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Physics Informed Neural Networks Jobs (NOW HIRING)

Experience with physics-informed neural networks , scientific computing, or simulation acceleration * Published research in ML/AI, contributions to open-source ML frameworks * Deep familiarity with ...

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... informed neural networks for laser physics modeling. * Solve abstract and complex problems, using in-depth analysis, and drawing from advanced level technical knowledge, best practices, and both ...

... informed neural networks for laser physics modeling. * Solve abstract and complex problems, using in-depth analysis, and drawing from advanced level technical knowledge, best practices, and both ...

... informed neural networks for laser physics modeling. * Solve abstract and complex problems, using in-depth analysis, and drawing from advanced level technical knowledge, best practices, and both ...

Implement and fine-tune AI surrogates, such as physics-informed neural operators, suitable for ... Proficiency in deep learning frameworks and graph neural networks is a plus * Proven experience in ...

Build physics-informed neural networks and digital twin simulations for aerospace systems * Research quantum sensing integration methods for navigation and perception * Document research findings and ...

Build physics-informed neural networks and digital twin simulations for aerospace systems * Research quantum sensing integration methods for navigation and perception * Document research findings and ...

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How much do physics informed neural networks jobs pay per hour?

As of Jun 23, 2026, the average hourly pay for physics informed neural networks in the United States is $20.06, according to ZipRecruiter salary data. Most workers in this role earn between $12.50 and $25.48 per hour, depending on experience, location, and employer.

What is a Physics Informed Neural Networks job?

A Physics Informed Neural Networks (PINNs) job typically involves developing and applying neural networks that incorporate physical laws as constraints to solve complex scientific and engineering problems. Professionals in this field work on integrating differential equations into deep learning models to improve predictions and reduce the need for large training datasets. These roles are common in fields like fluid dynamics, material science, and climate modeling, where traditional computational methods can be expensive. Individuals in this role often have expertise in machine learning, numerical methods, and domain-specific physics.

What are the key skills and qualifications needed to thrive in the Physics Informed Neural Networks position, and why are they important?

To thrive in Physics Informed Neural Networks (PINNs), you need a strong background in physics, mathematics, and deep learning frameworks, typically evidenced by advanced degrees in physics, applied mathematics, computer science, or engineering. Experience with programming languages such as Python, and familiarity with libraries like TensorFlow or PyTorch, as well as experience in numerical simulation tools, are commonly required. Strong analytical thinking, problem-solving abilities, and effective communication skills help professionals excel in multidisciplinary teams. These qualifications and soft skills are essential for developing accurate, interpretable models that integrate scientific knowledge with machine learning to solve complex real-world problems.

What are the typical daily tasks involved in a Physics Informed Neural Networks position?

In a Physics Informed Neural Networks role, your daily tasks will often include designing, building, and testing neural network architectures that incorporate physical laws and constraints. You will frequently collaborate with domain experts, such as physicists or engineers, to integrate scientific knowledge into machine learning models and validate the results with real-world data. Regular responsibilities also involve coding, running experiments, analyzing results, and documenting findings for presentation or publication. This collaborative and research-driven environment helps ensure that models are both accurate and physically consistent, and offers opportunities for interdisciplinary learning and skill advancement.

More about Physics Informed Neural Networks jobs
What cities are hiring for Physics Informed Neural Networks jobs? Cities with the most Physics Informed Neural Networks job openings:
What states have the most Physics Informed Neural Networks jobs? States with the most job openings for Physics Informed Neural Networks jobs include:
Infographic showing various Physics Informed Neural Networks job openings in the United States as of June 2026, with employment types broken down into 1% As Needed, 94% Full Time, 1% Part Time, 3% Temporary, and 1% Contract. Highlights an 71% Physical, 3% Hybrid, and 26% Remote job distribution, with an average salary of $41,731 per year, or $20.1 per hour.

Founding AI Engineer

Everstar Inc

New York, NY • On-site

Full-time

Medical, Dental, Vision

This job post has expired today. Applications are no longer accepted.


Job description

Founding AI Engineer (AI + Production)
New York City (5 days on-site) • Top of market + equity + benefits
TL;DR: Build AI that accelerates nuclear deployment. Own AI production from evals to fine-tuning. Push the frontier on physics models, world models, and AI-accelerated simulations. High-leverage IC role with founding-level impact.
The Mission
Everstar builds the intelligence layer that makes nuclear power actually deployable-collapsing regulatory and manufacturing timelines from years to months. Gordian already powers engineering and compliance work for utilities, advanced reactor companies, and hyperscalers. We pair deep nuclear domain expertise with frontier AI and move with startup speed.
Now we need a Founding AI Engineer to turn research breakthroughs into production systems that ship-and push beyond LLMs into physics-informed AI, world models, and simulation acceleration.
You'll be joining the Apollo Team of Nuclear. You'll build alongside engineers from Tesla, SpaceX, Lockheed Martin, Google, and Microsoft. You'll learn from nuclear and national security experts who cut their teeth at the Nuclear Regulatory Commission, CIA, and NuScale.
The Role (reporting to the CEO)
Not a researcher. Not a prompt engineer. This is a production-first role.
You'll own the AI stack end-to-end-from eval frameworks to fine-tuning pipelines to agent orchestration. But you'll also push the boundaries of what AI can do for nuclear: AI-accelerated weather simulations, design safety analyses powered by physics models, and world model applications that transform nuclear operations.
Think 70% building production systems / 30% frontier R&D with access to Microsoft and NVIDIA's latest tools through our first-party partnerships and a large AI research budget to experiment aggressively.
Most weeks you'll be shipping new model capabilities, debugging eval failures, and scaling inference-then immediately applying what you learned to the next sprint. Some weeks you'll be prototyping physics-informed models, running GPU-accelerated simulations, or collaborating directly with NVIDIA and Microsoft researchers.
You will:
  • Build production AI agents: power Gordian Search, Research, and Compose with outputs that are truthful, complete, and auditable-because in nuclear, "mostly right" isn't good enough.
  • Design eval infrastructure: create benchmarking suites that catch regressions before customers do; instrument quality metrics that actually matter.
  • Own fine-tuning pipelines: generate synthetic data, run ablations, and ship domain-adapted models that outperform off-the-shelf LLMs on nuclear regulatory tasks.
  • Push the frontier (R&D):
    • AI-accelerated weather simulations for site qualification and environmental impact assessments-replacing months of modeling with hours
    • Physics-informed design safety analyses using world models that reason about thermal hydraulics, neutronics, and structural integrity
    • Vision + physics models for automated document analysis, construction monitoring, and operational anomaly detection
    • Agentic workflows that compound over time, learning from each regulatory submission to improve the next
  • Leverage NVIDIA partnership: work directly with NVIDIA's research team to access cutting-edge tools (NeMo, Modulus, Omniverse) and contribute to the future of AI for critical infrastructure
  • Set technical direction: you're early enough to shape how we think about model selection, prompt design, guardrails, physics-AI integration, and the entire ML ops stack
  • Mentor and lead: as the team scales, you'll hire and guide other AI engineers-but first, you'll prove the playbook yourself

A sample week: debug why Research citations dropped 8%; ship new fine-tuned model for compliance drafting; design eval suite for multi-document reasoning; prototype physics-informed model for thermal analysis; pair with fullstack engineer to optimize inference latency; attend NVIDIA collaboration session on world models; read three ML papers and implement one idea.
What You've Done
  • 3-8 years building production ML/LLM systems-RAG, fine-tuning, evals, agent orchestration. You've shipped models that users depend on daily.
  • Mastery of the stack: Hugging Face, LangChain, vector databases, prompt engineering, and modern LLM ops. You know when to use off-the-shelf and when to build custom.
  • Rigor with evals: you've designed benchmark suites, tracked model quality over time, and know how to measure what matters (not just what's easy).
  • Leadership DNA: you've owned outcomes, not just tasks. You've set technical direction, mentored teammates, or led cross-functional projects.
  • Bonus points:
    • Experience with physics-informed neural networks, scientific computing, or simulation acceleration
    • Published research in ML/AI, contributions to open-source ML frameworks
    • Deep familiarity with NVIDIA tools (NeMo, Modulus, CUDA optimization)
    • You're the person who reads Arxiv papers on weekends and immediately wants to implement them
    • Background in physics, engineering, or computational science

No nuclear background required-only the hunger to build AI that matters and push the boundaries of what AI can do for physical systems.
Who You're Building For
This isn't benchmarks for benchmarks' sake. Your models will directly help:
  • Nuclear operators keeping 20% of U.S. electricity safe and reliable
  • Advanced reactor developers navigating regulatory approval for next-gen designs-and using AI-accelerated simulations to optimize designs in days, not months
  • Licensing teams drafting safety analyses that take months today, hours tomorrow-powered by physics models that understand first principles
  • Site qualification teams running environmental and weather analyses that currently require expensive consultants and 6+ month timelines

And the second-order effects matter even more:
  • Nuclear unlocks the energy needed for AGI/ASI-advanced AI requires unprecedented power.
  • AI accelerates nuclear deployment-breaking the regulatory bottleneck that's held back clean energy for decades.
  • The tokens you generate translate into safer infrastructure and a livable planet.

What's at Stake
  • If we succeed: We unlock nuclear at scale, power the AI revolution with clean energy, and collapse licensing timelines from years to months. The models you build help humanity leap toward AGI on a sustainable foundation. Your physics-informed AI becomes the standard for how critical infrastructure is designed and operated.
  • If we fail: Nuclear stays bottlenecked in decades-old processes, AI's energy demand outpaces clean supply, and we miss the window to align technological progress with climate survival. The frontier AI capabilities remain academic curiosities instead of deployment accelerators.

What Success Looks Like (90 days)
  • Shipped ≥3 major model improvements to production (better evals, new fine-tuned model, or agent capability).
  • Eval framework is instrumented and running continuously; you catch quality regressions before customers report them.
  • Inference latency reduced ≥30% or accuracy improved ≥15% on key benchmarks.
  • Prototype ≥1 frontier capability (physics model for safety analysis, weather simulation acceleration, or world model application) that shows clear customer value.
  • You've set the technical roadmap for AI engineering and the team trusts your judgment.
  • At least one system you built (eval suite, fine-tuning pipeline, or agent orchestration) is now core infrastructure the company depends on.

Resources at Your Disposal
  • NVIDIA & Microsoft first-party partnership: Direct access to Microsoft & NVIDIA research team, early access to new tools (NeMo, Modulus, Omniverse), and collaboration on frontier AI applications
  • Large AI research budget: Aggressive compute allocation for training runs, experiments, and frontier R&D-no need to beg for GPU credits
  • Latest NVIDIA hardware: Access to H100s, GH200s, and future architectures as they become available
  • World-class team: Work alongside nuclear domain experts, AI researchers, and engineers who've shipped at SpaceX and top startups

Growth Path
Strong founding AI engineers typically grow into Head of AI/ML, AI Research Lead, or CTO-track roles as the company scales. The frontier R&D component opens paths toward Chief Scientist or VP of Applied Research as we expand into physics-AI and world models.
First, you'll prove you can own the entire LLM stack and ship production systems that matter.
Why Everstar
  • Work with the best: high‑caliber, wartime team that builds things that scale
  • Build shit that matters, accelerating nuclear energy and shaping the AI future
  • Large AI research budget for compute, conferences, and experimentation.
  • Top of market base + meaningful equity in a fast-growing company; standard benefits (health/dental/vision, FSA, wellness stipend).
  • IRL in NYC (midtown/Bryant Park). Occasional travel to client sites, Microsoft & NVIDIA offices, or ML conferences.

How to Apply (show, don't tell)
Submit application with:
  1. Resume AND LinkedIn profile
  2. GitHub or portfolio: show us something you built (open-source contributions, side projects, or production work you're proud of)
  3. 200 words: "What excites you most about building AI for nuclear deployment?"
  4. 150 words: "Describe a production ML system you owned. What were the hardest technical tradeoffs and how did you resolve them?"
  5. Bonus (optional): If you have experience with physics-informed AI, simulation acceleration, or scientific computing, share a brief example of work in this domain.

We respond to strong submissions within one week.
Let's build.