[Mechanical Manufacturing and Automation] 1.Fundamentals of Industrial Robot Applications
#ICT# #IOT#

Lesson Code: TCEN2025H006

Clicks:
Academic Hours
5.30hours
Publish Date
May 2025

Lecturer

1. Lecturer YANG QuanGuangxi Vocational & Technical Institute of Industry

2. Lecturer XIN HuajianGuangxi Vocational & Technical Institute of Industry

3. Lecturer HUANG ZizhaoGuangxi Vocational & Technical Institute of Industry

4. Lecturer LIANG BeiyuanGuangxi Vocational & Technical Institute of Industry

5. Lecturer HUANG XiwenGuangxi Vocational & Technical Institute of Industry

General Introduction
This course is an application-oriented technical course designed for trainees from the manufacturing industry, students majoring in electrical automation and mechanical engineering, as well as individuals interested in industrial robot technologies.
The course aims to cultivate skills in the operation, maintenance, programming, installation, commissioning, operation management, and marketing services related to industrial robot systems.

This Course is for
# Helping trainees become familiar with the basic structure, characteristics, and application fields of industrial robots.
# Enabling trainees to understand fundamental knowledge of industrial robots, including control operations, programming methods, and offline simulation programming.
# Training trainees to master industrial robot programming and debugging techniques, and to proficiently use simulation programming software.
# Guiding trainees to analyze the characteristics of industrial robots and develop application plans.
# Enabling trainees to select appropriate industrial robots based on actual requirements and design control systems based on industrial robots.
# Assisting trainees in applying industrial robot programming and debugging techniques to design industrial robot workstations.
# Enabling trainees to evaluate the impact of integrated industrial robot applications on environmental and social sustainable development.
# Helping trainees cultivate a solid theoretical foundation and promote an innovative spirit among trainees.
# Instilling good professional ethics, a strong sense of dedication, and heightened awareness of safety and environmental protection in trainees.

Learning Materials

1. Corresponding PPT
2. Online Course Video
3. Simulation Question Tanks

Recognized By

Benefits of Learning

# Being able to master fundamental theories such as mechanical principles, electrical control, and programming basics.
# Being familiar with specialized knowledge such as robot structure, kinematics, and dynamics.
# Knowing operational standards, safety protection measures, and emergency response methods.
# Being proficient in common programming languages such as PLC and Python.
# Being able to independently complete the installation, commissioning, and maintenance of industrial robots.
# Capable of quickly diagnosing and solving common problems.
# Capable of interpreting mechanical drawings, electrical schematics, and circuit diagrams.
# Being able to select electrical and electronic components, assemble and debug mechanical and electrical systems, and control hydraulic and pneumatic systems, as well as install and commission industrial robot application systems.
# Capable of possessing capabilities in industrial robot unit programming, debugging, and on-site or remote operation and maintenance.
# Capable of possessing skills in system modeling, application of digital twin technologies, virtual commissioning, and digital design of industrial robot application systems.

Courses Videos
Course Introduction.mp4play1.1 Development and Application of Industrial Robots.mp4play1.2 Classification, Structure, and Basic Parameters of Industrial Robots.mp4play2.1 Cognition of Robot Body, Teaching Pendant, and Control Cabinet.mp4play2.2 Functions and Connections of Robot Body Interfaces.mp4play2.3 Basic Coordinate Systems of Industrial Robots.mp4play3.1 Tool Coordinates and User Coordinates of Robots.mp4play3.2 Setting Tool Coordinates with the Three-Point Method and Activation Verification.mp4play3.3 Setting Tool Coordinates with the Six-Point Method and Activation Verification.mp4play3.4 Direct Input Method for Tool Coordinates and Activation Verification.mp4play3.5 Setting and Verifying User Coordinates with the Three-Point Method.mp4play4.1 Application of Conditional Comparison and Conditional Selection Instructions.mp4play4.2 Application of Jump/Label Instructions.mp4play4.3 Connection and Verification of External Emergency Stop Signals for Industrial Robots.mp4play4.4 Methods for Handling Common Faults in Industrial Robot Programming and Debugging.mp4play4.5 Other Instructions.mp4play4.6 Case Studies of Offset Instruction.mp4play4.7 Case Studies of Different Forms of Palletizing.mp4play5.1 Common I/O Board Signal Configuration.mp4play5.2 Reference Position and Macro.mp4play5.3 Working Process and Principle of Handling Workstation.mp4play5.4 Signal Configuration and Tool Installation of Handling Workstation.mp4play5.5 Programming and Debugging of Handling Workstation.mp4play5.6 Industrial Robot PROFIBUS Communication Case Study 1.mp4play5.7 Industrial Robot PROFINET Communication Case Study 2.mp4play6.1 Automatic Operation Modes and Types of Robots.mp4play6.2 Application of Button Start and Program Execution Interruption in Control Cabinet.mp4play6.3 Principle and Setting Steps of RSR Automatic Operation Mode.mp4play6.4 Principle and Setting Steps of PNS Automatic Operation Mode.mp4play6.5 PROFIBUS Communication Board Signal Configuration.mp4play7.1 Battery Types and Replacement Methods of Industrial Robots.mp4play7.2 Steps of Handling Zero Point Loss of Robot.mp4play7.3 Methods and Steps of System Settings File Backup and Recovery.mp4play8.1 A Case Study of the Preparation for Industrial Robot Design.mp4play8.2 Construct a Prototype and Detailed Design.mp4play8.3 Manufacturing and Implementation.mp4play8.4 Analyze the Results and Refine the Design.mp4play8.5 Robotic Education.mp4play

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