William Humphrey Headshot

William Humphrey

Senior Lecturer

Department of Mechanical Engineering
Kate Gleason College of Engineering

585-475-5628
Office Location
Office Mailing Address
ENG(17)-2523

William Humphrey

Senior Lecturer

Department of Mechanical Engineering
Kate Gleason College of Engineering

Education

BS, MS, Case Western Reserve University

Bio

Mr. William Humphrey is an accomplished mechanical engineer experienced in automotive product development testing and testing systems optimization as well as engineering education. He was a Ph.D. candidate in Mechanical Engineering at Carnegie Mellon University studying atomization and sprays, and earned his M.S. and B.S. degrees in Fluid, Thermal & Aerospace Engineering Science from Case Western Reserve University. Prior to joining the mechanical engineering faculty full-time as a Lecturer in 2009, he taught as an adjunct faculty member in mechanical engineering while working in the automotive industry for Delphi Corporation. Mr. Humphrey is committed to enabling students to develop intuitive understanding of fundamental concepts to maximize their ability to retain and successfully apply the concepts beyond the classroom.

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585-475-5628

Currently Teaching

HIST-255
3 Credits
This course will cover the military, diplomatic, political, social, and cultural history of World War II. It will focus on the causes of the war, the battles that decided the war, the leaders (civilian and military) who made the key decisions, and how the war changed society. The purpose of the course is to acquaint students with the political, social, economic, military, and cultural history of WWII and that conflict's impact upon our own era.
MECE-117
3 Credits
This course provides the student with an overview of the use of computer programming for solving problems encountered in engineering. Students will learn how to develop an algorithm for solving a problem and to translate that algorithm into computer code using fundamental structured programming techniques. The programming language(s) employed are selected to support computational problem-solving in higher-level mechanical engineering courses.
MECE-306
1 Credits
A required laboratory course taken concurrently with MECE-304 Fundamentals of Materials Science or MECE-305 Materials Science with Applications. Students investigate the effects of the structure, alloying, and processing of materials on their mechanical properties. Students are also introduced to standardized testing methods and effective, professional, report writing.
MECE-348
3 Credits
This course introduces students to contemporary technologies in a specific field of mechanical engineering. In the process of exploring these technologies, the course teaches and applies skills related to communication, economic analysis, ethical analysis, and explores the positive and negative effects of technologies on our society and environment. Specific attention is focused on current events both domestically and internationally.
MECE-409
3 Credits
The course presents the essentials of aerodynamic theory and its application to aircraft flight. Theoretical topics include differential equations of fluid mechanics, inviscid potential flows, airfoil and finite wing theory, boundary layers, and compressibility. A variety of practical applications are covered, e.g. airfoils, wings, aircraft, and steady flight.
MECE-524
3 Credits
The course focuses on the fundamentals of ground vehicle motion, control, and stability. The structure, stiffness, and mechanisms by which tires generate longitudinal and lateral forces and self-aligning moments are discussed. Steering geometry and steady-state and transient steering response for bicycle and four-wheel vehicle models are analyzed. The effect of suspension geometry and stiffness on stability and ride are discussed. Transmission system design to match engine characteristics and achieve required vehicle performance is discussed.
MECE-624
3 Credits
The course focuses on the fundamentals of ground vehicle motion, control, and stability. The structure, stiffness, and mechanisms by which tires generate longitudinal and lateral forces and self-aligning moments are discussed. Steering geometry and steady-state and transient steering response for bicycle and four-wheel vehicle models are analyzed. The effect of suspension geometry and stiffness on stability and ride are discussed. Transmission system design to match engine characteristics and achieve required vehicle performance is discussed.