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Finite Element Modeling Jobs in Texas (NOW HIRING)

Demonstrated experience in finite element modeling and analyses codes. * Demonstrated experience with MSC NASTRAN and MSC PATRAN or FEMAP. Preferred Additional Skills: * Experience analyzing ...

Stress Engineer II

San Antonio, TX · On-site

$53 - $72.50/hr

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Develops finite element models to aid in the development of design and certification data. * Provides input and suggestions for continuous improvement of various department procedures, controls ...

NDE Engineer

Houston, TX · On-site

$64K - $83K/yr

Preferred Qualifications • Experience with finite element modeling tools such as COMSOL, ANSYS, or similar software. • Exposure to automation, machine vision, or advanced inspection technologies ...

NDE Engineer

Houston, TX · On-site

$64K - $83K/yr

Preferred Qualifications Experience with finite element modeling tools such as COMSOL, ANSYS, or similar software. Exposure to automation, machine vision, or advanced inspection technologies.

Showing results 41-60

Finite Element Modeling information

See Texas salary details

$22K

$87.8K

$128.4K

How much do finite element modeling jobs pay per year?

As of Aug 15, 2026, the average yearly pay for finite element modeling in Texas is $87,753.00, according to ZipRecruiter salary data. Most workers in this role earn between $70,794.00 and $107,290.00 per year, depending on experience, location, and employer.

What does a finite element modeler do?

A professional in Finite Element Modeling often works on projects involving the analysis and simulation of structures, components, or systems under various physical conditions. This can include stress analysis for mechanical parts, thermal simulations, vibration assessments, and optimizing designs for performance and safety. Daily tasks might involve creating detailed models, setting up boundary conditions, running simulations, and interpreting the results to inform engineering decisions. Collaboration with design engineers, project managers, and manufacturing teams is also common to ensure models align with real-world requirements, making the work both technically challenging and highly impactful.

What is finite element modeling?

A Finite Element Modeling (FEM) job involves using numerical methods to simulate and analyze physical systems under various conditions. Professionals in this field create and refine models to predict structural behavior, thermal performance, fluid dynamics, and other physical phenomena. They work with specialized software like ANSYS, Abaqus, or COMSOL to ensure designs meet performance and safety standards. This role is crucial in industries like aerospace, automotive, civil engineering, and biomedical applications. Strong analytical skills, proficiency in FEM software, and a solid understanding of materials and physics are essential for success in this job.

What are the key skills and qualifications needed to thrive in finite element modeling?

To excel in Finite Element Modeling, a solid background in engineering, applied mathematics, and physics is essential, typically supplemented by a degree in mechanical, civil, or aerospace engineering. Familiarity with specialized simulation software such as ANSYS, Abaqus, or COMSOL, and relevant certifications in these tools, is highly valuable. Strong problem-solving skills, attention to detail, and effective communication are key soft skills for this role. These capabilities enable accurate simulation, clear reporting, and productive collaboration across multidisciplinary engineering teams.

What are popular job titles related to Finite Element Modeling jobs in Texas?

For Finite Element Modeling jobs in Texas, the most frequently searched job titles are:

Infographic showing various Finite Element Modeling job openings in Texas as of August 2026, with employment types broken down into 94% Full Time, and 6% Contract. Highlights an 84% In-person, 12% Hybrid, and 4% Remote job distribution, with an average salary of $87,753 per year, or $42.2 per hour.

Full-time

Re-posted 7 days ago


Job description

Description

Position Summary:  The Design Validation Engineer II is responsible for independently executing structural and crashworthiness validation activities for aircraft seating systems. This role provides specialized technical expertise to demonstrate compliance with FAA, airframer, airline, and internal structural requirements through advanced numerical analysis, classical engineering methods, and correlation with physical test evidence.

The position plays a critical role in certification programs and new product development by owning analysis models, evaluating worst-case loading conditions, and driving design robustness through predictive simulations and data-driven engineering judgment.


Essential Duties and Responsibilities include the following, other duties may be assigned:

  • Execute structural design validation for aircraft seating systems to demonstrate compliance with FAA, airframer, airline, and internal requirements using classical analytical methods, advanced finite element analysis (FEA), and supporting physical test evidence.
  • Perform linear and non-linear static analysis and dynamic crash simulations (e.g., 14G / 16G conditions) using LS-DYNA and equivalent solvers to assess structural integrity, occupant safety, and certification compliance.
  • Develop, own, and maintain finite element models by defining appropriate boundary conditions, material properties, load cases, and modeling techniques to realistically represent certification and operational scenarios.
  • Analyze and correlate physical test results with analytical models to validate assumptions, establish confidence in simulation accuracy, and support certification substantiation.
  • Provide technical guidance to certification programs through assessment of critical load cases, test configurations, and worst-case structural conditions in accordance with regulatory and customer requirements.
  • Drive structural design improvements by evaluating load paths, margins of safety, failure modes, and robustness across multiple configuration variants.
  • Collaborate with design engineering teams on development of new components and seat architectures by providing predictive analysis input and validation feedback to influence early design decisions.
  • Review and assess engineering drawings, MRB dispositions, concessions, and design deviations by performing structural impact assessments to ensure continued compliance with certification and structural integrity requirements.
  • Review and witness component qualification, certification, and abuse load tests by evaluating test plans, setups, and acceptance criteria.
  • Author and review technical analysis summaries and engineering substantiation documentation to support certification findings and internal technical reviews.


Requirements

Education/Experience:

  • A minimum of Four-year B.S. degree is required preferably in Aerospace / Mechanical / other engineering with at least 4 years' experience in aircraft interior products or a Master's degree preferably in Aerospace or Mechanical engineering with at least 2 years' experience in aircraft interior products.

 Technical Skills and Experience Requirements 

  • Organizational skills, self-motivation, a sense of urgency and sensitivity to deadlines, and detail-oriented style are required.
  • Evidence of ability to hand calculate generating reserve factors, at limit and ultimate load conditions using classical methods or methods described by Tom Rhodes.
  • Ability to learn independently
  • At minimum of 2 years of Finite element analysis experience is needed
  • At a minimum 1 year experience in ANSA or similar software and LS-Dyna software is required.
  • Knowledge of Ansys software is desired.
  • Experience in CATIA V4 or V5 or a similar program desired.
  • Experience in Certification is a plus.
  • Internship experience is preferred, but not required.
  • Good verbal and written communication skills are required.
  • The ability to work as part of a team in conjunction with more and or less experienced people.
  • Strong ethical persuasion to seek out the truth in a technical situation.
  • The wisdom to deal with technical challenges with tack and professionalism