1

Aerodynamics Jobs in Indiana (NOW HIRING)

Strong technical knowledge in design methodologies with an understanding of multi-discipline engineering concepts such as manufacturing engineering, aerodynamics, thermodynamics, thermal and ...

New

Demonstrated experience with the design, analysis, and testing of airborne hardware, considering factors such as weight, size, environmental conditions, aerodynamic and inertial forces. At V2X, we ...

Demonstrated experience with the design, analysis, and testing of airborne hardware, considering factors such as weight, size, environmental conditions, aerodynamic and inertial forces. At V2X, we ...

INDYCAR Race Engineer

Indianapolis, IN · On-site

$100 - $125/hr

Expertise in suspension tuning, aerodynamics, and engine calibration * Familiarity with motorsport safety standards and protocols. Who You Are You lead by example with a diverse, accessible, and ...

Showing results 21-40

Aerodynamics information

See Indiana salary details

$73.3K

$89.6K

$115.1K

How much do aerodynamics jobs pay per year?

As of Sep 7, 2026, the average yearly pay for aerodynamics in Indiana is $89,601.00, according to ZipRecruiter salary data. Most workers in this role earn between $79,000.00 and $93,700.00 per year, depending on experience, location, and employer.

What does an aerodynamics job involve?

An aerodynamics job focuses on analyzing and optimizing the performance of vehicles, primarily in aerospace and automotive industries, by studying airflow behavior. Professionals in this field use computational simulations, wind tunnel testing, and mathematical models to reduce drag, improve stability, and enhance fuel efficiency. Typical roles include aerodynamic engineers, CFD analysts, and wind tunnel test engineers. These specialists work closely with design and engineering teams to ensure optimal aerodynamic performance in real-world applications.

What are the key skills and qualifications needed to thrive in aerodynamics?

To thrive in Aerodynamics, you need a strong background in fluid dynamics, physics, and mathematics, typically supported by an engineering degree or related qualification. Proficiency with computational fluid dynamics (CFD) software, wind tunnel testing tools, and simulation platforms is vital. Excellent problem-solving, teamwork, and communication skills are essential for collaborating with multidisciplinary teams and presenting findings. These skills and qualities are important to ensure innovative and efficient aerodynamic designs that meet safety, performance, and regulatory standards.

What does a typical day look like for someone working in aerodynamics?

A typical day in Aerodynamics often involves running simulations using CFD software, analyzing test data from wind tunnels or prototypes, and collaborating with engineers from other disciplines such as mechanical or structural engineering. Professionals frequently participate in team meetings to discuss project progress, troubleshoot design challenges, and refine concepts based on experimental results. You may also be responsible for documenting your analysis and presenting findings to stakeholders or clients. The work environment is typically a mix of office-based technical modeling and hands-on testing, offering a dynamic and engaging routine.

How much do aerodynamics get paid?

Salaries for aerodynamics professionals vary based on experience, education, and location. Entry-level positions typically start around $60,000 annually, while experienced engineers or researchers can earn over $100,000 per year. Skills in computational fluid dynamics (CFD) and aerospace software can influence earning potential.

How to get a job in aerodynamics?

To get a job in aerodynamics, candidates typically need a bachelor's degree in aerospace engineering, mechanical engineering, or a related field, with advanced roles often requiring a master's or Ph.D. in aerodynamics or fluid dynamics. Gaining experience through internships, developing skills in computational fluid dynamics (CFD) software, and obtaining relevant certifications can improve employment prospects. Strong analytical, problem-solving, and technical communication skills are also important in this field.

What are popular job titles related to Aerodynamics jobs in Indiana?

For Aerodynamics jobs in Indiana, the most frequently searched job titles are:

What cities in Indiana are hiring for Aerodynamics jobs?

Cities in Indiana with the most Aerodynamics job openings:

Infographic showing various Aerodynamics job openings in Indiana as of August 2026, with employment types broken down into 76% Full Time, 22% Part Time, and 2% Contract. Highlights an 79% Physical, 3% Hybrid, and 18% Remote job distribution, with an average salary of $89,601 per year, or $43.1 per hour.

Structural Analyst

PROMETHEUS ENERGETICS, LLC

Bloomington, IN • On-site

$125 - $150/hr

Other

Medical, Dental, Vision, Life, Retirement, PTO

Posted 18 days ago


Job description

About Prometheus Energetics

Prometheus Energetics is an independent U.S.-based merchant supplier of solid rocket motors and warheads. A joint venture between Kratos Defense & Security Solutions and Rafael Advanced Defense Systems, Prometheus combines U.S. industrial speed and credibility with decades of combat-proven designs, manufacturing know-how, and technical training to deliver field-ready products at scale.

Position Summary

Prometheus Energetics is seeking an experienced Structural Analyst / Senior Structural Analyst to serve as a primary technical authority for the structural integrity, finite element analysis (FEA), and fracture mechanics of Solid Rocket Motor (SRM) structures. Reporting directly to the Director of Engineering, this role owns the structural lifecycle—from initial sizing and material characterization through coupled load modeling, qualification testing, and high-rate production support.

Solid Rocket Motor hardware operates under severe structural environments: extreme internal pressures, high motor case growth, intense thermal‑mechanical stresses, structural vibration, high‑g acceleration, and viscoelastic grain strain. The ideal candidate brings 4 to 10 years of hands‑on structural engineering experience in composite/metallic pressure vessels, nozzles, or energetic propellant grain mechanics, combining advanced computational modeling skills with practical experience in structural test correlation and factory floor integration.

Key Responsibilities Structural Design & Material Evaluation
  • Lead structural sizing, margin-of-safety assessments, and strength evaluations for solid rocket motor components, including composite filament-wound cases, metallic pressure vessels, nozzle structures, igniter housings, and interstage structures.
  • Evaluate orthotropic and anisotropic material behavior for composite structures (e.g., carbon fiber/epoxy wet-wound and prepreg layups) and high‑strength metallic alloys (e.g., titanium, maraging steel, aluminum).
  • Characterize viscoelastic material behavior, structural margin, and cumulative damage models for solid propellant grains, liners, and insulation bond lines across storage, transportation, thermal cycling, and operational firing profiles.
  • Define structural interface requirements, fastener joint designs, skirts, polar cleats, and bond line shear limits to ensure structural integrity across proof testing, flight, and post-burn heat‑soak environments.
  • Support scalable manufacturing processes (e.g., fiber placement, automated tape laying, hand layup, hydrotesting, and machining) to transition structural designs from prototype into high‑rate production.
Structural Modeling & Analysis
  • Develop and maintain complex 2D and 3D finite element models (FEM) using industry‑standard tools (e.g., Abaqus, ANSYS, Nastran/Patran, HyperMesh, or custom solvers).
  • Perform linear and non‑linear static, dynamic, modal, random vibration, transient response, and buckling analyses for primary and secondary motor structures.
  • Conduct coupled thermal‑structural and pressure‑stress analyses, incorporating temperature‑dependent material properties, internal ballistics pressure‑time curves, and aerodynamic flight loads.
  • Execute fracture mechanics, damage tolerance, fatigue life, and composite ply‑by‑ply progressive failure analyses (e.g., Tsai‑Wu, Hashin criteria) to establish structural margins of safety.
  • Conduct trade studies and optimization to minimize structural mass while maintaining required structural safety factors (e.g., MIL‑STD‑1522A, NASA‑STD‑5001).
Structural Testing, Qualification & Model Correlation
  • Plan, execute, and analyze structural test campaigns, including hydro burst testing, proof pressure testing, modal survey testing, structural load cell calibration, and environmental vibration/shock tests.
  • Collaborate with test engineers to define instrumentation requirements, specifying strain gauge placement, rosette configurations, displacement sensors (LVDTs, DIC), and load cell locations.
  • Correlate analytical predictions against measured test data (strain profiles, growth rates, burst pressures, resonance frequencies) to validate and refine finite element models.
  • Lead structural root‑cause investigations and failure review boards (FRACAS/MRB) for structural anomalies, such as composite delamination, bond line debonding, yield nonconformances, or premature pressure vessel failure.
Cross‑Functional Leadership & Program Support
  • Work directly with internal ballisticians, thermal analyst counterparts, materials scientists, and manufacturing engineers to deliver fully integrated motor designs on schedule.
  • Author clear structural analysis reports (SAR), stress documentation, material design allowables decks, and qualification verification artifacts.
  • Present technical findings, margin summaries, and structural design rationale at major program milestones (PDR, CDR, TRR, MRB).
  • Serve as a technical mentor to junior engineering staff in finite element techniques, composite failure criteria, and structural verification methodologies.
  • Ensure strict compliance with ITAR, EAR, site energetics safety standards, and environmental safety guidelines across all design and lab operations.
Required Qualifications
  • Bachelor’s degree in Aerospace Engineering, Mechanical Engineering, Structural Engineering, or a closely related technical field from an accredited institution.
  • Experience:
    • Structural Analyst: Minimum of 4–6 years of relevant experience in finite element analysis, composite materials stress analysis, or aerospace structural engineering.
    • Senior Structural Analyst: 7–10+ years of progressive engineering experience owning structural stress analysis, composite pressure vessel sizing, and structural qualification for solid rocket motors or launch vehicles.
  • Proficiency in advanced FEA environments (e.g., Abaqus, ANSYS, Nastran, Patran, HyperMesh) and composite layup analysis tools.
  • Strong foundation in solid mechanics, composite materials theory, fracture mechanics, non‑linear material response, and fatigue/damage tolerance analysis.
  • Direct experience planning or supporting structural testing (hydroburst, proof pressure, strain gauge instrumentation, modal testing).
  • Regulatory: U.S. Citizenship required (position involves ITAR/EAR restricted technology).
  • Clearance: Ability to obtain and maintain a U.S. Government Secret Security Clearance.
Preferred Qualifications
  • Master’s Degree or Ph.D. in Aerospace, Mechanical, or Structural Engineering with a focus on composite materials, non‑linear FEA, or structural dynamics.
  • Active U.S. Government Secret Security Clearance.
  • Direct experience with Filament Wound Composite Pressure Vessels (COPV), composite skirt joint design, or nozzle structural analysis.
  • Experience with viscoelastic material modeling for solid propellant grain structural integrity (slump, thermal stress, storage aging).
  • Applied scripting experience in Python, MATLAB, or APDL/Abaqus user subroutines (UMAT/VUMAT) for automated mesh generation, post‑processing, or custom material law implementation.
  • Knowledge of aerospace pressure vessel standards (e.g., AIAA S-080/S-081, MIL‑STD‑1522A, NASA‑STD‑5001).
Work Environment & Physical Requirements
  • Work is performed in office, machine shop, laboratory, and energetics manufacturing environments, including high‑hazard areas subject to enhanced safety and security controls.
  • Must be able to wear required personal protective equipment (PPE) and comply with site safety, explosive‑safety, electrostatic discharge (ESD), and access‑control requirements.
  • Ability to move throughout a manufacturing site, inspect physical tooling, participate in shop‑floor audits, and occasionally lift up to 25 pounds.
  • Regular, reliable attendance is required. Periodic travel to vendor machine shops, secondary company facilities, or customer sites may be required during startup, tool qualification, or critical production events.
Benefits
  • Medical, dental, and vision insurance
  • Life and AD&D insurance; short- and long‑term disability coverage
  • 401(k) savings plan
  • Paid time off and company holidays
Equal Opportunity Employer

Prometheus Energetics is an Equal Opportunity Employer. All qualified applicants will receive consideration for employment without regard to race, color, religion, sex, sexual orientation, gender identity, national origin, age, pregnancy, genetic information, disability, protected veteran status, or any other status protected by applicable federal, state, or local law.

#J-18808-Ljbffr