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Python Mechanical Engineer Jobs in Fayetteville, NC

System Engineer

Hope Mills, NC · On-site

$71 - $98/hr

Perform advanced electrical, mechanical, and automation troubleshooting to resolve production ... Working knowledge of SQL, Python, and Linux for diagnostics, log review, and system interaction.

Perform advanced electrical, mechanical, and automation troubleshooting to resolve production ... Working knowledge of SQL, Python, and Linux for diagnostics, log review, and system interaction.

Perform advanced electrical, mechanical, and automation troubleshooting to resolve production ... Working knowledge of SQL, Python, and Linux for diagnostics, log review, and system interaction.

System Engineer

Hope Mills, NC · On-site

$71 - $98/hr

Perform advanced electrical, mechanical, and automation troubleshooting to resolve ... Working knowledge of SQL, Python, and Linux for diagnostics, log review, and system interaction.

Python Mechanical Engineer information

See Fayetteville, NC salary details

$21.1K

$128.6K

$186.1K

How much do python mechanical engineer jobs pay per year?

As of Aug 23, 2026, the average yearly pay for python mechanical engineer in Fayetteville, NC is $128,632.00, according to ZipRecruiter salary data. Most workers in this role earn between $101,500.00 and $151,200.00 per year, depending on experience, location, and employer.

What does a Python mechanical engineer do?

A Python Mechanical Engineer is a professional who combines mechanical engineering expertise with proficiency in the Python programming language. They often use Python to automate simulations, analyze engineering data, create custom computational tools, and develop scripts for design optimization. Their work can involve tasks such as automating CAD processes, running finite element analysis, or integrating hardware and software systems. This combination of skills is increasingly valuable in industries that emphasize digital engineering and automation.

How does a Python mechanical engineer typically collaborate with cross-functional teams during product development?

Python Mechanical Engineers often work closely with electrical engineers, software developers, and product managers throughout the product development cycle. Their role involves integrating Python-based automation and simulation tools with mechanical design processes, which requires clear communication and coordination to ensure compatibility and efficiency. Regular meetings, collaborative project management platforms, and shared documentation are commonly used to align goals and resolve technical challenges. This cross-disciplinary teamwork not only enhances product quality but also provides valuable opportunities for professional growth and learning.

What are the key skills and qualifications needed to thrive as a Python mechanical engineer, and why are they important?

To thrive as a Python Mechanical Engineer, you need a solid foundation in mechanical engineering principles, strong programming skills in Python, and typically a bachelor’s degree in mechanical engineering or a related field. Familiarity with simulation and modeling tools like ANSYS or SolidWorks, as well as experience with Python libraries such as NumPy and pandas, is highly beneficial. Problem-solving abilities, effective communication, and adaptability set candidates apart in this role. These skills are essential for efficiently designing, analyzing, and automating engineering processes, leading to innovative and optimized mechanical solutions.

What is the difference between Python Mechanical Engineer vs Mechanical Design Engineer?

AspectPython Mechanical EngineerMechanical Design Engineer
Required SkillsPython programming, mechanical engineering fundamentalsMechanical design, CAD software, engineering principles
Work EnvironmentSoftware development teams, engineering labsDesign offices, manufacturing facilities
CertificationsOptional Python or software certifications, engineering licensesProfessional Engineer (PE), CAD certifications
Industry UsageAutomation, robotics, simulationProduct design, machinery, structural components

The main difference between a Python Mechanical Engineer and a Mechanical Design Engineer lies in their focus areas. Python Mechanical Engineers combine programming skills with mechanical engineering knowledge to develop automation and simulation tools, while Mechanical Design Engineers focus on creating physical product designs using CAD software. Both roles are essential in engineering projects but serve different functions within the industry.

Are Python Mechanical Engineers in demand?

Python Mechanical Engineers are in demand as companies seek professionals who can integrate Python programming with mechanical systems, automation, and data analysis. Skills in Python, CAD software, and control systems increase employability in industries like manufacturing, robotics, and engineering design.

What are popular job titles related to Python Mechanical Engineer jobs in Fayetteville, NC?

For Python Mechanical Engineer jobs in Fayetteville, NC, the most frequently searched job titles are:

What job categories do people searching Python Mechanical Engineer jobs in Fayetteville, NC look for?

The top searched job categories for Python Mechanical Engineer jobs in Fayetteville, NC are:

What cities near Fayetteville, NC are hiring for Python Mechanical Engineer jobs?

Cities near Fayetteville, NC with the most Python Mechanical Engineer job openings:

Materials Process Engineer - Metals

Vulcan Elements

Benson, NC • On-site

Full-time

Re-posted 16 days ago


Job description

Vulcan Elements is manufacturing American rare-earth permanent magnets for a secure, resilient future. With a focus on national security and economic resiliency, we serve critical industries such as defense, aerospace, and automotive powering a high-technology future. Vulcan Elements is building a team of ambitious professionals committed to Mission Focus, Technical Excellence and Transparency.

As a Materials and Process Engineer with a metals focus, you will build and validate computational models of fluid dynamics, heat transfer, electromagnetic behavior, and mechanical response across key process steps, providing engineering insight that drives process optimization and supports product development. This is a technical role requiring strong fundamentals in computational mechanics, experience with commercial simulation platforms, and the ability to translate modeling results into actionable manufacturing guidance. This role begins in Durham, NC and is expected to move to Benson, NC upon completion of new facility.

Responsibilities

  • Model thermal conditions during manufacturing processes such as sintering, heat treatment, and casting.
  • Create representative models for various manufacturing processes including fluid dynamics, mechanical behavior, heat transfer, and electromagnetic phenomena.
  • Use models combined with process data to support process improvement and optimization.
  • Build and refine simulations using ANSYS (Mechanical, Maxwell, ROCKY, Fluent), COMSOL Multiphysics, or equivalent commercial simulation platforms.
  • Collaborate with process, materials, and data engineers to integrate simulation outputs into process development and optimization workflows.
  • Design simulation studies to evaluate process sensitivities, identify failure modes, and guide experimental campaigns.
  • Document modeling assumptions, boundary conditions, validation results, and recommendations in a structured manner consistent with quality system requirements.
  • Support development of custom scripts and automation tools (Python, MATLAB, or similar) for pre/post-processing of simulation data.

Responsibilities and tasks outlined are not exhaustive and may change as determined by the needs of the business.

Qualifications

  • B.S. or higher in Mechanical Engineering, Aerospace Engineering, Materials Science and Engineering, or a closely related field.
  • Demonstrated experience building and validating process models using ANSYS (e.g., Mechanical, Maxwell, ROCKY, Fluent), COMSOL Multiphysics, or equivalent commercial simulation software.
  • Strong working knowledge of computational fluid dynamics (CFD), heat transfer modeling, and mechanical stress/strain analysis.
  • Proficiency with scripting languages (Python, MATLAB, or similar) for simulation setup, data extraction, and post-processing.
  • Ability to work independently, manage multiple concurrent modeling efforts, and communicate results clearly to cross-functional teams.

Must be a U.S. Person due to required access to U.S. export-controlled information or facilities.

Preferred Qualifications

  • Experience modeling metal manufacturing processes such as sintering, casting, powder compaction, forging, or heat treatment.
  • Experience modeling particle-level interactions including powder packing, granular flow, or discrete element methods (DEM).
  • Experience with electromagnetic modeling and simulation (e.g., ANSYS Maxwell) for magnetic field analysis or electromagnetic process design.
  • Familiarity with phase-field, CALPHAD, or other microstructure-evolution modeling approaches.
  • Experience with Multiphysics coupled simulations (e.g., thermo-mechanical, fluid-structure interaction).
  • Familiarity with GPU-accelerated computing, HPC environments, or cloud-based simulation platforms.
  • Experience in a production, industrial, or R&D environment with exposure to manufacturing constraints and process validation.

Physical and Environmental Requirements

The position requires regular presence on the production floor and the ability to navigate all areas of the facility. Candidates must be able to climb stairs, stand and walk for extended periods, and work in environments that may be hot, humid, or noisy. The role also requires the use of personal protective equipment, including respirators, and adherence to all applicable safety policies, procedures, and regulatory requirements. Employees must be able to complete required fit testing, wear appropriate PPE for the duration of assigned tasks, and respond safely to changing conditions within the production environment.

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