School of Engineering
Introduction
The School of Engineering at Colorado State University Pueblo includes five undergraduate programs: (1) civil engineering (BSCE), (2) civil engineering technology (BSCET), (3) construction management (BS), (4) mechatronics engineering (BSME), and (5) industrial engineering (BSIE). The school also offers two graduate programs in engineering at the master’s level, five minors and several certificate programs. Eligible undergraduate students who qualify may opt to enroll in one of the 3+2 programs and be able to simultaneously graduate with a BS and an MS in five years.
Undergraduate Programs
Civil Engineering (BSCE): This undergraduate civil engineering program leads to the Bachelor of Science in Civil Engineering (BSCE) degree. The degree program prepares graduates for entry level positions in professional activities associated with the analysis, planning, design, construction, and maintenance of infrastructure systems including buildings, highways, airports, bridges, water supply, and flood mitigation systems. Civil engineers are concerned with project impacts to the public and the environment. This baccalaureate program will expose students to the civil engineering subdisciplines of structural engineering, transportation engineering, hydraulic and hydrologic engineering, construction engineering, and geotechnical engineering.
Civil Engineering Technology (BSCET): The undergraduate engineering technology program leads to a Bachelor of Science in Civil Engineering Technology (BSCET) degree. The BSCET degree program prepares graduates for entry level positions to support civil engineering activities associated with the design, construction, operation and maintenance of structures, highways, water supply and disposal systems, and surface water drainage. This program is accredited by the Engineering Technology Accreditation Commission of ABET, http://www.abet.org, under the General Criteria and the Civil Engineering Technology and Similarly Named Programs Program Criteria.
Construction Management (BS): The major in Construction Management (CM) leads to the Bachelor of Science (BS) degree in Construction Management. Graduates of the Construction Management program enter the industry as project superintendents, field supervisors, project managers, or owner’s representatives for a variety of construction related firms such as general contractors, specialty subcontractors, construction managers, designers, developers, consultants, or owners.
Industrial Engineering (BSIE): The BSIE is a 4-year program that can be completed at CSU Pueblo. The program is accredited by the Engineering Accreditation Commission of ABET, http://www.abet.org, under the General Criteria and the Industrial Engineering and Similarly Named Programs Program Criteria. As defined by the Institute of Industrial Engineers, “industrial engineering is concerned with the design, improvement and installation of integrated systems of people, materials, information, equipment, and energy. It draws upon specialized knowledge and skill in the mathematical and physical sciences, together with the principles and methods of engineering analysis and design, to specify, predict and evaluate the results to be obtained from such integrated systems.” Industrial engineering is a major branch of engineering with applications in manufacturing, service, governmental, and non-profit organizations. Industrial engineers are productivity and quality specialists who deal with the human aspects of work in addition to the advanced technologies of computer software and production related hardware.
Mechatronics Engineering (BSME): The BSME is a 4-year program that can be completed at CSU Pueblo. The program is accredited by the Engineering Accreditation Commission of ABET, http://www.abet.org, under the General Criteria. The BS in Mechatronics Engineering is a flexible, broad degree that prepares graduates to work in many industries. Mechatronics Engineering combines mechanical and electrical engineering with computers to create devices that make our lives better. Electrical and mechanical systems, controlled by computers, are at the core of a wide range of processes and products. Robots, the Mars Rover, a heart-lung machine, a computer-controlled telescope, and a nano-scale microscope are all examples of mechatronics.
Double Major in BSIE and BSME: A student can receive the BSIE and BSME degrees simultaneously by taking 30 additional credit hours over one degree alone, including a second senior design project. Please see the Graduate Studies section of this catalog for information about MS degree programs in Industrial and Systems Engineering, and in Mechatronics Engineering.
Pre-Engineering Program: In our Pre-Engineering program, students seeking to major in engineering programs other than civil engineering, industrial engineering, or mechatronics engineering (such as electrical or mechanical engineering) can complete at least 60 credits that will transfer to other engineering schools. In the same spirit, the School of Engineering welcomes transfer students and has observed that transfer students are very successful when they join our programs.
Three engineering minors are available with the following restrictions. The BSME minor is not available to BSIE majors, and the BSIE minor is not available to BSME majors. However, the BSCE minor is available to the BSME and BSIE majors.
Graduate Programs
The School of Engineering offers two distinct MS degrees: the MS in Mechatronics Engineering (MSME) and the MS in Industrial and Systems Engineering (MSISE). Regular admission to the MSME or MSISE program requires an undergraduate GPA of at least 3.0 on a 4-point scale and completion of the GRE test.
Industrial & Systems Engineering (MSISE): Industrial and systems engineering deals with the design and analysis of complex, human/machine systems. Industrial and systems engineers use a “big picture” or systems-oriented viewpoint to serve as management and operations analysts, focusing on the people, materials, equipment and procedures needed for the most efficient and effective systems performance. Industrial and systems engineers analyze and evaluate systems against specified performance criteria, including efficiency, quality and safety, before new systems are created or old ones are modified. Industrial and systems engineering techniques can be applied in manufacturing and service industries, health care systems, governmental agencies and non-profit organizations.
Mechatronics Engineering (MSME): The MSME program provides advanced education in mechatronics. Mechatronics combines mechanical and electrical engineering with computers to create devices that make our lives better. Electrical and mechanical systems, controlled by computers, are at the core of a wide range of processes and products. Robots, the Mars Rover, a heart-lung machine, a computer-controlled telescope, and a nano-scale microscope are all examples of mechatronics.
Additional Program of Study Requirements for the MSISE & MSME Programs
For a student to be awarded the MSISE or MSME degree, the student’s program of study must also satisfy the requirements listed below. Additionally, the program of study must be approved by the MSME/MSISE Program Director.
- At least 21 credit hours must be in graduate level engineering courses.
- No more than 9 credit hours of graduate coursework may be accepted as transfer credit from another institution.
- Any course taken as a prerequisite to engineering graduate study at CSU Pueblo may not be counted towards graduation and must be taken for credit (i.e., not audited).
Advising
Each term, a student must meet with his or her advisor and be advised before the student can register for classes. Students are generally advised by the MSE/MSISE Program Director, unless the student is working on a thesis. Students working on a thesis are typically advised by their thesis advisors. A candidate for the MSME or MSISE degree must work with the advisor to design a program of study. The program of study must be approved by the advisor and department. This process is formalized by submitting a graduation planning sheet to the MSME/MSISE Program Director before the semester prior to graduation.
Admission Requirements
A successful applicant will have a quantitatively based baccalaureate degree from a regionally accredited college or university. Students with non-quantitatively based baccalaureate degrees may be admitted conditionally, but additional prerequisites may be required. Admission to the MSME program or MSISE program requires prior admission to graduate study at CSU Pueblo. Regulations governing graduate studies are contained in the Graduate Policies and Procedures Guide available from the Office of Admissions.
Prerequisite Requirements for Admission
Prior to being admitted to regular status, a student is required to demonstrate preparation for graduate study in the chosen concentration (for the MSME) or in industrial and systems engineering (for the MSISE). This is done either by completing prerequisite background courses at CSU Pueblo, by documenting satisfactory completion of equivalent coursework elsewhere, or by demonstrating equivalent work and/or life experience.
Students who do not possess a satisfactory prerequisite background may be admitted conditionally but be required to complete prerequisites. A plan for completing prerequisite requirements in a timely fashion is developed by the student and advisor and must be approved by the MSME or the MSISE Program Director.
Graduate Assistantships
Full-time student admitted to the program with regular status are eligible to apply for merit-based, competitive graduate assistantships. Graduate assistants receive financial support from the department in the form of a stipend and/or remission of tuition and fees for one year (two semesters). A graduate assistant who is supported at a funding level equivalent to full-time tuition and fees is required to choose the Thesis Option.
An assistantship is renewable for a second academic year provided the student remains in good academic standing and makes satisfactory progress towards completion of the MSME or MSISE. An award made to a student who does not perform adequately in his or her duties may be rescinded after the first semester of the award period. In extreme circumstances, an award may be rescinded before the end of a semester.
An application for assistantship consists of a résumé and a letter of interest addressed to the Director of the School of Engineering. For the regular academic year, the deadline for application for an assistantship beginning in the Fall semester is April 1. Subject to availability of funds, assistantships may be granted to begin in the Spring semester.
Academic Programs
Undergraduate Programs
- Civil Engineering Technology, Bachelor of Science in Civil Engineering Technology
- Civil Engineering, Bachelor of Science in Civil Engineering
- Construction Management, Bachelor of Science
- Industrial Engineering, Bachelor of Science in Industrial Engineering
- Mechatronics Engineering, Bachelor of Science
- Pre-Engineering Program
Minors
Certificates
- Construction Procurement, Certificate
- Construction Project Manager, Certificate
- Construction Safety, Law, & Management, Certificate
- Estimating & Planning Construction Costs, Certificate
- Lean Green Belt, Certificate
- Six Sigma Green Belt, Certificate
- Surveying & Modeling, Certificate
- Transportation Engineering, Certificate
3+2 Programs
Graduate Programs
Civil Engineering (CE)
Fall.
Study of civil engineering opportunities, civil engineering design process, professional ethics, professional licensure, trigonometry, basic computer office applications and team works.
Prerequisites: None.
Corequisites: None.
Registration Information: None.
Spring.
A study of the responses of materials to loads with attention to stresses, strains, elastic and plastic responses to beams and columns using analytical methods and calculus. Laboratory testing demonstrate these principles.
Prerequisites: EN 211.
Corequisites: None.
Registration Information: None.
As Needed.
Selected topics in civil engineering.
Prerequisites: None.
Corequisites: None.
Registration Information: Junior status or permission of instructor.
Spring.
Geotechnical engineering fundamentals, in-depth analysis and standard testing related to soil mechanics including permeability, consolidation and OSHA excavation safety.
Prerequisites: CE 233.
Corequisites: None.
Registration Information: None.
Fall.
Load calculations including wind and earthquake, and analysis of statically determinate and indeterminate structures including influence lines, approximate analysis, force method and moment distribution.
Prerequisites: CE 233.
Corequisites: None.
Registration Information: None.
Fall.
Study and in-depth analysis of non-compressible fluids using analytical methods and calculus including the flow of water in pipes and open channels. Laboratory involves measuring static pressure, head losses, and flow rates.
Prerequisites: EN 211.
Corequisites: None.
Registration Information: None.
Spring.
Basics of engineering economics, project scheduling, earned-value analysis, and project management including business, public policy, leadership, team work, sustainability, professional ethics, and estimating.
Prerequisites: None.
Corequisites: None.
Registration Information: Junior standing or permission of instructor.
As Needed.
Selected topics in civil engineering.
Prerequisites: None.
Corequisites: None.
Registration Information: Junior status or permission of instructor.
As Needed.
Intensive study in civil engineering directed by a faculty member.
Prerequisites: None.
Corequisites: None.
Registration Information: Junior status or permission of instructor.
As Needed.
Work experience in civil engineering under the direction of a field supervisor and a faculty member.
Prerequisites: None.
Corequisites: None.
Registration Information: Junior status or permission of instructor.
Spring.
Analysis and design of slopes and foundations including retaining wall, shallow footings, deep foundations, pile foundations, mat foundations, earthquake loads, cofferdams, caissons, liquefaction and problems soils.
Prerequisites: CE 321.
Corequisites: None.
Registration Information: None.
Fall.
Be familiar with engineering analysis & design process in global, economic, environmental, & societal contexts. Create a collaborative and inclusive environment to establish goals, plan tasks & present the senior project.
Prerequisites: None.
Corequisites: None.
Registration Information: Senior standing.
Spring.
Application of civil engineering principles to plan, analysis, design, and make an execution plan of a realistic civil engineering project. Students prepare technical reports and make oral presentations.
Prerequisites: CE 487.
Corequisites: None.
Registration Information: None.
As Needed.
Selected topics in civil engineering.
Prerequisites: None.
Corequisites: None.
Registration Information: Senior status or permission of instructor.
As Needed.
Intensive study in civil engineering directed by a faculty member.
Prerequisites: None.
Corequisites: None.
Registration Information: Senior status or permission of instructor.
As Needed.
Work experience in civil engineering under the direction of a field supervisor and a faculty member.
Prerequisites: None.
Corequisites: None.
Registration Information: Senior status or permission of instructor.
Civil Engineering Technology (CET)
Fall.
Introduction to the field of Civil Engineering Technology: review career opportunities, study the engineering design process, explore issues of professional ethics, and do team projects.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Fall.
Beginning course in plane surveying; covers proper chaining techniques, care and use of engineering levels, differential leveling, traversing, and construction surveying.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Spring.
Introduction to land, topographic, and construction surveying.
Prerequisite: CET 102.
Corequisite: None.
Registration Information: Permission of instructor.
Fall.
An introduction to basic drafting, AutoCAD and Structural Detail drafting.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Spring.
An introduction to maps, traverses, contours, plans and profiles, cut and fills. An introduction to architectural plans, elevations and section.
Prerequisite: CET 115.
Corequisite: None.
Registration Information: None.
Spring.
A study of the response of materials to loads with attention to stresses, strains, elastic and plastic responses to loading. Experiments demonstrate those principles.
Prerequisite: CET 202.
Corequisite: None.
Registration Information: None.
Fall.
Properties, uses and methods of assembly of building materials as they apply to the construction industry.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Spring.
Study of Portland cement concrete and bituminous pavements. Manufacturing, mix design, placing and finishing of these materials. The laboratory includes ASTM testing of these materials.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Spring.
A study of the basic equations of motion, kinematics, kinetics, momentum, potential energy, work, and highway dynamics.
Prerequisite: CET 202.
Corequisite: None.
Registration Information: None.
Spring.
Job specifications, contractor, organization, bonding, contracts, insurance and labor relations.
Prerequisite: CET 207.
Corequisite: None.
Registration Information: None.
Spring.
Estimating related to building construction industry. Quantity take-off, labor and material costs, records and assembling a general contractor's bid.
Prerequisite: CET 207.
Corequisite: None.
Registration Information: None.
Fall.
Estimating relating to heavy and highway construction. Covers heavy equipment selection and use, project scheduling and production rates.
Prerequisite: CET 207.
Corequisite: None.
Registration Information: Junior standing. Permission of instructor.
Spring.
Basic principles of soil mechanics and foundation design as they apply to design and construction. ATSM field tests will be done in the laboratory.
Prerequisite: CET 206.
Corequisite: None.
Registration Information: None.
Spring.
Introduction to traffic engineering including traffic system characteristics, traffic studies, capacity analysis, and traffic control. Laboratory activities include traffic data collection and analysis.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
As Needed.
Boundary control, property descriptions, deeds, subdivisions, emphasizing the legal aspects of land law and surveying.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
As Needed.
Design of bridge slabs, beams, abutments, wingwalls, piers, and footings.
Prerequisite: CET 316.
Corequisite: None.
Registration Information: None.
Fall.
Students formulate a proposal for their senior project and make written and oral presentations of the proposal. Speakers from industry present real-world examples.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Spring.
Practical realistic projects relating to CET discipline are selected for design, analysis, and execution. Students prepare reports and make oral presentations.
Prerequisite: CET 455.
Corequisite: None.
Registration Information: None.
Spring.
This course is designed as preparation for the state Engineer-In-Training examination. Subjects include general engineering and civil engineering topics.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
As Needed.
Special Topics.
Prerequisite: None.
Corequisite: None.
Registration Information: Permission of instructor. Repeatable (99).
Fall, Spring, Summer.
Directed study for students interested in specific areas of CET.
Prerequisite: None.
Corequisite: None.
Registration Information: Junior standing in CET. Permission of instructor. Repeatable (99).
Fall, Spring, Summer.
Industrial cooperative education work experience under the direction of a field supervisor and faculty member.
Prerequisite: None.
Corequisite: None.
Registration Information: Repeatable (99).
Construction Management (CM)
Fall.
Identify and understand the relationships among participants in the construction process and its history. Including risks, construction processes, construction law, regulations and construction project delivery.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Spring.
A study of soil as a construction material; including investigation, testing, classification, engineering properties and modification techniques, excavations, fills, slope stability, and pavement subgrades.
Prerequisite: CM 231.
Corequisite: None.
Registration Information: None.
Fall.
A study of production and properties of wood, design methods for wood structural elements and fasteners, and production and erection methods of wood structures.
Prerequisite: CM 231.
Corequisite: None.
Registration Information: None.
Spring.
A study of concrete and steel structures including design elements and construction methods for simple structural systems, joints, connections, fasteners, and concrete formwork.
Prerequisite: CM 231.
Corequisite: None.
Registration Information: None.
Spring.
Principles and techniques of planning and scheduling for construction projects. Topics include bar charts, Critical Path Method, precedence networks and cost-time takeoffs.
Prerequisite: CET 207.
Corequisite: None.
Registration Information: None.
As Needed.
Special Topics.
Prerequisite: None.
Corequisite: None.
Registration Information: Repeatable (99).
As Needed.
LEED Lab is designed to further people-wide focus on sustainability and green building through hands-on applications for LEED (Leadership in Energy, Environment, and Design) certification.
Prerequisites: CET 303.
Corequisites: None.
Registration Information: None.
Spring.
The study of safe construction techniques, workers compensation insurance, OSHA regulations and requirements, cost of accidents, and ethical conduct regarding safety.
Prerequisite: CET 207.
Corequisite: None.
Registration Information: None.
Fall.
Legal documents and operation in construction management including business ownership and organization, business development through bidding and negotiations, contracts, communication during construction, insurance and accounting.
Prerequisite: CET 303.
Corequisite: None.
Registration Information: None.
Spring.
Construction project analysis/financial control including, cash flow analysis and management, overhead cost and break even analysis, time value of money, banking, and bonding.
Prerequisite: ACCT 201.
Corequisite: None.
Registration Information: None.
Spring.
An exercise in construction project analysis, cost estimating, scheduling, and the preparation and professional presentation of a project bid package for an organization.
Prerequisite: None.
Corequisite: None.
Registration Information: Senior standing in CM. Must be within 2 semesters of graduation.
As Needed.
Special Topics.
Prerequisite: None.
Corequisite: None.
Registration Information: Repeatable (99).
Fall, Spring.
Directed study for students interested in a specific area of CM.
Prerequisite: None.
Corequisite: None.
Registration Information: Repeatable (2).
Engineering (EN)
Fall, Spring.
Introduction to engineering curriculum and careers. Problem solving and creativity. Spreadsheets, word processing and other computer skills.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Fall, Spring.
Writing computer programs to solve real-world problems in engineering and science.
Prerequisite: MATH 120.
Corequisite: None.
Registration Information: None.
Fall, Spring.
Introduction to the preparation of engineering drawings using freehand sketching and computer graphics software.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Fall.
Interdisciplinary foundation for sustainability including systems theory, humans and the environments, and the social and economic dimensions of sustainability.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Spring.
Introduction to the relationship between forces and moments acting on rigid objects and the motion of objects (dynamics).
Prerequisite: EN 211.
Corequisite: None.
Registration Information: None.
Fall.
Engineering viewpoints of the principles of organization for production and the operations applicable to accomplishing organizational responsibilities.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Fall.
Observation and analysis of electrical circuits involving resistance, inductance and capacitance.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 231 strongly recommended as corequisite.
Spring.
Characteristics, operation, and basic circuits of solid-state devices. Operational amplifiers with typical applications are also introduced.
Prerequisite: EN 231.
Corequisite: None.
Registration Information: None.
Fall.
Noncalculus probability modeling and statistical analysis of systems containing elements of uncertainty.
Prerequisite: MATH 101.
Corequisite: None.
Registration Information: None.
Spring.
Group Dynamics applied to teams. Team development, basic team processes, conflict management, decision making, leadership, problem solving, and impacts of diversity and culture on teams.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
As Needed.
Selected topics in engineering.
Prerequisite: None.
Corequisite: None.
Registration Information: Repeatable (99).
As Needed.
Research closely supervised by a faculty member with regular meetings.
Prerequisite: None.
Corequisite: None.
Registration Information: Repeatable (99).
As Needed.
Intensive study directed by a faculty member.
Prerequisite: None.
Corequisite: None.
Registration Information: Repeatable (99).
Fall, Spring.
Work experience under direction of a field supervisor and a faculty member.
Prerequisite: None.
Corequisite: None.
Registration Information: Freshman or sophomore standing. Repeatable (99).
As Needed.
Field work in a company or organization, with written reports.
Prerequisite: None.
Corequisite: None.
Registration Information: Repeatable (99).
As Needed.
Introduction to the relationship between the forces applied to a fluid, the motion of the fluid, and the mechanical properties of the fluid.
Prerequisite: EN 212.
Corequisite: None.
Registration Information: None.
Fall.
Introduction to energy equations and flows, entropy, kinetic theory and statistical mechanics, second law of thermodynamics, heat engines and heat transfer.
Prerequisite: PHYS 221.
Corequisite: None.
Registration Information: None.
Spring.
Fundamentals of chemical structure and atomic bonding, material properties, deformations under force, stress-strain relationships, selection of materials.
Prerequisite: PHYS 221.
Corequisite: None.
Registration Information: High school chemistry required as prerequisite. EN 324L strongly recommended as corequisite.
Fall.
Modeling, analysis and decision making involving time value of money, depreciation, income taxes and replacement analysis.
Prerequisite: MATH 120.
Corequisite: None.
Registration Information: None.
As Needed.
Steady and unsteady conduction of heat. Convection heat transfer in boundary layer and duct flows. Forced and free convection. Thermal radiation.
Prerequisite: EN 321.
Corequisite: None.
Registration Information: None.
Fall.
Control Systems I Lab.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 360 strongly recommended as corequisite.
Spring.
Introduction to digital technology emphasizing practical microprocessors. Number systems and codes, truth tables, Boolean functions, combinational and sequential logic, registers, counters, memory devices & microprocessors.
Prerequisite: EN 260.
Corequisite: None.
Registration Information: EN 361L strongly recommended as corequisite.
Spring.
Digital Electronics Lab.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 361 strongly recommended as corequisite.
Fall.
Mechatronics Lab.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 362 strongly recommended as corequisite.
Spring.
Virtual Machine Design Lab.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 363 strongly recommended as corequisite.
Fall.
Probability modeling and statistical analysis of engineering systems containing elements of uncertainty.
Prerequisite: MATH 126.
Corequisite: None.
Registration Information: None.
Spring.
Design and statistical analysis of experiments using discrete event simulation models.
Prerequisite: EN 375.
Corequisite: None.
Registration Information: None.
Fall.
Engineering project management including project selection, organization, planning, and budgeting. Project evaluation, tracking and control, and scheduling and resource allocation, including PERT and CPM.
Prerequisite: EN 375.
Corequisite: None.
Registration Information: None.
As Needed.
Components of a microprocessor control system, digital processing, survey of state-of-the-art micro-processor control systems.
Prerequisite: EN 360.
Corequisite: None.
Registration Information: None.
Spring.
Engineering & Manufacturing Proc Lab.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 441 strongly recommended as corequisite.
As Needed.
Materials and processes for manufacturing including sheet metal forming, welding, machining and advanced manufacturing processes.
Prerequisite: EN 342.
Corequisite: None.
Registration Information: None.
Spring.
Principles/methods of quality control/improvement. Quality management: design & implementation, problem solving techniques, quality improvement tools, etc. Statistical quality control: charts, evaluation, sampling, etc.
Prerequisite: EN 275 or EN 375.
Corequisite: None.
Registration Information: None.
Spring.
Control Systems II Lab.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 460 strongly recommended as corequisite.
Spring.
Industrial Robotics Lab.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 462 strongly recommended as corequisite.
Fall.
Engineering design, modeling and applications in production: automation, flowlines, robotics, numerical control, and computer usage in manufacturing.
Prerequisite: EN 103 and EN 231 and EN 231L and EN 441 and MATH 207.
Corequisite: None.
Registration Information: EN 473L strongly recommended as corequisite.
Fall.
Computer Integrated Mfg Lab.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 473 strongly recommended as corequisite.
Fall.
Application of industrial and systems engineering techniques to problems related to an organization's physical resources. Facilities planning and plant layout, material handling, site selection and facilities location.
Prerequisite: EN 439 and EN 471.
Corequisite: None.
Registration Information: None.
Spring.
Techniques for analysis and management of manufacturing operations and production with emphasis on inventory systems and forecasting.
Prerequisite: EN 471.
Corequisite: None.
Registration Information: None.
Fall.
Steps in the engineering design process including creativity, technical analysis, and presentations. Prepare for senior project.
Prerequisite: None.
Corequisite: None.
Registration Information: Permission of instructor.
Spring.
Application of engineering principles to a design project.
Prerequisite: EN 486.
Corequisite: None.
Registration Information: None.
Spring.
Application of engineering principles to a design project.
Prerequisite: EN 486.
Corequisite: None.
Registration Information: None.
As Needed.
Special Topics.
Prerequisite: None.
Corequisite: None.
Registration Information: Junior standing. Repeatable (99).
As Needed.
Faculty directed research project.
Prerequisite: None.
Corequisite: None.
Registration Information: Junior or senior standing. Repeatable (99).
As Needed.
Independent Study.
Prerequisite: None.
Corequisite: None.
Registration Information: Junior standing. Repeatable (99).
Fall, Spring.
Work experience under the direction of a field supervisor and a faculty member.
Prerequisite: None.
Corequisite: None.
Registration Information: Junior or senior standing. Repeatable (99).
As Needed.
Field work in a company or organization, with written reports.
Prerequisite: None.
Corequisite: None.
Registration Information: Junior or senior standing. Repeatable (99).
Spring.
Theory/practice of human performance measurement & factors engineering. Study of human sensory/perceptive/mental/psychomotor applied to the design of human-machine systems for performance/effectiveness/productivity/safety.
Prerequisite: EN 540.
Corequisite: None.
Registration Information: None.
Spring.
Theory of deterministic scheduling and sequencing with stochastic extensions. An introduction to the complexity of computations in systems varying from single machine to job shop.
Prerequisite: EN 571.
Corequisite: None.
Registration Information: None.
Fall.
Principles, practical aspects, and applications of virtual reality systems and components such as 3D interfaces, displays (3D, visual, haptic, auditory), position tracking, and virtual environments.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Spring.
Topics in artificial intelligence including predicate calculus, search strategies, and machine learning with applications.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
Spring.
Design and statistical analysis of experiments using discrete event simulation models.
Prerequisite: EN 375.
Corequisite: None.
Registration Information: None.
As Needed.
A detailed description of different perspectives to analyze and understand the value of the systems perspective in addressing complex systems problems faced by managers in technology-based enterprises.
Prerequisite: MGMT 201.
Corequisite: None.
Registration Information: None.
Spring.
Engineering project management including project selection, organization, planning, and budgeting. Project evaluation, tracking and control, and scheduling and resource allocation, including PERT and CPM.
Prerequisite: None.
Corequisite: None.
Registration Information: None.
As Needed.
Comprehensive analysis and design of electric power systems for railroads including power supplies, AC/DC and linear motors, third rails, catenaries, and substations/distribution systems.
Prerequisite: EN 231 and EN 231L and EN 263 and EN 360.
Corequisite: None.
Registration Information: None.
Fall.
Principles and techniques of methods analysis and work measurement, human performance in human-machine systems. Introduction to research in selected topics.
Prerequisite: None.
Corequisite: EN 375.
Registration Information: None.
Spring.
Occupational safety and health. Theories of accident causation, governmental regulation, protective equipment, hazard analysis, safety programs design and administration. Introduction to research in selected topics.
Prerequisite: EN 375.
Corequisite: None.
Registration Information: None.
Spring.
Materials and processes for manufacturing including machining, casting, and forming processes: design, modeling and control. Introduction to research in selected topics.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 541L strongly recommended as corequisite. Permission of instructor.
Spring.
Engineering & Manufacturing Proc Lab.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 541 strongly recommended as corequisite.
Spring.
Advanced topics in engineering economy featuring income tax consideration, treatment of inflation, risk and uncertainty models, cost-effectiveness concepts, and project comparison methods.
Prerequisite: EN 343.
Corequisite: None.
Registration Information: Permission of instructor.
Summer.
Foundations of experimental design, outline efficient methods to implement experiments, develop statistical methods to sort signal from noise, and analyze information derived from the experiment.
Prerequisite: MATH 256 and MATH 356.
Corequisite: None.
Registration Information: None.
Spring.
Advanced control systems analysis, including microprocessor-based control systems analysis, A/D and D/A convertors, Z transforms, and stepper motors. Introduction to research in selected topics.
Prerequisite: EN 360 and EN 361.
Corequisite: None.
Registration Information: EN 560L strongly recommended as corequisite.
Spring.
Control Systems II Lab.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 560 strongly recommended as corequisite.
Fall.
State-spaced based analysis/design of linear control systems are introduced in both continuous- and discrete-time domains. Nonlinear systems and the linearization method are covered.
Prerequisite: EN 360.
Corequisite: None.
Registration Information: None.
Spring.
Basic robotics principles; robot interfacing; robot controls and programming. Laboratory exercises use various robots to meet specific industrial tasks. Introduction to research in selected topics.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 562L strongly recommended as corequisite. Permission of instructor.
Spring.
Industrial Robotics Lab.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 562 strongly recommended as corequisite.
Spring.
Theoretical and practical aspects of advanced robotic topics such as trajectory generation, path planning and control, decision logic, advanced sensors, autonomous mobile robots, and humanoids.
Prerequisite: None.
Corequisite: None.
Registration Information: Graduate standing.
As Needed.
Analysis and design of systems containing elements of uncertainty in demand and performance capability. Time varying measures and approximations are emphasized. Additional work required of graduate students.
Prerequisite: MATH 256 and MATH 356.
Corequisite: None.
Registration Information: None.
Fall.
Techniques for analysis and solution of problems in industrial and management systems. Linear programming, duality theory, sensitivity analysis, and network analysis techniques.
Prerequisite: MATH 224.
Corequisite: None.
Registration Information: Graduate standing.
Fall.
Ingineering design, modeling and applications for production automation, flowlines, robotics, numerical control, and computer usage in manufacturing. Introduction to research in selected topics.
Prerequisite: EN 541.
Corequisite: None.
Registration Information: EN 573L strongly recommended as corequisite.
Fall.
Computer Integrated Mfg Lab.
Prerequisite: None.
Corequisite: None.
Registration Information: EN 573 strongly recommended as corequisite.
Fall.
Application of industrial and systems engineering techniques to problems related to an organization's physical resources. Facilities planning, plant layout, material handling, site selection and location.
Prerequisite: None.
Corequisite: EN 571.
Registration Information: None.
Spring.
Techniques for analysis and management of manufacturing operations and production with emphasis on inventory systems and forecasting.
Prerequisite: EN 571.
Corequisite: None.
Registration Information: Permission of instructor.
As Needed.
A broad introduction to algorithms for decision making under uncertainty covering a wide variety of topics related to decision making, introducing the underlying mathematical problem formulations and their algorithms.
Prerequisites: BSAD 265 or EN 565.
Corequisites: None.
Registration Information: A college course on inferential statistics.
As Needed.
Program Capstone for students finishing the Master in Engineering Management.
Prerequisite: None.
Corequisite: None.
Registration Information: 12 credit hours (Master in Engineering Management core courses) and graduate standing.
As Needed.
Individual project selected, outlined and pursued by student.
Prerequisite: None.
Corequisite: None.
Registration Information: Graduate standing. Approval of advisor. Repeatable (99).
Spring.
Selected topics in industrial and systems engineering. Heuristic design, reliability, industrial ergonomics, multi-criteria decision analysis, analytical facility location and site selection models. Not every topic offered each year.
Prerequisite: None.
Corequisite: None.
Registration Information: Permission of instructor. Repeatable (99).
Fall.
Seminar for students entering the systems engineering program. Philosophical, methodological and ethical issues in systems engineering are discussed.
Prerequisite: None.
Corequisite: None.
Registration Information: Permission of instructor.
As Needed.
Independent Study.
Prerequisite: None.
Corequisite: None.
Registration Information: Graduate standing. Repeatable (99).
As Needed.
Field work in a company or organization, with written reports.
Prerequisite: None.
Corequisite: None.
Registration Information: Repeatable (99).
Fall, Spring.
Preparation of thesis to meet degree requirements. Arranged with major advisor.
Prerequisite: None.
Corequisite: None.
Registration Information: Graduate standing. Approval of advisor. Repeatable (6).
Transportation Engineering (TENG)
As Needed.
Introduction to railway materials, infrastructure, different aspects of operations, innovation policy, vehicle dynamics, power, rolling stock, maintenance, and structural, operational, socio-economic and environmental safety.
Prerequisites: None.
Corequisites: None.
Registration Information: None.
As Needed.
Overview of materials, infrastructure, operations, safety and future aspects of ground, water and air transportation systems.
Prerequisites: None.
Corequisites: None.
Registration Information: None.
As Needed.
Analysis, design, operation, and evaluation of supply chain and logistics systems including concepts, demand forecast, transformation of demand into supply, national and international policy and efficient transportation.
Prerequisites: MATH 101.
Corequisites: None.
Registration Information: None.
As Needed.
Comprehensive study of railway geotechniques, infrastructure, road dynamics, power systems, operations, efficiency, safety, engineering analysis and design.
Prerequisites: PHYS 201.
Corequisites: None.
Registration Information: None.