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Computational Physicist Jobs in Florida (NOW HIRING)

... computational fluid dynamics (CFD) to develop, analyze, and maintain software models of fluid ... Nuclear or Mechanical Engineering, Physics, or related discipline * - Strong academic background in ...

Senior Simulation Engineer Onsite

Miami, FL

$99K - $137K/yr

... computational problems, including assessments of potential system improvements, missile ... Advanced degree in Physics, Applied Mathematics, Electrical Engineering, or Aerospace Engineering

POSITION SUMMARY The Flight Dynamics Engineer develops, integrates, tests, and validates physics ... It can also include the engineer generating theoretical data through means of computational fluid ...

Senior Simulation Engineer Onsite

Orlando, FL · On-site

$97K - $134K/yr

... computational problems, including assessments of potential system improvements, missile ... Advanced degree in Physics, Applied Mathematics, Electrical Engineering, or Aerospace Engineering

POSITION SUMMARY The Flight Dynamics Engineer develops, integrates, tests, and validates physics ... It can also include the engineer generating theoretical data through means of computational fluid ...

Showing results 41-60

Computational Physicist information

See Florida salary details

$120.7K

$143K

$163K

How much do computational physicist jobs pay per year?

As of Sep 4, 2026, the average yearly pay for computational physicist in Florida is $143,006.00, according to ZipRecruiter salary data. Most workers in this role earn between $131,700.00 and $154,100.00 per year, depending on experience, location, and employer.

What is a computational physicist?

A computational physicist is a scientist who uses computer simulations, numerical analysis, and algorithms to solve complex physical problems that are difficult or impossible to address analytically. They work in fields like condensed matter physics, astrophysics, and materials science, modeling phenomena such as atomic interactions or galaxy formation. Their work often involves writing code, analyzing large datasets, and collaborating with experimental and theoretical physicists. Computational physicists play a key role in advancing scientific knowledge by providing insights where traditional methods fall short.

What does a computational physicist do?

A computational physicist applies numerical analysis to solve problems or support theories in physics. In this career, you use knowledge from numerous disciplines, including physics, statistics, mathematics, and computer science, to test a theory. You use algorithms and other methodological tools to crunch large datasets using powerful computers, which helps in solving differential equations and other statistical problems. This can include Monte Carlo calculations and eigenvalue problems. Some people consider computational physics a branch of theoretical physics or its own discipline with specific duties and responsibilities.

What are the key skills and qualifications needed to thrive as a computational physicist, and why are they important?

To thrive as a Computational Physicist, you need a strong background in physics, mathematics, and computer science, typically supported by at least a master's or Ph.D. in physics or a related field. Proficiency in programming languages such as Python, C++, and MATLAB, as well as experience with simulation software and high-performance computing systems, is essential. Strong analytical thinking, problem-solving abilities, and effective teamwork skills help you tackle complex scientific challenges and collaborate on interdisciplinary projects. These skills are crucial for developing accurate models, efficiently solving intricate problems, and advancing scientific research through computational methods.

What are some typical challenges computational physicists face when working on collaborative research projects?

Computational physicists often collaborate with experimentalists, engineers, and other researchers, which can present challenges such as bridging communication gaps between disciplines and integrating diverse data formats or methodologies. Coordinating project timelines to ensure that simulations align with experimental milestones is also common. Additionally, managing large datasets and ensuring reproducibility of results across different computing environments can require careful planning and documentation. Effective teamwork and adaptability are essential to overcome these hurdles and drive successful research outcomes.

What is the difference between Computational Physicist vs Data Scientist?

AspectComputational PhysicistData Scientist
Required CredentialsPhysics degree, often PhD, strong math and programming skillsStatistics, computer science, or related degree, often with a master's or PhD
Work EnvironmentResearch labs, academia, government agencies, scientific institutionsTech companies, finance, healthcare, consulting firms
Industry UsageScientific research, simulations, modeling physical systemsData analysis, predictive modeling, business insights

While both roles require strong programming and analytical skills, Computational Physicists focus on physical systems and scientific research, whereas Data Scientists analyze data to inform business decisions. The choice depends on your interest in scientific research versus data-driven applications.

What are the most commonly searched types of Computational Physicist jobs in Florida?

The most popular types of Computational Physicist jobs in Florida are:

What job categories do people searching Computational Physicist jobs in Florida look for?

The top searched job categories for Computational Physicist jobs in Florida are:

What cities in Florida are hiring for Computational Physicist jobs?

Cities in Florida with the most Computational Physicist job openings:

What are popular job titles related to Computational Physicist jobs in FL?

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

Infographic showing various Computational Physicist job openings in Florida as of August 2026, with employment types broken down into 76% Full Time, 21% Part Time, 1% Temporary, and 2% Contract. Highlights an 68% Physical, 3% Hybrid, and 29% Remote job distribution, with an average salary of $143,006 per year, or $68.8 per hour.

Faculty Position: Artificial Intelligence Scientist, Radiation Oncology

Mayo Clinic

Jacksonville, FL • On-site

$186.75/hr

Full-time

Retirement

Posted 9 days ago


Key responsibilities

  • Develop artificial intelligence tools and models for applications in radiation oncology, including bioinformatics, radiogenomics, multimodality image-guided targeting, radiomics, and outcome modeling.

  • Partner with the cancer center to develop and advance next-generation AI-based translational research programs integrating radiobiology, imaging, computational science, and clinical data.

  • Build multidisciplinary collaborations, mentor research staff, and contribute to the integration of AI technologies into radiation oncology platforms to enable clinical and translational innovations.


Mayo Clinic rating

7.8

Company rating: 7.8 out of 10

Based on 705 frontline employees who took The Breakroom Quiz

135th of 898 rated healthcare providers


Job description


Position Description
The Mayo Clinic Comprehensive Cancer Center (MCCCC) enterprise site in Jacksonville, Florida invites applications for an open-rank faculty position for an innovative and accomplished leader in Artificial Intelligence, with experience in Computational Biology preferred, and their application in the basic, translational and clinical research programs within Radiation Oncology.
We seek an exceptional investigator (scientist and/or physician) with expertise in artificial intelligence (AI) and its application in basic and translational biology and clinical decision making. The successful candidate will play a central role in advancing a rapidly growing, multidisciplinary heavy particle program focused on discovery science, translational innovation, and clinical impact.
A key component of this role will be developing artificial intelligence tools within some of the areas below including, but not limited to:
  • Bioinformatics, Radiogenomics, and Integrated Multi-omics Analysis
  • Multimodality Image-Guided Targeting, Radiomics, and Adaptive Radiotherapy
  • Outcome Modeling and Clinical Decision Support
  • Medical Physics, Radiation Measurement, and Real-Time Response Assessment
  • Systems Analysis, Biophysical Analysis, and Translational Radiobiology

Strategic Role and Leadership Expectations
The investigator will:
  • Provide scientific expertise and have the opportunity for leadership roles in heavy particle therapy research program
  • Partner closely with the cancer center to develop next generation AI tools and models for the heavy particle therapy research program.
  • Develop innovative translational research programs that integrate radiobiology, imaging, computational science, and clinical data to advance precision heavy particle therapy.
  • Build multidisciplinary collaborations and research infrastructure that accelerate discovery and translation of heavy particle therapy innovations into clinical applications and trials.
  • Mentor trainees, junior faculty, and research staff within a collaborative and inclusive academic environment.
  • Participate in institutional initiatives aligned with Mayo Clinic and Mayo Clinic Comprehensive Cance Center's vision to Cure, Connect, and Transform healthcare through transformative science.

The successful candidate will be a key driver in integrating artificial intelligence technologies into existing and emerging radiation oncology platforms, enabling novel approaches to heavy particle therapy.
Research Environment
Mayo Clinic and Mayo Clinic Comprehensive Cancer Center offer a highly collaborative and integrated academic medical center environment with expanding strengths in cell therapy, cancer immunotherapy, regenerative medicine, and translational science. Mayo Clinic and MCCCC have built a world-class research hub to transform cancer patient care through actionable target discovery and next-generation discovery and therapeutic platforms. These foundational platforms include Mayo Clinic Platform (www.mayoclinicplatform.org) which holds the fully digitized longitudinal patient records from 15M Mayo Clinic patients and 54M patients from across the nation and the globe with collaborating healthcare institutions, which facilitate research through development of longitudinal patient cohorts prior to and following disease diagnosis. Mayo Clinic has also developed very strong AI-driven discovery, translational, and clinical programs with exceptional "on premises" and cloud-based computational resources.
Faculty benefit from:
  • Established CAR-T and immune cell therapy programs with active clinical translation
  • State-of-the-art genome engineering and cell manufacturing infrastructure
  • Access to quantum computing
  • Dedicated AI research laboratory space
  • Robust disease-focused centers supporting both oncology and non-oncology therapeutic innovation
  • Dedicated institutional support for regulatory strategy, clinical trial development, and commercialization pathways
  • Cross-campus collaboration opportunities with Mayo Clinic sites in Minnesota and Arizona

Why Choose Mayo Clinic Comprehensive Cancer Center?
With 440 members and >1500 aligned cancer physicians working in six Cancer Research Programs (Cancer Prevention, Survivorship & Control; Cancer Risk Assessment, Early Detection & Interception; Cancer Genomics, Signaling, & Metastasis; Cancer Immunology & Immunotherapeutics; Novel Therapeutics & Therapeutic Modalities; Advanced Clinical Trials and Translational Sciences) and 15 Disease Groups focused on clinical trials, MCCCC is a global leader and represents the pinnacle of cancer care, research and education and training. Every year, across its three enterprise sites (Rochester, Minnesota; Phoenix and Scottsdale, Arizona; and Jacksonville, Florida), MCCCC physicians provide expert cancer diagnosis and treatment to more than 150,000 unique patients from across the nation and the globe.
The MCCCC Mission: To inspire hope and promote health and healing through integrated research, clinical practice, and education, centered around our primary value: the needs of the patient come first.
The MCCCC Vision: To be a global cancer authority: transforming cancer research and practice to assure that our discoveries, knowledge, and expertise are accessible to all, within and beyond our walls, at anyplace and anytime.
MCCCC Goals:
  1. To cure cancers through translation of innovative transdisciplinary science to new means of prevention, early detection, interception, intervention, and unparalleled care delivery.
  2. To transform cancer research and practice using category of one data platforms, digital technologies, artificial intelligence (AI), and intelligent automation, creating new models for community and patient engagement, and the conduct of research, clinical trials and patient-centered care delivery in clinical, home, and community settings.
  3. To use Mayo Clinic Platform to engage patients and communities in our catchment areas and across the nation and the world in cancer research and distributed and decentralized clinical trials.
  4. To educate, train, and mentor the next generation of cancer physicians, scientists, and leaders.

Over the past year, MCCCC has continued to achieve exceptional performance metrics, with high levels of cancer research funding (reporting $61.2M in annual peer-reviewed funding ($41.1M from NCI) and $98.7M in industry and non-peer reviewed funding). The Center currently has over 80 multi-investigator programmatic grants including 6 NCI Specialized Programs of Research Emphasis (SPORES): Myeloma, Ovarian Cancer, Breast Cancer, Liver/Hepatobiliary Cancers, Prostate Cancer, and Sarcoma. In 2025, clinical trial accrual has remained robust, reporting the Center's highest accrual to therapeutic interventional trials: 2,624 (12% of newly registered cases), with 6,588 interventional accruals (30% of newly registered patients) and 10,367 non-interventional accruals. In 2025, MCCCC members published an exceptional number (1776) of peer-reviewed academic works, 24% of which were published in high impact journals.
Why Choose Mayo Clinic?
Mayo Clinic is a premier, integrated academic medical center consistently ranked among the top hospitals in the nation. All campuses are experiencing strategic growth in cancer immunotherapy, drug discovery & development, regenerative medicine, and translational discovery science.
We offer:
  • Competitive startup and sustained institutional support
  • Investment in team science and program-building initiatives
  • Access to a $1B+ annual research enterprise
  • Infrastructure for IND-enabling studies and early-phase clinical trials
  • Exceptional benefits, including retirement and pension programs
  • A culture that values innovation, inclusion, and transdisciplinary collaboration
  • Mayo Clinic is committed to creating an inclusive and equitable environment, recognizing that diverse research teams drive more innovative solutions to complex biomedical challenges.

Located in the state-of-the-art Duan Family Building on Mayo Clinic Florida's campus, advanced 360-degree proton gantries and carbon fixed beam enable enhanced targeting of hard-to-treat cancers. These technologies help Mayo Clinic physicians conduct integrated therapy planning and simulation in conjunction with radiation oncology treatments.
Other diagnostic and treatment modalities available in this space include:
  • An upright chair positioning system, which is the first of its kind in photon treatment
  • Multi-ion fixed beam room (commissioned with carbon in early 2028)
  • Synchrotron accelerator that can switch between three heavy particle energies in less than 20 seconds
  • 3T MRI system
  • Photon linear accelerators for radiation therapy

To enhance the benefits of heavy particle therapy delivery, Mayo Clinic is partnering with a software development company to create an advanced treatment planning system that works with photon, proton and carbon ion therapies. This system, which is not typically available for most patients receiving radiation therapy, reduces the radiation dose sent to healthy tissue. It also provides real-time online adaptive treatment planning - adjusting each patient's plan daily based on tumor shrinkage or shifting.
Qualifications
Qualified candidates must hold a doctoral degree (Ph.D., M.D., M.D./Ph.D., Sc.D., or equivalent) in computational biology, artificial intelligence, radiation biology, biomedical engineering, or a related discipline.
Candidates should demonstrate:
  • Sustained extramural funding appropriate to academic rank (NIH K award or equivalent for Assistant Professor; R01-level funding or equivalent for Associate Professor or higher)
  • Evidence of scientific leadership and the ability to build collaborative, multidisciplinary research programs
  • A demonstrated commitment to mentorship, education, and fostering an inclusive academic culture

Preferred consideration will be given to candidates whose research bridges artificial intelligence with multiple domains-including quantitative imaging, radiogenomics, radiation measurement, and radiobiology-and who can translate computational or technological innovation into improved precision, personalization, and outcomes of radiation therapy.
Appointment level (Assistant, Associate, or Full Professor) will be commensurate with experience and years in rank, scholarly achievement, leadership experience, and funding record.

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About Mayo Clinic

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Mayo Clinic is the largest integrated, not-for-profit medical group practice in the world. We're building the future, one where the best possible care is available to everyone — and more people can heal at home. Our relentless research turns into earlier diagnoses and new cures. That's how we inspire hope in those who need it most. At Mayo Clinic, experts work together to solve the most challenging unmet needs of patients. Our history of innovation dates back almost 150 years, when brothers Will and Charlie Mayo pioneered an integrated, team-based approach to medicine. Today, that trailblazing spirit drives innovations like Mayo Clinic Platform — which powers new technologies to change how care is delivered to all.

Industry

Hospitals

Company size

10,000+ Employees

Headquarters location

Rochester, MN, US

Year founded

1919