Call Now
General Inquiries
1-866-684-7237
Master's Admissions
1-800-460-5597 (US & Canada)
+1-647-722-6642 (International)
Bachelor's and Certificate Admissions
1-866-684-7237
This will only take a minute.
__________________________________
Norwich University's Master of Civil Engineering (MCE) program is designed to help prepare students for career advancement. It may lead some students to pursue a professional license. Given the diverse educational backgrounds of our students and the variety of state laws governing professional engineering licensure, Norwich University has provided a Professional Licensure Disclosure regarding the Norwich MCE programs sufficiency to independently meet the educational requirements for licensure by state. Please review our Professional Licensure Disclosure.
Courses completed entirely online
Maximum number of students per class
Average time to program completion
Next Start Date
Application Deadline
Norwich University is accredited by the New England Commission of Higher Education (formerly the Commission on Institutions of Higher Education of the New England Association of Schools and Colleges, Inc.).
Norwich University offers a range of opportunities to help you lower your overall tuition costs. Contact our admissions team today to learn more about the below options. Please note that scholarships are not additive. In addition to the below scholarships, students may also be eligible for discounts if their organization partners with Norwich University.
Achievement Scholarship
Recognizing your past academic and professional achievements, the Achievement Scholarship is for newly enrolled students. You could receive a $4,200 scholarship, which will be distributed equally over the courses of the program. To be considered for this scholarship opportunity, submit your application package (application form, resume, letter of intent, and essay (if applicable)) for your program of interest at least one week prior to the upcoming application deadline. The Scholarship Selection Committee will review all application materials and select the recipient.
Norwich Alumni Scholarship
Norwich University alumni and their spouses, parents, and children are eligible to receive our Alumni Scholarship. The scholarship is award for each term of enrollment at $425 per term.
Active Duty Military Scholarship
Active duty, National Guard, and Reserve personnel are eligible to receive a $250 award for each term of enrollment in an online master’s degree program.
Norwich’s online Master of Civil Engineering (MCE) program is made up of six courses, each delivered over 11 weeks in length for a total of 36 credit hours. Students master one course at a time, to create a strong foundation of knowledge and context for future topics.
The program is designed to help prepare graduates to :
Assess, formulate, and innovate to solve complex and multidisciplinary real-world engineering problems by applying knowledge of engineering fundamentals, mathematics, natural and social sciences, humanities, and technology.
Develop, build, and lead professional teams to work collaboratively in multidisciplinary work environments.
Implement and apply effective verbal and written communications with technical and non-technical audiences.
Anticipate and understand responsibilities of practicing engineers with respect to global, environmental, societal, and ethical contexts of their work.
Fundamental Courses
Each concentration offers a set of fundamental courses. Fundamental courses are designed for students who do not meet all the admission requirements. Students not meeting the admission requirements of the Master of Civil Engineering program with respect to their previous coursework will be required to pass fundamentals courses with a grade of B or better in order to be admitted to the degree program. Fundamentals courses do not satisfy degree requirements of the Master of Civil Engineering degree. Please speak with your admissions advisor to learn more.
Curriculum Map
A one-page curriculum map outlining the courses by concentration can be downloaded for your use.
Students begin the program by taking the following two courses and complete the program with a capstone project.
This course covers first- and second-order differential equations, basic matrix algebra with an emphasis on solving systems of equations and understanding eigenvalues and eigenvectors, numerical techniques for solving both differential and algebraic equations, and an introduction to partial differential equations. This course includes study of basic concepts in probability and statistics, random variables, hypothesis testing, confidence intervals, and correlation along with the least squares line. In addition to manual problem solving, students will also use software tools.
This seminar focuses on the fundamentals of project management and practices. The key elements of project management from the project management framework, the project life cycle, project process and key project management knowledge areas are discussed. Additionally, the project integration, scope, time, cost, quality, resource and schedule management are studied. Other areas of focus are project management procurement and overall project communications.
Civil engineering projects have always had social, economic, and environmental impacts. The capstone design project requires the student to anticipate the social, political, economic, and environmental impacts of civil engineering projects prior to project implementation. As the engineer in a leadership position, you will direct a project from conception to completion. This includes the preparation of a comprehensive project business plan that will include project goals, political hurdles, anticipated revenues and expenses, marketing, facility design, and other issues related to the design of a major civil engineering project.
A Grade of B or better is required for the Capstone Design Project course.
Designed to reinforce the fundamentals of structural engineering and engineering mechanics, students examine the design of steel, timber structures, and the benefits of reinforced, prestressed, and precast concrete structures.
This course addresses two tracks of analysis. First, static analysis is investigated with advanced classical methods and matrix methods, the cornerstone of the finite element method. Second, dynamic analysis is presented using both classical and matrix approaches for single and multiple degree of freedom systems. Analysis issues related to design codes are addressed for both static and dynamic conditions, and the use of commercially available software will be introduced. Prerequisite: EG 501 (Engineering Mathematics).
This course explores advanced structural design issues in the areas of both steel and timber. Using the latest provisions from the American Institute of Steel Construction and the National Design Specification for Wood Construction, the course covers the design and behavior of 2-D and 3-D framing and framing members and connections under various loading conditions, including wind and seismic, as well as strength and serviceability issues.
This course focuses on advanced topics in reinforced concrete design and introduces prestressed/precast concrete using the provisions of the American Concrete Institute. Topics of study include beams, slabs, columns, deflections, analysis and design of prestressed members, loss calculations, and use of standard precast members, as well as design and detailing for seismic loads.
Time will be devoted to formulating proposals for student’s upcoming capstone design project in CE561.
Examine the fundamentals of environmental and water resource engineering with this concentration. Explore the physicochemical and biological processes for water and wastewater treatment and study key aspects of geographic information systems (GIS) and geo-environmental engineering.
This course will cover physical, chemical, and biological concepts, reactor kinetics, water and wastewater qualities and quantities, and physical, chemical, and biological unit processes. Topics include the design of individual unit processes and integration of unit processes into treatment trains capable of meeting treatment objectives. Prerequisite: EG 501 (Engineering Mathematics).
This course will examine stormwater management issues from both flood control and water quality points of view as they relate to land development, urbanization, and watershed hydrology. Topics include rainfall-runoff relationships (including statistical analysis), channel and basin routing, stormwater treatment, low-impact development, best management practices, and wetland utilization and benefit/cost ratio analysis. Geographic Information Systems (GIS) software will be introduced and applied for examining and analyzing decision-making processes involved with the stormwater management components of the course.
This course approaches the field of geoenvironmental engineering from two points of view: groundwater flow and contaminant transport issues and the principles related to solid waste disposal and containment.
The groundwater portion of the course focuses on flow and contaminant transport including aquifer properties, principles of groundwater flow, flow into wells, soil moisture and groundwater recharge, regional groundwater flow, and the advection, diffusion, and attenuation of groundwater contaminants.
The solid waste portion of the course focuses on landfill site selection, design, and construction. Topics include material properties and engineering design of geosynthetic components, including geomembranes, geotextiles, geocomposites, geosynthetic clay liners, and methods to estimate and design landfill leachate quantities and gas generation.
Time will be devoted to formulating proposals for students’ upcoming capstone design project in CE561.
Build your business management and leadership skills from a civil engineering perspective with this concentration. Gain the expertise necessary to lead a team of engineers and manage every aspect of an engineering business.
This course develops a base-level competency in a host of project management software products. Virtual Design and Construction applications as well as enterprise-wide IT solutions will be examined. Students will gain an understanding of the strategic importance of integrating an information technology strategy across all aspects of a project and the organization. Prerequisite: EG 501 (Engineering Mathematics).
This course addresses the risk characteristics of various contractual forms and the roles that insurance and surety play in the AEC arena. The emergence of new contractual forms from AIA and the ConsensusDocs require a new perspective on contracts and project organization. This course provides a strategic understanding of contract variables that span from plans and specs to Integrated Project Delivery. Prerequisite: CE 529 (Information Technology) or permission of Program Director.
Every project is judged on its financial performance, and the same project can have different performance characteristics for different players. This course will enable students to address the ever-increasing complexity of the financial arena and impart skills that effective project managers need to understand the financial ramifications of decisions across all project participants. Discussion will include the opportunities and risks of traditional arrangements as well as new models such as the Special Purpose Entity (SPE) and Public Private Partnerships (PPP).
Review engineering mechanics and the foundations of engineering while exploring earthquake engineering, soil mechanics, and soil stabilization. Study numerical methods for the analysis of complex geotechnical circumstances.
Intermediate Soil Mechanics focuses on general principles of soil mechanics and their applications, including soil structure, mineralogy, fluid flow through porous media, shear strength, slope stability, primary and secondary consolidation, and classical earth pressure theories. Subjects will be presented from a theoretical perspective and include practical applications. The foundation engineering portion of the course covers analysis of shallow and deep foundations, including bearing capacity and settlement of footings, floating foundations, drilled piers, piles, analysis of the stability and design of retaining wall, and anchored bulkheads. Prerequisite: EG 501 (Engineering Mathematics).
Earthquake engineering covers the evaluation of geotechnical earthquake hazards and mitigation, plate tectonics, seismicity, wave propagation, characterization of ground motions, theory of vibrations, effect of local soil conditions on ground response, development of design ground motions, liquefaction, dynamic lateral earth pressures, slope stability and deformation, and earthquake design codes. The soil stabilization portion of the course focuses on the application of mineralogical and physicochemical principles to soil stabilization problems and stabilization techniques for highway and foundation applications. Prerequisite: CE 523 (Intermediate Soil Mechanics and Foundation Engineering) or permission of Program Director.
This course provides a survey of computer methods and applications for analysis of complex geotechnical engineering problems. Students explore topics in finite element, finite difference and closed form solution techniques, and modeling applications, including the review of select geotechnical engineering case studies. Time will be devoted to formulating proposals for student’s upcoming capstone design project in CE561. Prerequisite: CE 533 (Earthquake Engineering and Soil Stabilization) or permission of Program Director.
This course covers the survey of techniques for assessing permeability of soils using the flexible wall apparatus, Proctor compaction and triaxial shear testing, including a field visit to geotechnical project site. Prerequisite: CE553 (Computational Modeling in Geotechnical Engineering) or permission of Program Director.
This course is a fast-paced review of fundamental techniques covered in undergraduate-level calculus courses as they apply to engineering analysis and design. Mastery of these topics is required for success in the differential equations and engineering analysis courses in the Master of Civil Engineering program.
This course presents a review of engineering mechanics fundamentals from the fields of statics, dynamics, and mechanics of materials. You will study free body diagrams, force systems, equilibrium, geometric properties, kinematics, kinetics, and stress and strain. Upon successful completion of this course, three post baccalaureate credits will be awarded.
This course provides a review of the basic concepts of structural engineering that forms the required background for the structural engineering concentration of the Master of Civil Engineering Program. Coursework includes types of structures, construction materials, structural design, and safety issues. Students will become familiar with a number of typical structural design calculation methods.
This course is a fast-paced review of fundamental techniques covered in undergraduate-level calculus courses as they apply to engineering analysis and design. Mastery of these topics is required for success in the differential equations and engineering analysis courses in the Master of Civil Engineering program.
This course presents a review of engineering mechanics fundamentals from the fields of statics, dynamics, and mechanics of materials. You will study free body diagrams, force systems, equilibrium, geometric properties, kinematics, kinetics, and stress and strain. Upon successful completion of this course, three post baccalaureate credits will be awarded.
This course presents a review of fluid mechanics and hydraulics fundamentals, including pipe flow and networks, open channel flow, and measurement techniques for fluids.
This introduction to environmental engineering includes the review of the basic concepts of environmental and water resources engineering that form the required background for later courses, including environmental chemistry, ecology, biology, microbiology, geology, and soil science.
This course is a fast-paced review of fundamental techniques covered in undergraduate-level calculus courses as they apply to engineering analysis and design. Mastery of these topics is required for success in the differential equations and engineering analysis courses in the Master of Civil Engineering program.
This course presents learning in economics, management, and marketing and operations management from the perspective of a business manager. Students focus on the economic framework for business decision-making, learning the importance of and gaining an ability to assess market conditions as the context for all business strategy development and implementation. Management’s ability to plan for and execute an advantageous a strategy to achieve organizational objectives through efficient and effective allocation of its human, capital and intellectual resources are discussed. Students learn theory and skills for best practices in the marketing and operations management of products and services.
This course concentrates on the learning and demonstration of competency in the accounting process, understanding the accounting equation, the basics of double-entry bookkeeping the income statement, the balance sheet, and the cash flow statement. Learning how these statements effect the calculation of financial ratios as tests of enterprise profitability, asset utilization, risk and liquidity is required.
This course provides an introduction to the engineering properties of soils, soil compression, and shear strength. The foundation engineering portion of the class covers determination of bearing capacity and settlement characteristics of shallow and deep foundations, design and evaluation of earth slopes, and earth retaining structures.
This course is a fast-paced review of fundamental techniques covered in undergraduate-level calculus courses as they apply to engineering analysis and design. Mastery of these topics is required for success in the differential equations and engineering analysis courses in the Master of Civil Engineering program.
This course presents a review of engineering mechanics fundamentals from the fields of statics, dynamics, and mechanics of materials. You will study free body diagrams, force systems, equilibrium, geometric properties, kinematics, kinetics, and stress and strain. Upon successful completion of this course, three post baccalaureate credits will be awarded.
This course provides a survey of techniques for classification of soils, assessment of hydraulic properties, consolidation, and assessment of shear strength parameters of soils. Field experience in geotechnical exploration. Co-requisite: CE 503 (Fundamentals of Soil Mechanics and Foundation Engineering) or permission of Program Director.
Monday - Friday: 8 a.m. to 4:30 p.m. EDT
Extended hours available by appointment
Call: 1-866-684-7237
Email: learn@norwich.edu
Norwich University, in compliance with Title IV of the Civil Rights Act of 1964, Title IX of the Education Amendment of 1972, and Section 504 of the Rehabilitation Act of 1973, does not discriminate on the basis of race, religion, color, national origin, age, sex, or physical handicap in any of its policies, practices, or procedures.
Norwich provides a top-notch educational experience; we also work hard to help make it affordable. There are many ways to get financial aid and several strategies to help you finance your education. Norwich is committed to making this often-difficult process easier for you.
Rate Per Credit |
Term
Tuition |
Additional Expenses | Total |
---|---|---|---|
$698; $550 (active military; veteran; first responder)
|
$3,300-$4,188
|
Technology - $300/term |
$22,050-$27,378
|
Civil engineering requires a high level of expertise in a variety of topics, including construction design, operation, maintenance, and federal, state, and local compliance laws. That’s why careers associated with this degree are well-compensated. According to the 2019 ASCE civil engineering salary survey, the median salary for a civil engineer in 2018 was $109,000, and the median base salary (excluding bonuses, overtime, and the like) was $105,000. The U.S. Bureau of Labor Statistics notes that the highest 10% of civil engineering professionals earn more than $132,880 per year
The Norwich Master of Civil Engineering program helps equip professionals working in civil engineering or related fields with the technical and management skills needed to advance into leadership roles or to run their own companies.
We have helped thousands of graduates pursue a variety of roles, including:
Our alumni have attained positions at top organizations, including*:
What our graduates have to say:
*Source: Norwich University Master of Civil Engineering Graduate Survey, fielded March 2016.
Linda Ratsep is the Program Coordinator for the Master of Civil Engineering (MCE) program. She earned a BS in Civil Engineering from the University of New Hampshire; an MBA from Drexel University; and an MCE from Villanova University. Linda has been continually involved in the MCE program since 2005 as Course Developer, Senior Instructor, and Academic Associate Program Director prior to appointment as Program Coordinator in 2016. Linda is a registered professional engineer and member of the American Society of Civil Engineers.
In 1995, Linda co-founded The Ratsep Group, Inc., an environmental science and civil engineering consulting firm in Pennsylvania. As a practicing civil engineer she has designed and managed hundreds of projects involving site development design for residential, commercial, industrial, airport, and recreational facilities; stream/stream corridor, wetland, and watershed studies and assessments; storm water management design; municipal engineering reviews; airport engineering design; and expert witness testimony. Her projects involve the development and utilization of project-specific Geographic information Systems (GIS) technologies and the creation of 3-D visualizations and advanced civil engineering software applications for unique project needs.
Get to know the graduates of Norwich’s online Master of Civil Engineering program.
I really enjoyed the construction management aspect in my undergrad studies as well as my job. Strengthen those skills was my motivation to get my degree.
My background is in biology and environmental policy and management. Broadening my knowledge to civil engineering was a great next step to opening career doors and allowing me to better apply my environmental background to real world, current projects and jobs.
My father is an alumnus, NU 1966, so I have known about Norwich as long as I can recall. The reputation and quality of alumni in the engineering field is excellent!