Professor of Electrical Engineering

A Professor of Electrical Engineering occupies one of the more demanding and varied roles in higher education. On any given week, the job might include delivering a graduate seminar on power electronics Monday morning, meeting with a PhD student struggling with simulation results Tuesday afternoon, submitting a revised NSF proposal Wednesday night, and reviewing undergraduate senior capstone presentations Friday. The three pillars — teaching, research, and service — compete for the same fixed number of hours, and managing that competition effectively is what distinguishes faculty who flourish from those who burn out.

At research-intensive (R1) universities, the research enterprise is the primary engine of professional advancement. Faculty are expected to run a funded laboratory, graduate doctoral students regularly, and publish in top-tier IEEE venues. External funding is not optional — it pays graduate student stipends, supports postdoctoral researchers, and often covers summer salary for the professor. A faculty member whose grants lapse faces real pressure, and the fundraising cycle never fully stops.

At primarily undergraduate institutions and regional universities, the teaching load is heavier — often three or four courses per semester — and the research expectations are more modest. The tradeoff is more direct contact with undergraduates and more time in the classroom rather than writing proposals. Salary is typically lower, but the workload structure fits many faculty better than the grant-or-perish environment at major research universities.

Laboratory management is a dimension of the job that new faculty often underestimate. Running a research group means recruiting and retaining graduate students, procuring and maintaining equipment, managing lab safety compliance, navigating export control regulations on dual-use hardware and software, and handling the financial administration of sponsored research accounts. The research is the interesting part; the administrative infrastructure that surrounds it is persistent and time-consuming.

Industry engagement has become more central to the role over the past decade. EE departments compete for students against well-paying tech and defense industry employers, and faculty who maintain active industry connections — through consulting, sponsored research, or startup involvement — bring credibility that translates to better student recruitment and more realistic curriculum design. The boundary between academia and industry in electrical engineering is more permeable than in many other disciplines.

Required credentials:

• PhD in Electrical Engineering, Computer Engineering, or a closely related field (power systems, photonics, RF/microwave, VLSI, signal processing, control systems, communications)
• Strong publication record in peer-reviewed IEEE journals and conferences appropriate to the candidate's research area
• Postdoctoral research experience (one to three years, expected at R1 institutions)
• Evidence of independent research — papers where the candidate is the lead contributor or corresponding author

Teaching qualifications:

• Ability to teach core EE curriculum: circuit analysis, electromagnetic fields, signals and systems, electronics, digital systems
• Experience as a teaching assistant or instructor of record during graduate training
• Familiarity with ABET accreditation criteria and student outcome assessment
• Competence with simulation and design tools used in instruction: MATLAB/Simulink, SPICE, Verilog/VHDL, LabVIEW

Research infrastructure skills:

• Grant writing: NSF CAREER proposals, DARPA BAA responses, DOE solicitations, industry research agreements
• Supervision of graduate researchers through experimental design, publication, and defense
• Laboratory safety: laser safety, RF exposure, high-voltage protocols, chemical handling depending on the specialty
• Export control awareness for controlled technology and international students working on sensitive hardware

For industry-to-academia transitions:

• 10+ years of industry experience in semiconductor design, power systems, RF communications, or related field
• Patents, product development history, or standards committee participation as evidence of technical leadership
• Industry professor or joint appointment structures are common pathways for practitioners with deep expertise but non-traditional publication records

Specialization examples that drive hiring demand:

• Wide-bandgap power electronics (SiC, GaN) for EV and grid applications
• Chip design and semiconductor process integration
• Millimeter-wave and terahertz communications for 6G research
• Grid modernization, energy storage integration, and power systems resilience
• Neuromorphic computing and AI hardware acceleration

The tenure-track faculty market in electrical engineering is competitive but meaningfully better than in humanities and social sciences. EE departments face real demand pressure: undergraduate enrollment in electrical and computer engineering has grown, industry salaries for PhD graduates have increased sharply, and the supply of people willing to take the tenure-track path has not kept pace with retirements and enrollment-driven hiring needs.

Several specializations are seeing above-average hiring activity. Power electronics and power systems faculty are in short supply relative to the national investment in grid modernization, electric vehicles, and domestic semiconductor manufacturing. The CHIPS and Science Act has directed substantial funding toward semiconductor research, and universities are competing to hire faculty who can anchor new center proposals. Wireless communications and RF faculty with 5G and 6G-relevant backgrounds are recruited hard, often against industry offers that dwarf academic salaries.

The funding environment for EE research is favorable by historical standards. NSF, DARPA, DOE, and DOD all have active EE-relevant programs, and the domestic manufacturing push has added industrial partners willing to co-fund university research. Faculty who can build multi-institutional center grants — the kind that bring in $5M to $20M over five years — are particularly valued by department chairs who need to grow graduate programs.

The structural challenges in academic employment are real and worth naming. The tenure clock is high-stakes and unforgiving. The gap between nine-month base salaries and what comparable PhD graduates earn in industry is wide and has been widening. Two-body problems — dual academic careers for couples — are genuinely difficult to resolve in a job market where openings in a given specialty may number in the single digits nationally in a given year.

For early-career researchers who want the combination of intellectual autonomy, long-term research direction, and graduate mentorship that academia provides, electrical engineering is one of the more viable fields to build a tenure-track career. The combination of strong industry pull for graduates, a well-funded federal research portfolio, and genuine societal urgency around energy, communications, and semiconductor infrastructure makes this a field with durable academic relevance.

Dear Search Committee,

I am applying for the tenure-track Assistant Professor position in Electrical Engineering at [University]. My research focuses on wide-bandgap power semiconductor devices and converter topologies for high-efficiency EV drivetrain applications, and I believe my background in both device physics and system-level integration aligns well with your department's emphasis on applied power electronics.

During my postdoctoral work at [Lab/University], I led a project developing GaN-based bidirectional converters for vehicle-to-grid applications, resulting in three journal papers in IEEE Transactions on Power Electronics and two best paper nominations at APEC. I have also served as co-investigator on a $1.2M DOE grant and am preparing an NSF CAREER proposal targeting submission in the upcoming cycle. I am comfortable teaching core power courses — machines, power electronics, and energy systems — as well as developing a graduate elective in wide-bandgap device characterization.

My approach to graduate mentorship comes directly from a difficult experience during my own PhD: I had a committee that rarely met and gave feedback late. I have structured my advising practice around monthly one-on-ones, written feedback on every draft within two weeks, and explicit milestones mapped to graduation timelines. The two MS students I co-advised during my postdoc both graduated on schedule and moved into industry roles at major automotive OEMs.

I am drawn to [University] specifically because of the existing strength in power systems and the proximity to regional automotive and manufacturing industry partners. I see real potential for collaborative projects and student placement pipelines that would benefit both the research program and the department's professional reputation.

I would welcome the opportunity to present my research and discuss how my work fits your department's direction.

[Your Name]