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Physics Simulation Python Jobs in Salisbury, NC (NOW HIRING)

Develop, maintain, and enhance physics-based vehicle models using Dymola, MATLAB, and Simulink ... Python. * Strong understanding of vehicle dynamics principles. * Experience with simulation data ...

Lead F1 Performance Engineer

Concord, NC · Hybrid

$95.50K - $125.70K/yr

Bachelor's degree in Mechanical Engineering, Automotive Engineering, Physics, or related field of ... Simulation tools to optimize vehicle performance; Programming in Python and MATLAB; and Analyzing ...

Lead F1 Performance Engineer

Concord, NC · Hybrid

$93.20K - $122.80K/yr

Bachelor's degree in Mechanical Engineering, Automotive Engineering, Physics, or related field of ... Simulation tools to optimize vehicle performance; Programming in Python and MATLAB; and Analyzing ...

Lead F1 Performance Engineer

Concord, NC · On-site

$95.50K - $125.70K/yr

Bachelor's degree in Mechanical Engineering, Automotive Engineering, Physics, or related field of ... Simulation tools to optimize vehicle performance; Programming in Python and MATLAB; and Analyzing ...

B.S. degree in mechanical engineering, mechatronics, industrial engineers, or physics 5+ years ... Jmp, Python, Power BI) and MS Office suite (Excel, Word, PowerPoint). Modeling simulation software ...

Physics Simulation Python information

See Salisbury, NC salary details

$9.9K

$61.1K

$109.8K

How much do physics simulation python jobs pay per year?

As of May 30, 2026, the average yearly pay for physics simulation python in Salisbury, NC is $61,101.00, according to ZipRecruiter salary data. Most workers in this role earn between $39,800.00 and $71,900.00 per year, depending on experience, location, and employer.

What are the key skills and qualifications needed to thrive as a Physics Simulation Python Developer, and why are they important?

To excel as a Physics Simulation Python Developer, you need a strong background in physics, mathematics, and proficiency in Python programming, often supported by a degree in physics, engineering, or computer science. Familiarity with simulation libraries (such as NumPy, SciPy, PyBullet, or SimPy), version control systems like Git, and experience with visualization tools are commonly required. Analytical thinking, problem-solving abilities, and effective collaboration are standout soft skills in this role. These skills enable the development of accurate, efficient simulations and foster productive teamwork in research or engineering projects.

What are some common challenges faced by professionals working in Physics Simulation with Python, and how can they be addressed?

Professionals in Physics Simulation with Python often encounter challenges such as optimizing simulation performance, ensuring numerical accuracy, and integrating complex libraries (e.g., NumPy, SciPy, PyBullet) into larger workflows. Addressing these issues typically involves using efficient coding practices, leveraging vectorized operations, and validating results with analytical solutions or experimental data. Collaboration with domain experts and regular code reviews can also help maintain code reliability and project scalability. Staying updated with the latest simulation frameworks and actively participating in open-source communities are excellent ways to overcome technical hurdles.

What is a Physics Simulation Python developer?

A Physics Simulation Python developer is a professional who uses the Python programming language to design, implement, and analyze simulations that model physical systems and phenomena. These simulations can range from simple particle motion to complex fluid dynamics or electromagnetic fields, and are widely used in research, engineering, gaming, and education. The developer typically utilizes scientific libraries such as NumPy, SciPy, and PyBullet, and may also work with visualization tools to present simulation results. Their work helps in understanding real-world physics problems, testing hypotheses, or creating realistic interactive environments.

What is the difference between Physics Simulation Python vs Mechanical Engineer?

AspectPhysics Simulation PythonMechanical Engineer
Required CredentialsProgramming skills, knowledge of physics, often a degree in physics or computer scienceMechanical engineering degree, professional licensure in some regions
Work EnvironmentSoftware development, research labs, simulation environmentsDesign offices, manufacturing plants, R&D departments
Industry UsageSimulation software development, research, academiaProduct design, manufacturing, systems optimization

Physics Simulation Python focuses on developing and implementing physics-based simulations using Python programming, often in research or software development contexts. Mechanical Engineers apply engineering principles to design, analyze, and manufacture mechanical systems. While both roles require a strong understanding of physics, Physics Simulation Python emphasizes coding and simulation, whereas Mechanical Engineering involves practical design and application in physical systems.

What job categories do people searching Physics Simulation Python jobs in Salisbury, NC look for? The top searched job categories for Physics Simulation Python jobs in Salisbury, NC are:
What cities near Salisbury, NC are hiring for Physics Simulation Python jobs? Cities near Salisbury, NC with the most Physics Simulation Python job openings:
Sr. Simulation Engineer

Full-time

Posted 16 days ago


Job description

Hayward Holdings Inc. (NYSE "HAYW") is the largest manufacturer of residential swimming pool equipment in the world, with a significant presence in the commercial pool market that is continuously growing. Hayward designs, manufactures, and markets a full line of residential and commercial pool and spa equipment including pumps, filters, heating, cleaners, salt chlorinators, automation, lighting, safety, flow control, and energy solutions at our company-owned facilities. Headquartered in Charlotte, North Carolina, Hayward also has facilities in Tennessee, Arizona, and Rhode Island as well as Canada, Spain, France, Australia, and China. 

The Senior Simulation Engineer is responsible for driving Computational Fluid Dynamics (CFD) analysis across Hayward’s product portfolio, ensuring our pumps, filters, gas heaters, and electronic enclosures meet performance, efficiency, and reliability targets through predictive simulation. Based in our Clemmons, NC facility, this role will provide strategic and hands-on technical competence for fluid, thermal, and multi-physics simulation activities spanning hydraulic turbomachinery, gas combustion, electronics cooling, and system-level fluid dynamics. 

The Senior Simulation Engineer will mentor junior engineers, partner with design, test, and manufacturing teams, and help shape Hayward’s simulation infrastructure and best practices. The ideal candidate will combine deep CFD expertise — particularly in rotating machinery and multiphase flow — with strong communication, problem-solving, and cross-functional collaboration skills to advance Hayward’s leadership in pool equipment innovation.


Strategic Responsibilities 

  • Lead CFD simulation strategy across Hayward’s product portfolio, including residential and commercial pumps, filters, gas heaters, robotic cleaners, salt chlorinators, and electronic control systems.
  • Drive simulation-led design from concept through validation, ensuring predictive analysis is embedded early in the product development process to reduce prototype cycles and accelerate time-to-market.
  • Mentor and develop simulation and design engineers in CFD methodologies, meshing best practices, turbulence modeling, and test correlation.
  • Act as a technical advisor and subject matter expert to engineering leadership, identifying simulation opportunities, influencing product design decisions, and advising on tradeoffs between hydraulic performance, thermal management, manufacturability, and cost.
  • Promote consistent, continuous improvement of simulation practices, tools, scripting/automation libraries, and documentation across Hayward’s global engineering sites.
  • Evaluate and recommend new simulation software and computing infrastructure investments aligned with Hayward’s broad product portfolio rather than narrow specialty needs.

Technical and Operational Responsibilities 

  • Develop and execute CFD models for centrifugal pumps and hydraulic components, including impeller and volute/diffuser analysis, multiphase and cavitation prediction, and efficiency optimization.
  • Perform conjugate heat transfer (CHT) and reacting-flow simulations for gas heaters, and electronics-cooling analyses for variable-speed drives and control electronics.
  • Establish and maintain meshing, turbulence-model, and convergence best practices, including y+ judgment, MRF/sliding mesh setup for rotating machinery, and appropriate use of RANS and (where justified) LES/DES approaches.
  • Own the CFD-to-test correlation loop in partnership with the lab team, including identifying root causes of simulation–test discrepancies and refining models accordingly.
  • Develop scripting and automation workflows (Python, Java macros) to standardize simulation pipelines, run DOEs and design-optimization studies, and improve team productivity.
  • Make effective use of high-performance simulation workstations for transient and large-scale cases.
  • Engage in technical design reviews to identify simulation needs, advise project teams on analysis strategies, and contribute to product design decisions, including a working sense of manufacturability and assembly so that simulation-driven design proposals are practical to implement.
  • Author and maintain simulation process documentation, procedures, and training materials.
  • Collaborate with the FEA, MBD, and 1D system-modeling activities as needed, supporting structural, thermal, NVH, and system-level analyses across the simulation team.

Education 

  • Bachelor’s degree in Mechanical Engineering or Aerospace Engineering. Master’s degree preferred.

Experience 

  • 5+ years of industrial CFD experience, ideally with rotating-equipment exposure.
  • Proficiency with a commercial CFD solver (Star-CCM+, Ansys Fluent, or CFX). 
  • Demonstrated expertise in turbulence modeling (RANS, k-ω SST), meshing (structured and unstructured), MRF and sliding-mesh approaches for rotating machinery, conjugate heat transfer, and multiphase / cavitation modeling.
  • Experience running CFD on high-performance simulation workstations for transient and large-scale cases.
  • Scripting and automation experience (Python preferred; Java macros and MATLAB acceptable).
  • Working knowledge of 3D CAD; SolidWorks preferred (NX or Creo acceptable).
  • Demonstrated ownership of CFD-to-test correlation, including lab and experimental validation.
  • Experience leading or mentoring engineers.

Skills and Attributes (Nice to Have) 

  • Pump and hydraulic turbomachinery domain (strongly relevant): centrifugal pump impeller and volute/diffuser design experience; familiarity with pump-design tools such as AxSTREAM, CFTurbo, BladeGen, or TurboDesign.
  • Adjacent product physics: combustion / reacting-flow simulation for gas heaters; electronics-cooling CFD using general-purpose solvers (Star-CCM+ or Fluent).
  • Adjacent simulation: FEA — structural and thermal (Ansys Mechanical, Abaqus, or equivalent); MBD for NVH (Adams, Recurdyn, Simpack, or equivalent); FSI (fluid–structure interaction); 1D system modeling (Dymola, AMESim, GT-Suite, Flowmaster, or equivalent).
  • Other: awareness of design-for-manufacturing and design-for-assembly principles for high-volume consumer products, sufficient to evaluate the practicality of simulation-driven design proposals; familiarity with relevant standards (Hydraulic Institute for pumps; UL/NSF for pool equipment); experience with open-source CFD (OpenFOAM).
  • Strategic thinker with the ability to balance technical rigor and business priorities.
  • Exceptional communication and presentation skills; able to convey complex simulation results to design, test, and leadership audiences.
  • Excellent problem-solving, analytical, and organizational abilities.
  • Collaborative leadership style.
  • Willingness to travel occasionally for cross-site collaboration, supplier engagement, or industry conferences.

Work Environment 

  • Involves both office and laboratory work. Indoor and outdoor activities are routine requirements of the job.
  • Commonly works around water, mechanical assemblies, and electrical machinery.

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