Spring 2006
ENME 489L: Biologically Inspired
Robotics
Logistics
Prerequisites: ENME 331, ENME 350, and ENME 361
Class Time: Tuesday and Thursday 2PM to 3:15PM
Class Location: CHM0122
Office Hours: Tuesday and Thursday 3:30PM to 5:00PM
Course Instructor: Dr. Satyandra K. Gupta
Instructor Contact: Email skgupta@eng.umd.edu, Phone 301-405-5306,
Office Room 2135 EGR
Synopsis
Engineers have discovered that designs in natural world can be
successfully exploited to create engineered artifacts. Over the last
several years, engineers have come up with many new robot designs that
are based on biological entities. These new designs offer significant
benefits over the traditional robot designs. This new course will cover
the fundamentals and applications of biologically inspired robots.
Syllabus
This
course will consist of the following four main parts:
- Fundamentals of Traditional
Robotic Manipulators: In order to conceive, analyze, and create
new robot designs, one must be familiar with the fundamentals of
traditional robots. This part of the course will begin with the history
and taxonomy of traditional robots. Different popular robot
configurations will be introduced. This part will also cover forward
kinematics, inverse kinematics, and dynamics of serial manipulators to
analyze proposed robot designs.
- Fundamentals of Biologically
Inspired Robotics: This part of the course will begin with a
discussion on the role of biological inspiration in robot design. Some
of the questions being explored include “What can nature offer to
engineers?” and “Can biologically inspired designs outperform
traditional technology?” The next matter that is discussed is how
engineers can quantify and evaluate nature in order to select the
animal that best meets a set of design requirements. This part will
discuss the maneuverability of animals and their ability to navigate
various terrains. Several examples of bio-inspired robots will be
discussed in detail, including the motivation and biological
inspiration for their design, as well as technical specifications and
comparisons to conventional robots. The examples will include robots
inspired by the cockroach, snake, and tuna.
- Sensors and Actuators for
Robotics: This part of the course will discuss traditional and
biologically inspired sensing technologies that are widely used in
robotics applications. First, an overview of sensors will be presented,
followed by a look at biological sensing and what nature’s sensors are
capable of achieving. We will also cover traditional and biologically
inspired actuators that can be used in the robotics applications.
- Design and Fabrication of
Biologically Inspired Robots: This part of the course will cover
techniques for designing and fabricating biologically inspired robots.
This part will also cover selecting and programming micro controllers
for controlling biologically inspired robots. We will also describe the
basics of numerically controlled machining and injection molding
technologies for fabricating structural members of biologically
inspired robots.
Textbook
- J.J. Craig. Introduction to
Robotics: Mechanics and Control. Prentice Hall; 3rd edition,
2003,
Additional References
- Kiyoshi Toko. Biomimetic
Sensor Technology. Cambridge University Press, 2000.
- Karl Williams. Amphibionics:
Build Your Own Biologically Inspired Reptilian Robot.
McGraw-Hill/TAB Electronics, 2003.
- David Cook. Robot
Building for Beginners. Apress, 2002.
Project Based Learning: Robot Building Projects
This course will emphasize hands-on learning. As a part of the course
projects, student teams will have an opportunity to design and build
their own snake-inspired or legged robots. These projects are expected
to provide a very valuable design and manufacturing experience for
mechanical engineering students.
Homeworks, Projects, and Examination
Course grade will be based on
students’ performance in the following items:
- 8 Homeworks (done individually) (20% of the overall grade)
- 2 Projects (done in groups)
- Project 1 (15% of the overall grade)
- Project 2 (25% of the overall grade)
- 1 Final Exam (40 % of the overall Grade)
Code of Academic Integrity
The University of Maryland, College Park has a nationally recognized
Code of Academic Integrity, administered by the Student Honor Council.
This Code sets standards for academic integrity at Maryland for all
undergraduate and graduate students. As a student you are responsible
for upholding these standards for this course. It is very
important for you to be aware of the consequences of cheating,
fabrication, facilitation, and plagiarism. For more information
on the Code of Academic Integrity or the Student Honor Council, please
visit http://www.studenthonorcouncil.umd.edu/whatis.html.