Robotics

E 420 ROBOTICS

Teaching
schemeツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ Examination
Scheme

ツ Lectures:
3
hrs/weekツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ
Mid-Sem. Tests (I&II) 窶・40 marks

ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ ツ
End-
Sem. Exam 窶・60 marks

OBJECTIVES

After completing this course student should able:

1. To understand the principle, working of robots

2. To understand design aspects of various robots

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Unit 1

Robot Arm Kinematics and Dynamics

The
Direct Kinematics Problem, The inverse Kinematics Solution,
lagrange-Eular Formulation, Newton-Euler Formation, Generalized
D窶僊lembert Equations of Motion

Unit 2

Planning
of manipulator Trajectories, General Considerations on Trajectory
Planning, Joint-interpolated Trajectories, Planning of Manipulator
Cartesian path Trajectories

Unit 3

Control
of Robot Manipulators: Control of the Puma Robot Arm, Computed Torque
technique, Near-Minimum-Time Control, Nonlinear Decoupled Feedback
Control, Resolved Motion Control, Adaptive Controlツ ツ ツ ツ ツ ツ ツ

Unit 4

Sensing

Range Sensing, Proximity Sensing, Touch Sensors, Force and Torque Sensing

Unit 5

Low-Level Vision

Image Acquisition, Illumination Techniques, Imaging Geometry, Some Basic Relationships Between Pixels, Preprocessing

Unit 6

Higher 窶・Level Vision

Segmentation,
Description, Segmentation and Description of Three-Dimensional
Structures, Recognition, Interpretation, Concluding Remarks,
References, Problemsツ ツ

Text Books

ツ。

KS. Fu, R.C. Gonzalez, C.S.G. Lee; Robotics, Mcgraw - Hill

Reference Books

ツ。

John J. Craig, Introduction to Robotics, Pearson Education

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Richard D. Klafter, Michael Negin; Robotic Engineering An Integrated Approach, PHI