Program Educational Objectives
The Program Educational Objectives are broad statements that describe what graduates are expected to attain within a few years of graduation. The objectives of the Bachelor of Science in Civil Engineering program are to develop graduates who embody the following definitions:
- Contribute and collaborate on development of sustainable solutions to a wide range of conventional, cutting-edge, and emerging professional challenges on local and global scales.
- Are innovative, proactive, and adaptive professionals and leaders, in their organizations and professional communities.
- Cross geographic, cultural, and traditional discipline boundaries to develop just and equitable solutions.
The Bachelor of Science in Civil Engineering program is accredited by the Engineering Accreditation Commission of ABET, http://www.abet.org under the commission’s General Criteria and Program Criteria for Civil and Similarly Named Engineering Programs.
By the end of the B.S. program, students should have achieved the following student outcomes:
1. an ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics
2. an ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors
3. an ability to communicate effectively with a range of audiences
4. an ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts
5. an ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives
6. an ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions
7. an ability to acquire and apply new knowledge as needed, using appropriate learning strategies
The curriculum has been designed, and is periodically evaluated and refined, to provide students instruction and experiences that lead to the development of these abilities and skills.
Curriculum
Minimum units required for B.S. in Civil Engineering
Students entering the College of Engineering declare a major near the end of the first year. First-year students take two introductory engineering courses as well as some restricted technical electives within the common foundation specified for first-year engineering students. By the end of the sophomore year, a Civil Engineering major is expected to have completed the Restricted Technical Electives in the following list and 12-100 Exploring CEE: Infrastructure and Environment in a Changing World.
| Restricted Technical Electives |
Units |
| 09-101 | Introduction to Experimental Chemistry | 3 |
| 09-105 | Introduction to Modern Chemistry I | 10 |
| or 09-111 | Chemical Building Blocks |
| 15-110 | Principles of Computing | 10 |
| 21-120 | Differential and Integral Calculus | 10 |
| 21-122 | Integration and Approximation | 10 |
| 21-259 | Calculus in Three Dimensions | 9 |
| or 21-254 | Linear Algebra and Vector Calculus for Engineers |
| 21-260 | Differential Equations | 9 |
| 33-141 | Physics I for Engineering Students | 12 |
| 33-142 | Physics II for Engineering and Physics Students | 12 |
Notes on Math Requirements
1. All mathematics (21-xxx) courses required for the engineering degree taken at Carnegie Mellon must have a minimum grade of C in order to be counted toward the graduation requirement for the BS engineering degree.
2. A minimum grade of C must be achieved in any required mathematics (21-xxx) course that is a pre-requisite for the next higher level required mathematics (21-xxx) course.
Sample Curriculum
This section shows the recommended four-year program of study for the BS in Civil Engineering following a typical path. The curriculum for transfer students, students with advanced placement credit, and students planning to study abroad will not follow the same path. Students need to consult the department for appropriate advising and formulation of a plan to complete the degree within eight semesters.
First Year
| Fall |
Units |
| 12-100 | Exploring CEE: Infrastructure and Environment in a Changing World | 12 |
| 21-120 | Differential and Integral Calculus | 10 |
| 33-141 | Physics I for Engineering Students | 12 |
| 99-101 | Core@CMU | 3 |
| | 9 |
| | 46 |
| Spring |
Units |
| | 12 |
| 21-122 | Integration and Approximation | 10 |
| 33-142 | Physics II for Engineering and Physics Students | 12 |
| 09-101 | Introduction to Experimental Chemistry | 3 |
| | 9 |
| | 46 |
Sophomore Year
| Fall |
Units |
| 12-200 | CEE Challenges: Design in a Changing World | 9 |
| 12-212 | Statics | 9 |
| 12-233 | CEE Infrastructure Systems in Action | 2 |
| 21-259 | Calculus in Three Dimensions | 9 |
| or 21-254 | Linear Algebra and Vector Calculus for Engineers |
| 15-110 | Principles of Computing | 10 |
| | 9 |
| 39-210 | Experiential Learning I | 0 |
| | 48 |
| Spring |
Units |
| 12-231 | Solid Mechanics | 9 |
| 12-234 | Sensing and Data Acquisition for Engineering Systems | 4 |
| 12-271 | Computation and Data Science for Civil & Environmental Engineering | 9 |
| 21-260 | Differential Equations | 9 |
| 09-111 | Chemical Building Blocks or 09-105 Modern Chemistry I | 9 |
| | 9 |
| 39-220 | Experiential Learning II | 0 |
| | 49 |
Junior Year
| Fall |
Units |
| 12-301 | CEE Projects: Integrating the Built, Natural and Information Environments | 9 |
| 12-351 | Environmental Engineering | 9 |
| 12-355 | Fluid Mechanics | 9 |
| 12-356 | Fluid Mechanics Lab | 2 |
| 36-220 | Engineering Statistics and Quality Control | 9 |
| | 9 |
| 39-310 | Experiential Learning III | 0 |
| | 47 |
| Spring |
Units |
| 12-333 | Experimental & Sensing Systems Design and Computation for Infrastructure Systems | 4 |
| 12-335 | Soil Mechanics | 9 |
| 12-371 | Advanced Computing and Problem Solving in Civil and Environmental Engineering | 9 |
| 27-357 | Introduction to Materials Selection | 6 |
| | 9 |
| | 9 |
| | 46 |
Senior Year
| Fall |
Units |
| 12-401 | CEE Design | 12 |
| 12-411 | Project Management for Engineering and Construction | 9 |
| | 9 |
| | 9 |
| | 9 |
| | 48 |
| Spring |
Units |
| | 9 |
| | 9 |
| | 9 |
| | 9 |
| | 9 |
| | 9 |
| | 54 |
Notes on Electives
- One elective must be in the basic sciences, from the following list:
- One elective course is restricted to a 600-level or 700-level Civil Engineering course of at least 9 units, except 12-648 and 12-690. The combination of 12-644 and 12-645 may also be used, but no other combination is allowed.
- Students are encouraged to take multiple 12-6xx and 12-7xx courses to provide them with specific civil engineering domain depth in their field(s) of interest.
Elective Courses
Students may select a set of civil engineering and other electives in the junior and senior years. Some examples for grouping electives are indicated below. Students can create other groupings to meet their academic and career interests; discussion with a faculty mentor is encouraged.
Structural Engineering
Computing in Civil Engineering
|
Units |
| 12-600 | AutoCAD | 3 |
| 12-623 | Molecular Simulation of Materials | 12 |
| 12-645 | Smart Cities: Growth and Intelligent Transportation Systems | 6 |
| 12-659 | Special Topics: Matlab | 6 |
| 24-451 | Feedback Control Systems | 12 |
| 24-650 | Applied Finite Element Analysis | 12 |
| 24-658 | Image-Based Computational Modeling and Analysis | 12 |
Engineering and Society
|
Units |
| 12-645 | Smart Cities: Growth and Intelligent Transportation Systems | 6 |
| 12-657 | Water Resource Systems Engineering | 9 |
| 24-291 | Environmental Systems on a Changing Planet | 9 |
| 48-371 | City & Suburb: American House and Housing Since 1850 | 9 |
| 79-303 | Pittsburgh and the Transformation of Modern Urban America | 9 |
| 79-315 | The Politics of Water in Global Perspective | 9 |
Construction Management
|
Units |
| 12-600 | AutoCAD | 3 |
| 12-631 | Structural Design | 12 |
| 12-635 | Structural Analysis | 12 |
| 12-636 | Geotechnical Engineering | 9 |
| 48-380 | Constructing Value(s): Economies of Design | 6 |
| 70-311 | Organizational Behavior | 9 |
| 70-321 | Negotiation and Conflict Resolution | 9 |
Next-Generation Building and Construction
|
Units |
| 12-631 | Structural Design | 12 |
| 39-245 | Rapid Prototype Design | 9 |
| 48-530 | Human-Machine Virtuosity | 12 |
| 48-555 | Introduction to Architectural Robotics | 9 |
Smart Cities
|
Units |
| 12-600 | AutoCAD | 3 |
| 12-612 | Intro to Sustainable Engineering | 9 |
| 12-631 | Structural Design | 12 |
| 12-635 | Structural Analysis | 12 |
| 12-636 | Geotechnical Engineering | 9 |
| 12-644 | Intro to Transportation Systems Analysis | 6 |
| 12-645 | Smart Cities: Growth and Intelligent Transportation Systems | 6 |
| 24-643 | Energy Storage Materials and Systems | 12 |
Smart Buildings
| 12-600 | AutoCAD | 3 |
| 12-631 | Structural Design | 12 |
| 12-635 | Structural Analysis | 12 |
| 48-116 | Introduction to Building Performance | 3 |
| 48-315 | Environmental Systems: Climate & Energy in Buildings | 9 |
| 48-432 | Environment II: Design Integration of Active Building Systems | 9 |
Materials
|
Units |
| 12-623 | Molecular Simulation of Materials | 12 |
| 24-643 | Energy Storage Materials and Systems | 12 |
| 27-201 | Structure of Materials | 9 |
| 27-202 | Defects in Materials | 9 |
| 27-215 | Thermodynamics of Materials | 12 |
| 27-301 | Microstructure and Properties | 9 |
| 27-406 | Sustainable Materials | 9 |
| 27-503 | Additive Manufacturing and Materials | 9 |