5;

[0035] Fig. 7 is a split schematic diagram of the light guide assembly;

[0036] Fig. 8 is a schematic diagram of the cooperation of the upper light guide cover and the lower light guide cover;

[0037] Fig. 9 is a sectional schematic diagram of the splicing strip;

[0038] Fig. 10 is a schematic diagram of the cooperation of the splicing strip, the upper light guide cover and the shell;

[0039] Fig. 11 is a schematic diagram of the butt joint between adjacent splicing strips. Embodiment of the present application

[0040] Please refer to Fig. 1, the present application provides a solar cable-stayed line warning light 10, comprising an energy storage assembly 100 and a light guide assembly 200.

[0041] Please refer to Figs. 3 and 6, the energy storage assembly 100 comprises a shell 110, a solar panel 120 and a power supply 130 located in the shell 110, the solar panel 120 is arranged on the outer side of the shell 110, and the solar panel 120 is electrically connected with the power supply 130;

[0042] Please refer to Figs. 2 and 7, the light guide assembly 200 comprises a light guide pipe 210 and a light source 220, the light guide pipe 210 is sleeved on the cable-stayed line, and the light guide pipe 210 is connected with the shell 110, the light source 220 is electrically connected with the power supply 130, and the light source 220 is arranged towards the light guide pipe 210.

[0043] It should be noted that the shell 110 further comprises a control panel (not shown) for controlling the charging and discharging of the power supply 130. During the day, the solar panel 120 converts the obtained electrical energy and stores it in the power supply 130; when the external light becomes weak (at night), the solar panel 120 cannot continue to convert electrical energy, at this time the power supply 130 supplies power to the light source 220, illuminates the light guide pipe 210, and allows pedestrians to observe the distribution position of the cable-stayed line 11, thereby achieving the warning of pedestrians and reducing the probability of safety accidents.

[0044] Among them, the light source 220 is a lighting lamp, the light source 220 is arranged towards the light guide pipe 210, when the light source 220 is started, the light source 220 emits light towards the light guide pipe 210, the light is diffusely reflected in the light guide pipe 210, so as to illuminate the light guide pipe 210. In order to improve the warning effect, the light source 220 can emit light with color, such as red, blue and the like, and by making the light source 220 flicker, the light guide pipe 210 is more eye-catching, further improving the warning effect.

[0045] The above-mentioned solar cable-stayed line warning light 10 has the following advantages:

[0046] 1. After the light source 220 is activated, the light guide 210 can be illuminated to warn pedestrians of the distribution position of the diagonal wire. The light guide 210 is placed on the diagonal wire, which makes the lighting range wider and the position of the diagonal wire easier to observe.

[0047] 2. Using the solar panel 120 to supply power to the light source 220 not only saves energy but also allows the warning light to be installed in areas where power is unavailable.

[0048] Referring to Figure 2 , a fixing bracket 300 is provided at the connection point between the light guide 210 and the housing 110. The fixing bracket 300 is U-shaped and connects the light guide 210 to the housing 110. The light source 220 is positioned on the fixing bracket 300 , with the emitting end of the light source 220 facing toward the light guide 210. That is, the light source 220 is positioned between the housing 110 and the light guide 220 , as shown in Figure 2 , thereby improving the structural stability of the warning light.

[0049] Preferably, referring to Figures 3 and 4 , light guide assembly 200 further includes a light guide head 221. Light source 220 is housed within housing 110 and secured to the emitting end of light source 220 via screws. When light guide assembly 200 is docked with energy storage assembly 100, light guide head 221 is inserted into the inner cavity of light pipe 210. Light source 220 is housed within housing 110 and connected to power source 130 (as shown in Figure 4 ), enhancing sealing and making the warning light structure more compact.

[0050] Preferably, as shown in Figure 2 , two solar panels 120 are provided to increase the amount of electrical energy converted, allowing the power supply 130 to store sufficient energy to power the light source 220 at night. Furthermore, an end cap bracket 140 is provided on the housing 110 at the location where it connects to the solar panel 120. The solar panel 120 is rotatably connected to the end cap bracket 140. The orientation of the solar panel 120 can be adjusted according to the installation position of the housing 110 to achieve optimal lighting conditions.

[0051] As can be understood, the diagonal cable 11 is a slender member, and the warning light is located outdoors. Strong winds (especially during typhoons) can easily cause the warning light to deflect. In the aforementioned solution, solar panels 120 are required to convert electricity to power the light source 220. This deflection can cause the solar panels 120 to shift in orientation, preventing them from effectively generating electricity during the day and, consequently, causing the warning light to malfunction. Therefore, improving the stability of the connection between the warning light and the diagonal cable 11 to prevent it from rotating around the cable 11 is a challenge that needs to be addressed.

[0052] Please refer to FIG. 3 and FIG. 6, the energy storage assembly 100 further comprises a clamping cover 150, the clamping cover 150 is provided with an arc-shaped slot 151, the clamping cover 150 is arranged at the bottom of the shell 110, and the arc-shaped slot 151 is matched with the bottom of the shell 110 to clamp the cable-stayed line 11. The clamping cover 150 is provided with a stop screw 152, and the stop screw 152 abuts against the cable-stayed line 11.

[0053] When assembled, the shell 110 is placed on the cable-stayed line 11, the clamping cover 150 is moved to below the shell 110, the cable-stayed line 11 is sunk into the arc-shaped slot 151, the shell 110 and the clamping cover 150 are locked by a screw, at this time, the cable-stayed line 11 is clamped between the arc-shaped slot 151 and the bottom of the shell 110, and then the shell 110 is fixed on the cable-stayed line 11. Then, the stop screw 152 is rotated to abut against the cable-stayed line 11, and then the shell 110 is locked. Finally, the light guide pipe 220 is connected with the shell 110.

[0054] The shell 110 is locked by the stop screw 152, the warning light is prevented from rotating around the cable-stayed line 11, and the connection between the warning light and the cable-stayed line 11 is more stable.

[0055] Please refer to FIG. 7 and FIG. 8, the light guide pipe 210 comprises an upper light guide cover 211 and a lower light guide cover 212, the upper light guide cover 211 is provided with a light transmission cavity 21 and a butt joint slot 22, the lower light guide cover 212 is provided with a buckle 23, the buckle 23 is used for buckling with the butt joint slot 22, so that the upper light guide cover 211 and the lower light guide cover 212 jointly wrap the cable-stayed line 11.

[0056] Please refer to FIG. 2 and FIG. 7, the light guide pipe 210 further comprises a clamp 213, the clamp 213 is used for clamping the upper light guide cover 211 and the lower light guide cover 212, and the upper light guide cover 211 and the lower light guide cover 212 are provided with silica gel pads 214 at positions in contact with the cable-stayed line.

[0057] When assembled, the upper light guide cover 211 is first attached to the cable-stayed line 11, the lower light guide cover 212 is moved to the position of the upper light guide cover 211, the buckle 23 is aligned with the butt joint slot 22, force is pressed, and the buckle 23 and the butt joint slot 22 are buckled together (as shown in FIG. 8), at this time, the upper light guide cover 211 and the lower light guide cover 212 are cooperated to wrap the cable-stayed line 11.

[0058] Then, the clamp 213 is used to tighten the upper light guide cover 211 and the lower light guide cover 212. Finally, the upper light guide cover 211 is connected with the shell 110.

[0059] Since the positions of the upper light guide cover 211 and the lower light guide cover 212 in contact with the inclined cable are provided with the silica gel pads 214, after the upper light guide cover 211 and the lower light guide cover 212 are tightly bound, the silica gel pads 214 are deformed under pressure to generate elastic force, so that the friction between the inclined cable 11 and the upper light guide cover 211 and the friction between the inclined cable 11 and the lower light guide cover 212 are increased. The above-mentioned friction is used as resistance to prevent the warning light from rotating around the inclined cable 11, so that the connection between the warning light and the inclined cable 11 is more stable.

[0060] Preferably, the light guide pipe 210 further comprises a reflecting plate 215 provided on the end of the upper light guide cover 211 away from the shell 110. The reflecting plate 215 reflects the light emitted by the light source 220, further improves the lighting effect, and makes the warning light more easily observed, thereby improving the warning effect.

[0061] It can be understood that the inclined cable 11 is inclinedly arranged between the ground and the bound building, and pedestrians are easy to trip when walking away from the building; when pedestrians walk close to the building, the upper body is also blocked by the inclined cable 11. Therefore, in order to avoid the collision between pedestrians and the inclined cable 11 during walking close to the building, it is necessary to increase the coverage area of the light guide pipe 210 as much as possible, so that pedestrians can more comprehensively observe the distribution of the inclined cable 11. However, the closer to the fixed point of the building the position on the inclined cable 11 is, the farther the distance from the ground is, which leads to the need for the use of a ladder or other climbing tools to assist in erecting the energy storage assembly 100. However, the building provided with the inclined cable 11 is usually thin and long in structure, which is not conducive to the erection of the ladder, so in order to ensure safety during the assembly of the energy storage assembly 100, someone needs to hold the ladder to prevent the ladder from shaking, which not only wastes labor, but also affects the assembly efficiency.

[0062] In order to solve the above-mentioned problems, please refer to FIGS. 9 and 11, the light guide pipe 210 is improved on the basis of the embodiment 2. Specifically, the light guide pipe 210 further comprises a plurality of splicing strips 216, the splicing strips 216 and the upper light guide cover 211 are made of the same material, each splicing strip 216 is provided with a limiting pin 31, a positioning hole 32 and a clamping part 33 for clamping the inclined cable 11, the upper light guide cover 211 is located on the side of the inclined cable 11 close to the ground, the end of the upper light guide cover 211 away from the ground is connected with the splicing strip 216, the plurality of splicing strips 216 are sequentially connected along the inclined cable 11 (as shown in FIG. 10), and the splicing strip 216 located at the highest position is connected with the shell 110.

[0063] Please refer to FIG. 11, when the plurality of splicing strips 216 are connected, the limiting pin 31 is inserted into the positioning hole 32 of another splicing strip 216 adjacent thereto.

[0064] The installation process of the warning light in the above-mentioned embodiments is as follows:

[0065] After the upper light guide cover 211 and the lower light guide cover 212 are buckled, they are pulled to the side of the cable-stayed line 11 close to the ground, and the cable-stayed line 11 is bound tightly by the clamp 213.

[0066] Then, the splicing strip 216 is arranged on the cable-stayed line 11, one end of the splicing strip 216 is connected with the shell 110, the splicing strip 216 is held and pushed along the cable-stayed line 11 to lift the shell 110 to a high place, when the distance between the splicing strip 216 and the light guide cover 211 is large enough (greater than or equal to the length of the single splicing strip 216), the next splicing strip 216 is placed in it and connected with the previous splicing strip 216, and the splicing strip 216 is sequentially arranged between the upper light guide cover 211 and the shell 110.

[0067] The last splicing strip 216 is connected with the upper light guide cover 211, and the upper light guide cover 211 is bound tightly by the clamp 213, and the friction between the upper light guide cover 211 and the cable-stayed line 11 and the friction between the lower light guide cover 212 and the cable-stayed line 11 prevent the energy storage assembly 100 from deflecting.

[0068] The splicing strip 216 arranged between the upper light guide cover 211 and the shell 110 has the following beneficial effects:

[0069] 1. The splicing strip 216 is equivalent to splitting the light guide pipe 210 into multiple sections, which is convenient for carrying. When the splicing strips 216 are connected, the limiting pin 31 on the splicing strip 216 is inserted into the positioning hole 32 on the adjacent splicing strip 216, which is convenient to operate. The number of splicing strips 216 can be flexibly increased or decreased to adapt the light guide pipe 210 to different lengths of the cable-stayed line 11, increase the coverage area of the light guide pipe 210, and improve the warning effect.

[0070] 2. The positioning hole 32 cooperates with the limiting pin 31 to keep the direction of the connected splicing strips 216 consistent, and the shell 110 and the upper light guide cover 211 are connected with the splicing strip 216. After the upper light guide cover 211 and the lower light guide cover 212 are fixed by the clamp 213, the shell 110 and the splicing strip 216 are also locked, and the assembly process is simple.

[0071] 3. During the process of continuously arranging the splicing strip 216, the shell 110 is continuously lifted, and the operator can complete the installation of the warning light standing on the ground, without fixing the energy storage assembly 100 at a high place, which reduces the installation difficulty of the warning light and improves the installation efficiency.

[0072] A method for installing the solar cable-stayed line warning light 10 based on the above method, comprising the following steps:

[0073] S1: Put the upper light guide cover 211 on the inclined cable 11, and put the silica gel pad 214 at the position where the upper light guide cover 211 contacts the inclined cable 11, align the lower light guide cover 212 with the upper light guide cover 211, and put the silica gel pad 214 at the position where the lower light guide cover 212 contacts the inclined cable 11;

[0074] S2: Press the lower light guide cover 212 until the buckle 23 is embedded in the docking groove 22, and use the clamp 213 to bind the upper light guide cover 211 and the lower light guide cover 212. When the clamp 213 is tightened, the upper light guide cover 211 and the lower light guide cover 212 are close to each other and press the silica gel pad 214, so that the friction between the upper light guide cover 211 and the lower light guide cover 212 and the inclined cable 11 is increased, and the upper light guide cover 211 and the lower light guide cover 212 are fixed on the inclined cable 11 by the friction;

[0075] S3: After connecting the splicing strip 216 with the shell 110, the splicing strip 216 is buckled on the inclined cable 11;

[0076] S4: Hold the splicing strip 216 and push it along the inclined cable 11 to a high place, when the distance between the splicing strip 216 and the upper light guide cover 211 is greater than the splicing strip 216, pick up the next splicing strip 216 and put it into the above-mentioned distance, and connect the splicing strip 216 with the previous splicing strip 216;

[0077] S5: Repeat step S4 until all splicing strips 216 are connected;

[0078] S6: Connect the last splicing strip 216 with the upper light guide cover 211.

[0079] According to the above installation steps:

[0080] 1. In steps S1 and S2, the silica gel pad 214 cooperates with the clamp 213 to bind the upper light guide cover 211 and the lower light guide cover 212 on the inclined cable 11, which generates a friction force that can prevent the upper light guide cover 211 and the lower light guide cover 212 from rotating around the inclined cable 11 and sliding along the inclined cable 11; on the other hand, adjacent splicing strips 216 are spliced together through the cooperation of the positioning hole 32 and the limiting needle 31, and the splicing strips 216 cannot rotate relative to each other, and since the last splicing strip 216 is connected with the upper light guide cover 211, the splicing strips 216 and the upper light guide cover 211 are locked, i.e. the splicing strips 216 cannot rotate or slide around the inclined cable 11; further, since the first splicing strip 216 is connected with the shell 110 and the splicing strips 216 cannot rotate relative to each other, the shell 110 connected with the splicing strips 216 also cannot rotate or slide around the inclined cable 11, i.e. after the last splicing strip 216 is connected with the upper light guide cover 211, the energy storage assembly 100 is also locked by the above-mentioned friction force.

[0081] 2、In steps S4 and S5, when assembling the splicing strip 216, force is applied to push the splicing strip 216 to slide along the cable-stayed line 11, so that the pushed splicing strip 216 leaves enough space with the upper light guide cover 211 to facilitate the installation of the next splicing strip 216, at the same time, the energy storage assembly 100 is lifted, and the energy storage assembly 100 is lifted once for each additional splicing strip 216, until all the splicing strips 216 are connected, the energy storage assembly 100 is lifted to a high place, and after the last splicing strip 216 is connected with the upper light guide cover 211, the splicing strip 216 provides resistance to prevent the energy storage assembly 100 from sliding down along the cable-stayed line 11. In this way, the operator on the ground can complete the fixation of the energy storage assembly 100, without the help of a ladder to fix the energy storage assembly 100 at a high place, making the assembly process more simple and fast. Industrial applicability

[0082] 1、After starting the light source 220, the light guide pipe 210 can be illuminated to warn pedestrians of the distribution position of the cable-stayed line, and the light guide pipe 210 is sleeved on the cable-stayed line, so that the lighting range is wider and the cable-stayed line position is easier to observe.

[0083] 2、The solar panel 120 supplies power to the light source 220, which not only saves energy, but also allows the warning light to be set in areas where electricity cannot be supplied.

[0084] 3、The splicing strip 216 is equivalent to splitting the light guide pipe 210 into multiple sections, making it convenient to carry. When connecting, only need to insert the limiting pin 31 on the splicing strip 216 into the positioning hole 32 on the adjacent splicing strip 216, which is convenient to operate. The number of splicing strips 216 can be flexibly increased or decreased to allow the light guide pipe 210 to adapt to cable-stayed lines 11 of different lengths, increase the coverage area of the light guide pipe 210, and improve the warning effect.

[0085] 4、The positioning hole 32 cooperates with the limiting pin 31 to keep the direction of the connected splicing strips 216 consistent, and the shell 110 and the upper light guide cover 211 are connected with the splicing strip 216. After the upper light guide cover 211 and the lower light guide cover 212 are fixed by the clamp 213, the shell 110 and the splicing strip 216 are also locked, and the assembly process is simple.

[0086] 5、During the continuous installation of the splicing strip 216, the shell 110 is continuously lifted, and the operator standing on the ground can complete the installation of the warning light, without the need to fix the energy storage assembly 100 at a high place, reducing the installation difficulty of the warning light and improving the installation efficiency.

Claims

1. A solar catenary warning light, characterized by, The utility model relates to a solar cable-stayed line warning lamp, which comprises a storage component and a light guide component. The storage component comprises a shell, a solar panel and a power supply located in the shell, the solar panel is arranged on the outer side of the shell, and the solar panel is electrically connected with the power supply. The light guide component comprises a light guide pipe and a light source, the light guide pipe is sleeved on the cable-stayed line, and the light guide pipe is connected with the shell, the light source is electrically connected with the power supply, and the light source is arranged towards the light guide pipe. The light guide pipe comprises an upper light guide cover and a lower light guide cover, the upper light guide cover is provided with a light transmission cavity and a butt joint groove, the lower light guide cover is provided with a buckle, the buckle is used for buckling with the butt joint groove, so that the upper light guide cover and the lower light guide cover jointly wrap the cable-stayed line. The light guide pipe further comprises a clamp, the clamp is used for clamping the upper light guide cover and the lower light guide cover, and the upper light guide cover and the lower light guide cover are both provided with silica gel pads at positions in contact with the cable-stayed line. The light guide pipe further comprises a plurality of splicing strips, each splicing strip is provided with a limiting pin, a positioning hole and a clamping part for clamping the cable-stayed line, the upper light guide cover is located on one side of the cable-stayed line close to the ground, one end of the upper light guide cover away from the ground is connected with the splicing strip, a plurality of splicing strips are sequentially connected along the cable-stayed line, and the splicing strip located at the highest position is connected with the shell; when a plurality of splicing strips are connected, the limiting pin is inserted into the positioning hole of another splicing strip adjacent thereto. The light guide component further comprises a light guide head, the light source is accommodated in the shell, the light guide head is arranged on the emission end of the light source, and the light guide head is inserted into the inner cavity of the light guide pipe.

2. The solar catenary warning light of claim 1, wherein, The light guide pipe and the shell are connected at a position, and a fixed support is arranged at the position.

3. The solar catenary warning light of claim 1, wherein, The shell is provided with two solar panels, and the shell is provided with an end cover support at a position connected with the solar panels.

4. The solar catenary warning light of claim 1, wherein, The storage component further comprises a clamping cover, the clamping cover is provided with an arc-shaped groove, the clamping cover is arranged at the bottom of the shell, the arc-shaped groove and the bottom of the shell are matched to clamp the cable-stayed line, the clamping cover is provided with a stop screw, and the stop screw abuts against the cable-stayed line.

5. The solar catenary warning light of claim 1, wherein, The light guide pipe further comprises a reflecting plate, and the reflecting plate is arranged at one end of the upper light guide cover away from the shell.

6. The solar catenary warning light of claim 1, wherein, The solar cable-stayed line warning lamp according to claim 1 comprises the following steps:

7. A method for installing a solar-powered inclined wire warning light, characterized in that: S1: placing the upper light guide cover on the cable-stayed line, placing silica gel pads at positions of the upper light guide cover and the cable-stayed line in contact with each other, aligning the lower light guide cover with the upper light guide cover, and placing silica gel pads at positions of the lower light guide cover and the cable-stayed line in contact with each other; S2: pressing the lower light guide cover until the buckle is embedded in the butt joint groove, and binding the upper light guide cover and the lower light guide cover by using the clamp; S3: connecting the splicing strip with the shell, and buckling the splicing strip on the cable-stayed line. ​ S4: hold the splicing strip and push it to ascend along the cable-stayed line, push the energy storage assembly to a high place, when the distance between the splicing strip and the upper light guide cover is greater than the splicing strip, pick up the next splicing strip and put it into the distance, and connect the splicing strip with the previous splicing strip; S5: repeat step S4 until all splicing strips are connected; S6: connect the last splicing strip with the upper light guide cover.

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