64 results about "Paint robot" patented technology

The invention relates to the technical field of surface spraying, in particular to an intelligent surface spraying method and device based on coating quality and a spraying robot. The intelligent surface spraying method based on the coating quality comprises the steps that the coating actually-measured thicknesses of a plurality of detection points in a spraying width area are monitored in real time, and an actually-measured thickness distribution field is obtained; according to the actually measured thickness distribution field and the target thickness of the coating, a thickness deviation mean value is calculated, and whether the thickness deviation mean value is out of an allowable range or not is judged; if yes, calculating a thickness standard deviation according to the actually measured thickness distribution field; calculating a speed correction amount according to the thickness deviation mean value and the speed correction coefficient; and according to the thickness deviation mean value, the thickness standard deviation and the spraying width correction coefficient, the spraying width correction amount is calculated. According to the intelligent surface spraying method and device based on the coating quality and the spraying robot, the product surface coating spraying effect standard reaching rate is high, the secondary machining number can be greatly reduced, and the productivity is high.

To provide a coating robot which suppresses decrease in a coating film thickness and can achieve improvement in coating quality.SOLUTION: A head control part 90 of a coating robot 10 performs recovery control for controlling drive of a piezoelectric substrate 62 so that when it is determined that a specific nozzle 54 is a defective nozzle 54a that is defective in discharge of droplets, a size of droplets of good dot D2 around defective dot D1 increases. In the recovery control, when the good dot D2 around the defective dot D1 reaches a boundary of a coating range in a coating part, boundary discharge such that the size of droplets of the good dot D2 becomes equal to a droplet size in a usual discharge state when the recovery control is performed is executed.SELECTED DRAWING: Figure 2

The invention particularly relates to an automatic coating trajectory planning method for a composite material workpiece. The method comprises the following steps that 1, robot zero point calibration, 3D camera and robot pose relation calibration, multi-robot pose relation calibration, workpiece displacement mechanism and robot pose calibration and spray gun and robot tail end pose relation calibration are conducted; 2, a paint spraying robot carrying the 3D camera is controlled to carry out iterative shooting and point cloud fusion on the workpiece, a complete working three-dimensional point cloud model is obtained, and the real edge of the complete working three-dimensional point cloud model is recognized; and 3, trajectory planning is carried out, the trajectory planning is carried out in two parts, namely complex curved surface path planning and boundary trajectory planning, and the two parts of planning are fused to finally form a profiling migration trajectory of the robot driving the spray gun. And a track planning mode is adopted, so that track planning is more complete and fine, and the spraying quality of the material edge is improved.

The invention discloses a prediction method for a paint mist particle recovery track of a ship paint spraying robot, which comprises a spray nozzle paint mist spraying model and a paint mist recovery model, mainly calculates the motion track of particles rebounded and splashed back from a spraying surface according to a set spray nozzle numerical value, a set negative pressure numerical value and the like, and obtains the recovery rate of the particles under the negative pressure. Therefore, proper recovery negative pressure is judged.

A head control unit of a painting robot is configured to implement recovery control for controlling driving of a piezoelectric substrate to increase the size of droplets of conforming dots surrounding a non-conforming dot if a specific nozzle is deemed to be non-conforming and not ejecting droplets correctly when painting a vehicle. In the recovery control, when the conforming dots surrounding the non-conforming dot reach a boundary of a painting range of the painting area, boundary ejection control is implemented to make the size of the droplets of the conforming dots a droplet size which is equal to the size in a state of normal ejection when the recovery control is not being implemented.

The utility model discloses an intelligent anti-collision spray painting robot base structure relates to robot base technical field, including fixed seat, drive wheel set and robot support table, the bottom end of fixed seat is provided with drive wheel set, the top end of fixed seat is provided with horizontal groove, the bottom end inside fixed seat is equipped with horizontal slide rail, the bottom end inside fixed seat is equipped with the horizontal slide rail, and the bottom end inside fixed seat is equipped with the horizontal slide rail. A transverse sliding rail is arranged in the fixing seat, a moving block is arranged at the top end of the interior of the transverse sliding rail, a transverse shifting mechanism used for shifting the moving block is arranged in the fixing seat, a longitudinal sliding rail penetrating through the transverse groove is installed at the top end of the moving block, fixing frames are installed on the two sides of the longitudinal sliding rail, and the outer walls of the fixing frames are sleeved with robot supporting tables; according to the device, the movable rod extrudes the position of the pressure sensor, then the pressure sensor feeds back information to the positions of the single-chip microcomputer and the alarm, the single-chip microcomputer can turn off driving equipment at the driving wheel set, and then the alarm gives an alarm to remind an operator of obstacles.

The invention relates to the technical field of intelligent control, and provides a paint spraying control method and AI control system applied to an electrified railway, and the method comprises the steps: positioning a target spraying region according to the point cloud scanning information of a to-be-painted part; based on preset paint spraying process requirements and the three-dimensional model of the target spraying area, spatial analysis is carried out to obtain spatial geometric features; generating an initial paint spraying path planning strategy through adaptive analysis of the spatial geometric features and motion constraint information in a first motion engineering model of the paint spraying robot; controlling the robot to execute operation according to an initial strategy and synchronously acquiring motion state data and surface feedback data; identifying a paint surface defect area based on the motion deviation information and generating a paint spraying path correction strategy; the motion engineering model is updated through the correction strategy, space-time matching analysis is executed in combination with the model motion planning logic and the surface features of the target area, a corrected paint spraying path and corrected spraying control information are extracted, and therefore the paint spraying path accuracy and spraying control parameter adaptability are improved.

1. The name of the design product: drawing robot (Q08). 2. The use of the design product: a robot for early childhood education and drawing. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view 1.

1. The name of the design product: painting robot (WY-61). 2. The use of the design product: for intelligent painting. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view.

The utility model discloses a multi-axis moving goods shelf spraying device, which belongs to the technical field of spraying processing, and comprises a position adjusting mechanism and a paint conveying mechanism, and a paint spraying robot is mounted on the inner side of the position adjusting mechanism; the paint conveying mechanism comprises a spiral conveying pipe and a U-shaped positioning rod, the spiral conveying pipe is fixedly connected and communicated to the feeding end of the paint spraying robot, and the U-shaped positioning rod is fixedly connected to the surface of the position adjusting mechanism; by adopting the design that the spiral conveying pipe designed in a spiral mode is installed on the surface of the U-shaped positioning rod in a surrounding mode, compared with an existing coating conveying pipeline, the U-shaped positioning rod can firmly limit the spiral conveying pipe on the surface of the U-shaped positioning rod on the premise that normal telescopic movement of the spiral conveying pipe is not affected; the situation that the spiral conveying pipe is twisted and bent in the using process is effectively reduced, and it is guaranteed that spraying operation of a goods shelf can be normally carried out.

1. Name of the design product: painting robot. 2. Use of the design product: for spraying paint, coating. 3. Design points of the design product: in shape. 4. Picture or photo best indicating the design points: perspective view.

The utility model discloses a vehicle paint spraying warehouse which comprises a warehouse base, a paint spraying room is arranged at the top end of the warehouse base, a drying room is arranged at the position, on one side of the paint spraying room, of the top end of the warehouse base, the drying room is communicated with the paint spraying room, a paint spraying robot is arranged on one side of the top of the paint spraying room, part placing frames are arranged on the two sides of the top of the drying room, and heating pipes are installed on the two sides in the part placing frames. A guide rail is arranged at the bottom end of the interior of the paint spraying room, one end of the guide rail extends out of the paint spraying room, the other end of the guide rail penetrates out of the drying room, a first step slope table is arranged at the top end of the warehouse base on one side of the guide rail, and a second step slope table is arranged at the top end of the warehouse base on the other side of the guide rail. Rail wheels are installed at the corners of the bottom end of the bearing base. According to the vehicle paint spraying warehouse, the vehicle paint spraying efficiency is guaranteed when the vehicle paint spraying warehouse is used, the purpose of automatically transferring the vehicle is achieved, the use convenience of the vehicle paint spraying warehouse is improved, and the environment friendliness of the vehicle paint spraying warehouse is improved when the vehicle paint spraying warehouse is used.

The utility model relates to the related technical field of paint spraying robots, in particular to an efficient and accurate paint spraying robot which comprises a rack, a paint spraying mechanism is arranged at one end of the rack, in the using process, the module is externally connected with a control unit, and the control unit is connected with an external computer through a circuit. The module is mainly used for accurately identifying and positioning a workpiece before paint spraying, the surface of the workpiece can be rapidly scanned through the laser triangulation sensor, and shape, size and position information of the workpiece can be obtained. Then, an advanced image processing algorithm is used for analyzing and processing the information, the paint spraying area and path are accurately determined, the innovation point of the module is that a laser triangulation sensor and an accurate positioning algorithm of the module are used, paint spraying accuracy and efficiency can be greatly improved, paint spraying errors and waste are reduced, and in addition, the system is easy to popularize and use. The module can automatically adjust the paint spraying pressure according to different paint spraying requirements and workpiece surface characteristics, and the paint spraying quality is greatly improved.

1. The name of the design product: painting robot (Y11349). 2. The use of the design product: painting robot. 3. The design points of the design product: in shape. 4. The picture or photo that best shows the design points: perspective view.

A painting robot which can prevent the introduction of air from the nozzles into paint during the color change of paint and filling of paint and can prevent the acceleration of wear of the pump, and sufficiently remove dissolved gas from the paint. The painting robot includes a paint supply path connected to the paint supply side of the nozzle head and a return flow path configured to recover the paint not discharged from the nozzles. Further, the painting robot includes a first filter configured to remove foreign matter in the paint and a second filter configured to separate dissolved gas from the paint. When paint is not discharged from the nozzle head, the control unit opens the on-off valve and circulates the paint to the bypass flow path.

Painting robot (1) with a color changer (8), wherein the painting robot (1) is suitable for painting both the exterior surfaces and the interior surfaces of motor vehicle bodies by means of an atomizer (7) guided by the painting robot (1) and is able to insert the atomizer (7) into the engine and trunk compartments of the body, with doors and hoods installed and thus in the way, and through door openings into the interior of the body to a sufficient extent for painting the interior. wherein the pivot axis of a distal arm (5) of the painting robot (1) is located below the pivot axis of an upper arm (4) of the painting robot (1) adjacent to the distal arm (5) during the painting of the interior, and wherein the interior is painted with the distal arm (5) inserted in a horizontal position, and wherein the painting robot (1) is movable on a traversing rail, wherein the guide rail is arranged above the roof of the body, and wherein the pivot axis of the distal arm (5) of the painting robot (1) lies below the traversing rail of the painting robot (1) when painting the interior, and wherein the upper arm (4) and the distal arm (5) can be pivoted into the reverse position for painting the outer surfaces, in which the pivot axis of the distal arm (5) is located above the pivot axis of the upper arm (4), wherein the color changer (8) has the following features: a) on the input side several color supply lines (13, 13.1, 13.2) for supplying different colored lacquers, b) on the output side a common color line (25) for conveying the lacquer selected by the color changer (8) to the atomizer (7), c) several docking points (15) which are supplied by the individual color supply lines (13, 13.1, 13.2), and d) a paint extraction unit (16) which can optionally dock to one of the docking points (15) and, when docked, extracts the paint from the associated paint supply line (13, 13.1, 13.2) and feeds the common paint line (25) with the extracted paint, e) wherein the paint extraction point (16) and the docking points (15) are displaceable relative to each other, with a clamping device (18, 19, 20) for mechanically clamping the paint extraction point (16) and the respective docking point (15) in the docked state, wherein the clamping device has a groove (18) with an undercut on which a movable clamping element (19) engages.

The invention relates to a lubricant hose (5) for supplying a lubricant (7) to a lubrication point. The invention provides at least one outlet opening (6) in the wall of the lubricant hose (5) for dispensing the lubricant (7) through the outlet opening (6), in particular in a hose package in a painting robot of a painting system for painting motor vehicle body components. The invention further relates to a hose package with such a lubricant hose (5). Moreover, the invention also relates to a coating robot having such a hose package and to a coating system having such a coating robot.

The invention discloses an automatic circulating paint spraying and drying device for large steel members, and relates to the technical field of steel member paint spraying, the automatic circulating paint spraying and drying device comprises a paint spraying room and a placing rack, the outlet end of the paint spraying room is provided with a drying room, and the inner side of the paint spraying room is provided with a paint spraying robot, a first chain conveyor, a lifting mechanism and a paint spraying mechanism; the two ends of the steel member are clamped and lifted upwards through the lifting mechanism, so that the phenomenon that the main surface of the steel member cannot be sprayed due to physical shielding is avoided, and the overall spraying effect is improved; after a paint film on a main face is dried, paint spraying and drying treatment on the end portion of the steel component can be completed only through the small paint spraying mechanism, the steel component does not need to occupy a paint spraying room again, other steel components with multiple faces capable of being synchronously sprayed enter the inner side of the paint spraying room in time, the utilization rate of the paint spraying room is greatly improved, and the overall paint spraying efficiency is improved.

1. Name of the product in this design: Painting Robot. 2. Purpose of this design: For use in painting instruction. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D view 1.

The utility model relates to the related technical field of organic waste gas recovery, in particular to an organic waste gas collection and disposal device for a ship paint spraying robot, which comprises a main frame and a paint support fixedly mounted on the main frame, a separation tank is fixedly mounted on the paint support, and an elastic plugging piece is arranged at the gas inlet end of the separation tank; according to the organic waste gas separation device, through the concentration change of organic waste gas in the separation tank, under the cooperation of the elastic moving structure and the fan assembly, when the concentration of the organic waste gas in the separation tank exceeds a preset threshold value, the elastic moving structure is driven to move towards the limiting disc, so that the organic waste gas in the separation tank is separated from the separation tank; meanwhile, the fan assembly is controlled to stop running, so that the elastic moving structure abuts against the limiting disc and keeps surface contact, the gas inlet end of the separation tank is blocked, it is guaranteed that most toxic substances in the organic waste gas in the separation tank are separated, and the treated gas can be discharged after reaching the standard.

The invention belongs to the technical field of helicopter surface spraying, and particularly relates to a helicopter pose determination method used before automatic paint spraying, which comprises the following steps: step 1, according to the overall appearance structure characteristics of a helicopter, dividing the helicopter into a front-section fuselage and a rear-section fuselage according to the space, and selecting feature point positions on the front-section fuselage and the rear-section fuselage; 2, establishing a workshop unified coordinate system, and determining the pose of the robot in the workshop coordinate system; 3, scanning the feature point positions of the front helicopter body, and fitting the feature point positions with the feature point positions at the corresponding positions in the original helicopter digital model; 4, scanning, correcting and compensating feature point positions of a rear-section helicopter body, and fitting the feature point positions with feature point positions at corresponding positions in the original helicopter digital model; 5, a spraying track is generated, and dynamic correction is carried out; according to the method, for the specificity of a helicopter product, feature positioning points are selected, coordinate system iteration calibration is carried out in a segmented recognition and fitting mode, the actual posture of the helicopter is accurately recognized, and data support is provided for spraying track correction of a paint spraying robot.

This utility model discloses an industrial robot-assisted painting device, including a base box and a top frame. Beneficial effects: This utility model is equipped with a clamping groove, a hot air blower, and an electric cylinder. This device is installed on one side of an industrial painting robot. When painting a workpiece, the top of the workpiece can be placed between the clamping blocks. The cylinder pushes the clamping blocks to hold the top of the workpiece, leaving the bottom of the workpiece suspended. The industrial painting robot can then paint the bottom of the workpiece. After the bottom is painted, the operator can start the hot air blower, which introduces hot air into the base box. The hot air blows out through the perforations, quickly drying the painted area on the bottom of the workpiece. Then, the electric cylinder shortens, placing the workpiece on the top surface of the turntable. The industrial painting robot can then paint the surface and top of the workpiece, achieving comprehensive painting. This auxiliary device enables the industrial painting robot to perform comprehensive painting operations on workpieces, improving work efficiency and ease of use.

To provide a cleaning system for a painting robot, capable of suppressing a decrease in the cleaning performance of a paint circulation path and an increase in cleaning time even when a return flow path from a painting head is long. [Solution] The cleaning system 1 of the painting robot 10 comprises a painting head unit 30 equipped with an inkjet type painting head 31, a robot arm R1, a cap 93 that seals at least a portion of the nozzle forming surface 32, a cap moving mechanism 94, a paint supply path 52, a return flow path 53 that recovers paint or cleaning fluid toward at least a paint tank 57 separate from the robot arm R1, a pressurizing means that pressurizes the cleaning fluid, a cleaning suction means that sucks the cleaning fluid, and a control means that controls the operation of the pressurizing means and the cleaning suction means, and during cleaning, the control means activates the cap moving mechanism 94 to seal the nozzle forming surface 32 with the cap 93, and then activates the pressurizing means and the cleaning suction means.

The present invention provides a painting robot capable of reducing the influence of pressure changes at the time of paint ejection or ejection stop. The painting robot includes a control section (100), a robot arm (R1) that mounts a painting head unit (50) to the front end, and a paint supply mechanism (70) that is provided across between the robot arm and the painting head unit, the paint supply mechanism including a paint circulation path (71) and a paint transfer mechanism (90, 91, control object) and a regulating valve (92, 93, control object) that are provided midway in the paint circulation path, the control section including a feedback control section (142) that calculates a pressure calculation value for performing feedback control of the action of the control object and controls the action of the control object, and a feedforward control section (143) that, based on a trigger signal associated with a change in the state of a painting head (53), corrects the pressure calculation value with a compensation pressure value in a direction opposite to a pressure change expected with respect to a pressure set value, and controls the action of the control object.

To provide a painting robot that can more effectively recover from nozzle clogging in a vehicle painting line. [Solution] The painting head unit 50 includes a painting head 53 equipped with a plurality of nozzles 54 and a piezoelectric substrate 62 for driving to push out the fluid in the cavity from the nozzles 54 as droplets, and a head control unit 100 that controls the driving of the piezoelectric substrate 62. When painting a vehicle, if a particular nozzle 54 is determined to be a defective nozzle 54D with poor droplet discharge, the head control unit 100 performs recovery control to restore droplet discharge from the defective nozzle 54D. When the nozzle 54 adjacent to the defective nozzle 54D is designated as the adjacent nozzle 54A, the recovery control controls the droplet discharge from the defective nozzle 54D and the droplet discharge from the adjacent nozzle 54A to be staggered by half a cycle.

The utility model relates to the technical field of spraying equipment, and discloses a paint spraying robot for automatic spraying, which comprises a conveying table, a conveying groove is arranged at the top of the conveying table, a conveying belt is arranged in the conveying groove, a moving plate capable of moving left and right is arranged in the middle of the bottom of the conveying table, and the length of the moving plate is larger than the width of the conveying table. Fixed blocks are fixedly mounted at the tops of the two ends of the movable plate, rotating grooves are formed in the tops of the two fixed blocks, rotating plates are rotationally mounted in the two rotating grooves, mechanical arms are fixedly mounted at the tops of the two rotating plates, and spray guns are fixedly mounted at the ends, away from the rotating plates, of the two mechanical arms. The hydraulic rod is controlled to push the moving plate to move in the direction of the positioning rod, the positions, located on the two sides of the conveying table, of the mechanical arm can be adjusted, the rotating plate at the bottom of the mechanical arm can rotate by any angle, and therefore a spray gun at one end of the mechanical arm can rapidly finish paint spraying at different positions of the surface of an object.

The application relates to the technical field of navigation equipment, and discloses a navigation equipment of a paint all-in-one machine and a navigation method, which comprises a navigator mounting plate, a paint navigator is mounted on the outside of the navigator mounting plate, a lifting connecting plate is slidably mounted in the inside of the navigator mounting plate, and a sliding protective cover is connected to the outside of the lifting connecting plate. When the lifting mechanism drives the lifting connecting plate to move upwards, the inside of the air exhaust mechanism is in a communication state, the air exhaust mechanism can drive air to enter the inside of the navigator protective cover after the inside of the air exhaust mechanism is communicated, and the air entering the inside of the navigator protective cover is discharged from the opening of the navigator protective cover again. The direction of air flow driven by the air exhaust mechanism is consistent with the orientation of the sight window of the paint navigator, the air misting paint attached to the sight window of the paint navigator when the outside information is acquired from the sight window is prevented, and the navigation precision is prevented from being affected by the misting paint particles attached to the sight window cover of the paint navigator during the working process.

An overspray-free paint system includes: a paint robot including an overspray-free paint applicator; and a first fixture robot for lifting and orienting a fixture assembly relative to at least one of the paint robot and the overspray-free paint applicator, the fixture assembly configured to hold an object to be painted by the overspray-free paint applicator, the first fixture robot including a first gripper configured to grab a first portion of the fixture assembly, and the first fixture robot configured to lift and orient the fixture assembly via the first gripper.

The permanent magnet adsorption mechanism applied to the paint spraying robot is simple in structure and high in adsorbability and comprises a yoke for restraining divergence of magnetic induction lines, a plurality of magnets are arranged on the yoke in a locked mode, and the yoke is fixedly arranged at the bottom of a machine frame of the paint spraying robot through a fixing device.