A Method for Estimating the Angle Between a Crawling Welding Robot and Weld Seam
A welding robot and robot technology, applied in welding equipment, auxiliary welding equipment, welding/cutting auxiliary equipment, etc., can solve the problem of not being able to obtain the included angle of crawling welding robots in real time, and achieve easy implementation, improved precision, and accurate filtering results Effect
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0045] A method for estimating the included angle between a crawling welding robot and a weld, which is characterized in that it comprises the following steps:
[0046] Step 1: Obtain the information collected by the sensor; the sensors include laser seam tracking sensor and gyroscope measurement. The information specifically includes the coordinates of the weld seam flute collected by the laser seam tracking sensor, and the robot angular velocity information measured by the gyroscope;
[0047] Get the coordinate X of the weld flute at time k 1m (k) and X 2m (k), the robot angular velocity ω measured by the gyroscope m (k). m represents the measured value.
[0048] Step 2: Obtain the movement information of the laser weld tracking sensor;
[0049] The motion information specifically refers to speed and rotation angle. These two values are given by the robot system.
[0050] Obtain the robot forward speed V at time k C (k), the robot rotation angle Δθ calculated by the encoder m (k)....
Embodiment 2
[0055] A method for estimating the included angle between a crawling welding robot and a weld, which is characterized in that it comprises the following steps:
[0056] Step 1: Obtain the information collected by the sensor; the sensors include laser seam tracking sensor and gyroscope measurement. The information specifically includes the coordinates of the weld seam flute collected by the laser seam tracking sensor, and the robot angular velocity information measured by the gyroscope;
[0057] Get the coordinate X of the weld flute at time k 1m (k) and X 2m (k), the robot angular velocity ω measured by the gyroscope m (k). m represents the measured value.
[0058] Step 2: Obtain the movement information of the laser weld tracking sensor;
[0059] The motion information specifically refers to speed and rotation angle. These two values are given by the robot system.
[0060] Obtain the robot forward speed V at time k C (k), the robot rotation angle Δθ calculated by the encoder m (k)....
Embodiment 3
[0090] The hardware part of the present invention includes the following basic units: a laser seam tracking sensor, a gyroscope, and a robot system that provides the speed and rotation angle of the laser seam tracking sensor. Among them, when installing, the sensitive axis of the gyroscope is perpendicular to the welding seam plane.
[0091] The following steps describe the implementation in detail.
[0092] Step 1: Obtain the information collected by the sensor. Including the coordinates of the weld seam collected by the laser seam tracking sensor, and the robot angular velocity measured by the gyroscope:
[0093] Get the coordinate X of the weld flute at time k 1m (k) and X 2m (k), the robot angular velocity ω measured by the gyroscope m (k).
[0094] Step 2: Obtain the motion information of the laser weld tracking sensor:
[0095] Obtain the robot forward speed V at time k C (k), the robot rotation angle Δθ calculated by the encoder m (k).
[0096] Step 3: According to the coordinat...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 


