Education
Electrical Engineering Assistant Professor
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Electrical Engineering Assistant Professors teach undergraduate and graduate courses, build independent research programs, mentor doctoral students, and pursue external funding at universities and engineering schools. The tenure-track assistant professor period — typically six years — is defined by establishing a research lab, publishing in top venues, teaching effectively, and demonstrating the national reputation that tenure review requires.
Role at a glance
- Typical education
- Ph.D. in Electrical Engineering or a closely related field
- Typical experience
- Postdoctoral research or industry research experience common
- Key certifications
- None typically required
- Top employer types
- Research universities, teaching-focused comprehensive universities, government agencies, semiconductor industry
- Growth outlook
- Strong demand driven by semiconductor policy, the energy transition, and increased federal funding via the CHIPS and Science Act.
- AI impact (through 2030)
- Strong tailwind — significant demand for faculty working at the interface of AI/ML algorithms and hardware, such as custom accelerators and neuromorphic chips.
Duties and responsibilities
- Teach two to three courses per semester in areas such as circuits, signals and systems, electromagnetics, power systems, or digital systems
- Build and manage an independent research group including doctoral students, postdocs, and research engineers
- Write and submit competitive grant proposals to NSF, DARPA, DOE, NIH, and industry sponsors to fund the research program
- Publish original research findings in top peer-reviewed journals and IEEE/ACM conference proceedings
- Mentor doctoral students through qualifying exams, proposal defense, research execution, and dissertation defense
- Develop new courses and update existing curricula to reflect current developments in electrical engineering
- Participate in departmental committees, faculty meetings, and graduate admissions processes
- Collaborate with industry partners on sponsored research and consulting in area of technical expertise
- Serve as a reviewer for journals and conference program committees in the specialty area
- Present research at national and international conferences to build visibility and scholarly reputation
Overview
An Electrical Engineering Assistant Professor is building a career on two parallel tracks simultaneously: research and teaching. In the first six years — the tenure clock — both tracks are running at full speed, and the demands of each can feel like they're in direct conflict with each other.
The research track is the one that determines tenure at most universities. An assistant professor is expected to establish an independent research identity distinct from their doctoral advisor's program, build a research group with doctoral students who are making progress, submit competitive grant proposals to NSF and other federal agencies, publish in the top venues in their subfield, and develop a national reputation substantial enough that a committee of senior faculty at peer institutions would endorse their promotion.
None of that is easy to do while teaching two new course preparations per semester. The first two years of teaching any course require significant preparation — not just knowing the material, but knowing how to sequence it, anticipate student confusion, write good problem sets, and adapt when the class is lost. Faculty who underestimate the teaching preparation burden find their research output suffering; those who sacrifice teaching quality to protect research time create problems with student evaluations that feed back into tenure files.
The research group management dimension is significant and often underappreciated by new faculty. A successful assistant professor is running what amounts to a small research organization: recruiting doctoral students, setting research directions, mentoring at different stages of development, reviewing work, managing external collaborator relationships, and handling the administrative overhead of funded grants. Effective mentoring of doctoral students takes real time and skill, and graduate students who are poorly mentored don't produce the publications that support the advisor's tenure case.
Service expectations are lighter for junior faculty — departments typically protect assistant professors from committee burdens — but participation in graduate admissions, proposal reviews, and departmental planning meetings is expected from the start.
Qualifications
Education:
- Ph.D. in Electrical Engineering or a closely related field (Computer Engineering, Applied Physics, Materials Science for specific subfields) — required
- Postdoctoral research or industry research position common for competitive applicants to research universities
Research record:
- First-author publications in top-tier journals (IEEE JSSC, TPEL, TMTT, TCOMM, TNN, etc.) or conferences (ISSCC, ISCA, ICCAD, ICC, Globecom) depending on subfield
- Clear research agenda that is fundable and distinct from doctoral advisor's program
- Demonstrated ability to generate original ideas, not just execute a supervisor's directions
Subfield examples and relevant contexts:
- Power electronics and energy conversion: NSF ECCS, DOE, ARPA-E fundable; strong industry interest from automotive/EV sector
- Wireless and communications: NSF, DARPA, DoD fundable; commercial tech industry engagement
- VLSI and computer architecture: NSF CCF, DARPA, semiconductor industry
- Signal processing and machine learning: NSF, NIH, intelligence community
- Electromagnetics and photonics: NSF, DARPA, defense applications
Teaching preparation:
- Teaching experience as a doctoral student or postdoc — guest lectures, lab sections, recitations
- Evidence of clear technical communication in papers and presentations
Grant writing:
- Familiarity with NSF proposal structure (project description, broader impacts, data management plan)
- Understanding of DARPA BAA process for defense-oriented research areas
Career outlook
Electrical engineering faculty positions are competitive but accessible to well-prepared candidates, particularly compared to the humanities and many other STEM fields. The supply of EE Ph.D. graduates is large, but the demand is also strong, driven by the surge in technology sector research investment, the energy transition requiring new power electronics expertise, and semiconductor policy driving university research funding.
The CHIPS and Science Act has increased federal funding for semiconductor research and workforce development, directly benefiting EE programs and faculty who work on chip design, manufacturing, and testing. Universities with established semiconductor programs — and many building new ones — are actively hiring faculty in microelectronics, VLSI, and related areas.
AI hardware is the hottest hiring area in the field. Every major research university is looking for faculty who work on the interface between AI/ML algorithms and the hardware that executes them — custom accelerators, neuromorphic chips, in-memory computing, and related topics. Candidates with strong publications in hardware-AI draw multiple offers and significant startup package commitments.
The market for faculty who teach well and can attract external funding is generally healthy, even at institutions outside the top tier. Teaching-focused comprehensive universities hire EE faculty with more modest research expectations and more sustainable work-life balance than R1 positions, at somewhat lower salaries.
For faculty who achieve tenure and advance, the path leads to associate professor, then full professor, and potentially department chair or research center director. Industry consulting and board involvement are common for senior faculty with commercializable research. Startup founding is common in subfields with strong industry application, and universities generally support faculty entrepreneurship through licensing arrangements and leave policies.
Sample cover letter
Dear Search Committee,
I am writing to apply for the Assistant Professor position in Electrical Engineering at [University], with focus in power electronics and energy conversion systems. I will complete my Ph.D. at [University] in May, where I have been working in the [Lab] on wide-bandgap semiconductor devices for high-frequency, high-efficiency power conversion.
My dissertation introduces a new soft-switching topology for GaN-based DC-DC converters operating at frequencies above 5 MHz, achieving efficiency levels that have been previously unreachable at that frequency range. The core results are published in IEEE Transactions on Power Electronics (first author, 2025) and IEEE APEC 2025. A second manuscript addressing thermal management in high-density power modules is under review at IEEE Transactions on Industry Applications.
My research agenda as an independent faculty member extends this foundation in three directions: ultra-high-frequency power conversion for data center point-of-load applications, GaN device characterization under realistic operating conditions using novel instrumentation approaches, and co-optimization of converter topology and magnetic design using machine learning-assisted design tools. The NSF ECCS program, ARPA-E, and data center industry sponsors are natural funding targets, and I have had preliminary conversations with [Company] about a potential sponsored research relationship in the second direction.
I have teaching experience from two semesters of leading laboratory sections in Power Electronics and from a guest lecture series I developed on wide-bandgap devices for a graduate seminar at [University]. I am prepared to teach circuits, power electronics, and advanced courses in energy conversion, and I am interested in developing new coursework connecting power electronics to grid modernization and electrification.
I would welcome the opportunity to speak with the committee about the position.
[Your Name]
Frequently asked questions
- What does it take to get a tenure-track electrical engineering faculty position?
- A Ph.D. from a strong research program, a postdoctoral position or industry research experience with published output, and a compelling research vision that is distinct from your advisor's program. Top programs look for candidates with multiple first-author publications in high-impact journals or top conferences (IEEE ISSCC, ICCAD, ISCA, JSSC), evidence of independent thinking beyond the dissertation, and the ability to articulate a fundable research agenda.
- How much of the job is actually teaching vs. research?
- At research-intensive R1 universities, research is the primary accountability — publications and grants determine tenure, not teaching evaluations. Teaching typically occupies 2–3 courses per year, but research group management, grant writing, and publication is where most time and career capital is spent. At comprehensive teaching universities, the balance shifts toward 4–5 courses per year with more modest research expectations.
- What are the most fundable areas in electrical engineering right now?
- AI hardware and chip design, power electronics and energy systems (driven by electrification demand), cybersecurity for embedded and industrial systems, wireless communications (6G), and medical devices and biosensors. DARPA, NSF ECCS, and DOE Office of Science are the primary federal funders, with substantial industry and defense funding from semiconductor companies, defense contractors, and tech firms.
- How is AI changing electrical engineering research and curriculum?
- AI and machine learning have become central to multiple EE subfields simultaneously — chip design automation, signal processing, power systems optimization, and communications are all being reshaped by ML methods. Curriculum needs to reflect both the hardware foundations that make AI possible (GPU architecture, custom accelerators, on-chip memory) and the integration of ML methods into traditional EE applications. Faculty who can bridge both worlds are in particularly strong demand.
- Is industry experience before a faculty position helpful?
- It depends on the type. Research-focused industry positions at places like Bell Labs, Intel Labs, Google Research, or NVIDIA Research can produce publications and fundable ideas that strengthen a faculty application. Standard product engineering jobs, however valuable professionally, typically don't produce the research outputs that make academic hiring committees take notice. If industry is the path to academia, it should be a research-centered role.
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