Professor of Petroleum Engineering Job Description

A Professor of Petroleum Engineering occupies one of the more technically demanding faculty positions in engineering academia. The role requires staying current with an industry that moves quickly — unconventional reservoir development, carbon capture and storage, geothermal systems — while translating that technical depth into classroom instruction, supervised graduate research, and published scholarship.

The teaching load at most research universities runs two to three courses per semester. At the undergraduate level, that means courses like reservoir engineering fundamentals, well logging and formation evaluation, or drilling engineering — subjects where the gap between textbook derivation and field reality is wide, and bridging it well is what distinguishes an effective instructor from a mediocre one. Graduate courses go deeper: advanced reservoir simulation, geomechanics, EOR methods, or specialized seminars driven by the professor's current research focus.

Research is the other half of the job at any R1 or R2 institution, and it is the half most directly tied to tenure and promotion. Building a funded research program means identifying problems the industry or funding agencies care about, assembling a team of MS and PhD students to work on them, and producing results that hold up to peer review. The DOE Office of Fossil Energy and Carbon Management, NSF, and industry research consortia like the Oklahoma Petroleum Research Center are the primary funding sources. A newly hired assistant professor typically spends 30–40% of their first two years writing proposals.

Industry engagement is structurally built into the role. Petroleum engineering departments maintain advisory boards of operators, service companies, and independents. Faculty are expected to present at SPE technical conferences, collaborate on industry-funded research agreements, and occasionally consult — subject to university conflict-of-interest policies. These relationships feed the research program with problems, data, and funding, and they feed the department with job placements for graduates.

The rhythm of the academic year creates distinct seasons. Fall and spring are dominated by teaching and advising. Summer is the primary research and proposal-writing window. ABET reaccreditation cycles add periodic curriculum review obligations. For faculty who manage their time well, the flexibility relative to a corporate role is real — but so is the expectation of continuous output.

Education:

• PhD in petroleum engineering, reservoir engineering, geomechanics, or chemical engineering with a petroleum research focus (required for tenure-track positions)
• Master's degree in petroleum engineering or related field (sufficient for lecturer and clinical professor roles at some institutions)
• Postdoctoral research experience at a national laboratory or university is increasingly common among competitive applicants at R1 programs

Research credentials:

• Active publication record in SPE Journal, Journal of Petroleum Science and Engineering, Fuel, Energy & Fuels, or Geophysics
• Demonstrated grant-writing experience or funded research as a graduate student or postdoc
• SPE membership and conference participation (SPE ATW, ATCE, or annual technical conference presentations)

Technical expertise — common focus areas:

• Reservoir simulation and numerical methods (CMG, Eclipse, tNavigator)
• Unconventional reservoir characterization: tight oil, shale gas, hydraulic fracturing
• Enhanced oil recovery: miscible flooding, polymer flooding, thermal methods
• Geomechanics and wellbore stability
• Carbon capture, utilization, and storage (CCUS) — growing area of faculty hiring
• Production data analytics: decline curve analysis, machine learning applied to well performance

Industry background (valued but not required):

• Reservoir engineering, completions engineering, or geoscience roles at an operator or major service company
• Prior industry work strengthens curriculum relevance and industry partnership development

Teaching and mentorship:

• Evidence of teaching effectiveness — course evaluations, TA experience, guest lecturing, or industry training delivery
• Experience mentoring junior researchers, interns, or undergraduate research assistants

Professional standing:

• Licensed Professional Engineer (PE) in petroleum or related engineering discipline (valued, particularly for programs with strong industry ties)
• SPE distinguished lecturer or committee service demonstrates national recognition sought in tenure dossiers

Petroleum engineering faculty positions have always been scarce relative to the size of the working industry — there are roughly 30 accredited petroleum engineering programs in the U.S., and each has a small faculty. Turnover is low by academic standards because the positions are well-compensated and carry tenure protection. When openings do appear, they draw competitive application pools from candidates with strong research records and, increasingly, candidates pivoting from industry after building technical reputations through SPE publication and conference activity.

Several factors are shaping hiring in the late 2020s. First, the energy transition has broadened the scope of what petroleum engineering departments teach and research. Programs are hiring faculty with expertise in CCUS, geothermal systems, produced water management, and hydrogen storage — topics that draw on the same subsurface and fluid mechanics foundations as conventional petroleum engineering. Faculty who can credibly work across this wider technical range are more attractive to departments trying to maintain enrollment as the undergraduate interest in traditional oil and gas careers fluctuates.

Second, the data science integration wave is creating demand for faculty who can teach reservoir engineering through a computational lens. Departments that graduated students who knew CMG and Eclipse are now expected to produce graduates fluent in Python, machine learning workflows, and uncertainty quantification. Faculty who can teach both layers — the physics and the data methods — are hiring priorities.

Third, the workforce gap in the oil and gas industry is creating real pull toward industry for PhDs who might otherwise pursue academic careers. Operator and service company salaries for reservoir engineers with doctorates now routinely exceed what early-career faculty earn, and sign-on packages at some majors and large independents have widened that gap further. This makes faculty recruitment harder at the assistant professor level, which means universities are competing harder for candidates — including through startup packages, reduced teaching loads in years one and two, and discretionary research funds.

For candidates who do enter the academic track, the long-term picture is stable. Petroleum engineering programs are not disappearing — they are broadening, and the faculty who build reputations at the intersection of conventional petroleum engineering and the energy transition's technical demands will be well-positioned for decades.

Dear Search Committee,

I am applying for the Assistant Professor position in Petroleum Engineering at [University]. I completed my PhD in petroleum engineering at [University] in May, where my dissertation focused on CO₂ injection efficiency in heterogeneous carbonate reservoirs using coupled geomechanical-fluid flow simulation. Before my doctoral work I spent four years as a reservoir engineer at [Operator], which is where the research question originated — we were consistently underperforming injection forecasts, and the published literature did not have a satisfying explanation.

My research program going forward has two connected threads. The first continues the CCUS simulation work, with a proposal to DOE FECM in preparation for the September cycle. The second extends into data-driven production forecasting for unconventional reservoirs — I have a collaboration in progress with [Company] that will provide well performance data for an ML-assisted decline analysis study. I expect both threads to generate MS-level thesis projects within the first year.

On the teaching side, I served as the primary instructor for the graduate reservoir simulation course during my postdoc at [University] and received strong student evaluations, particularly for connecting simulator output to physical intuition rather than treating the tool as a black box. I can cover undergraduate reservoir engineering, production engineering, and drilling at the level your curriculum requires, and I am prepared to develop a new graduate elective in subsurface CO₂ storage.

I am an SPE member, have presented at ATCE twice, and was named a co-author on a distinguished paper in 2023. I would welcome the opportunity to discuss how my background fits what your department is building.

[Your Name]