Community lecture experience for first-year students majoring in the College of Engineering that assists with maximizing the student's potential to achieve academic success and to adjust responsibly to the individual and interpersonal challenges presented by college life. You will engage with all your engineering freshman peers, various upper-level students, and numerous College of Engineering faculty from each of our engineering disciplines. The lectures and discussions will facilitate establishing your engineering professional identity and successful academic pursuits.

Small size lab experience for first-year students majoring in the College of Engineering that assists with maximizing the student's potential to achieve academic success and to adjust responsibly to the individual and interpersonal challenges presented by college life. You will discover the differences of each engineering discipline and start to establish your engineering professional identity through group and individual activities such as videos, readings, writing, calculations, experiments, and guest speakers.

A course for first-time transfer students that helps maximize the student's potential to achieve academic success and to address the transition from community college to four-year college. Introduction to engineering fundamentals and problem solving techniques through reading, homework assignments, laboratory investigations, guest lecturers and group discussions on the engineering profession.

Ohm's and Kirchhoff's laws. Network theorems-superposition, source transformation, The?venin?s and Norton's Theorems. RLC circuits. Sinusoids and phasors and their applications in RLC circuits. RMS values of voltages and currents. Operational amplifiers. Average power and power factor in AC circuits.

Introduction to ethics and the use of codes of ethics in developing an ethical profession. Application of engineering economic principles to engineering problems.

First and second law of thermodynamics with applications.

Use of vector algebra to analyze two and three dimensional forces, moments, and couples. Use of free body diagrams to analyze rigid bodies, beams, trusses, and frames in equilibrium. Calculation of the area and mass moments of inertia, and friction forces.

Kinematics and kinetics of particles and rigid bodies. Work/energy and momentum methods.

Subjects of special interest in engineering. Requires permission of instructor.

An introduction to the mechanics of deformable bodies. Analysis of stress and strain. Emphasis on axial, torsional and bending loads. Deflections, deformations, and column stability.

Study of the properties of fluids including fluid statics, kinematics; integral and differential equations of mass, momentum and energy conservation principles; dimensional analysis; flow in ducts; boundary layer flows; and compressible flow.

This course covers topics of current interest in Engineering.

This course will explore the history of systems engineering, the problems that contributed to the need for systems thinking, and the systems engineering lifecycle as defined by ISO/IEC/IEEE 15288 Systems and Software Engineering -- System Life Cycle Processes. This course will include a significant reading list and a systems engineering exercise that will run for the duration of the course.

This course covers topics of current interest in Engineering. This course requires permission of the department chair.

Directed study, under the guidance of a faculty advisor of a topic from the field of Engineering not offered in a regularly scheduled course.

Subjects of special interest in engineering for engineering graduate students. Requires permission of instructor.

Fundamental concepts of medical instrumentation, biomedical imaging and biological systems modeling as used in biomedical engineering. Course is cross-listed with IDL 620.

Fundamental concepts of transport phenomena, cellular and tissue mechanics, and materials as used in biomedical engineering. Course is cross-listed with IDL 621.