Engineering Science

ENGS 115. Introduction to Engineering. 3 Credits.

This course is designed around a variety of engineering themes. Each theme is related to one (or more) of the engineering disciplines offered through the School of Engineering. Every theme involves project work emphasizing design, problem solving methodologies, critical thinking, and team participation. All students participate in all projects. A course objective is to acquaint all students with the areas of engineering available through the School in order to assist them in their choice of major. Ethics, professional responsibilities, and economic concerns are emphasized as part of the projects. Fall.

ENGS 116. Introduction to Engineering Computation. 3 Credits.

This course introduces students to computational tools for solving engineering problems, focusing on both spreadsheet applications (e.g. EXCEL, Google Sheets) and programming (e.g., Python or MATLAB). Students will learn how to create spreadsheet solutions using cell formulas, built-in functions, solver, and graphing tools to organize, analyze, and visualize data. In the programming portion of the course, students will learn about data types, loops, recursion, conditionals, arrays, functions, debugging, numerical methods, and the basics of artificial intelligence (AI) and machine learning. Through a combination of lectures and lab sessions, students will gain the skills to analyze, model, and solve engineering problems using computational techniques. Lecture/Lab.

ENGS 117. Introduction to Engineering Computation Honors. 3 Credits.

This honors course provides an introduction to computational problem-solving in engineering, with a focus on advanced programming techniques, computational methods, and modern technologies like artificial intelligence (AI). Students will learn how to develop algorithms, apply numerical methods, and write efficient code to solve engineering problems. The course includes hands-on experience with a programming language (e.g., Python or MATLAB) with instruction on data types, loops, recursion, conditionals, arrays, functions, debugging, object-oriented programming, data structures, and the basics of AI and machine learning. Through a combination of lectures and lab sessions, students will gain the skills to complete challenging engineering projects that require innovative solutions and efficient code development. Lecture/Lab.

ENGS 201. Materials Science. 3 Credits.

Atomic structure; crystallographic concepts; relationship of structure to properties of metals, ceramics and organic materials. Equilibrium and non-equilibrium relationships of multiphase materials. Methods for changing properties of materials. Three lectures, three-hour laboratory every second week. Fall and Spring. Prerequisite; CHEM 101.

ENGS 202. Materials Science Laboratory. 0 Credits.

This is the laboratory portion of ENGS 201. Performance in the laboratory will be incorporated in the grade received in ENGS 201. Three hour laboratory every second week. Fall and Spring.

ENGS 203. Electrical Systems. 3 Credits.

Elementary electrical concepts. Resistive networks. Nodal and mesh analysis. Dependent sources. Network theorems. Energy storing elements. Transient response of first and second order circuits. Sinusoidal excitation. Phasors. Alternating current steady state analysis. Computer-aided solutions. The curriculum is consistent with the needs of the PE examination. Four hours a week includes problem and laboratory sessions. Fall and Spring. Prerequisite: MATH 186 (or MATH 104).

ENGS 204. Environmental Engineering Principles I. 3 Credits.

Introductory course in environmental engineering designed to provide the foundation for understanding local and regional environmental problems. Topics include mass balance concepts, chemical stoichiometry, reaction kinetics, water quality evaluations for surface and ground water systems, acid rain, risk assessment, water supply, water and wastewater treatment processes, and treatment of hazardous waste. Three lectures. Fall. Must receive a minimum grade of C. Prerequisites: MATH 185, CHEM 101.

ENGS 205. Introductory Thermodynamics. 3 Credits.

Definitions of energy systems, properties, and unit systems. work, heat, and the first law of thermodynamics in open and closed systems. Applications to compressors, pumps, turbines, heat exchanger, and nozzles. The second law of thermodynamics and its effect on energy systems. Must receive a minimum grade of C. Students may only repeat the course two times, after which they are subject to dismissal from the engineering program. Four lectures. Fall. Prerequisites: MATH 186 or MATH 188, CHEM 101, PHYS 101. (Cr. 3).

ENGS 206. Statics. 3 Credits.

Vector quantities, forces, and moments; resultants of force systems; free body diagrams and static equilibrium; analysis of truss, frame, and machines in static equilibrium; dry friction; belt friction; first and second moments. Three lectures. Fall and Spring. Must receive a minimum grade of C. Students may only repeat the course two times, after which they are subject to dismissal from the engineering program. Prerequisites: MATH 186 or MATH 188, PHYS 101.

ENGS 220. Dynamics. 3 Credits.

Kinematics of particles and rigid bodies in planar motion, work and energy, impulse and momentum; introduction to mechanical vibration. Three lectures. Spring. Prerequisite. ENGS 206.

ENGS 230. Introduction Solid Mechanics. 3 Credits.

Analysis of stress and strain due to axial, torsional, and flexural loads; beams, shafts, columns. Elastic deformation under axial, flexural, and torsional loads. Statically determinate and indeterminate problems; principles of superposition and compatibility. Elastic column buckling. Three lectures. Fall and Spring. Must receive a minimum grade of C. Students may only repeat the course two times, after which they are subject to dismissal from the engineering program. Prerequisite: ENGS 206.

ENGS 301. Engineering Professional Development I. 0 Credits.

This zero credit course is offered in order to enable an undergraduate engineering student to receive recognition for participating in professional development activities, including seminars, workshops, meetings, field trips, mentoring, etc. This course meets three hours a week and is graded P/F. May be repeated.Only offered in the Fall semester.Prerequisite: Approval of Instructor.

ENGS 302. Engineering Professional Development II. 0 Credits.

This zero credit course is offered in order to enable an undergraduate engineering student to receive recognition for participating in professional development activities, including seminars, workshops, meetings, field trips, mentoring, etc. This course meets three hours a week and is graded P/F. May be repeated. Only offered in the Spring semester. Prerequisite: Approval of instructor or chair.

ENGS 401. Internship for Engineering. 0 Credits.

This zero credit course is offered so that an engineering student may receive recognition on the academic transcript indicating participation in this type of experiential learning. May be repeated.

ENGS 402. Service for Engineering Students. 0 Credits.

This zero credit course is offered so that an engineering student may receive recognition on the academic transcript indicating participation in organized service activity. This course is graded P/F. May be repeated. Fall, Spring and Summer. Prerequisite: Approval of Instructor.

ENGS 410. Student Experiential Research. 3 Credits.

This course is for those students who wish to participate in summer research with a faculty member and receive college credit. This course may be used as a technical elective in some engineering programs.

ENGS 478. Sustainability Engineering. 3 Credits.

This course is the undergraduate equivalent of ENGG 678 Sustainability Engineering. Options for sustainable energy utilization are discussed with regard to the current state of the technology, the opportunities for future development and the potential environmental and economic impact. This course will focus on specific renewable energies and materials. Sustainable energy solutions, such as, solar energy, utilization of wind power, geothermal and oceanic thermal processes, hydroelectric tidal and wave technologies, biofuels, and a systems approach to sustainable energy solutions are presented.