Guardrail panel installation vehicle
By designing an intelligent guardrail installation vehicle, and utilizing a combination of a frame, power unit, rotating unit, and execution unit, the fully automated installation of guardrails is achieved. This solves the problems of multiple operators and low efficiency in existing technologies, and improves construction safety and efficiency.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2023-12-14
- Publication Date
- 2026-03-17
AI Technical Summary
The existing guardrail installation process requires multiple operators, has low integration and intelligence, low construction efficiency, and poses construction risks.
Design a guardrail installation vehicle that includes a frame, power unit, rotating unit and execution unit. It achieves fully automated construction through a hydraulic system and image acquisition device. It has a high degree of integration and can accurately position and control the angle and position of the guardrail.
It achieves fully automated construction, reduces the number of workers, lowers construction risks, improves construction efficiency and quality, and has a large loading capacity.
Smart Images

Figure CN117733506B_ABST
Abstract
Description
Technical Field
[0001] This invention relates to vehicles, specifically to an intelligent fully automatic guardrail installation vehicle, and in particular to the mechanical parts of the guardrail installation vehicle. Background Technology
[0002] As is well known, in order to improve highway operating efficiency, highways are designed according to their classification, such as expressways and first-class highways. Expressways and first-class highways are equipped with guardrails, and the existing guardrails are usually transported by vehicle to the installation location, and then manually installed between the two posts according to the construction requirements. This construction method requires a large number of workers, and the close proximity of workers on site poses construction risks, resulting in relatively low construction efficiency and difficulty in ensuring construction quality.
[0003] Application No. 202110451234.8, invention title "An Auxiliary Installation Device for Guardrails in Highway Construction," provides a high-efficiency auxiliary installation device for guardrails used in highway construction that can clamp and fix guardrails. It includes a support frame; the support frame includes a vehicle base plate, vertical support plates, a rotating platform, a ring, and a controller. Multiple vertical support plates are provided, with one end of each plate symmetrically fixed to one side of the vehicle base plate. The rotating platform is located on the upper part of the vertical support plates. One side of the ring is fixedly connected to one side of the rotating platform, and the ring is slidably connected to the vertical support plates. The controller is fixedly connected to the upper side of one end of the vehicle base plate, and a pushing mechanism is located on the upper part of the rotating platform. The device assists in guardrail installation through a "pushing mechanism, lifting mechanism, gripping mechanism, and flipping mechanism," eliminating the need for manual lifting and placing of the guardrails in the installation position, saving manpower and improving work efficiency. The device can be driven manually, with a fourth motor rotating to drive the wheels, enabling the device to move to the working position. The controller controls the first and second motors to control the forward and backward and up and down movements of the sliding block. This movement, in turn, controls the forward and backward and up and down movements of the support arm, which in turn controls the gripping mechanism, moving it to a position where it can clamp the guardrail panel. The controller then activates the electric push rod, which extends downwards, clamping the guardrail panel between the upper and lower support arms. Further downward movement of the electric push rod causes the second gear to rotate the lower and upper support arms inwards, flipping the gripping mechanism to a suitable angle for installation. This facilitates manual installation of the guardrail panel, eliminating the need to manually lift the panel and secure it with bolts, thus improving work efficiency. The controller controls the rotation of the third motor, which in turn controls the rotation of the support arm. This allows for angle adjustment during guardrail grabbing and installation. Because the worm shaft can only drive the worm wheel, and the worm wheel cannot drive the worm shaft when subjected to external force, the worm wheel and worm shaft effectively control and fix the rotating shaft when it is subjected to external force. Both the upper and lower anti-slip blocks are made of rubber, which increases friction and prevents the guardrail from slipping after being gripped.
[0004] Application No. 202220018341.1, invention title "A Highway Construction Guardrail Installation Device", includes two sets of bases, and further includes: a sleeve, rotatably mounted on the base; a threaded rod, assembled inside the sleeve, with a limiting seat for limiting the guardrail at its top end, wherein the base is provided with a driving component for driving the sleeve to rotate; a telescopic cylinder and a telescopic rod, respectively installed on the side wall of the base, with the end of the telescopic rod away from the base passing through the telescopic cylinder; a slider, assembled inside the telescopic cylinder and fixedly connected to one end of the telescopic rod; through the telescopic rod and slider, in conjunction with multiple sets of equidistantly arranged mounting slots on the telescopic cylinder, the distance between the two sets of bases can be easily adjusted according to guardrails of different lengths; by driving the threaded rod upward through the sleeve, the height of the guardrail can be adjusted. 1. In this highway construction guardrail installation device, by moving the telescopic rod to the right, the telescopic rod drives the slider to move, and the slider compresses the spring, thereby facilitating the adjustment of the distance between the two sets of bases according to guardrails of different lengths. 2. This highway construction guardrail installation device uses a sliding block with a corresponding mounting groove on it to a specific mounting groove on a telescopic cylinder, where multiple sets of mounting grooves are evenly spaced. Tightening the mounting bolts then limits the sliding block's position, effectively preventing deviations in the spacing between the two sets. 3. In this highway construction guardrail installation device, the rotating shaft drives the sleeve to rotate via a transmission assembly. Since the threaded rod is slidably connected to the guide rod via a limiting rod and is threadedly connected to the sleeve, the sleeve drives the threaded rod to move upwards under the limiting position of the guide rod, thereby adjusting the height of the guardrail.
[0005] Although the two guardrail robots mentioned above have achieved many functions, many steps still require manual operation, and more than three people are still needed to operate them. Their integration and intelligence levels are low, their loading capacity is small, and their efficiency is low. Summary of the Invention
[0006] The purpose of this invention is to design a guardrail installation vehicle to achieve intelligent and mechanized construction, reduce the number of workers, avoid construction risks, improve construction quality, and ensure construction efficiency.
[0007] The technical solution of the present invention is: the guardrail installation vehicle includes a frame, a power unit, a rotating unit and an execution unit, the power unit, the rotating unit and the execution unit are arranged and installed on the frame, and the whole constitutes the guardrail installation vehicle.
[0008] The vehicle frame includes a front frame, wheels, and a rear frame. The front frame and the rear frame are connected as one unit. Wheels are installed under the front frame and the rear frame respectively. A baffle is installed at the rear of the front frame and a lifting frame is installed at the rear of the rear frame. An engine base and a water tank base are set on the front frame, and a first fixed cylinder bracket and a second fixed cylinder bracket are set at intervals on the rear frame.
[0009] Furthermore, a first cylinder slider and a second cylinder slider are respectively installed on the first fixed cylinder bracket and the second fixed cylinder bracket.
[0010] The power unit includes a No. 1 gear pump, a No. 2 gear pump, an axle assembly, a hydraulic motor, a water tank, an engine, a No. 1 connecting shaft, a reducer, a No. 1 gearbox, a No. 2 connecting shaft, a No. 2 gearbox, a hydraulic oil tank, a diesel tank, a No. 1 hydraulic cylinder, and a No. 2 hydraulic cylinder, all mounted on the front frame. A No. 1 hydraulic cylinder is mounted on a No. 1 fixed cylinder bracket on the rear frame, and a No. 2 hydraulic cylinder is mounted on a No. 2 fixed cylinder bracket on the rear frame. An engine is mounted on the engine mount on the front frame, and a water tank is mounted on the water tank mount on the front frame. A hydraulic oil tank and a diesel tank are mounted on the front frame in front of the baffle. The engine is connected to the No. 1 gearbox via the No. 1 connecting shaft and the reducer. The No. 1 gear pump and the No. 2 gear pump are connected in parallel to the No. 1 gearbox and simultaneously connected to the hydraulic oil tank. A No. 2 gearbox is mounted at the front of the front frame. The hydraulic motor is connected to the No. 2 gearbox via the reducer, and the axle assembly is connected to the No. 2 gearbox via the No. 2 connecting shaft.
[0011] The rotating unit includes a No. 1 connector, a No. 3 hydraulic cylinder, a No. 1 base, a No. 1 support seat, a No. 1 column, a No. 2 column, a No. 2 support seat, a No. 2 base, a No. 4 hydraulic cylinder, a No. 1 shaft, a No. 2 connector, a No. 1 bearing cover, a No. 1 bearing seat, a rotating crossbeam, a No. 2 bearing seat, a No. 2 bearing cover, and a No. 2 shaft, all mounted on the baffle and lifting frame. A No. 1 column is installed at the front of the rear frame. A No. 1 base is installed below the No. 1 column via a No. 1 support seat. A No. 3 hydraulic cylinder is installed on the No. 1 base, and a No. 1 connector is installed on the hydraulic rod of the No. 3 hydraulic cylinder. The No. 2 shaft is mounted on the connector via the No. 2 bearing seat and the No. 2 bearing cover; the No. 2 column is mounted at the rear of the rear frame, and the No. 2 base is mounted below the No. 2 column via the No. 2 support seat. The No. 4 hydraulic cylinder is mounted on the No. 2 base, and the No. 2 connector is mounted on the hydraulic rod of the No. 4 hydraulic cylinder; the No. 1 shaft is mounted on the No. 2 connector via the No. 1 bearing seat and the No. 1 bearing cover; one end of the rotating crossbeam is mounted on the No. 2 connector via the No. 1 shaft, and the other end of the rotating crossbeam is mounted on the No. 1 connector via the No. 2 shaft. The rotating crossbeam is suspended horizontally between the No. 3 and No. 4 hydraulic cylinders.
[0012] The execution unit includes a first translation mechanism, a first longitudinal movement mechanism, a first suction cup mechanism, a second translation mechanism, a second longitudinal movement mechanism, and a second suction cup mechanism installed on the crossbeam, the reinforcing beam, and the sliding beam. The first translation mechanism, the first longitudinal movement mechanism, and the first suction cup mechanism are installed on the left side of the crossbeam and the sliding beam, and the second translation mechanism, the second longitudinal movement mechanism, and the second suction cup mechanism are installed on the right side of the crossbeam, the reinforcing beam, and the sliding beam.
[0013] Furthermore, the first translation mechanism includes a first cylinder base, a first cylinder bushing, a fifth hydraulic cylinder, a first positioning shaft, a first positioning bushing, and a second support plate. The first cylinder base is installed on the left side of the X-axis rotating beam in the Y-axis direction. The fifth hydraulic cylinder is mounted on the first cylinder base via the first cylinder bushing. The second support plate is installed on the left side of the X-axis rotating beam in the Y-axis direction. The first positioning shaft is mounted on the second support plate via the first positioning bushing. The second translation mechanism includes a third support plate and a second positioning bushing. The system consists of a No. 2 positioning shaft, a No. 2 cylinder base, a No. 2 cylinder bushing, and a No. 6 hydraulic cylinder. A No. 3 support plate is installed on the right side of the X-axis rotating beam in the Y-direction. The No. 2 positioning shaft is mounted on the No. 3 support plate via the No. 2 positioning bushing. The No. 2 cylinder base is installed on the right side of the X-axis rotating beam in the Y-direction. The No. 6 hydraulic cylinder is mounted on the No. 2 cylinder base via the No. 2 cylinder bushing. The left end of the beam is connected to the hydraulic rod of the No. 5 hydraulic cylinder via the No. 5 cylinder base, and the right end of the beam is connected to the hydraulic rod of the No. 6 hydraulic cylinder via the No. 4 cylinder base.
[0014] Furthermore, the first longitudinal movement mechanism includes a second hydraulic cylinder positioning seat, an eighth hydraulic cylinder, a fourth positioning shaft, a fourth positioning bushing, and a second positioning shaft seat. The second hydraulic cylinder positioning seat is installed in a Z-direction orientation on the left side of the X-direction crossbeam. The eighth hydraulic cylinder is mounted on the second hydraulic cylinder positioning seat. The second positioning shaft seat is installed in a Z-direction orientation on the left side of the X-direction crossbeam. The fourth positioning shaft is mounted on the second positioning shaft seat via the fourth positioning bushing, and the end of the fourth positioning shaft is connected to the reinforcing beam. The second longitudinal movement mechanism includes a first positioning shaft seat, a third positioning bushing, a third positioning shaft, a seventh hydraulic cylinder, and a first hydraulic cylinder positioning seat. The first positioning shaft seat is installed in a Z-direction orientation on the right side of the X-direction crossbeam. The third positioning shaft is mounted via the third positioning bushing. The No. 1 hydraulic cylinder positioning seat is installed on the No. 1 positioning shaft seat. The No. 1 hydraulic cylinder positioning seat is installed on the right side of the X-direction crossbeam in the Z-direction. The No. 7 hydraulic cylinder is installed on the No. 1 hydraulic cylinder positioning seat. The end of the No. 3 positioning shaft is connected to the reinforcing beam. The hydraulic rod of the No. 8 hydraulic cylinder is connected to the No. 7 hydraulic cylinder base. The No. 7 hydraulic cylinder base is connected to the No. 6 hydraulic cylinder base. The No. 6 hydraulic cylinder base is connected to the right end of the reinforcing beam. The No. 1 sliding base and the No. 2 sliding base are installed on both sides of the reinforcing beam and connected to the sliding beam 4-41. The No. 3 hydraulic cylinder base is installed on the reinforcing beam. The No. 9 hydraulic cylinder is installed on the No. 3 hydraulic cylinder base. The hydraulic rod of the No. 9 hydraulic cylinder is connected to the sliding beam. The No. 9 hydraulic cylinder controls the left and right movement of the sliding beam.
[0015] Furthermore, a first suction cup mechanism is installed at the left end of the sliding beam, and a second suction cup mechanism is installed at the right end of the sliding beam. The first suction cup mechanism includes a first upright plate, a first support plate, a first telescopic shaft, a first side plate, a first bushing, a first spring, a first electromagnet, and a first shaft base. The first upright plate and the first side plate are installed at the left end of the sliding beam, and the first support plate is fixed to the first upright plate and the first side plate. The first telescopic shaft is mounted on the first support plate via the first bushing and the first spring. The bottom end of the shaft is equipped with a first electromagnet via a first shaft base; the second suction cup mechanism includes a second shaft base, a second electromagnet, a second bushing, a second telescopic shaft, a second upright plate, a second side plate, a second support plate, and a second spring. The second upright plate and the second side plate are installed at the right end of the sliding beam. The second support plate is fixed on the second upright plate and the second side plate. The second telescopic shaft is installed on the second support plate via the second bushing and the second spring. The bottom end of the second telescopic shaft is equipped with a second electromagnet via a second shaft base.
[0016] Furthermore, a limit switch is installed on the first upright plate, a limit switch is installed on the second upright plate, and a limit switch is installed in the middle of the crossbeam.
[0017] Furthermore, manual switches number one and number two are installed on the rear frame. Manual switch number one controls the operation of the magnet, while manual switch number two controls the movement of the actuator up, down, left, and right.
[0018] The guardrail installation vehicle also includes a control unit, which includes an automatic control cabinet, a first image acquisition device, and a second image acquisition device. The automatic control cabinet is installed on the front frame, the first image acquisition device is installed on the front frame, and the second image acquisition device is installed on the rear frame.
[0019] Furthermore, a sunshade is installed above the control panel of the automatic control cabinet.
[0020] Furthermore, the control unit also includes a first solenoid valve block group, a second solenoid valve block group, and a third solenoid valve block group; the first solenoid valve block group is connected in parallel with the first gear pump and the hydraulic motor respectively; the second solenoid valve block group is connected in parallel with the first gear pump, the first hydraulic cylinder, the second hydraulic cylinder, the third hydraulic cylinder, and the fourth hydraulic cylinder respectively; and the third solenoid valve block group is connected in parallel with the second gear pump, the fifth hydraulic cylinder, the sixth hydraulic cylinder, the seventh hydraulic cylinder, the eighth hydraulic cylinder, and the ninth hydraulic cylinder respectively.
[0021] The present invention has the following advantages:
[0022] 1. The guardrail installation vehicle includes a frame, power unit, rotating unit and execution unit. It has a high degree of integration and intelligence, large loading capacity, high work efficiency, and fully automatic construction to avoid close contact with workers and reduce construction risks.
[0023] 2. The power unit has a reasonable structure, compact design, small installation space, and increased loading volume.
[0024] 3. The rotating unit flips the clamped guardrail plate to the appropriate angle required for installation, which facilitates manual installation of fixing bolts and realizes angle adjustment when the guardrail plate is gripped and installed.
[0025] 4. The execution unit includes a first translation mechanism, a first longitudinal movement mechanism, a first suction cup mechanism, a second translation mechanism, a second longitudinal movement mechanism, and a second suction cup mechanism installed on the crossbeam, sliding beam, and reinforcing beam. It provides comprehensive, three-dimensional, and precise control, improving the level of intelligence while reducing the number of operators.
[0026] 5. The entire vehicle is controlled by a control unit, which controls all operating steps and uses components such as image acquisition devices and limit switches for precise positioning. This precise control greatly improves work efficiency and ensures high-quality construction. Attached Figure Description
[0027] Figure 1 This is a schematic diagram of the overall vehicle structure of the present invention;
[0028] Figure 2 for Figure 1 A left-view diagram;
[0029] Figure 3 for Figure 1 A diagram showing the view from the right.
[0030] Figure 4 for Figure 1 A top-down view;
[0031] Figure 5 for Figure 1 One of the schematic diagrams of the chassis unit;
[0032] Figure 6 for Figure 1 The second schematic diagram of the chassis unit;
[0033] Figure 7 for Figure 5 A top-down view;
[0034] Figure 8 for Figure 6 A diagram showing the view from below;
[0035] Figure 9 for Figure 1 A schematic diagram of the power unit;
[0036] Figure 10 for Figure 9 A diagram showing the view from the right.
[0037] Figure 11 for Figure 9 A top-down view;
[0038] Figure 12 for Figure 9 A left-view diagram;
[0039] Figure 13 for Figure 1 A schematic diagram of the rotating unit;
[0040] Figure 14 for Figure 13 A left-view diagram;
[0041] Figure 15 for Figure 13 A diagram showing the view from the right.
[0042] Figure 16 for Figure 1 A schematic diagram of the execution unit;
[0043] Figure 17 for Figure 16 A left-view diagram;
[0044] Figure 18 for Figure 16 A diagram showing the view from the right.
[0045] Figure 19 for Figure 16 A diagram showing the view from below;
[0046] Figure 20 for Figure 16 A top-down view;
[0047] In the diagram: 1. Frame, 2. Power Unit, 3. Rotary Unit, 4. Actuator Unit; 1-1. Front Frame, 1-2. Wheel, 1-3. Image Acquisition Unit 1, 1-4. Rear Frame, 1-5. Fixed Cylinder Mount 1, 1-6. Hydraulic Cylinder 1, 1-7. Fixed Cylinder Mount 2, 1-8. Hydraulic Cylinder 2, 1-9. Manual Switch 1, 1-10. Manual Switch 2, 1-11. Image Acquisition Unit 2, 1-12. Lifting Frame, 1-13. Guardrail Limiting Block 1, 1-14. Guardrail Limiting Block 2, 1-15. Baffle, 1-16. Hydraulic Oil Tank, 1-17. Diesel Tank, 1-18. Engine Mount, 1-19. Water Tank Mount; 2-1. Sunshade, 2-2. Solenoid Valve Block Assembly 1, 2-3. Solenoid Valve Block Assembly 2, 2-4. Solenoid Valve Block Assembly 3, 2-5. Gear Pump 1, 2- 6. Gear pump No. 2; 2.7 Axle assembly; 2.8 Hydraulic motor; 2.9 Water tank; 2.10 Engine; 2.11 Automatic control cabinet; 2.12 Connecting shaft No. 1; 2.13 Reducer; 2.14 Gearbox No. 1; 2.15 Connecting shaft No. 2; 2.16 Gearbox No. 2; 2.17 Control panel; 3.1 Connector No. 1; 3.2 Hydraulic cylinder No. 3; 3.3 Base No. 1; 3.4 Support No. 1; 3.5 Column No. 1; 3.6 Column No. 2; 3.7 Support No. 2; 3.8 Base No. 2; 3.9 Hydraulic cylinder No. 4; 3.10 Shaft No. 1; 3.11 Connector No. 2; 3.12 Bearing cover No. 1; 3.13 Bearing seat No. 1; 3.14 Rotating beam; 3.15 Bearing seat No. 2; 3.16 Bearing cover No. 2; 3.17 Shaft No. 2.4-1 No. 1 upright plate, 4-2 No. 1 limit switch, 4-3 No. 1 support plate, 4-4 No. 1 telescopic shaft, 4-5 No. 1 side plate, 4-6 No. 1 bushing, 4-7 No. 1 spring, 4-8 No. 1 electromagnet, 4-9 No. 1 shaft base, 4-10 No. 1 hydraulic cylinder base, 4-11 No. 1 hydraulic cylinder bushing, 4-12 No. 5 hydraulic cylinder, 4-13 No. 1 positioning shaft, 4-14 No. 1 positioning bushing, 4-15 Support plate No. 2, Support plate No. 3 (4-16), Positioning bushing No. 2 (4-17), Positioning shaft No. 2 (4-18), Cylinder base No. 2 (4-19), Cylinder bushing No. 2 (4-20), Hydraulic cylinder No. 6 (4-21), Shaft base No. 2 (4-22), Electromagnet No. 2 (4-23), Bushing No. 2 (4-24), Telescopic shaft No. 2 (4-25), Vertical plate No. 2 (4-26), Limit switch No. 2 (4-27), Side plate No. 2 (4-28) 4-29 Support plate No. 4, 4-30 Positioning shaft seat No. 1, 4-31 Positioning bushing No. 3, 4-32 Positioning shaft No. 3, 4-33 Hydraulic cylinder No. 7, 4-34 Positioning seat for cylinder No. 1, 4-35 Crossbeam, 4-36 Positioning seat for cylinder No. 2, 4-37 Hydraulic cylinder No. 8, 4-38 Positioning shaft No. 4, 4-39 Positioning bushing No. 4, 44-40 Positioning shaft seat No. 2, 4-41 Sliding beam. 4-42 Sliding base No. 1, 4-43 Hydraulic cylinder No. 9, 4-44 Cylinder No. 3 base, 4-45 Sliding base No. 2, 4-46 Cylinder No. 4 base, 4-47 Spring No. 2, 4-48 Cylinder No. 5 base, 4-49 Limit switch No. 3, 4-50 Cable displacement sensor, 4-51 Cylinder base, 4-52 Limit switch No. 4, 4-53 Reinforcing beam, 4-54 Cylinder No. 7 base. Detailed Implementation
[0048] The following structural drawings further illustrate the technical solution of the present invention, but should not be construed as limiting the technical solution. Adaptive improvements based on these drawings are all within the protection scope of the present invention.
[0049] like Figure 1 --- Figure 20 As shown, the guardrail installation vehicle includes a frame 1, a power unit 2, a rotating unit 3, and an execution unit 4. The power unit 2, the rotating unit 3, and the execution unit 4 are arranged and installed on the frame 1, forming the guardrail installation vehicle as a whole.
[0050] like Figure 5 --- Figure 8As shown, the vehicle frame 1 includes a front frame 1-1, wheels 1-2, and a rear frame 1-4. The front frame 1-1 and the rear frame 1-4 are connected as one unit. Wheels 1-2 are respectively installed under the front frame 1-1 and the rear frame 1-4. A baffle 1-15 is installed at the rear of the front frame 1-1, and a lifting frame 1-12 is installed at the rear of the rear frame 1-4. An engine base 1-18 and a water tank base 1-19 are provided on the front frame 1-1, and a first fixed cylinder bracket 1-5 and a second fixed cylinder bracket 1-7 are provided at intervals on the rear frame 1-4.
[0051] Furthermore, cylinder slider 1-13 and cylinder slider 1-14 are respectively installed on cylinder frame 1-5 and cylinder frame 1-7.
[0052] like Figure 9 --- Figure 12 As shown, the power unit 2 includes a first gear pump 2-5, a second gear pump 2-6, an axle assembly 2-7, a hydraulic motor 2-8, a water tank 2-9, an engine 2-10, a first connecting shaft 2-12, a reducer 2-13, a first gearbox 2-14, a second connecting shaft 2-15, a second gearbox 2-16, a hydraulic oil tank 1-16, a diesel tank 1-17, a first hydraulic cylinder 1-6, and a second hydraulic cylinder 1-8, all mounted on the front frame 1-1. A first hydraulic cylinder 1-6 is mounted on a first fixed cylinder bracket 1-5 on the rear frame 1-4, and a second hydraulic cylinder 1-8 is mounted on a second fixed cylinder bracket 1-7 on the rear frame 1-4. The engine mount 1-1 on the front frame 1-1... Engine 2-10 is installed on the front frame 1-1. Water tank 2-9 is installed on the water tank base 1-19 of the front frame 1-1. Hydraulic oil tank 1-16 and diesel tank 1-17 are installed on the front frame 1-1 in front of baffle 1-15. Engine 2-10 is connected to gearbox 2-14 via reducer 2-13 through connecting shaft 2-12. Gear pump 2-5 and gear pump 2-6 are connected in parallel to gearbox 2-14 and hydraulic oil tank 1-16 is also connected. Gearbox 2-16 is installed at the front of the front frame 1-1. Hydraulic motor 2-8 is connected to gearbox 2-16 via reducer 2-13. Axle assembly 2-7 is connected to gearbox 2-16 via connecting shaft 2-15.
[0053] like Figure 13 --- Figure 15The rotating unit 3 includes a connector 3-1, a hydraulic cylinder 3-2, a base 3-3, a support 3-4, a column 3-5, a column 3-6, a support 3-7, a base 3-8, a hydraulic cylinder 3-9, a shaft 3-10, a connector 3-11, a bearing cover 3-12, a bearing seat 3-13, a rotating beam 3-14, a bearing seat 3-15, a bearing cover 3-16, and a shaft 3-17, all mounted on the baffle 1-15 and the lifting frame 1-12. A column 3-5 is installed at the front of the rear frame 1-4. A base 3-3 is installed below the column 3-5 via a support 3-4. A hydraulic cylinder 3-2 is installed on the base 3-3. A connector 3-1 is installed on the hydraulic rod of the hydraulic cylinder 3-2. A shaft 3-17 is mounted on connector 3-1 via bearing seat 3-15 and bearing cap 3-16. A column 3-6 is mounted at the rear of the rear frame 1-4. A base 3-8 is mounted below the column 3-6 via support seat 3-7. A hydraulic cylinder 3-9 is mounted on the base 3-8. Connector 3-11 is mounted on the hydraulic rod of hydraulic cylinder 3-9. A shaft 3-10 is mounted on connector 3-11 via bearing seat 3-13 and bearing cap 3-12. One end of the rotating beam 3-14 is mounted on connector 3-11 via shaft 3-10. The other end of the rotating beam 3-14 is mounted on connector 3-11 via shaft 3-17. The rotating beam 3-14 is suspended horizontally between hydraulic cylinders 3-2 and 3-9.
[0054] like Figure 16 --- Figure 20 The execution unit 4 includes a first translation mechanism, a first longitudinal movement mechanism, a first suction cup mechanism, a second translation mechanism, a second longitudinal movement mechanism, and a second suction cup mechanism installed on the crossbeam 4-35, the sliding beam 4-41, and the reinforcing beam 4-53. The first translation mechanism, the first longitudinal movement mechanism, and the first suction cup mechanism are installed on the left side of the crossbeam 4-35, the sliding beam 4-41, and the reinforcing beam 4-53, and the second translation mechanism, the second longitudinal movement mechanism, and the second suction cup mechanism are installed on the right side of the crossbeam 4-35, the sliding beam 4-41, and the reinforcing beam 4-53.
[0055] Furthermore, the first translation mechanism includes a first cylinder base 4-10, a first cylinder bushing 4-11, a fifth hydraulic cylinder 4-12, a first positioning shaft 4-13, a first positioning bushing 4-14, and a second support plate 4-15. The first cylinder base 4-10 is installed in the Y direction on the left side of the X-direction rotating beam 3-14. The fifth hydraulic cylinder 4-12 is mounted on the first cylinder base 4-10 via the first cylinder bushing 4-11. The second support plate 4-15 is installed in the Y direction on the left side of the X-direction rotating beam 3-14. The first positioning shaft 4-13 is mounted on the second support plate 4-15 via the first positioning bushing 4-14. The second translation mechanism includes a third support plate 4-16, a second positioning bushing 4-17, and a second positioning shaft 4-18. Positioning shaft 4-18, cylinder base 4-19, cylinder bushing 4-20, and hydraulic cylinder 4-21 are mounted on support plate 4-16 in the Y direction on the right side of the rotating beam 3-14 in the X direction. Positioning shaft 4-18 is mounted on support plate 4-16 via cylinder bushing 4-17. Cylinder base 4-19 is mounted on cylinder base 4-19 in the Y direction on the right side of the rotating beam 3-14 in the X direction. Hydraulic cylinder 4-21 is mounted on cylinder base 4-19 via cylinder bushing 4-20. The left end of beam 4-35 is connected to the hydraulic rod of hydraulic cylinder 4-12 via cylinder base 4-48, and the right end of beam 4-35 is connected to the hydraulic rod of hydraulic cylinder 4-21 via cylinder base 4-46.
[0056] Furthermore, the first longitudinal movement mechanism includes a second hydraulic cylinder positioning seat 4-36, an eighth hydraulic cylinder 4-37, a fourth positioning shaft 4-38, a fourth positioning bushing 4-39, and a second positioning shaft seat 4-40. The second hydraulic cylinder positioning seat 4-36 is installed in the Z-direction on the left side of the X-direction crossbeam 4-35. The eighth hydraulic cylinder 4-37 is installed on the second hydraulic cylinder positioning seat 4-36. The second positioning shaft seat 4-40 is installed in the Z-direction on the left side of the X-direction crossbeam 4-35. Shaft 4-38 is mounted on locating shaft seat 4-40 via locating sleeve 4-39. The end of locating shaft 4-38 is connected to reinforcing beam 4-53. The second longitudinal movement mechanism includes locating shaft seat 4-30, locating sleeve 4-31, locating shaft 4-32, hydraulic cylinder 4-33, and cylinder locating seat 4-34. Locating shaft seat 4-30 is mounted in the Z direction on the right side of the X-direction crossbeam 4-35. Locating shaft seat 4-30 is mounted via locating sleeve 4-39 on locating shaft seat 4-40. Positioning sleeve 4-31 (No. 3) is installed on positioning seat 4-30 (No. 1). Positioning seat 4-34 (No. 1) is installed in the Z direction on the right side of the X-direction crossbeam 4-35. Hydraulic cylinder 4-33 (No. 7) is installed on positioning seat 4-34 (No. 1). The end of positioning shaft 4-32 (No. 3) is connected to reinforcing beam 4-53. The hydraulic rod of hydraulic cylinder 4-37 (No. 8) is connected to cylinder base 4-54 (No. 7). Cylinder base 4-54 is connected to the left end of reinforcing beam 4-53. The hydraulic rod of -33 is connected to the base of cylinder 6, 4-51. The base of cylinder 6, 4-51 is connected to the right end of the reinforcing beam, 4-53. Sliding base 1, 4-42 and sliding base 2, 4-45 are installed on both sides of the reinforcing beam, 4-53, and connected to the sliding beam, 4-41. Cylinder 3, 4-44 is installed on the reinforcing beam, and hydraulic cylinder 9, 4-43, is installed on cylinder 3, 4-44. The hydraulic rod of hydraulic cylinder 9, 4-43, is connected to the sliding beam, 4-41.
[0057] Furthermore, a first suction cup mechanism is installed at the left end of the sliding beam 4-41, and a second suction cup mechanism is installed at the right end of the sliding beam 4-41. The first suction cup mechanism includes a first upright plate 4-1, a first support plate 4-3, a first telescopic shaft 4-4, a first side plate 4-5, a first bushing 4-6, a first spring 4-7, a first electromagnet 4-8, and a first shaft base 4-9. The first upright plate 4-1 and the first side plate 4-5 are installed at the left end of the sliding beam 4-41. The first support plate 4-3 is fixed to the first upright plate 4-1 and the first side plate 4-5. The first telescopic shaft 4-4 is mounted on the first support plate 4-3 via the first bushing 4-6 and the first spring 4-7. The bottom end of the first telescopic shaft 4-4 is connected to the first shaft base 4-9. -9 Install electromagnet 4-8; The second suction cup mechanism includes a second shaft base 4-22, a second electromagnet 4-23, a second bushing 4-24, a second telescopic shaft 4-25, a second upright plate 4-26, a second side plate 4-28, a second support plate 4-29, and a second spring 4-47. The second upright plate 4-26 and the second side plate 4-28 are installed at the right end of the sliding beam 4-41. The second support plate 4-29 is fixed on the second upright plate 4-26 and the second side plate 4-28. The second telescopic shaft 4-25 is installed on the second support plate 4-29 through the second bushing 4-24 and the second spring 4-47. The bottom end of the second telescopic shaft 4-25 is installed with the second electromagnet 4-23 through the second shaft base 4-22.
[0058] Furthermore, limit switch 4-2 is installed on vertical plate 4-1, limit switch 4-27 is installed on vertical plate 4-26, and limit switch 4-49 is installed in the middle of the crossbeam.
[0059] Furthermore, manual switches 1-9 and 1-10 are installed on the rear frame 1-4. Manual switch 1-9 controls the operation of the magnet, and manual switch 1-10 controls the movement of the actuator up, down, left, and right.
[0060] The guardrail installation vehicle also includes a control unit, which includes an automatic control cabinet 2-11, a first image acquisition device 1-3, and a second image acquisition device 1-11. The automatic control cabinet 2-11 is installed on the front frame 1-1, the first image acquisition device 1-3 is installed on the front frame 1-1, and the second image acquisition device 1-11 is installed on the rear frame 1-4.
[0061] Furthermore, a sunshade 2-1 is installed above the control panel 2-17 of the automatic control cabinet 2-11.
[0062] Furthermore, the control unit also includes a first solenoid valve block group 2-2, a second solenoid valve block group 2-3, and a third solenoid valve block group 2-4; the first solenoid valve block group 2-2 is connected in parallel with the first gear pump 2-5 and the hydraulic motor 2-8 respectively; the second solenoid valve block group 2-3 is connected in parallel with the first gear pump 2-5, the first hydraulic cylinder 1-6, the second hydraulic cylinder 1-8, the third hydraulic cylinder 3-2, and the fourth hydraulic cylinder 3-9 respectively; the third solenoid valve block group 2-4 is connected in parallel with the second gear pump 2-6, the fifth hydraulic cylinder 4-12, the sixth hydraulic cylinder 4-21, the seventh hydraulic cylinder 4-33, the eighth hydraulic cylinder 4-37, and the ninth hydraulic cylinder 4-43 respectively.
[0063] like Figures 1-20 As shown, the working process of this invention is roughly as follows: (1) The guardrail panels are stacked and placed on the vehicle frame, and the guardrail panels are moved to the working section with the vehicle; (2) The vehicle frame is precisely moved and placed between the two pillars to install the guardrail panels; (3) The first hydraulic cylinder 1-6 and the second hydraulic cylinder 1-8 are started, and the first cylinder slider 1-13 and the second cylinder slider 1-14 are pushed at the same time to move the guardrail panels to the bottom of the execution unit; (4) The third hydraulic cylinder 3-2 and the fourth hydraulic cylinder 3-9 are started, and the rotating beam 3-14 is rotated; (5) The fifth hydraulic cylinder 4-12 and the sixth hydraulic cylinder 4-21 are started, and the crossbeam 4-35 is pushed to move horizontally above the guardrail, and the stroke is controlled by the pull wire displacement sensor 4-50; (6) The seventh hydraulic cylinder 4-33 and the eighth hydraulic cylinder 4-37 are started, and the reinforcing beam 4-53 is pushed down; when the reinforcing beam 4-53 contacts the guardrail, the first limit switch 4- 2. Automatically disconnect hydraulic cylinders 4-33 and 4-37 from limit switch 4-27; (7) Start electromagnet 4-8 and electromagnet 4-23 to attract the guardrail, start hydraulic cylinders 4-33 and 4-37 to push the reinforcing beam 4-53 upward, and control the upward stroke of hydraulic cylinders 4-33 and 4-37 by limit switch 4-52; (8) Start five Hydraulic cylinders 4-12 and 4-21 push the crossbeam 4-35 to move horizontally, with the stroke controlled by the wire displacement sensor 4-50; (9) Start hydraulic cylinders 3-2 and 3-9 to rotate the crossbeam 3-14; Image acquisition device 1-3 and image acquisition device 1-11 automatically capture the position of the pile hole and the guardrail hole, and automatically fine-tune to ensure that the pile hole and the guardrail hole are aligned; (10) Workers tighten screws.
Claims
1. A guardrail panel installation vehicle characterized by: The application relates to a guardrail plate mounting vehicle which comprises a frame, a power unit, a rotating unit and an executing unit. The guardrail plate is placed on the frame, and the guardrail plate is moved to a working section with the vehicle; the frame is placed between two stand columns to install the guardrail plate; a first hydraulic oil cylinder and a second hydraulic oil cylinder are started, and a first oil cylinder sliding block and a second oil cylinder sliding block are pushed to move the guardrail plate to below the executing unit; a third hydraulic oil cylinder and a fourth hydraulic oil cylinder are started, and the rotating crossbeam is rotated; a fifth hydraulic oil cylinder and a sixth hydraulic oil cylinder are started, and the crossbeam is pushed to translate to above the guardrail, and the stroke is controlled by a wire displacement sensor; a seventh hydraulic oil cylinder and an eighth hydraulic oil cylinder are started, and the reinforcing beam is pushed to move downwards; when the reinforcing beam contacts the guardrail, a first limit switch and a second limit switch automatically disconnect the seventh hydraulic oil cylinder and the eighth hydraulic oil cylinder; a first electromagnet and a second electromagnet are started to adsorb the guardrail, the seventh hydraulic oil cylinder and the eighth hydraulic oil cylinder are started to push the reinforcing beam to move upwards, and the stroke of the seventh hydraulic oil cylinder and the eighth hydraulic oil cylinder is controlled by a fourth limit switch; the fifth hydraulic oil cylinder and the sixth hydraulic oil cylinder are started to push the crossbeam to translate, and the stroke is controlled by the wire displacement sensor; the third hydraulic oil cylinder and the fourth hydraulic oil cylinder are started to rotate the crossbeam; a first image collector and a second image collector automatically capture the pile hole and the guardrail hole position, and automatically fine-tune to ensure that the pile hole and the guardrail hole are aligned; and a worker screws.
2. The guardrail panel installation vehicle of claim 1, wherein: The frame comprises a front frame, wheels, and a rear frame, the front frame and the rear frame are connected into one body, the wheels are respectively arranged below the front frame and the rear frame, a baffle is arranged at the rear of the front frame, a lifting frame is arranged at the rear of the rear frame, an engine base and a water tank base are arranged on the front frame, and a first fixed oil cylinder frame and a second fixed oil cylinder frame are arranged on the rear frame.
3. The guardrail panel installation vehicle of claim 1, wherein: The power unit comprises a first gear pump, a second gear pump, an axle assembly, a hydraulic motor, a water tank, an engine, a first connecting shaft, a speed reducer, a first gearbox, a second connecting shaft, a second gearbox, a hydraulic oil tank, a diesel tank, a first hydraulic oil cylinder and a second hydraulic oil cylinder; the first hydraulic oil cylinder is arranged on the first fixed oil cylinder frame of the rear frame, the second hydraulic oil cylinder is arranged on the second fixed oil cylinder frame of the rear frame, the engine is arranged on the engine base of the front frame, the water tank is arranged on the water tank base of the front frame, the hydraulic oil tank and the diesel tank are arranged in front of the baffle on the front frame, the engine is connected with the first gearbox through the first connecting shaft and the speed reducer, the first gearbox is connected with the first gear pump and the second gear pump in parallel and connected with the hydraulic oil tank at the same time, the second gearbox is arranged on the front part of the front frame, the hydraulic motor is connected with the second gearbox through the speed reducer, and the axle assembly is connected with the second gearbox through the second connecting shaft.
4. The guardrail panel installation vehicle of claim 1, wherein: The rotating unit comprises a No. 1 connector, a No. 3 hydraulic oil cylinder, a No. 1 base, a No. 1 support seat, a No. 1 stand, a No. 2 stand, a No. 2 support seat, a No. 2 base, a No. 4 hydraulic oil cylinder, a No. 1 shaft, a No. 2 connector, a No. 1 bearing cover, a No. 1 bearing seat, a rotating cross beam, a No. 2 bearing seat, a No. 2 bearing cover and a No. 2 shaft.
5. The guardrail panel installation vehicle of claim 1, wherein: The execution unit comprises a first translation mechanism, a first longitudinal movement mechanism, a first suction disc mechanism, a second translation mechanism, a second longitudinal movement mechanism and a second suction disc mechanism installed on the cross beam, the sliding beam and the reinforcing beam, wherein the first translation mechanism, the first longitudinal movement mechanism and the first suction disc mechanism are installed on the left side of the cross beam, the sliding beam and the reinforcing beam, and the second translation mechanism, the second longitudinal movement mechanism and the second suction disc mechanism are installed on the right side of the cross beam, the sliding beam and the reinforcing beam; the first translation mechanism comprises a first oil cylinder base, a first oil cylinder shaft sleeve, a fifth hydraulic oil cylinder, a first positioning shaft, a first positioning shaft sleeve and a second supporting plate, the first oil cylinder base is installed on the left side of the rotating cross beam in the Y direction, the fifth hydraulic oil cylinder is installed on the first oil cylinder base through the first oil cylinder shaft sleeve, the second supporting plate is installed on the left side of the rotating cross beam in the Y direction, and the first positioning shaft is installed on the second supporting plate through the first positioning shaft sleeve; the second translation mechanism comprises a third supporting plate, a second positioning shaft sleeve, a second positioning shaft, a second oil cylinder base, a second oil cylinder shaft sleeve and a sixth hydraulic oil cylinder, the third supporting plate is installed on the right side of the rotating cross beam in the Y direction, the second positioning shaft is installed on the third supporting plate through the second positioning shaft sleeve, and the second oil cylinder base is installed on the right side of the rotating cross beam in the Y direction; the sixth hydraulic oil cylinder is installed on the second oil cylinder base through the second oil cylinder shaft sleeve; the left end of the cross beam is connected to the hydraulic rod of the fifth hydraulic oil cylinder through a fifth oil cylinder base, and the right end of the cross beam is connected to the hydraulic rod of the sixth hydraulic oil cylinder through a fourth oil cylinder base; the first longitudinal movement mechanism comprises a second oil cylinder positioning seat, an eighth hydraulic oil cylinder, a fourth positioning shaft, a fourth positioning shaft sleeve and a second positioning shaft seat, the second oil cylinder positioning seat is installed on the left side of the cross beam in the Z direction, the eighth hydraulic oil cylinder is installed on the second oil cylinder positioning seat, the second positioning shaft seat is installed on the left side of the cross beam in the Z direction, the fourth positioning shaft is installed on the second positioning shaft seat through the fourth positioning shaft sleeve, and the end of the fourth positioning shaft is connected to the reinforcing beam; the second longitudinal movement mechanism comprises a first positioning shaft seat, a third positioning shaft sleeve, a third positioning shaft, a seventh hydraulic oil cylinder and a first oil cylinder positioning seat, the first positioning shaft seat is installed on the right side of the cross beam in the Z direction, the third positioning shaft is installed on the first positioning shaft seat through the third positioning shaft sleeve, the first oil cylinder positioning seat is installed on the right side of the cross beam in the Z direction, the seventh hydraulic oil cylinder is installed on the first oil cylinder positioning seat, and the end of the third positioning shaft is connected to the reinforcing beam; the hydraulic rod of the eighth hydraulic oil cylinder is connected to a seventh oil cylinder base, the seventh oil cylinder base is connected to the left end of the reinforcing beam, the hydraulic rod of the seventh hydraulic oil cylinder is connected to a sixth oil cylinder base, and the sixth oil cylinder base is connected to the right end of the reinforcing beam; a first sliding base and a second sliding base are installed on the two sides of the reinforcing beam and connected to the sliding beam, a third oil cylinder base is installed on the reinforcing beam, a ninth hydraulic oil cylinder is installed on the third oil cylinder base, the hydraulic rod of the ninth hydraulic oil cylinder is connected to the sliding beam, the sliding beam moves left and right is controlled, the first suction disc mechanism is installed on the left end of the sliding beam, and the second suction disc mechanism is installed on the right end of the sliding beam.The first suction disc mechanism comprises a vertical plate, a support plate, an extension shaft, a side plate, a shaft sleeve, a spring, an electromagnet and a shaft base, the vertical plate and the side plate are installed at the left end of the sliding beam, the support plate is fixed on the vertical plate and the side plate, the extension shaft is installed on the support plate through the shaft sleeve and the spring, and the bottom end of the extension shaft is installed with the electromagnet through the shaft base; the second suction disc mechanism comprises a second shaft base, a second electromagnet, a second shaft sleeve, a second extension shaft, a second vertical plate, a second side plate, a second support plate and a second spring, the second vertical plate and the second side plate are installed at the right end of the sliding beam, the second support plate is fixed on the second vertical plate and the second side plate, the second extension shaft is installed on the second support plate through the second shaft sleeve and the second spring, and the bottom end of the second extension shaft is installed with the second electromagnet through the second shaft base.
6. The guardrail panel installation vehicle of claim 5, wherein: A No. 1 limit switch is installed on the No. 1 vertical plate, a No. 2 limit switch is installed on the No. 2 vertical plate, and a No. 3 limit switch is installed in the middle of the cross beam.
7. The guardrail panel installation vehicle of claim 5, wherein: A No. 1 manual switch and a No. 2 manual switch are installed on the rear frame, the No. 1 manual switch controls the operation of the magnet, and the No. 2 manual switch controls the up-down and left-right movement of the execution unit.
8. The guardrail panel installation vehicle of claim 1, wherein: The control unit further comprises a self-control cabinet, a No. 1 image collector and a No. 2 image collector, the self-control cabinet is installed on the front frame, the No. 1 image collector is installed on the front frame, and the No. 2 image collector is installed on the rear frame.
9. The guardrail panel installation vehicle of claim 8, wherein: A sun shield is installed above the control panel of the self-control cabinet.
10. The guardrail panel installation vehicle of claim 8, wherein: The control unit further comprises a No. 1 electromagnetic valve block group, a No. 2 electromagnetic valve block group and a No. 3 electromagnetic valve block group, the No. 1 electromagnetic valve block group is connected with a No. 1 gear pump and a hydraulic motor in parallel, the No. 2 electromagnetic valve block group is connected with the No. 1 gear pump, a No. 1 hydraulic oil cylinder, a No. 2 hydraulic oil cylinder, a No. 3 hydraulic oil cylinder and a No. 4 hydraulic oil cylinder in parallel, and the No. 3 electromagnetic valve block group is connected with a No. 2 gear pump, a No. 5 hydraulic oil cylinder, a No. 6 hydraulic oil cylinder, a No. 7 hydraulic oil cylinder, a No. 8 hydraulic oil cylinder and a No. 9 hydraulic oil cylinder in parallel.
Citation Information
Patent Citations
Auxiliary guardrail plate mounting device for highway construction
CN113512971A
Road construction guardrail plate mounting device
CN216553367U
Execution unit of guardrail plate mounting vehicle
CN221582653U