Course Acad ID: ACAD0505
Physical AI for Robotics Training

This course emphasizes the integration of AI with robotics systems, covering perception, motion planning, learning-based control, autonomy, and safety, enabling participants to understand how intelligent robots operate across industrial, service, and autonomous applications.

Overview

Physical AI for Robotics Training is a focused two-day program designed to help learners understand how artificial intelligence enables robots to perceive, decide, and act in real-world environments. This course emphasizes the integration of AI with robotics systems, covering perception, motion planning, learning-based control, autonomy, and safety, enabling participants to understand how intelligent robots operate across industrial, service, and autonomous applications.

Learning Outcomes

• Understand AI-driven robotics concepts
• Learn robotic system fundamentals
• Understand robotic perception systems
• Gain knowledge of computer vision for robots
• Learn autonomous movement concepts
• Understand AI-based decision making
• Explore robot simulation environments
• Identify robotics automation use cases

Duration & Delivery Mode

14 hours

We serve:
Target Audience

• Robotics engineers and automation professionals
• AI and machine learning practitioners working with robots
• Mechatronics and embedded systems engineers
• Researchers in robotics and autonomous systems
• Technology professionals exploring intelligent robotics

Pre-requisites

• Basic understanding of artificial intelligence or machine learning concepts
• Familiarity with robotics or automation fundamentals
• General awareness of sensors, actuators, or control systems
• Interest in intelligent and autonomous robotic systems

Skillset Achieved

• Understanding Physical AI concepts applied to robotics
• Knowledge of perception, planning, and control in robots
• Awareness of learning-based robotics techniques
• Evaluating safety, reliability, and autonomy in robotic systems
• Interpreting real-world robotic AI use cases

Course Outcome

By the end of this training, participants will be able to explain how Physical AI enables intelligent robotic behavior, understand perception and control pipelines, evaluate safety and ethical considerations, and assess real-world applications and future trends in AI-powered robotics systems.

Course Outline

Introduction to Physical AI in Robotics
• Definition and scope of Physical AI for robotics
• Difference between traditional robotics and AI-driven robots
• Role of perception, learning, and autonomy
• Overview of intelligent robotic systems

Robotic Perception and Environment Understanding
• Sensors, vision systems, and perception pipelines
• Computer vision for robotic applications
• Sensor fusion and environment mapping
• Handling noise and uncertainty in physical environments

Planning, Decision-Making, and Control
• Motion planning and navigation fundamentals
• Decision-making under dynamic conditions
• Control strategies for robotic systems
• Human-in-the-loop and shared autonomy concepts

Learning-Based Robotics
• Reinforcement learning for robotic control
• Imitation and behavior learning
• Simulation-to-real transfer challenges
• Adaptation and continuous learning in robots

Safety, Ethics, and Reliability in Robotics
• Safety-critical robotic system design
• Risk management and fail-safe mechanisms
• Ethical considerations in autonomous robots
• Standards and regulatory considerations

Robotics Use Cases and Future Directions
• Industrial and collaborative robots
• Mobile robots and autonomous vehicles
• Service robots and human-robot interaction
• Future trends in Physical AI-driven robotics

Assessment Topics

• Robotics and Physical AI fundamentals
• Sensors and robotic perception
• Computer vision for robotics
• Motion planning and navigation
• Autonomous robotics concepts
• Machine learning for robots
• Robot simulation basics
• Industrial robotics applications
• Human-robot interaction concepts
• Robotics safety and ethics

Evaluation

• Conceptual understanding assessments
• Case-based analysis of robotic AI systems
• Safety and autonomy evaluation exercise
• Final knowledge evaluation quiz

Course Materials

Participants will receive course materials, slides, reference materials, exercises and access to resources for further learning.

Certification

Participants who successfully complete the training will receive an AcadNXT Certification in Physical AI for Robotics Training, validating their expertise in applying Physical AI concepts to robotic perception, decision-making, control, and real-world applications.

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