Environmental engineers play a vital role in maintaining the quality of both public health and the natural environment. Environmental engineering encompasses the scientific assessment and development of engineering solutions to environmental problems impacting the biosphere, land, water and air quality. Environmental issues affect almost all municipal, commercial and industrial sectors, and are a central concern for the public, for all levels of government, and in international relations. These issues include safe drinking water, wastewater processing, solid and hazardous waste disposal, outdoor and indoor air pollution, human health and ecological risk management, prevention of pollution through alternative product or process design, and renewable and sustainable energy sources.
To address these challenges, environmental engineers often encounter challenging problems that must be solved in data-poor situations as members of multidisciplinary teams. Environmental problems require creative solutions blended with contributions from scientists, lawyers, business people and the public. Good communication skills, as well as technical proficiency, are essential for success in this arena. In addition, technology designed to address environmental problems is marketed globally, opening up increasing opportunities for international work in the environmental engineering field.
Mission
The mission of the Environmental Engineering Program is to provide a multidisciplinary undergraduate environmental engineering education that emphasizes mastery of principles and practices, inspires service for the global public good, endows a desire for lifelong learning and prepares students for broad and dynamic career paths in environmental engineering.
Faculty
The faculty of the Environmental Engineering (EVEN) Program are drawn from the Departments of Civil, Environmental, and Architectural Engineering; Mechanical Engineering; Chemical and Biological Engineering; and Aerospace Engineering Sciences. The EVEN faculty, its Professional Advisory Board (representing prospective employers of its graduates) and EVEN alumni and current students have contributed to the creation of the program's mission and the educational objectives of the BS in environmental engineering degree.
Requirements
To earn a bachelor's degree in environmental engineering, students must complete the curriculum in the undergraduate major program, as outlined below. For up-to-date program requirements, visit Bachelor of Science in Environmental Engineering webpage. In addition, students must meet the general undergraduate degree requirements of the College of Engineering and Applied Science.
Note: This major cannot be combined with a BS in integrated design engineering with an environmental engineering emphasis.
Some variations may be possible; see undergraduate advisor to work on approval.
Required Courses and Credits
Code | Title | Credit Hours |
---|---|---|
Required Courses | ||
CHEN 1310 | Introduction to Engineering Computing | 3 |
CVEN 2121 | Analytical Mechanics 1 | 3 |
or MCEN 2023 | Statics and Structures | |
or GEEN 2851 | Statics for Engineers | |
CVEN 3227 | Probability, Statistics and Decision | 3 |
or STAT 4000 | Statistical Methods and Application I | |
CVEN 3246 | Introduction to Construction | 3 |
or CVEN 4147 | Civil Engineering Systems | |
or EMEN 4100 | Engineering Economics | |
CVEN 3313 | Theoretical Fluid Mechanics | 3 |
or MCEN 3021 | Fluid Mechanics | |
or CHEN 3200 | Chemical Engineering Fluid Mechanics | |
or GEEN 3853 | Data Analysis for Engineers | |
CVEN 3414 | Fundamentals of Environmental Engineering | 3 |
CVEN 4333 | Engineering Hydrology | 3 |
EVEN 1000 | Introduction to Environmental Engineering | 1 |
or AREN 1316 | Introduction to Architectural Engineering | |
or ASEN 1000 | Introduction to Aerospace Engineering Sciences | |
or BMEN 1000 | Exploring Biomedical Engineering | |
or CHEN 1300 | Introduction to Chemical and Biological Engineering | |
or COEN 1500 | CEAS Design Lab: Engineering Your Life | |
or CSCI 1000 | Computer Science as a Field of Work and Study | |
or CVEN 1317 | Introduction to Civil and Environmental Engineering | |
or ECEN 1100 | Exploring ECE | |
EVEN 3012 | Thermodynamics for Environmental Science and Engineering | 3 |
or AREN 2110 | Thermodynamics | |
or GEEN 3852 | Thermodynamics for Engineers | |
or MCEN 3012 | Thermodynamics | |
or CHEN 3320 | Chemical Engineering Thermodynamics | |
EVEN 3550 | Sustainability Principles for Engineers | 3 |
EVEN 4404 | Water Chemistry | 3 |
EVEN 4414 | Water Chemistry Laboratory | 1 |
EVEN 4424 | Environmental Organic Chemistry | 3 |
EVEN 4434 | Environmental Engineering Design | 4 |
EVEN 4464 | Environmental Engineering Processes | 3 |
EVEN 4484 | Integrative Environmental and Molecular Microbiology | 3 |
EVEN 4494 | Contaminant Fate and Transport | 3 |
GEEN 1400 | Engineering Projects | 3 |
or ASEN 1400 | Gateway to Space | |
or ASEN 1403 | Introduction to Rocket Engineering | |
or ECEN 1400 | Introduction to Digital and Analog Electronics | |
MCEN 4131 | Air Pollution Control Engineering | 3 |
Engineering Fundamentals Course | 3 | |
Heat Transfer | ||
Water and Wastewater Treatment | ||
Hydraulic Engineering | ||
Required Science Courses | ||
CHEM 1221 | Engineering General Chemistry Lab | 1 |
or CHEM 1134 | Laboratory in General Chemistry 2 | |
CHEN 1201 | General Chemistry for Engineers 1 | 4 |
CHEN 1203 | General Chemistry for Engineers 2 1 | 2 |
or CHEN 1211 | Accelerated Chemistry for Engineers | |
or CHEM 1133 | General Chemistry 2 | |
PHYS 1110 | General Physics 1 | 4 |
or PHYS 1115 | General Physics 1 for Majors | |
PHYS 1120 | General Physics 2 | 4 |
or PHYS 1125 | General Physics 2 for Majors | |
PHYS 1140 | Experimental Physics 1 | 1 |
Required Mathematics Courses | ||
APPM 1350 | Calculus 1 for Engineers | 4 |
or MATH 1300 | Calculus 1 | |
or APPM 1345 | Calculus 1 with Algebra, Part B | |
APPM 1360 | Calculus 2 for Engineers | 4 |
or MATH 2300 | Calculus 2 | |
APPM 2350 | Calculus 3 for Engineers | 4 |
or MATH 2400 | Calculus 3 | |
APPM 2360 | Introduction to Differential Equations with Linear Algebra | 4 |
or MATH 2130 & MATH 3430 | Introduction to Linear Algebra for Non-Mathematics Majors and Ordinary Differential Equations | |
or MATH 2135 & MATH 3430 | Introduction to Linear Algebra for Mathematics Majors and Ordinary Differential Equations | |
Humanities, Social Sciences and Writing 2 | 18 | |
Required Technical Electives | ||
Choose one lower-division and two upper-division technical electives, one of which must satisfy earth science requirement. 3 | ||
EVEN Areas of Specialization | ||
Choose one from the department's areas of specialization List A and two from List B 4 | ||
Free Electives | ||
Choose three credit hours of free electives to meet the minimum 128 credit hours required for the BS degree. | 3 |
1 | If student completes CHEN 1211 instead of CHEN 1201 & CHEN 1203, then student must complete 2 additional credits as Free Electives. |
2 | Complete the College's Humanities, Social Sciences and Writing requirements (18 credits total) as specified. |
3 | See department's list of Technical Elective Suggestions for EVEN Students. |
4 | See department's website for more information about EVEN Areas of Specialization. |
Sample Four-Year Plan of Study
Year One | ||
---|---|---|
Fall Semester | Credit Hours | |
APPM 1350 | Calculus 1 for Engineers | 4 |
CHEN 1201 | General Chemistry for Engineers 1 | 4 |
EVEN 1000 | Introduction to Environmental Engineering | 1 |
First-Year Engineering Projects course | 3 | |
COEN 1830 | Special Topics (First-Year Seminar) | 1 |
Humanities and social science elective 1 | 2 | |
Credit Hours | 15 | |
Spring Semester | ||
APPM 1360 | Calculus 2 for Engineers | 4 |
CHEN 1203 | General Chemistry for Engineers 2 | 2 |
CHEM 1221 | Engineering General Chemistry Lab | 1 |
CHEN 1310 | Introduction to Engineering Computing | 3 |
PHYS 1110 | General Physics 1 | 4 |
Humanities and social science elective 1 | 3 | |
Credit Hours | 17 | |
Year Two | ||
Fall Semester | ||
APPM 2350 | Calculus 3 for Engineers | 4 |
PHYS 1120 | General Physics 2 | 4 |
PHYS 1140 | Experimental Physics 1 | 1 |
Select one of the following in Statics: | 3 | |
Analytical Mechanics 1 | ||
Statics for Engineers | ||
Statics and Structures | ||
Humanities and social science elective 1 | 3 | |
Credit Hours | 15 | |
Spring Semester | ||
APPM 2360 | Introduction to Differential Equations with Linear Algebra | 4 |
CVEN 3414 | Fundamentals of Environmental Engineering | 3 |
Select one of the following in Fluids Mechanics: | 3 | |
Theoretical Fluid Mechanics | ||
Data Analysis for Engineers | ||
Fluid Mechanics | ||
Chemical Engineering Fluid Mechanics (Select one of the following in Fluids Mechanics:) | ||
Technical Elective 2 | 3 | |
Humanities and social science elective 1 | 3 | |
Credit Hours | 16 | |
Year Three | ||
Fall Semester | ||
EVEN 4404 | Water Chemistry | 3 |
EVEN 4414 | Water Chemistry Laboratory | 1 |
EVEN 3550 | Sustainability Principles for Engineers | 3 |
Select one of the following in Engineering Economics: | 3 | |
Introduction to Construction | ||
Engineering Economics | ||
Select one of the following in Thermodynamics: | 3 | |
Thermodynamics for Environmental Science and Engineering | ||
Thermodynamics | ||
Thermodynamics | ||
Chemical Engineering Thermodynamics | ||
Thermodynamics for Engineers | ||
College-approved writing course 3 | 3 | |
Credit Hours | 16 | |
Spring Semester | ||
EVEN 4424 | Environmental Organic Chemistry | 3 |
EVEN 4484 | Integrative Environmental and Molecular Microbiology | 3 |
Engineering Fundamental Course | 3 | |
Heat Transfer | ||
Water and Wastewater Treatment | ||
Hydraulic Engineering | ||
Select one of the following in Probability and Statistics: | 3 | |
Probability, Statistics and Decision | ||
Statistical Methods and Application I | ||
Applied Data Analysis | ||
Environmental engineering design/technical elective I 4 | 3 | |
Credit Hours | 15 | |
Year Four | ||
Fall Semester | ||
EVEN 4464 | Environmental Engineering Processes | 3 |
EVEN 4494 | Contaminant Fate and Transport | 3 |
MCEN 4131 | Air Pollution Control Engineering | 3 |
Environmental engineering design/technical elective II 4 | 3 | |
Select one of the following: | 3 | |
Technical elective II 2 | ||
Senior Thesis 5 | ||
Environmental engineering design/technical elective III 4 | ||
Humanities and social science elective 1 | 3 | |
Credit Hours | 18 | |
Spring Semester | ||
CVEN 4333 | Engineering Hydrology | 3 |
EVEN 4434 | Environmental Engineering Design | 4 |
Select one of the following: | 3 | |
Environmental engineering design/technical elective III 4 | ||
Technical Elective II 2 | ||
Select one of the following: | 3 | |
Technical elective III 2 | ||
Senior Thesis 5 | ||
Free elective | 3 | |
Credit Hours | 16 | |
Total Credit Hours | 128 |
1 | Students may choose courses from the list of college-approved humanities and social sciences (HSS) electives. |
2 | A total of 9 credit hours of technical electives is required. Three technical elective credit hours may be lower-division (1000–2000-level). Three technical elective credit hours must be in the earth sciences, either lower or upper division. Remaining technical elective credit hours must be upper division in engineering, mathematics or sciences. Independent study (EVEN 4840) or senior thesis (EVEN 4980 and EVEN 4990) may be completed as technical electives for up to 6 credits hours. |
3 | Students may choose a course from the list of college-approved writing courses. |
4 | A nine-credit-hour (three-course) sequence in environmental engineering – one environmental engineering design course and two environmental engineering technical electives. |
5 | A senior thesis can be completed on a single research topic, with faculty approval and direction, and can apply toward technical elective requirements. |
Learning Outcomes
Program Educational Objectives
The educational objective of the Environmental Engineering Bachelor of Science degree is to produce graduates who are capable of reaching the following career goals three to five years after graduation:
- Graduates will be employed in engineering, science or other professional careers.
- Graduates will respond to the needs of society by pursuing professional registration or other appropriate certifications.
- Graduates will be engaged in continual learning and advancing knowledge by pursuing advanced degrees or additional educational opportunities through coursework, professional conferences and training, and/or participation in professional societies.
- Graduates will apply critical thinking and creativity as they develop solutions that provide benefits to communities, the environment and/or public health.
- Graduates will conduct themselves ethically and professionally, while demonstrating that they value diversity and inclusion in work interactions and engagement with the public.
Student Outcomes
Upon graduation, students are expected to be able to:
- Identify, formulate and solve complex engineering problems by applying principles of engineering, science and mathematics.
- 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.
- Communicate effectively with a range of audiences.
- 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.
- Function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks and meet objectives.
- Develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions.
- Acquire and apply new knowledge as needed, using appropriate learning strategies.
Bachelor's–Accelerated Master's Degree Program(s)
The bachelor's–accelerated master's (BAM) degree program options offer currently enrolled CU Boulder undergraduate students the opportunity to receive a bachelor's and master's degree in a shorter period of time. Students receive the bachelor's degree first but begin taking graduate coursework as undergraduates (typically in their senior year).
Because some courses are allowed to double count for both the bachelor's and the master's degrees, students receive a master's degree in less time and at a lower cost than if they were to enroll in a stand-alone master's degree program after completion of their baccalaureate degree. In addition, staying at CU Boulder to pursue a bachelor's–accelerated master's program enables students to continue working with their established faculty mentors.
BS in Environmental Engineering, MS in Environmental Engineering, Civil Engineering or Mechanical Engineering
Admissions Requirements
In order to gain admission to the BAM program named above, a student must meet the following criteria:
- Have a cumulative GPA of 3.000 to earn either the EVEN or CVEN MS or a 3.25 GPA to earn the MCEN MS.
- Completion of all MAPS requirements and no deficiencies remaining (students admitted to CU Boulder prior to Summer 2023 only).
- Have at least junior status within the bachelor’s degree program.
Program Requirements
Students may take up to and including 12 hours while in the undergraduate program which can later be used toward the master’s degree. However, only six credits may be double counted toward the bachelor’s degree and the master’s degree. Students must apply to graduate with the bachelor’s degree, and apply to continue with the master’s degree, early in the semester in which the undergraduate requirements will be completed.
Please see the BAM degree program web page for more information.