Robotics - Mechatronics, Robotics and Control
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Robotics

Robotics

The chapter covers fundamental concepts in robotics, including the distinctions between serial and parallel robot configurations and their applications. It discusses mathematical frameworks such as Denavit-Hartenberg parameters for kinematic analysis, along with robotics concepts like forward and inverse kinematics, workspace estimation, and path planning. The chapter also explores the roles of robot vision, motion tracking, and control strategies in modern robotic applications.

41 sections

Sections

Navigate through the learning materials and practice exercises.

  1. 1
    Robot Configurations: Serial And Parallel

    This section distinguishes between serial and parallel robot configurations,...

  2. 1.1
    Serial Robots

    Serial robots consist of joints and links arranged in a single chain, making...

  3. 1.2
    Parallel Robots

    This section explores parallel robots, emphasizing their structural...

  4. 1.3
    Feature Comparison

    This section compares serial and parallel robots, highlighting their...

  5. 2
    Denavit–hartenberg Parameters

    Denavit-Hartenberg parameters provide a standard method for defining the...

  6. 2.1

    This section outlines the configurations of robots, focusing on serial and...

  7. 2.2

    This section introduces the essential parameters used in robot manipulator...

  8. 2.3

    This section discusses robot configurations, Denavit-Hartenberg parameters,...

  9. 3
    Manipulators Kinematics

    This section covers the kinematics of manipulators, focusing on forward and...

  10. 3.1
    Forward Kinematics

    Forward Kinematics involves calculating the position and orientation of a...

  11. 3.2
    Inverse Kinematics

    Inverse Kinematics (IK) calculates joint parameters based on desired...

  12. 3.3
    Example Equations For A 2-Link Planar Arm

    This section covers the forward kinematics of a 2-link planar arm, detailing...

  13. 4
    Rotation Matrix And Homogeneous Transformation Matrix

    This section covers the essential concepts of rotation matrices and...

  14. 4.1
    Rotation Matrix

    This section discusses the rotation matrix as a fundamental concept in...

  15. 4.2
    Homogeneous Transformation Matrix

    Homogeneous Transformation Matrices (HTM) combine rotation and translation...

  16. 4.3
    General Form

    This section covers the fundamental concepts of robot configurations,...

  17. 5
    Robot Position & Orientation: Direct And Inverse Kinematics

    This section covers the concepts of direct and inverse kinematics in...

  18. 5.1
    Direct (Forward) Kinematics

    Forward Kinematics (FK) determines the end-effector position and orientation...

  19. 5.2
    Inverse Kinematics

    Inverse kinematics involves calculating the joint parameters needed to...

  20. 6
    Workspace Estimation And Path Planning

    This section discusses workspace estimation and path planning for robots,...

  21. 6.1

    The workspace section discusses the various robot configurations and their...

  22. 6.2

    This section discusses the concepts of estimating workspace and path...

  23. 6.3
    Path Planning

    Path planning involves algorithms that determine optimal paths for robot...

  24. 7
    Robot Vision

    Robot vision involves the integration of cameras, sensors, and algorithms to...

  25. 7.1

    This section defines key concepts in robotics, focusing on robot...

  26. 7.2

    This section covers the fundamental components of robotics, focusing on...

  27. 7.3
    Applications

    This section discusses various applications of robotics, focusing on the...

  28. 8
    Motion Tracking

    This section covers the concept of motion tracking, focusing on 2D and 3D...

  29. 8.1

    This section introduces key robotics concepts, focusing on robot...

  30. 8.2

    This section introduces the two primary configurations of robots: serial and...

  31. 8.3

    This section explores various robotic techniques, focusing on...

  32. 9
    Robot Programming And Control

    This section covers the foundational aspects of robot programming and...

  33. 9.1
    Programming Methods

    This section covers the various programming methods used to control robots,...

  34. 9.2

    This section covers the fundamental concepts of robot configurations,...

  35. 10
    Industrial Robots: Applications

    This section discusses the various applications of industrial robots,...

  36. 10.1
    Pick And Place

    This section covers the essential characteristics and applications of...

  37. 10.2

    This section discusses the concept of sorting in robotics, focusing on...

  38. 10.3

    This section provides a comprehensive overview of robot configurations,...

  39. 10.4

    This section explores the use of robotics in welding, detailing the...

  40. 10.5

    This section covers the role of robots in inspection processes, focusing on...

  41. 10.6
    Additional Applications

    This section explores various applications of robotics, including both...

What we have learnt

  • Serial robots consist of a single chain of joints, while parallel robots use multiple arms, affecting their flexibility and precision.
  • Denavit-Hartenberg parameters systematically describe the geometry of robotic arms and their movement.
  • Kinematics focuses on the motion of robots, with forward kinematics determining end-effector positions and inverse kinematics calculating joint parameters for desired positions.

Key Concepts

-- Serial Robots
Robots with joints and links arranged in a single chain, offering high flexibility and used in tasks like welding and assembly.
-- Parallel Robots
Robots with multiple arms converging at a common end-effector, known for their precision and load capacity, commonly used in high-speed applications.
-- DenavitHartenberg Parameters
A set of four parameters used to uniformly describe the joint configuration of robotic arms.
-- Kinematics
The study of motion without considering the forces, classified into forward and inverse kinematics.
-- Robot Vision
The integration of cameras and algorithms that allow robots to interpret visual data and interact with their environment.
-- Motion Tracking
The technique used to analyze the movement of objects or robot parts, enabling interaction and operational efficiency.
-- Path Planning
Algorithms designed to calculate optimal trajectories for robots while avoiding obstacles.

Additional Learning Materials

Supplementary resources to enhance your learning experience.