ABET accreditation stands as the gold standard for engineering and technology programs worldwide. Achieving and maintaining this accreditation demands rigorous compliance with specific criteria, and among the most critical factors is the qualification of the faculty. Faculty members are the backbone of any academic program; their expertise, experience, and dedication directly shape student learning outcomes and program quality. This article explores why faculty qualifications are essential for ABET accreditation, what those qualifications entail, and how institutions can effectively meet and exceed the standards.

The Role of Faculty in ABET Accreditation

ABET’s accreditation criteria place significant emphasis on faculty qualifications. Criterion 4 of the ABET General Criteria for Baccalaureate Level Programs explicitly requires that "the program must demonstrate that its faculty members are qualified and competent." This is not merely a checkbox exercise—it reflects the understanding that faculty quality is the primary driver of program output. Qualified faculty ensure that curriculum content stays current, that students are exposed to real-world engineering challenges, and that the program produces graduates ready to enter the profession.

ABET evaluates faculty qualifications under several sub-criteria: academic credentials, professional experience, continued professional development, and teaching effectiveness. Programs must provide evidence that each faculty member possesses the depth of knowledge necessary to teach their assigned courses. Furthermore, the collective expertise of the faculty must align with the program’s educational objectives, covering the breadth of the program’s discipline and supporting its specific focus areas.

Accreditation reviewers look for a mix of full-time and part-time faculty, but all must demonstrate competence. The key is that the faculty as a whole—not just individuals—must be qualified to deliver the program. This means that if a program has a strong focus on structural engineering, at least one full-time faculty member should hold a terminal degree and professional experience in that subfield.

Key Faculty Qualifications Defined

ABET does not prescribe a single template for faculty qualifications, but certain categories consistently appear across accredited programs. Understanding these categories helps institutions build a faculty body that not only meets accreditation standards but also enhances educational quality.

Academic Degrees

At a minimum, faculty teaching in ABET-accredited programs are expected to hold a master’s degree in the field or a closely related discipline. However, ABET strongly prefers that faculty teaching upper-division courses or core engineering science courses hold a doctorate (Ph.D. or equivalent terminal degree). This preference is rooted in the recognition that a doctoral education provides advanced training in research, problem-solving, and specialized knowledge that directly benefits students. Programs with a high proportion of faculty holding doctorates tend to produce stronger research outcomes and better prepare students for graduate study or complex industry roles.

It is important to note that ABET also considers the field of the degree. For example, a faculty member with a Ph.D. in Physics might be considered qualified to teach introductory physics, but perhaps not a senior-level mechanical engineering design course. The program must justify that the degree is relevant to the course assignments. In many cases, programs supplement a faculty member’s academic background with professional experience to ensure they meet the "qualified" threshold.

Professional Experience

Real-world engineering practice is invaluable in the classroom. ABET recognizes that faculty with industry experience bring practical insights that textbooks cannot provide. They can illustrate how theoretical concepts apply to actual design projects, safety considerations, and professional ethics. Accreditation criteria explicitly state that "faculty members must have sufficient professional experience to be effective in their teaching." This is especially critical for programs that emphasize applied learning, capstone design, or cooperative education.

Professional experience can be documented through prior employment in engineering firms, government agencies, or research laboratories. Some programs also value consulting work or professional licensure (e.g., Professional Engineer license) as evidence of real-world competence. Institutions should maintain records of industry partnerships, sabbaticals in industry, and adjunct faculty who currently work in the field. Such experience helps bridge the gap between academic theory and professional practice, which ABET sees as essential for producing career-ready graduates.

Research and Scholarship

While ABET places primary emphasis on teaching and student learning, research and scholarship are integral to faculty qualifications—especially for programs at research universities. Engaging in scholarly activity ensures that faculty remain at the cutting edge of their discipline. This knowledge then flows into the classroom through updated course content, new lab exercises, and exposure to emerging technologies.

ABET expects all full-time faculty to demonstrate evidence of scholarly activity, which can include peer-reviewed publications, conference presentations, funded research projects, patents, or creative works. The key is that the scholarship must be relevant to the program’s discipline. A program in civil engineering, for instance, benefits from faculty who publish in structural engineering journals, not just general education research. The quantity and quality of scholarship may vary by institutional mission, but a baseline of activity is necessary to demonstrate currency and depth of knowledge.

Teaching Effectiveness

Having advanced degrees and impressive research portfolios does not automatically make an effective teacher. ABET expects programs to evaluate teaching effectiveness through multiple measures: student course evaluations, peer observations, performance in lab settings, and student achievement of program outcomes. Programs must document that faculty are not only qualified in content but also able to deliver that content effectively.

Teaching effectiveness goes beyond popularity ratings. It encompasses clarity of instruction, ability to engage students in active learning, fair assessment practices, and continuous improvement based on feedback. Many institutions require faculty to undergo pedagogical training or attend workshops on engineering education methods. This improves student learning outcomes and provides evidence for ABET reviewers that the program takes teaching seriously.

Meeting ABET’s Criteria for Faculty

Simply having qualified individuals is not enough—programs must systematically demonstrate that faculty meet the criteria. This requires careful documentation, ongoing evaluation, and a commitment to continuous improvement. Below are key areas that programs need to address.

Documenting Qualifications

ABET requires a detailed faculty summary as part of the self-study report. This summary lists each faculty member’s name, highest degree earned and field, professional registration or licensure, years of experience, and a brief description of their professional development activities. Each faculty member’s assignment to specific courses must be justified by their qualifications. For example, if a faculty member with a bachelor’s degree in mechanical engineering teaches a senior-level thermodynamics course, the program must explain why that person is qualified—e.g., 20 years of industry experience in thermal systems, combined with continuing education.

Documentation should be maintained in the form of curriculum vitae (CVs), transcripts (for recent graduates), and letters from employers or licensure boards. The program should also keep records of faculty professional development—such as workshops attended, conferences, short courses, and certifications. ABET reviewers often scrutinize this documentation for consistency. A program with several faculty members whose highest degree is a bachelor’s and who have no recent professional development may raise red flags about qualification adequacy.

Faculty Evaluation and Development

ABET expects that programs have a formal system for evaluating faculty performance—including teaching, scholarship, and service—and that these evaluations are used for continuous improvement. This ties directly into the accreditation philosophy of outcomes-based assessment: faculty qualifications must be linked to the program’s ability to produce graduates who meet defined student outcomes. If evaluation data reveal weaknesses in certain areas, the program should respond with targeted faculty development.

Development activities can take many forms: attending pedagogical conferences, enrolling in technical courses, participating in industry internships, or engaging in collaborative research with colleagues. Some institutions offer internal grants for faculty to pursue advanced degrees or certifications. Others create mentoring programs where senior faculty guide junior faculty in teaching methods and research. The key is that development is not ad hoc but planned, documented, and aligned with program needs.

Continuous Improvement and Faculty Involvement

ABET accreditation is not a one-time achievement; it requires an ongoing cycle of assessment and improvement. Faculty play a central role in this process. They are responsible for defining program educational objectives, assessing student outcomes, and using data to make improvements. Therefore, faculty qualifications directly affect the program’s ability to perform effective assessment. A faculty that lacks expertise in assessment methods may struggle to design meaningful rubrics or interpret data correctly.

To meet this standard, many programs appoint a faculty member as the assessment coordinator and provide training on accreditation-related topics. Faculty should also be involved in strategic planning and curriculum revision, ensuring that the program evolves with industry demands. ABET reviewers look for evidence that faculty collectively own the program and actively work to improve it. This requires not only qualified individuals but a culture of continuous improvement.

Challenges in Maintaining Qualified Faculty

While the importance of faculty qualifications is clear, many institutions struggle to recruit and retain qualified faculty, particularly in high-demand engineering disciplines. Several factors contribute to this challenge:

  • Industry competition: Private sector salaries often outpace academic salaries for experienced engineers, making it difficult to attract top talent to teaching positions. This is especially acute in fields like computer science, cybersecurity, and data science.
  • Ph.D. shortage: Some engineering disciplines produce fewer doctorates than needed to fill faculty openings. Programs may have to hire faculty with master’s degrees and extensive industry experience as a bridge solution.
  • Geographic constraints: Institutions in rural areas may find it harder to recruit faculty with industry experience, as many such professionals are concentrated in urban tech hubs.
  • Retirement wave: Many engineering faculty hired during the 1980s and 1990s are approaching retirement age, creating a knowledge gap that is not easily filled.

To overcome these challenges, programs can adopt creative strategies. Partnering with local industries to fund endowed chairs or joint appointments helps bring practicing engineers into the classroom. Offering flexible teaching schedules and remote teaching options can attract adjunct faculty from a wider geographic area. Additionally, investing in professional development for existing faculty—such as allowing them to take industry sabbaticals—can enhance their qualifications without needing to hire new staff. Accreditation bodies recognize these realities but still require evidence that the program’s faculty are collectively qualified to deliver the curriculum. Programs that proactively address faculty qualification gaps through development and strategic hiring are better positioned for accreditation success.

Best Practices for Institutions

Based on decades of accreditation experience, several best practices have emerged for building and maintaining a qualified faculty body that meets ABET standards.

Develop a Faculty Qualification Matrix

Create a matrix that maps each faculty member’s qualifications (degrees, licensure, expertise areas) against the program’s courses and student outcomes. This visual tool helps quickly identify gaps—such as a course in power systems taught by a faculty member with no background in electrical power. Regular updates to the matrix ensure that any new hires or changes in assignment maintain alignment.

Establish a Mentoring and Development Program

Formal mentoring programs pair new faculty with experienced mentors who guide them in teaching, research, and accreditation processes. This accelerates the development of junior faculty and ensures they meet the program’s expectations for qualification. Many institutions also require all faculty to create an individualized professional development plan annually, which is reviewed during performance evaluations.

Leverage Adjunct and Visiting Faculty Strategically

Adjunct faculty can bring specialized expertise that full-time faculty lack. For instance, a program might hire a practicing civil engineer to teach a course in bridge design, while full-time faculty cover general engineering fundamentals. However, too many adjuncts can weaken the program’s coherence and mentoring capacity. ABET expects that core courses are primarily taught by full-time faculty. A good practice is to use adjuncts for elective or senior design courses where their industry insights are most valuable, while ensuring continuity through full-time faculty oversight.

Invest in Faculty Development Resources

Institutions should allocate budget specifically for faculty development—conference travel, short courses, certification programs, and industry internships. Some universities create a center for teaching and learning that offers workshops on active learning, assessment techniques, and online pedagogy. Documenting these investments shows ABET reviewers that the institution is committed to maintaining faculty quality beyond initial hiring.

Connect Faculty Qualifications to Program Outcomes

Make explicit the link between each faculty member’s expertise and the program’s student outcomes. For example, if a program aims to produce graduates who can "design a system under realistic constraints," then faculty teaching design courses must have industry experience. This logical connection not only satisfies ABET but also improves student learning by ensuring instructors can provide relevant examples and projects.

Conclusion

Faculty qualifications are the foundation upon which ABET accreditation rests. Qualified faculty ensure that curriculum content is current, that students receive rigorous instruction, and that the program continuously improves. ABET’s criteria demand evidence of academic degrees, professional experience, scholarly activity, and teaching effectiveness. Meeting these criteria requires systematic documentation, ongoing evaluation, and strategic development.

Institutions that prioritize faculty recruitment, development, and alignment with program outcomes not only achieve accreditation but also produce graduates who are well-prepared for engineering careers. The challenges—competition from industry, shortages of doctoral faculty, and demographic shifts—are real, but they can be addressed through creative partnerships, robust development programs, and careful planning. Ultimately, the quality of the faculty determines the quality of the program, and that quality is what ABET accreditation recognizes and upholds.

For more information on ABET accreditation criteria and faculty qualifications, visit the official ABET Accreditation Criteria page, read about the history and impact of ABET accreditation, or explore resources on professional engineering licensure as part of faculty qualifications.