About mechanical engineering
The Department of Mechanical Engineering provides its
students with an outstanding educational opportunity to prepare
themselves for a challenging and fulfilling career. The majority
of students seeking the Bachelor of Science in mechanical
engineering at Saint Martin’s University School of Engineering
come from the South Puget Sound. A high percentage of these
students plan to enter professional practice following their
undergraduate studies. Some of these graduates will work in the
manufacturing sector, in the aviation and high tech industries
along the I-5 corridor. The Department of Mechanical Engineering
also provides opportunities for undergraduate research for those
students who wish to pursue advanced degrees.
The profession of mechanical engineering
Mechanical engineers design products and systems that are
exploited by the public for a variety of applications. They work
in industries as diverse as aerospace, biomechanical, energy
systems, propulsion and transportation systems, automated
manufacturing, and heating, ventilation and air conditioning
(HVAC) and electronics. Due to their versatility, flexibility
and ability to work in a team, a wide spectrum of career
opportunities is open to them.
Practicing mechanical engineers are generally required to
take a product from concept to prototype and beyond. They are
responsible for troubleshooting and problem solving in several
areas of engineering endeavor. In preparing for lifelong
learning, it is necessary to develop the whole person. This
requires, in addition to professional competency, a balanced
program encompassing strong communication skills, and an
appreciation of the arts, humanities, and social sciences.
Professional competency is built on a foundation of mathematics,
physical and natural sciences, engineering sciences, design, and
laboratory experience. The principles learned in such
disciplines are applied to mechanical design and systems, energy
related issues, and fluid mechanics. The role of the engineer as
a problem solver and a designer is the common thread throughout
the curriculum.
Most mechanical engineering graduates take positions in
industry, state government, or business. Some, however, continue
their formal education in a graduate program.
The goals of the department of mechanical engineering
The department serves to provide area employers with
engineers that will be creative and productive. They will be
effective in oral and written communications and be aware of the
ethical and societal outcomes of their professional activities.
They will be able to function both as individuals and as members
of a team. Our graduates will be capable of and active in the
pursuit of life-long learning in order to remain in stride with
the rapid pace of development of science and technology. A
strong foundation of engineering science, integrated with a
meaningful laboratory component helps graduates adapt to
technology changes. Finally, the department provides opportunity
to obtain an undergraduate education that will facilitate their
success should they choose to pursue their degree at an advanced
level.
The undergraduate curriculum
A curriculum has been designed to meet the challenging
objectives stated above. Laboratory, written and oral
communication, critical thinking and analysis, ethics, and
design-oriented activities are integrated throughout the
curriculum. Approximately one quarter of the total number of
credits required to graduate is devoted to basic sciences and
mathematics, with a similar amount devoted to the humanities,
social sciences and general education topics. Roughly on half of
the curriculum addresses engineering topics.
The common first two years in engineering build a foundation
in fundamental science topics including calculus, chemistry, and
physics. Introductions are provided to engineering problem
solving and design, and computer tools. During the sophomore
year students build their foundation in the sciences and
mathematics. Courses are taken in advanced mathematics,
differential equations, natural sciences, and engineering
mechanics.
A major goal in the junior year is to develop the students'
analytical skills through engineering topics equally divided
between the structures and motion and the energy stems.
Computers are used when appropriate to aid in reaching and
interpreting solutions to engineering problems. Students
participate in four laboratory courses that emphasize the
statistical nature of systems and their behavior. Mechanical,
thermal, and fluids systems design activities are continued in
three junior year courses. Students begin to form their area of
focus by taking one or two elective courses in spring of their
junior year.
The main goal in the senior year is for the students to learn
to integrate their knowledge in science and engineering topics,
and thereby to develop a degree of maturity in their engineering
capabilities. In their final year, students may tailor their
curricula by choosing nine - twelve credit hours of technical
electives. Each of these technical electives includes design as
an important component of the course. As such, students may
decide to develop depth in a certain area or to develop breadth
in several areas. Some students choose to pursue an independent
research project under faculty direction. The senior year
culminates in a two-semester sequence in engineering design. The
first design course emphasizes design considerations and methods
required to solve open-ended problems, as well as written and
oral communication of the design solution. The final design
course is a capstone course that requires integration of
knowledge gained in preceding analysis and design course and
generation of a concept-to-prototype schema. Regional industries
are represented at oral and written presentations made by the
student teams. Both written and oral presentations of progress
and final results are evaluated by faculty and industry juries.
A senior seminar course serves to reinforce in the students'
minds professional ethics, society responsibilities, and
problems and opportunities likely to be encountered in
professional practice.
An important component of engineering education is the
development of an appreciation of societal, ethical, and moral
issues that accompany engineering professional practice. Hence,
in addition to scientific and engineering subjects, students are
exposed to a total of 30 credit hours in the liberal arts to
include English and literature, humanities and social studies,
art, religion and philosophy. These courses are not taken at
random but with the specific intent of developing skills
necessary for graduates to function effectively in a diverse
workplace environment.