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Computational Plasma Physicist Jobs (NOW HIRING)

You'll work closely with computational and diagnostics teams, but the buck stops with you on ... Strong understanding of plasma physics, pulsed-power systems, or nuclear effects testing. * Ability ...

$130K - $165K/yr

Thea Energy is leveraging recent breakthroughs in stellarator physics and engineering to create a ... Lead the computational efforts to simulate erosion, redeposition, and thermal shock degradation in ...

$130K - $165K/yr

Thea Energy is leveraging recent breakthroughs in stellarator physics and engineering to create a ... Lead the computational efforts to simulate erosion, redeposition, and thermal shock degradation in ...

Physics, Materials Science, Mechanical, Electrical, or Chemical Engineering. Knowledge of Design of Experiments (DOE), statistical methods, computer aided design (CAD), and computational plasma ...

New

Plasma-Materials Scientist

Kearny, NJ ยท On-site

$100K - $160K/yr

Utilize computational and simulation tools to perform plasma-surface interaction simulations, thermal analysis, and contribute to multi-physics modeling efforts. Required Experience & Skillsets:

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$142.5K

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How much do computational plasma physicist jobs pay per year?

As of Sep 11, 2026, the average yearly pay for computational plasma physicist in the United States is $168,844.00, according to ZipRecruiter salary data. Most workers in this role earn between $155,500.00 and $182,000.00 per year, depending on experience, location, and employer.

What does a computational plasma physicist do?

A Computational Plasma Physicist uses computer models and simulations to study the behavior of plasma, which is a state of matter consisting of charged particles. They develop algorithms and run large-scale simulations to understand plasma dynamics in various contexts, such as fusion energy, space physics, or industrial applications. Their work helps predict plasma behavior in experiments and supports the development of new technologies. Collaboration with experimental physicists and engineers is common, as their findings guide further research and practical applications.

What are the key skills and qualifications needed to thrive as a computational plasma physicist?

To thrive as a Computational Plasma Physicist, you need a strong background in physics, mathematics, and computational modeling, typically supported by a PhD in physics or a related field. Expertise with programming languages (such as Python, C++, or Fortran), high-performance computing environments, and simulation software like Particle-In-Cell (PIC) codes is essential. Strong analytical thinking, problem-solving abilities, and effective communication skills help in interpreting complex data and collaborating with interdisciplinary teams. These skills are vital for developing accurate models, advancing plasma research, and translating theoretical work into practical applications.

What are the main collaborative aspects of working as a computational plasma physicist in a research team?

As a Computational Plasma Physicist, you will often collaborate closely with experimental physicists, engineers, and software developers to develop and validate plasma simulation models. Teamwork is essential, as insights from simulations are frequently integrated with experimental data to advance understanding or inform the design of new experiments. Regular meetings, code sharing, and interdisciplinary problem-solving are common, fostering a collaborative environment where communication and adaptability are highly valued. This structure also provides opportunities to learn from experts in adjacent fields and to contribute to high-impact research projects.

What is the difference between Computational Plasma Physicist vs Computational Fluid Dynamics (CFD) Engineer?

AspectComputational Plasma PhysicistComputational Fluid Dynamics (CFD) Engineer
Required credentialsPhysics or engineering degrees, specialized in plasma physicsEngineering degrees, specialized in fluid mechanics or aerospace engineering
Work environmentResearch labs, academia, energy, and space industriesAerospace, automotive, energy, and manufacturing industries
Industry usagePlasma applications, fusion research, space physicsDesign and simulation of fluid systems, aerodynamics

While both roles involve computational modeling, a Computational Plasma Physicist focuses on plasma phenomena and related applications, whereas a CFD Engineer specializes in fluid flow simulations. The roles share similar skills in numerical methods but differ in industry focus and specific expertise.

How much do computational plasma physicists make?

Computational plasma physicists typically earn between $70,000 and $130,000 annually, depending on experience, education, and location. Senior roles or positions in research institutions and industry can offer higher salaries, especially for those with specialized skills in simulation software and data analysis.

What is computational plasma physics?

Computational plasma physics is a field that uses computer simulations and numerical methods to study the behavior of plasmas, which are ionized gases found in environments like fusion reactors, space, and astrophysics. Computational plasma physicists develop models and algorithms to analyze plasma dynamics, often utilizing high-performance computing tools and programming skills. This work supports understanding plasma phenomena and advancing technologies such as nuclear fusion and space exploration.
More about Computational Plasma Physicist jobs

What are popular job titles related to Computational Plasma Physicist jobs?

For Computational Plasma Physicist jobs, the most frequently searched job titles are:

Infographic showing various Computational Plasma Physicist job openings in the United States as of September 2026, with employment types broken down into 5% Internship, 66% Full Time, 28% Part Time, and 1% Contract. Highlights an 67% Physical, 2% Hybrid, and 31% Remote job distribution, with an average salary of $168,844 per year, or $81.2 per hour.

Computational Research Scientist (Two-Dimensional Materials and Low-Pressure Processing Plasma)

Princeton, NJ โ€ข On-site

Other

Posted 24 days ago


Key responsibilities

  • Conduct and facilitate computational modeling of 2D material processing using low-temperature plasma.

  • Apply ab initio molecular dynamics and machine learning potentials to optimize plasma processing techniques.

  • Model plasma processing for industry partners and disseminate scientific results through publications and conferences.


Job description

Computational Research Scientist (Two-Dimensional Materials and Low-Pressure Processing Plasma)

2026-22118 2 days ago(8/12/2026 8:59 AM) Department PPPL Appl Mat & Sustainblty Sc Research and Laboratory Full-Time

Overview

The Princeton Plasma Physics Laboratory (PPPL) is seeking to appoint a Computational Scientist to contribute to the advancement of modeling capabilities and physics research pertaining to using low-temperature plasmas for processing of two-dimensional materials and associated technologies. The primary responsibility of this position involves conducting and facilitating computational modeling of processing of 2D materials by low-temperature plasma for the purposes of scientific discovery and engineering design of these processes. The successful candidate will achieve this objective through the application of density functional theory (DFT) modeling of these processes using ab initio molecular dynamics (MD), and the utilization of machine learning potentials for MD acceleration. The candidate should have strong practical familiarity with MD simulations and band gap structure calculations of 2D material properties and connection to experimental measurements. Furthermore, the candidate should demonstrate substantial practical knowledge of 2D material properties and techniques employed in plasma processing, coupled with a proven track record of modeling of such discharges. The results will be disseminated to the broader academic and industrial communities, necessitating strong interpersonal and communication skills to cultivate these relationships. Finally, this role will encompass the conceptualization and preparation of novel proposal ideas to secure funding for future research projects.

A U.S. Department of Energy National Laboratory managed by Princeton University, the Princeton Plasma Physics Laboratory (PPPL) is tackling the worldโ€™s toughest science and technology challenges using plasma, the fourth state of matter. With more than 70 years of history, PPPL is a leader in the science and engineering behind the development of fusion energy, a potentially limitless energy source. PPPL is also using its expertise to advance research in the areas of microelectronics, quantum sensors and devices, and sustainability sciences. Whether it be through science, engineering, technology or professional services, every team member has an opportunity to contribute to our mission and vision.

Responsibilities
  • Application of ab initio molecular dynamics to low-temperature plasmas for processing of two-dimensional materials and associated technologies. The capabilities will be deployed for optimization of processing techniques of these materials.
  • Defining and delivering on A.I. projects for low-temperature plasmas (20%).
  • Proposal ideation and preparation (10%).
  • Modeling plasma processing for industry partners (20%).
  • Publishing scientific results and dissemination at major international conferences (10%).
Qualifications
  • Ph.D. in Physics, Engineering or a related field with core training in low-temperature plasma physics and high-performance computing.
  • Minimum 3 years of professional experience in an academic, scientific, or R&D environment.
  • A proven track record of publishing original results in peer-reviewed scientific journals.
  • Demonstrated collaborative experience within academia and with industry.
  • Knowledge, Skills, and Abilities: Extensive practical experience using first-principles methods to study materials relevant to microelectronics, quantum devices, and plasma assisted processing, including ab initio molecular dynamics and classical molecular dynamics simulations.
  • Strong ability to connect atomistic simulation results to experimentally relevant materials properties and processing outcomes, including defect formation, surface functionalization, selective etching, plasmaโ€‘induced damage, optoelectronic properties, surface cleaning, and modification of 2D materials.
  • Practical knowledge of low-temperature plasma processing of materials, including plasma-assisted etching, ion/surface interactions, fluorination, oxygen and hydrogen surface chemistry, plasma activated desorption, and highly selective or self-limiting processes relevant to nanofabrication of microelectronics and quantum-device materials.
  • Ability to develop computational workflows that support optimization of plasma processing conditions and interpretation of experimental observations.
  • Advanced experience with major electronic structure, molecular dynamics, and quantum chemistry software packages, including VASP, CP2K, Gaussian, Quantum ESPRESSO, LAMMPS, and related atomistic modeling tools.
  • Strong record of scientific publication and conference presentation in electronic structure calculations, 2D materials, defects, and plasmaโ€‘assisted processing of 2D materials.
  • Ability to communicate complex computational results clearly to scientific, engineering, experimental, academic, and industrial audiences.
  • Demonstrated ability to work collaboratively in multidisciplinary research environments involving theory, computation, experiment, and industryโ€‘relevant materials processing applications.
  • Ability to contribute to proposal ideation, preparation of research plans, development of new computational capabilities, and dissemination of results through peerโ€‘reviewed publications, talks, and major international conferences.
  • Experience in Molecular Dynamics Study of Plasma related materials like Liquid Lithium (and Boron) Interaction with H, D, and Impurities.

Princeton University is an Equal Opportunity Employer and all qualified applicants will receive consideration for employment without regard to age, race, color, religion, sex, sexual orientation, gender identity or expression, national origin, disability status, protected veteran status or any other characteristic protected by law.

The University considers factors such as (but not limited to) scope and responsibilities of the position, candidate's qualifications, work experience, education/training, key skills, market, collective bargaining agreements as applicable, and organizational considerations when extending an offer. The posted salary range represents the University's good faith and reasonable estimate for a fullโ€‘time position; salaries for partโ€‘time positions are proโ€‘rated accordingly. If the salary range on the posted position shows an hourly rate, this is the baseline; the actual hourly rate may be higher, depending on the position and factors listed above. The University also offers a comprehensive benefit program to eligible employees. Please see this link for more information.

Standard Weekly Hours 40.00 Eligible for Overtime No Benefits Eligible Yes Probationary Period 180 days Essential Services Personnel (see policy for detail) No Physical Capacity Exam Required No Valid Driver's License Required No Salary Range $111,400 to $178,000

Please be aware that the Department of Energy (DOE) prohibits DOE employees and contractors from participation in certain foreign government talent recruitment programs. All PPPL employees are required to disclose any participation in a foreign government talent recruitment program and may be required to withdraw from such programs to remain employed under the DOE Contract.

Princeton University-PPPL job offers are contingent upon the candidateโ€™s successful completion of a background check, reference checks, and preโ€‘employment screening, as applicable.

PPPL is a U.S. Department of Energy (DOE) national laboratory managed by Princeton University. The DOE prohibits DOE employees and contractors from participation in certain foreign government talent recruitment programs. All PPPL employees are required to disclose any participation in a foreign government talent recruitment program and may be required to withdraw from such programs to remain employed under the DOE Contract. Princeton University-PPPL is a residential community and an employer that operates continuously 24 hours a day. Essential services employees perform jobs that are necessary and required to maintain basic University operations during scheduled closures or unscheduled suspension of normal operations due to emergencies, events, or other situations. Essential services employees may be asked and/or required to perform jobs or duties that fall outside of their normal job classification during an emergency event. Learn more about our Essential Services policy.

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