Few people defend the environment and safeguard public safety as staunchly as environmental engineers. These scientific-minded professionals oversee pollution control, hazardous waste management, environmental sustainability, and water quality, among other important elements of civilization. They design municipal and industrial systems and research ways to minimize their environmental and health impacts. Environmental engineers also work with governments to establish industrial, safety, and environmental regulations.
The scope of responsibility assumed by environmental engineers underscores the importance of proper training. Environmental engineers need excellent math, engineering, and science skills. Practical experience and licensing are essential, while additional certifications enhance one’s employability and demonstrate a highly specialized knowledge
This guide provides a step-by-step path to becoming an environmental engineer in the image of recommendations from the Association of Environmental Engineering & Science Professors Foundation (AEESPF). The steps required to become an environmental engineer are listed along with the time each step typically takes to complete.
Environmental engineers must have at least a bachelor’s degree to practice. Prospective students should look for programs accredited by the Accreditation Board of Engineering and Technology (ABET). ABET accreditation not only verifies an engineering program meets established quality standards and best practices but is a required by many graduate programs, licensing boards, professional organizations, and employers. One can earn ABET-accredited degrees online or on campus. Students enrolled in online environmental engineering programs can usually satisfy hands-on, practical requirements within their home communities.
Environmental engineering programs provide the education one needs to be licensed, earn certifications, and succeed in the field. Some, but not all engineering schools offer bachelor’s degrees in environmental engineering specifically. It is not uncommon for future professionals to attend programs in related fields such as civil, chemical, or general engineering before gaining specialized training in graduate school or on the job. Students are encouraged to find programs that incorporate “co-ops” (i.e., they award credit for structured work experience). Doing so can help students meet future licensing and employment requirements. Some colleges offer combined five-year bachelor’s and master’s degrees, an accelerated option for students which can be more cost-effective than pursuing the two degrees separately.
Every environmental engineering program establishes its own admissions criteria; more rigorous programs usually have more rigorous requirements. Not surprisingly, highly competitive programs have steeper GPA and exam requirements and might even require an interview. Examples of typical admission requirements from real environmental engineering schools include:
Bachelor’s programs in environmental engineering usually offer a range of classroom, lab, and field-based components. Students balance required general education and core engineering courses with specialized electives. Here are some typical courses in undergraduate environmental engineering programs:
Master’s degrees in environmental engineering are not necessarily required to enter the field, but forgoing them can limit students’ future professional roles and licensing opportunities. Graduate-level environmental engineering curricula are more advanced and specialized than that of undergraduate programs. Here are just some of the concentrations students pursuing master’s degrees might choose:
As one might expect, graduate programs in environmental engineering have steeper requirements than bachelor’s programs. The following criteria are examples taken from real schools across the nation. Note that requirements can vary significantly from one school to the next. For instance, some master’s programs only admit candidates with a certain number of years of professional experience, while others admit students fresh out of bachelor’s programs.
Many students earning master’s degrees in environmental engineering dedicate the first year to core engineering coursework and the second to electives that reflect their interests and/or formal concentrations. Examples of classes include:
Most environmental engineers cannot practice independently without being licensed. According to the National Council of Examiners for Engineering and Surveying (NCEES), licensing requirements are set by individual states, which means they can vary. The Council advises candidates to check licensing requirements in the state where they intend to work. Readers can research state requirements through the NCEES.
Some states require environmental engineering students and recent graduates to earn special Engineer in Training (EIT) or Engineer Intern (EI) licenses by passing the Fundamentals of Engineering (FE) exam.
The FE exam verifies candidates have the foundational safety and engineering knowledge necessary to work in the field. The NCEES offers FE exams in several concentrations, including the FE – Environmental Engineering. According to the Council’s official website, this exam explores knowledge in the following areas:
Undergraduate environmental engineering curricula are often designed with FE exam requirements in mind. Students can usually find this information online or by contacting the academic department overseeing the program.
Environmental engineering graduates who meet state practice requirements—including those related to EIT or EI licensing—are free to enter the field, but only under the direction of Professional Engineers (PEs), who are discussed below. Work and any practical co-op experience completed in bachelor’s or master’s environmental engineering programs prepare new engineers to eventually become PEs themselves. Most board and professional certifications also require a certain number of years in the field.
Like master’s degrees in environmental engineering, a PE license is a voluntary but valuable credential. Professional Engineers typically enjoy higher earnings and advancement potential than non-credentialed peers. They can also practice independently and complete a wider variety of tasks. Among them:
Environmental engineers must meet the following criteria to become licensed PEs:
Board and professional certifications are additional voluntary, yet highly beneficial credentials. These certifications demonstrate that an environmental engineer is truly an expert in the field, whether at large or within one specialized area. The following are the most common types of advanced certifications.
The American Society of Civil Engineers (ASCE) board certification is a credential for highly skilled engineers. Because environmental engineering is considered a subfield of civil engineering, the ASCE offers board certification in many concentrations relevant to them.
Specializations – Environmental engineers can become certified in the following specializations:
Requirements – Eligible candidates must have master’s degrees, PE licenses, and eight years of post-licensure engineering experience. ASCE certifications are overseen by Civil Engineering Certification, Inc. and accredited by Council of Engineering & Scientific Specialty Boards (CESB).
The American Academy of Environmental Engineers & Scientists also offers board certification specifically for environmental engineers. Candidates who meet the Academy’s requirements can call themselves Board Certified Environmental Engineers (BCEE). Environmental engineering is a very diverse field, however, so one typically becomes board certified in one of the following concentrations:
Requirements – A BCEE-designated environmental engineer is considered a true expert in whatever area in which he or she is certified. Such an advanced credential is only available to those with the education and experience necessary to sustain that role. Eligibility requirements include:
A number of environmental engineering organizations offer their own professional certifications, which usually target a particular skill or specialty. These certifications can give one an edge when competing for jobs or advancements. Examples of other relevant professional certifications and associated organizations include:
Aspiring environmental engineers may be curious about potential earnings and projected growth of openings into the future. Fortunately for people seeking careers in this field, environmental engineering is both relatively lucrative and secure with respect to future job opportunities.
Earnings – The U.S. Bureau of Labor Statistics (BLS May 2016) reported environmental engineers earned a mean annual salary of $88,530. Wages were highest for professionals working for the federal government followed by engineering services and local governments. In more detailed terms, here’s a breakdown of salary data in environmental engineering:
United States (52,280 environmental engineers employed): $88,530 average
Also, data from PayScale (2017)—a site for self-reported salaries—suggests that environmental engineers with project management, regulatory compliance, environmental compliance, and engineering design experience also tend to earn more.
Job Outlook – Government efforts to improve water quality and efficiency, clean contaminated sites, and enforce environmental regulations drive demand for environmental engineers. The BLS (Dec. 2015) projected that environmental engineer employment would grow by 12 percent between 2014 and 2024, three times the average for all engineering specialties. Prospects are generally best for candidates with master’s degrees.
Lastly, professional and educational environmental engineering organizations support students and professionals throughout their careers. They provide career and training information, professional networking opportunities, continuing education courses, and more. Now-and-future environmental engineers may find the following agencies helpful:
Meet 20 professors who teach their students to protect us from environmental threats, and ultimately reduce or eliminate them.
While it may be the oldest field of engineering, civil engineering is a field embracing modern approaches and applying them to major problems like urban traffic congestion, water harvesting and purification, and infrastructure deterioration. These 20 professors are helping to lead the way.
Environmental engineers apply their math, science, and engineering savvy to prevent and solve environmental problems. One might think such a field is too specialized to offer much professional variation, but there is a wealth of career paths in this high-growth area of the discipline.
Power systems engineering focuses on generating, transmitting, and distributing electricity as well as building and repairing the various electrical devices involved in these processes, such as transformers, motors, and generators.