Engineering Education

Master's

Why study Engineering Education?

Engineering education research, as a discipline, builds on theories, methods of inquiry, and ways of knowing developed across a range of related fields, including anthropology, economics, education, neuroscience, philosophy, political science, psychology, and sociology, as well as research in science, technology, engineering, and mathematics education. These perspectives are integrated and reinterpreted through the lens of engineering. Students are introduced to theories of teaching and learning in engineering, along with pedagogical approaches and assessment practices. In addition, they develop advanced expertise in research methodologies, including quantitative, qualitative, and mixed methods approaches to inquiry.

What can I study in Engineering Education?

Engineering education research spans a broad set of interconnected areas focused on understanding and improving how engineering is taught, learned, and practiced. Our faculty support students in identifying research areas that align with their interests through guided research experiences, coursework, and experiential learning opportunities. These areas can be broadly organized into six core pillars: learning mechanisms, learning systems, assessment and research methodologies, broadening participation in engineering, engineering epistemologies, and academic and professional experiences. Together, these pillars reflect a comprehensive view of engineering education as a complex system involving learners, educators, institutions, technologies, and societal contexts.

Learning Mechanisms focus on how engineering learners develop knowledge, skills, and expertise. This includes research on curriculum and instructional design, course and program development, innovative pedagogies, and teaching and learning strategies.

Learning Systems examine the instructional cultures, structures, and knowledge required of engineering educators to support effective teaching and learning. This area includes faculty development, instructional practices, the use of educational technologies, and broader global and interdisciplinary contexts.

Assessment and Research Methodologies emphasize the development and application of quantitative, qualitative, and mixed methods approaches to studying engineering education. This includes the design and evaluation of assessments, instruments, and research protocols, as well as accreditation, standards, and measures of educational effectiveness.

Broadening Participation in Engineering centers on how different identities, experiences, and perspectives contribute to the social, ethical, and global relevance of the engineering profession, with an emphasis on equity and inclusion.

Engineering Epistemologies explore what constitutes engineering knowledge, how it is defined and validated, and how it evolves over time and across contexts.

Academic and Professional Experiences focus on pathways and transitions within and beyond education, including industry–academia collaboration, workforce development, and career preparation.

 

Admission Requirements

Applicants to the Engineering Education graduate program must submit the following materials:

  • Unofficial Transcripts from all colleges and universities attended post-high school graduation. Applicants must hold a minimum GPA of 3.0 in a bachelor’s or graduate degree program in engineering, mathematics, or the physical sciences from an accredited institution. 
  • Research Statement (1–3 pages): This statement should describe your research interests, including specific reference to relevant research areas, engineering education research methodologies, and your intended focus area. Applicants may build upon or incorporate prior research experiences. The statement is used by faculty to assess writing ability, readiness to engage in graduate-level research, and overall fit with the Engineering Education program.
  • Statement of Purpose (1–2 pages)
    • This statement should include:
      • A brief overview of your academic, professional, and prior research experiences (if not covered in your research statement)
      • Your immediate and long-term career goals
      • How the Engineering Education program will support your goals
      • Any additional information that strengthens your application (e.g., perspectives on the relationship between educational research and teaching/learning)
    • This document is used to evaluate writing ability and program fit.
  • Curriculum Vitae (CV): Your CV should include your name, contact information (phone number and email address), and education history with degrees and dates earned. It should also include, as applicable, employment history, honors and awards, publications and presentations, and relevant professional experience (e.g., research, teaching or tutoring, and service). The CV does not need to follow a rigid structure or be limited to these categories.
  • Letters of Recommendation
  • One letters of recommendation is required at minimum.
  • English Proficiency (International Students Only)

 

The M.S. in Engineering Education (ENED) prepares graduates for a wide range of career pathways across education, industry, and the public sector. Graduates pursue positions in universities, including traditional engineering disciplines and departments of engineering education, as well as roles in community colleges and PreK–12 educational settings.

Career opportunities also extend to for-profit and nonprofit organizations, such as testing organizations, foundations, and governmental agencies. Graduates are well-positioned for programmatic roles, including assessment and accreditation coordination, curriculum design, policymaking, and program management. Additional pathways include corporate training, workforce development, and leadership roles in teaching and learning centers, diversity initiatives, and outreach programs.

The information provided is sourced from a third party, Lightcast. Their product, called Career Coach, combines extensive labor market data from Lightcast and the U.S. Bureau of Labor Statistics. It provides insights on industry, occupation, compensation, and projected growth for each profession. Economic and workforce information is available for various geographic regions. Some careers may require additional training or education.

The University of Cincinnati’s graduate program in Engineering Education prepares students for career pathways in academia, industry, or government, depending on their professional goals and area of focus. In consultation with their advisor, students develop expertise in a range of focus areas, including higher education in engineering, PreK–12 engineering education across formal and informal settings (including both for-profit and nonprofit contexts), and engineering industry and workforce development.

A flexible curriculum driven by your interests. Our curriculum is highly flexible and student-driven. Students co-design their plan of study with their advisor to align their graduate experiences with their long-term career goals and professional aspirations following degree completion. We have a small core of 6 credits (ENED7001 Introduction to Engineering Education and Research, ENED7005 Engineering Education Research Design, ENED7006 Ethical Considerations in Conducting Human Subjects Research in Engineering) and a wide range of electives such as ENED7002 Educational Theory and ENED7003 Applications of Pedagogy and Assessment that focus on educational practices tailored specifically to the engineering classroom. 

Experiential activities that can be built into your plan of study to get on-the-job experience (e.g., mentored teaching, …). Aligned with UC’s history of cooperative education, workplace-based experiences that connect classroom learning to authentic roles in whichever industry students want to pursue, students may elect to substitute some of their elective credit with unpaid or paid semester-long experiences. Students have taken this option to be a lead instructor in our first-year program, contribute to the institutional research office through data-driven modeling projects, develop K-12 engineering content for a nationally adopted curriculum, and much more!

Our faculty collectively provide broad expertise across research approaches. Our faculty bring expertise across a wide range of research methodologies, preparing students to be competitive in diverse career pathways. These broad areas include quantitative, qualitative, and mixed methods research.

Faculty support students in developing expertise in quantitative research, including measurement and the statistical, mathematical, or numerical analysis of data to examine patterns, relationships, and trends. This work may also incorporate machine learning, artificial intelligence, and other engineering-driven techniques to address longstanding educational research problems at scale.

We also offer mentorship in qualitative research, which focuses on generating in-depth descriptions and interpretations of human experiences and behaviors through methods such as interviews, observations, and document analysis.

In addition, our faculty support students in becoming mixed methods researchers, integrating quantitative and qualitative approaches to leverage the strengths of both and develop more comprehensive and nuanced understandings than either method alone.

 

Explore unique opportunities, faculty, and resources available in Department of Engineering & Computing Education

Application Deadlines

Application deadlines and additional application information can be found at the CEAS Office of Graduate Studies webpage. 

The University of Cincinnati and all regional campuses are accredited by the Higher Learning Commission.

Contact Information

CEAS Graduate Studies Office
PO Box 210077
Cincinnati , OH 45221-0077
(513) 556-3647
engrgrad@uc.edu

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Program Code: 20MAS-ENED-MS