A high-speed camera carrying device

By designing a high-speed camera carrier device, using the rear arm walking mechanism, height lifting assembly and forearm swing assembly, the automatic movement and angle adjustment of the high-speed camera are realized, solving the problem of low automation in the prior art and improving the tread The multi-angle observation capability of the block reduces the cost.

CN111550647BActive Publication Date: 2024-12-24SAILUN GRP CO LTD +1
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Patent Information

Application Number
CN202010392178.0
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2020-05-11
Publication Date
2024-12-24
Estimated Expiration
2040-05-11

AI Technical Summary

Technical Problem

The existing high-speed cameras are equipped with frames that are low in automation when adjusting height and position, making it difficult to achieve multi-angle observation of tread blocks, and increasing the number of cameras will increase costs.

Method used

A carrier device including a high-speed camera, profile rear arm, middle support arm and profile forearm is designed, using a rear arm walking mechanism, a height lift assembly and a forearm swing assembly, and high speed is achieved through a roller motor, a pulley motor and a conical motor. The camera's automated movement and angle adjustment ensures multi-angle observation.

Benefits of technology

The automatic movement and angle adjustment of the high-speed camera are realized, the multi-angle observation capability of the tread block is improved, the cost is reduced, and the device weight is reduced through hollow aluminum profile rods.

✦ Generated by Eureka AI based on patent content.

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    Figure CN111550647B_ABST
Patent Text Reader

Abstract

The present application discloses a high-speed camera carrying device, including a high-speed camera, a profile rear arm, a middle support arm and a profile forearm; one end of the profile rear arm is connected to the end of the middle support arm, and the other end of the profile rear arm is provided with a rear arm walking mechanism; the middle section of the middle support arm is provided with a side upper plate and a side lower plate, one end of the profile forearm is provided between the side upper plate and the side lower plate and is rotationally connected with the side upper plate and the side lower plate through a rotating shaft, and the other end of the profile forearm is provided with two rollers; the middle section of the middle support arm is provided with a camera lifting assembly, and the camera lifting assembly is provided between the side upper plate and the side lower plate. The present invention can overcome the disadvantage of the inconvenience of manually adjusting the camera in the prior art, realize automatic adjustment of the camera to any position, angle and height, save costs, and has a reasonable and novel structural design.
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Description

Technical Field

[0001] The invention relates to a high-speed camera carrying device and belongs to the field of tire equipment. Background Art

[0002] As the connecting part between the car and the ground when driving, the performance of the tire directly affects the car's load-bearing capacity, braking, driving and handling stability. The tread block is the part of the tire that directly contacts the ground. The structural performance of the tread block directly determines the performance of the tire, especially the stiffness characteristics of the tread block, which plays an important role in the tire's force transmission, cornering, braking and lateral deviation. Therefore, the study of the stiffness characteristics of the tread block is the key to the development of high-performance tires. During the tread block rigidity research and testing process, it is necessary to observe the working conditions of the tread block with a high-speed camera, and during the observation process, it is necessary to adjust the position, camera angle, height, etc. of the high-speed camera to observe the tread block under test from multiple angles.

[0003] In the prior art, when studying and testing the rigidity of the tread pattern block, a high-speed camera mounting frame is generally used as a mounting support device for the high-speed camera. The existing high-speed camera mounting frame adopts a tripod structure.

[0004] The tripod-structured high-speed camera is equipped with a rack. When adjusting the height of the high-speed camera, the opening and angle between the support rods need to be manually adjusted. When adjusting the shooting position of the high-speed camera, the position of the high-speed camera needs to be manually moved. The degree of automation is low, and it is difficult to observe the tread blocks under test from multiple angles. Although the number of high-speed cameras can be increased to facilitate multi-angle observation of the tread blocks under test, the high price of high-speed cameras will increase the cost of the tread block stiffness test. Summary of the invention

[0005] The technical solution of the present invention provides a high-speed camera carrying device. When the tread block under test is observed at multiple angles, there is no need to manually adjust the shooting position, height and angle of the high-speed camera. The degree of automation is high, and the multi-angle observation of the tread block under test can be realized.

[0006] In order to solve the above technical problems, the technical solution adopted by the present invention is:

[0007] A high-speed camera carrying device comprises a high-speed camera, a profile rear arm, a middle support arm and a profile forearm; the end of the profile rear arm is fixedly connected to the end of the middle support arm, and the high-speed camera is arranged on the middle support arm; the middle support arm comprises two profile short arms, and the high-speed camera carrying device also comprises a rear arm walking mechanism, a height lifting assembly, a camera connecting assembly and a forearm swinging assembly; the rear arm walking mechanism is arranged at one end of the profile rear arm away from the middle support arm, the height lifting assembly is arranged in the middle section of the middle support arm and is located between the two profile short arms, the forearm swinging assembly is arranged at one end of the profile forearm close to the middle support arm, the profile forearm is connected to the middle support arm through the forearm swinging assembly, and a roller is arranged on the end of the profile forearm away from the middle support arm; the camera connecting assembly is arranged on one of the profile short arms, and the high-speed camera is connected to the middle support arm through the camera connecting assembly.

[0008] Optimized, the above-mentioned high-speed camera carrying device, the rear arm walking mechanism includes a roller, a roller motor and a motor fixing plate, the roller and the motor fixing plate are respectively arranged on both sides of the end of the profile rear arm, the motor fixing plate is fixedly connected to the profile rear arm, the roller motor is arranged on the motor fixing plate and a small spur gear is connected to the power output end; a large gear transmission shaft is arranged at the end of the profile rear arm, the large gear transmission shaft passes through the end of the profile rear arm and is rotatably connected to the profile rear arm, one end of the large gear transmission shaft is connected to the roller, and the other end of the large gear transmission shaft is arranged with a large spur gear, and the large spur gear is meshed with the small spur gear.

[0009] Optimized, the above-mentioned high-speed camera carrying device, the camera connecting assembly includes a base connecting plate and a high-speed camera base, the base connecting plate is fixedly arranged on one of the short arms of the profile, and the high-speed camera base is arranged on the base connecting plate; a high-speed camera articulation ball is arranged at the bottom of the high-speed camera, and a ball head groove cooperating with the high-speed camera articulation ball is arranged in the high-speed camera base, and the high-speed camera articulation ball is arranged in the ball head groove in the high-speed camera base.

[0010] Optimized, the above-mentioned high-speed camera carrying device, the height lifting component includes a front fixed plate, a front rotating block, and a pulley motor; the end of the profile forearm is connected to the front rotating block through a forearm swinging component; the front rotating block is arranged between the two profile short arms, the ends of the two profile short arms are connected through the fixed shaft of the front rotating block, and the pulley motor is arranged on one of the profile short arms; the front fixed plate is fixedly arranged on the profile short arm, the shaft end of the pulley motor is connected with a third small pulley, and a pulley transmission shaft is arranged on the front fixed plate, the pulley transmission shaft passes through the front fixed plate and is rotatably connected with the front fixed plate, and the two ends of the pulley transmission shaft are respectively provided with a third large pulley and a fourth large pulley, a third belt is arranged between the third small pulley and the third large pulley and is connected through the third belt transmission; a fourth belt is arranged between the fourth large pulley and the front rotating block, the fourth large pulley drives the front rotating block to rotate through the fourth belt, and the front rotating block rotates relative to the two profile short arms.

[0011] Optimized, the above-mentioned high-speed camera carrying device, the forearm swing assembly includes a bevel wheel motor, a side upper plate, and a side lower plate, the front rotating block is arranged between the side upper plate and the side lower plate and is fixedly connected to the side upper plate and the side lower plate, one end of the profile forearm is arranged between the side upper plate and the side lower plate and is rotatably connected to the side upper plate and the side lower plate through a rotating shaft; the bevel wheel motor is arranged on the side upper plate, the power output end of the bevel wheel motor is connected to the first bevel gear, a forearm extension shaft is arranged on the profile forearm, one end of the forearm extension shaft is fixed to the profile forearm, the other end of the forearm extension shaft passes through the side upper plate and is rotatably connected to the side upper plate, the end of the forearm extension shaft is fixedly connected to the second bevel gear, and the second bevel gear is meshed with the first bevel gear.

[0012] Optimized, in the above-mentioned high-speed camera carrying device, the ends of the two profile short arms are respectively connected to a profile rear arm, and an L-shaped profile angle piece is arranged on the profile short arm, one side surface of the profile angle piece is fixedly connected to the profile short arm, and the other side surface of the profile angle piece is fixedly connected to the profile rear arm.

[0013] Optimized, in the above-mentioned high-speed camera carrying device, the profile rear arm, the profile short arm and the profile front arm are all hollow aluminum profile rods; T-slots are respectively arranged on the surfaces of the profile rear arm and the profile short arm, and connecting bolts are arranged in the T-slots on the surfaces of the profile rear arm and the profile short arm, the bolt heads of the connecting bolts are arranged in the T-slots and slide with the T-slots, and the connecting bolts pass through the profile angle fittings and are fixed to the profile angle fittings by nuts.

[0014] Compared with the prior art, the present invention has the following beneficial effects:

[0015] (1) The rear arm, the middle support arm and the front arm of the profile form a support for the main body of the high-speed camera. The rear arm walking mechanism at the end of the rear arm of the profile drives the rear arm of the profile to move, and then drives the entire high-speed camera carrying device to move, so that the high-speed camera can move, which is convenient for the high-speed camera to shoot and collect information from different positions.

[0016] (2) The height lifting component can change the opening and angle between the rear arm and the front arm of the profile, thereby adjusting the height of the high-speed camera, making it convenient for the high-speed camera to shoot and collect information from different heights according to observation requirements.

[0017] (3) The forearm swing assembly enables the profile forearm to swing relative to the middle support arm and the profile rear arm. During the movement of the high-speed camera carrier, the moving direction of the high-speed camera carrier is adjusted to facilitate the high-speed camera to shoot and collect information from different angles.

[0018] (4) The high-speed camera is connected to the ball head slot in the high-speed camera base through the high-speed camera articulation ball, so that the high-speed camera can be rotated at different angles relative to the high-speed camera base, which is convenient for adjusting the shooting angle and range of the high-speed camera when shooting and collecting information.

[0019] (5) The rear profile arm, the short profile arm and the front profile arm are all hollow aluminum profile rods, which can reduce the weight of the entire high-speed camera carrier. The relative installation position between the rear profile arm and the short profile arm can be adjusted by sliding to meet different usage requirements. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a structural schematic diagram of the present invention;

[0021] Figure 2 It is a structural schematic diagram of the rear arm walking mechanism of the present invention;

[0022] Figure 3 It is a structural schematic diagram of the height lifting assembly of the present invention;

[0023] Figure 4 It is a structural schematic diagram of a forearm swing assembly of the present invention;

[0024] Figure 5 It is a schematic diagram of the structure of the high-speed camera carrying device of the present invention on the carrying platform;

[0025] Figure 6 It is a structural schematic diagram of the front rotating block of the present invention;

[0026] In the figure: 180, high-speed camera; 181, high-speed camera articulated ball; 182, high-speed camera base; 183, base connecting plate; 184, rear arm of profile; 185, roller; 186, roller motor; 187, small spur gear; 188, large spur gear; 189, motor fixing plate; 190, large gear transmission shaft; 191, profile short arm; 192, pulley motor; 193, third small pulley; 194. The third large pulley; 195. The third belt; 196. The profile angle piece; 197. The front rotating block; 198. The fourth large pulley; 199. The fourth belt; 200. The pulley transmission shaft; 201. The front fixed plate; 202. The first bevel gear; 203. The second bevel gear; 204. The bevel gear motor; 205. The upper side plate; 206. The lower side plate; 207. The profile forearm; 208. The forearm extension shaft. DETAILED DESCRIPTION

[0027] The technical features of the present invention are further described below in conjunction with the accompanying drawings and specific embodiments.

[0028] like Figure 1 As shown, the present invention is a high-speed camera carrier, comprising a high-speed camera 180, a profile rear arm 184, a middle support arm and a profile forearm 207; the end of the profile rear arm 184 is fixedly connected to the end of the middle support arm, and the high-speed camera 180 is arranged on the middle support arm; the middle support arm includes two profile short arms 191, and the high-speed camera carrier also includes a rear arm walking mechanism, a height lifting component, a camera connecting component and a forearm swinging component; the rear arm walking mechanism is arranged on the profile rear arm 18 4 is disposed at one end away from the middle support arm, the height lifting assembly is disposed in the middle section of the middle support arm and between the two profile short arms 191, the forearm swing assembly is disposed at one end of the profile forearm 207 close to the middle support arm, the profile forearm 207 is connected to the middle support arm through the forearm swing assembly, and a roller is disposed at one end of the profile forearm 207 away from the middle support arm; the camera connecting assembly is disposed on one of the profile short arms 191, and the high-speed camera 180 is connected to the middle support arm through the camera connecting assembly.

[0029] The profile rear arm 184, the middle support arm and the profile front arm 207 form a support for the main body of the high-speed camera 180. The rear arm walking mechanism at the end of the profile rear arm 184 drives the profile rear arm 184 to move, and then drives the entire high-speed camera carrier to move, so that the high-speed camera 180 can take pictures and collect information at different positions and angles. The end of the profile front arm 207 is rotatably connected to the side upper plate 205 and the side lower plate 206, so that the profile front arm 207 can guide the movement of the entire high-speed camera carrier by rotation. The high-speed camera 180 is connected to the middle support arm through a camera connection assembly to fix the high-speed camera 180, and ensure the stability of the high-speed camera 180 during the movement of the high-speed camera 180.

[0030] like Figure 2 As shown, the rear arm walking mechanism includes a roller 185, a roller motor 186 and a motor fixing plate 189, the roller 185 and the motor fixing plate 189 are respectively arranged on both sides of the end of the profile rear arm 184, the motor fixing plate 189 is fixedly connected to the profile rear arm 184, the roller motor 186 is arranged on the motor fixing plate 189 and the power output end is connected to a small spur gear 187; the end of the profile rear arm 184 is provided with a large gear transmission shaft 190, the large gear transmission shaft 190 passes through the end of the profile rear arm 184 and is rotatably connected to the profile rear arm 184, one end of the large gear transmission shaft 190 is connected to the roller 185, and the other end of the large gear transmission shaft 190 is provided with a large spur gear 188, and the large spur gear 188 is meshed with the small spur gear 187.

[0031] The small spur gear 187, the large spur gear 188, the large gear transmission shaft 190 and the roller 185 are driven by the roller motor 186, so that the roller 185 can rotate to drive the rear arm 184 of the profile and the entire high-speed camera carrier to move.

[0032] like Figure 1 As shown, the camera connection assembly includes a base connecting plate 183 and a high-speed camera base 182, the base connecting plate 183 is fixedly arranged on one of the profile short arms 191, and the high-speed camera base 182 is arranged on the base connecting plate 183; a high-speed camera articulation ball 181 is arranged at the bottom of the high-speed camera 180, and a ball head groove cooperating with the high-speed camera articulation ball 181 is arranged in the high-speed camera base 182, and the high-speed camera articulation ball 181 is arranged in the ball head groove in the high-speed camera base 182.

[0033] The high-speed camera 180 is connected to the ball head groove in the high-speed camera base 182 through the high-speed camera articulation ball 181, so that the high-speed camera 180 can be rotated at different angles relative to the high-speed camera base 182, which is convenient for adjusting the shooting angle and range of the high-speed camera 180 when shooting and collecting information.

[0034] like Figure 3 As shown, the height lifting assembly includes a front fixed plate 201, a front rotating block 197, and a pulley motor 192; the end of the profile forearm is connected to the front rotating block 197 through a forearm swing assembly; the front rotating block 197 is arranged between two profile short arms 191, the ends of the two profile short arms 191 are connected through a fixed shaft of the front rotating block 197, and the pulley motor 192 is arranged on one of the profile short arms 191; the front fixed plate 201 is fixedly arranged on the profile short arm 191, the shaft end of the pulley motor 192 is connected to a third small pulley 193, and a pulley is arranged on the front fixed plate 201 The transmission shaft 200, the pulley transmission shaft 200 passes through the front fixed plate 201 and is rotatably connected with the front fixed plate 201, and the third large pulley 194 and the fourth large pulley 198 are respectively arranged at both ends of the pulley transmission shaft 200, and a third belt 195 is arranged between the third small pulley 193 and the third large pulley 194 and is connected through the third belt 195 for transmission; a fourth belt 199 is arranged between the fourth large pulley 198 and the front rotating block 197, and the fourth large pulley 198 drives the front rotating block 197 to rotate through the fourth belt 199, and the front rotating block 197 rotates relative to the two profile short arms 191.

[0035] A belt transmission is arranged between the pulley motor 192 and the front rotating block 197, so that the pulley motor 192 can drive the front rotating block 197 to rotate, thereby driving the upper side plate 205, the lower side plate 206 and the profile front arm 207 to rotate. After the rotation, the profile front arm 207 can adjust the angle with the profile rear arm 184, thereby adjusting the height of the entire high-speed camera carrier device, adjusting the shooting height of the high-speed camera 180, and facilitating the adjustment of the shooting angle and range of the high-speed camera 180 when shooting and collecting information.

[0036] like Figure 4 As shown, the forearm swing assembly includes a bevel wheel motor 204, a side upper plate 205, and a side lower plate 206. The front rotating block 197 is arranged between the side upper plate 205 and the side lower plate 206 and is fixedly connected to the side upper plate 205 and the side lower plate 206. One end of the profile forearm is arranged between the side upper plate 205 and the side lower plate 206 and is rotatably connected to the side upper plate 205 and the side lower plate 206 through a rotating shaft; the bevel wheel motor 204 is arranged on the side upper plate 205, and the power output end of the bevel wheel motor 204 is connected to the first bevel gear 202. A forearm extension shaft 208 is arranged on the profile forearm, one end of the forearm extension shaft 208 is fixed to the profile forearm, and the other end of the forearm extension shaft 208 passes through the side upper plate 205 and is rotatably connected to the side upper plate 205. The end of the forearm extension shaft 208 is fixedly connected to the second bevel gear 203, and the second bevel gear 203 is meshed with the first bevel gear 202.

[0037] The first bevel gear 202, the second bevel gear 203 and the forearm extension shaft 208 are driven to rotate by the bevel gear motor 204, so that the profile forearm 207 swings relative to the side upper plate 205, and the forward direction of the high-speed camera carrier is adjusted during the movement of the high-speed camera carrier.

[0038] like Figure 1 and Figure 3 As shown, the ends of the two profile short arms 191 are respectively connected to a profile rear arm 184, and an L-shaped profile angle piece 196 is provided on the profile short arm 191. One side surface of the profile angle piece 196 is fixedly connected to the profile short arm 191, and the other side surface of the profile angle piece 196 is fixedly connected to the profile rear arm 184.

[0039] like Figures 1 to 4 As shown, the rear arm 184, the short arm 191 and the front arm are all hollow aluminum profile rods; T-slots are respectively provided on the surfaces of the rear arm 184 and the short arm 191, and connecting bolts are provided in the T-slots on the surfaces of the rear arm 184 and the short arm 191, the bolt heads of the connecting bolts are provided in the T-slots and slide with the T-slots, and the connecting bolts pass through the profile angle piece 196 and are fixed to the profile angle piece 196 by nuts.

[0040] The rear profile arm 184, the short profile arm 191 and the front profile arm 207 are all hollow aluminum profile rods, which can reduce the deadweight of the entire high-speed camera carrier. The rear profile arm 184 and the short profile arm 191 can be adjusted to a relative installation position by sliding to adapt to different usage requirements.

[0041] The working process and principle of the high-speed camera carrier are as follows: start the high-speed camera carrier, the roller motor 186 installed on the rear arm 184 of the profile rotates, which in turn causes the small spur gear 187, the large spur gear 188, the large gear transmission shaft 190, and the roller 185 to rotate, thereby realizing the horizontal movement of the high-speed camera carrier, start the bevel gear motor 204, which in turn causes the first bevel gear 202, the second bevel gear 203, and the front arm 207 of the profile to rotate, thereby realizing the swing arm operation, thereby controlling the movement direction of the high-speed camera carrier. Through the joint control of the two roller motors 185 and the bevel gear motor 204, the high-speed camera carrier reaches a position suitable for taking photos for the stiffness test. Start the pulley motor 192, which in turn causes the third small pulley 193, the third large pulley 194, the fourth large pulley 198, and the front rotating block 197 to rotate, ultimately achieving the up and down movement of the high-speed camera 180, so that the high-speed camera 180 is adjusted to a suitable height for taking pictures.

[0042] Of course, the above description is not a limitation of the present invention, and the present invention is not limited to the above examples. Any changes, modifications, additions or substitutions made by ordinary technicians in this technical field within the essential scope of the present invention should fall within the protection scope of the present invention.

Claims

1. A high-speed camera carrying device, comprising a high-speed camera, a profile rear arm, a middle support arm and a profile front arm; the end of the profile rear arm is fixedly connected to the end of the middle support arm, and the high-speed camera is arranged on the middle support arm; characterized in that: The middle support arm includes two short arms of the profile, and the high-speed camera carrier also includes a rear arm walking mechanism, a height lifting assembly, a camera connecting assembly and a forearm swing assembly; the rear arm walking mechanism is arranged on the end of the rear arm of the profile away from the middle support arm, the height lifting assembly is arranged in the middle section of the middle support arm and is located between the two short arms of the profile, the forearm swing assembly is arranged on the end of the forearm of the profile close to the middle support arm, the forearm of the profile is connected to the middle support arm through the forearm swing assembly, and a roller is arranged on the end of the forearm of the profile away from the middle support arm; the camera connecting assembly is arranged on one of the short arms of the profile, and the high-speed camera is connected to the middle support arm through the camera connecting assembly; The height lifting component comprises a front fixed plate, a front rotating block, and a pulley motor; the end of the profile forearm is connected to the front rotating block through a forearm swinging component; the front rotating block is arranged between two profile short arms, and the ends of the two profile short arms are connected through a fixed shaft of the front rotating block, and the pulley motor is arranged on one of the profile short arms; the front fixed plate is fixedly arranged on the profile short arm, and the shaft end of the pulley motor is connected with a third small pulley, and a pulley transmission shaft is arranged on the front fixed plate, and the pulley transmission shaft passes through the front fixed plate and is rotatably connected with the front fixed plate, and a third large pulley and a fourth large pulley are respectively arranged at both ends of the pulley transmission shaft, and a third belt is arranged between the third small pulley and the third large pulley and is connected through the third belt transmission; a fourth belt is arranged between the fourth large pulley and the front rotating block, and the fourth large pulley drives the front rotating block to rotate through the fourth belt, and the front rotating block rotates relative to the two profile short arms; The rear arm walking mechanism includes a roller, a roller motor and a motor fixing plate, the roller and the motor fixing plate are respectively arranged on both sides of the end of the profile rear arm, the motor fixing plate is fixedly connected to the profile rear arm, the roller motor is arranged on the motor fixing plate and a small spur gear is connected to the power output end; a large gear transmission shaft is arranged at the end of the profile rear arm, the large gear transmission shaft passes through the end of the profile rear arm and is rotatably connected to the profile rear arm, one end of the large gear transmission shaft is connected to the roller, and a large spur gear is arranged at the other end of the large gear transmission shaft, and the large spur gear is meshed with the small spur gear.

2. The high-speed camera carrying device according to claim 1, characterized in that: The camera connection assembly includes a base connecting plate and a high-speed camera base, the base connecting plate is fixedly arranged on one of the short arms of the profile, and the high-speed camera base is arranged on the base connecting plate; a high-speed camera articulation ball is arranged at the bottom of the high-speed camera, and a ball head groove is arranged in the high-speed camera base to cooperate with the high-speed camera articulation ball, and the high-speed camera articulation ball is arranged in the ball head groove in the high-speed camera base.

3. The high-speed camera carrying device according to claim 1, characterized in that: The forearm swing assembly includes a bevel wheel motor, an upper side plate, and a lower side plate. The front rotating block is arranged between the upper side plate and the lower side plate and is fixedly connected to the upper side plate and the lower side plate. One end of the profile forearm is arranged between the upper side plate and the lower side plate and is rotatably connected to the upper side plate and the lower side plate through a rotating shaft. The bevel wheel motor is arranged on the upper side plate, and the power output end of the bevel wheel motor is connected to the first bevel gear. A forearm extension shaft is arranged on the profile forearm, one end of the forearm extension shaft is fixed to the profile forearm, and the other end of the forearm extension shaft passes through the upper side plate and is rotatably connected to the upper side plate. The end of the forearm extension shaft is fixedly connected to the second bevel gear, and the second bevel gear is meshed with the first bevel gear.

4. The high-speed camera carrying device according to claim 1, characterized in that: The ends of the two profile short arms are respectively connected to a profile rear arm, and an L-shaped profile angle piece is arranged on the profile short arm. One side surface of the profile angle piece is fixedly connected to the profile short arm, and the other side surface of the profile angle piece is fixedly connected to the profile rear arm.

5. The high-speed camera carrying device according to claim 1, characterized in that: The profile rear arm, profile short arm and profile front arm are all hollow aluminum profile rods; T-slots are respectively arranged on the surfaces of the profile rear arm and profile short arm, and connecting bolts are arranged in the T-slots on the surfaces of the profile rear arm and profile short arm, the bolt heads of the connecting bolts are arranged in the T-slots and slide with the T-slots, and the connecting bolts pass through the profile angle fittings and are fixed to the profile angle fittings by nuts.