EML 3262

Kinematics and Mechanism Design

(EML 4806 Modeling and Control of Robotics)

Florida International University, Mechanical and Materials Engineering Department

Fall, 2005

 

Syllabus

 

INSTRUCTOR:   Dr. Wei-Yu Bao, room: EC 3234, phone: 305.348.6863, email: baow@fiu.edu,

web: http://faculty.eng.fiu.edu/~wbao, office hours: 2:30 – 5:30 p.m. R

CLASSROOM:   EC 1104

SCHEDULE:         1:10  – 2:25 p.m. T.R., class # 98292 and 98293

 

TEXTBOOKS:     Kinematics, Dynamics, and Design of Machinery, 2E, by Kenneth J. Waldron, Gary L. Kinzel, Wiley., 2004, ISBN: 0417244171

Recommended Books:         Machines & Mechanisms, Applied Kinematic Analysis, 3E, by David H. Myszka, Prentice Hall, 2005, ISBN: 0131837761

 

OBJECTIVES:     To present an analysis of closed-chain mechanisms. Study the fundamental synthesis technique for mechanism design. Apply the analysis and synthesis method to solve for practical 2-D and 3-D problems.

 

TENTATIVE LECTURE SCHEDULE:

Week of                 Contents

Aug. 29                  Introduction

Sep. 5                     Basic Concepts of Mechanism Design, DOF, Connectivity and Mobility

Sep. 12                   Rigid Body Kinematics, Relative-Motion Analysis

Sep. 19                   Analytical Analysis of Four-Bar Mechanism

Sep. 26                   Graphic Analysis and Design of Four-Bar Mechanism

Oct. 3                      Analysis and Design of Slider-Crank Mechanism         

Oct. 10                    Analysis and Design of Quick-Return Mechanism

Oct. 17                    Planer Linkage Design

Oct. 24                    Spatial Linkage Analysis

Oct. 31                    Mechanism of Cam-follower Systems

Nov. 7                    Profile Cam Design

Nov. 14                  Kinematics of Gears

Nov. 21                  Gear Trains

Nov. 28                  Kinematics of Belt and Chain Drive

Dec. 5                     Final Project Presentation

 

GRADING POLICIES:

Two Exams                            40% (20% each)

Homework and Projects      30%

Final Project                          30%

A = 95.0 – 100       A- = 90.0 – 94.9     B+ = 86.7 – 89.9    B = 83.3 – 86.6       B- = 80.0 – 83.2

C+ = 76.7 – 79.9    C =  73.3 – 76.6      C- = 70.0 – 73.2     D = 60 – 69.9         F = below 60

 

Homework and Projects: All homework and Projects have to submit on time. Late homework and projects will be accepted with 20% per day penalty.

Exams:    All exams will be given in the class, and open books and open notes. Makeup exams will be given only under extremely unusual circumstances. A written request for a makeup exam must be provided. 

Final Project:  Who does not participate the final project and presentation will receive a ZERO grade.

 

 

 

 

 


ME Program Educational Objectives:            

 

Broad and in-depth knowledge of engineering science and principles in the major fields of Mechanical Engineering for effective engineering practice, professional growth, and as a base for life-long learning.

Hands-on experience with available instruments and lab techniques to bridge classroom learning and practical, “real-life” problems.

The ability to utilize analytical and experimental methods and modern computer technology for decision-making and engineering design and to solve realistic engineering problems.

The ability to work effectively with others in a team while simultaneously maintaining independent and creative thought.

The ability to communicate effectively and to articulate technical matters using verbal, written, and graphic techniques.

An adequate background to pursue graduate studies in engineering and other fields.

A sense of professional and social responsibility, including a commitment to protect both occupational and public health and safety, developed through consideration of moral, social, and ethical paradigms related to the engineering profession and practice.

 

ME Program Outcomes:

 

A. Ability to apply knowledge of mathematics, science, and engineering.

B. Ability to design and conduct experiments, as well as to analyze and interpret data. 

C. Ability to design a system, component, or process to meet desired needs. 

D. Ability to function on multi-disciplinary teams.

E. Ability to identify, formulate, and solve engineering problems.

G. Ability to communicate effectively.

I.  Recognition of the need for, and ability to engage in life-long learning.

K. Ability to use the techniques, skills and modern engineering tools necessary for engineering practice. 

M. Knowledge of mathematics and of basic and engineering science necessary to carry out analysis and design appropriate to Mechanical Engineering.