200
This course introduces the theory and application of engineering mechanics to analyze systems of forces in static equilibrium acting upon particles and rigid bodies. Topics include vector analysis of concentrated and distributed force systems by using free body diagrams, moments of forces, analysis of trusses and frames and machines, couples and equivalent systems, internal forces and moments, friction, centroids, centers of gravity and mass, and moments of inertia.
This course will introduce the principles of dynamics of particles and the corresponding equations for rectilinear and curvilinear motion. The dynamics of rigid bodies and selected non-rigid systems in multiple dimensions with an emphasis on engineering applications will be reviewed. Kinematic analyses of dynamics problems will employ graphical and analytical vector techniques. Absolute and relative motion analysis, work-energy, impact, and impulse momentum are covered.
This course introduces mechanical properties and stresses caused by applied forces that will be mathematically described to enable the selection of materials appropriate to a specific application. Emphasis is on brittle and ductile materials in the linear elastic region. Normal and shear stresses and strains caused by axial loading, thermal effects, torque, bending moment and shear forces, internal pressure in thin-walled vessels, and combined loadings. Also included are: Stress transformations and maximum (in-plane) normal and shear stress, beam design and deflection calculations, and column buckling.
This course provides a fundamental grounding in the principles and methods of classical engineering thermodynamics, with an emphasis on practical applications through analytical problem formulation and solving. Topics covered include heat, work, thermodynamics systems and equations of state, the four laws of thermodynamics, energy availability, reversible and irreversible processes, control volumes, phase change, steam quality and superheating, and an introduction to the basic operation of thermodynamic power cycles.
This course introduces students to systems engineering through the lens of Electrical Engineering concepts and practice. It provides an examination of circuit theory, electronic circuits, and electric machines using team-oriented labs. Professional teamwork skills will be developed with a system design project to reinforce competency in engineering design and problem solving.
This is a foundational course in which the students learn to apply the concepts of material and energy balances to problems involving chemical processes, biological systems and environmental phenomena. Students learn problem-solving techniques and acquire a working knowledge of phase equilibria, physical properties, and computer applications.
This is an introductory course examining the relationship between the structure, processing, and properties of engineering materials. Common engineering materials, including steel, concrete, ceramics, and polymers are discussed. Mechanical, chemical, electrical, and magnetic properties of various materials are examined. The process dependence of microstructural development and defects levels are described. Three lecture hours per week.