Engineering

This course provides an introduction to the field of engineering and its impact on society. Emphasis is placed on fundamental engineering concepts, the engineering design process, interdisciplinary teamwork, ethics, and problem-solving. Additional topics include developing interpersonal skills, understanding professional responsibilities, engaging in campus life, and the significance of student and professional organizations.

This course focuses on the mathematical principles and techniques commonly used in engineering applications. Topics include units and significant digits/figures, linear equations, quadratics, vectors, systems of equations, trigonometry, limits, differentiation, and integration. Students will develop a strong foundation in mathematical methods, emphasizing their application to solve engineering problems and analyze engineering systems. The course aims to enhance problem-solving skills and the ability to apply mathematical concepts effectively in engineering contexts. Pre-requisite: MATH 115 College Algebra

This course covers the fundamentals of drafting and technical sketching, including projective geometry, multi-view drawings, reading and interpreting technical drawings, sectioning, and dimensioning. Students will also learn to use computer-aided design (CAD) tools to produce basic civil engineering drawings.

This course focuses on the use of computers to solve engineering and mathematical problems. Topics include general problem-solving techniques, algorithm development, data analysis, and computational analysis. Students will gain proficiency in using software tools to tackle engineering challenges and enhance computational skills for real-world applications in engineering.

This course introduces students to the career opportunities offered by the engineering profession, areas of specialization within the field of engineering, and the professional competencies and career-readiness skills that will prepare them for life as an engineer. Topics include crafting resumes, preparing for interviews, earning professional licensure, and identifying opportunities for co-ops/internships. Students will also be introduced to ethical dilemmas in engineering; the professional responsibility of the engineer with regard to sustainably, risk, safety, and resilience; and an appreciation for the impacts of engineering in global, economic, environmental, and societal contexts.

This course reinforces the professional competencies and career-readiness skills that will prepare students for life as an engineer. Students will be introduced to the history of the engineering profession; discuss historical and ongoing ethical dilemmas engineers face; better understand the role of engineers with regard to sustainably, risk, safety, and resilience; further consider the consequences of engineering decisions in global, economic, environmental, and societal contexts; and understand importance of professional skill development and professional licensure. Pre-requisite: ENGR200 Engineering Profession I

This course introduces fundamental economic concepts and their application to engineering decision-making. Topics include fixed and variable costs, time value of money, comparison of alternatives, depreciation and income tax, and economic analysis of projects in both public and private sectors. Students will explore break-even analysis, uncertainty and risk analysis, and decision models, equipping them with the tools needed to evaluate and optimize engineering projects from an economic perspective. Pre-requisite: MATH 150 Calculus I

This course provides a comprehensive review of topics covered in the Fundamentals of Engineering (FE) civil computer-based exam. Topics include mathematics, ethics, engineering economics, statics, dynamics, solid mechanics, materials, fluid mechanics, surveying, water resources, structural engineering, geotechnical engineering, transportation engineering, and construction engineering. The course is designed to prepare students for the FE exam by reinforcing key concepts and problem-solving techniques relevant to the civil engineering discipline. Pre-requisite: Senior Standing

This course offers students practical engineering experience through a supervised internship. Students will apply classroom knowledge to real-world challenges, develop professional skills, and gain industry exposure. Students will maintain a reflective journal, engage in regular check-ins with faculty, and complete a final project showcasing their contributions.

This course introduces the fundamental principles of mechanics, focusing on the analysis of static systems. Topics include the study of concurrent force systems, statics of particles, and equivalent force/moment systems. Students will explore the concepts of centroids and center of gravity, as well as the equilibrium of rigid bodies. The course also covers the analysis of trusses, frames, and machines, and investigates the internal forces in structural members. Additional topics include the principles of friction and the calculation of second moments of areas. The course emphasizes problem-solving techniques and the application of static principles to real-world engineering scenarios. Pre-requisite: PHYS 151 Calculus-based Physics

This course introduces the fundamental theories of stress and strain, focusing on the behavior of materials under various loading conditions. Topics include the application of these theories to analyze stress distribution, deformation, and instability in simple structural forms. Students will explore material properties, stress-strain relationships, and how these principles are used to assess and predict the mechanical behavior of materials and structures under different forces. Emphasis is placed on the understanding and generalization of these theories for practical applications in engineering design and analysis. Pre-requisite: ES211 Statics

Vector treatment of the absolute and relative motion of particles and rigid bodies. Subjects include: Newtons laws, kinetics of particles and particle systems, work and energy, impulse and momentum, mass moment of inertia, and impact.

This course provides a comprehensive introduction to the fundamental principles of fluid mechanics. Topics include fluid properties, mass, energy, and momentum conservation laws, and the application of dimensional analysis and modeling. Students will study both laminar and turbulent flow regimes, as well as surface and form resistance in various fluid systems. The course covers flow in pipes and open channels, elementary hydrodynamics, and methods for fluid measurements. Additional focus is placed on the characteristics of hydraulic machines and their applications in engineering systems. Students will develop a deep understanding of fluid behavior and its application in real-world engineering scenarios. Pre-requisite: ES211 Statics; Co-requisite: ES250L Fluid Mechanics Lab

This lab course offers hands-on experimentation to explore fluid properties, flow behavior, and hydraulic system performance. Students will conduct experiments to reinforce fluid mechanics concepts and apply theory to real-world engineering problems. Co-requisite or Pre-requisite: ES250 Fluid Mechanics

Electrical circuit theory, Kirchoff's and Ohm's laws, circuit analysis theorems, Norton and Thevenin equivalence. The analysis of resistor circuits, with capacitors and inductors, in DC and AC steady state. Transients and variable frequency responses are studied, including computer solutions to circuit problems.