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Aerodynamics Engineer Jobs in Madison, WI (NOW HIRING)

Aircraft Loft Engineer

Oregon, WI · On-site

$125 - $150/hr

The Role Haast is seeking a Senior CAD Loft Engineer to own the geometric definition and master CAD ... You will convert aerodynamic inputs, airfoil data, packaging requirements, and preliminary aircraft ...

New

Aerospace Engineer

Oregon, WI · On-site

$100 - $125/hr

Diagnose issues--whether aerodynamic, controls, structure, propulsion, sensors, or operations * Transform flight data into actionable engineering improvements * Collaborate closely with mechanical ...

Overview The Application Engineer serves as the primary technical resource supporting both field ... Strong knowledge of acoustics, filtration, aerodynamics, and exhaust after-treatment principles.

They can engineer, build, install, and service the full set of components required to manage noise ... aerodynamic and emissions principles and applications and instrumentation and test protocols and ...

They can engineer, build, install, and service the full set of components required to manage noise ... Basic knowledge of acoustical, aerodynamic and emissions principles and applications and ...

Aerodynamics Engineer information

See Madison, WI salary details

$77.6K

$94.9K

$121.9K

How much do aerodynamics engineer jobs pay per year?

As of Sep 7, 2026, the average yearly pay for aerodynamics engineer in Madison, WI is $94,894.00, according to ZipRecruiter salary data. Most workers in this role earn between $83,600.00 and $99,300.00 per year, depending on experience, location, and employer.

What does an aerodynamics engineer do?

To achieve flight, heavier-than-air objects like planes or rockets must conform to certain principles of aerodynamics. Aerodynamics is the study of the motion of air and its interaction with solid objects. An aerodynamics engineer tests aerospace designs, such as aircraft bodies and propulsion systems to ensure they meet all aerodynamic specifications and conform to the physical laws of aerodynamics. Your duties and responsibilities include designing mathematical models and simulations to test designs before firms construct prototypes or full products. You also work to improve the efficiency of existing designs.

What are the key skills and qualifications needed to thrive as an aerodynamics engineer, and why are they important?

To thrive as an Aerodynamics Engineer, you need strong knowledge of fluid dynamics, computational modeling, and a degree in aerospace or mechanical engineering. Familiarity with tools like CFD software (e.g., ANSYS Fluent, OpenFOAM), wind tunnel testing, and experience with CAD systems are typically required. Critical thinking, problem-solving, and effective communication are key soft skills that help in cross-functional teamwork and innovative design. These skills and qualities are vital for optimizing designs, ensuring safety, and advancing aerodynamic performance in various industries.

What are some common challenges aerodynamics engineers face when collaborating with multidisciplinary teams?

Aerodynamics Engineers often work closely with professionals from structural engineering, manufacturing, and systems integration. One common challenge is balancing aerodynamic performance with structural and cost constraints, which requires clear communication and compromise. Additionally, integrating feedback from different teams while ensuring that aerodynamic goals are met can be complex and requires strong project management skills. Regular meetings and effective use of simulation tools help streamline the collaboration process.

What is the difference between Aerodynamics Engineer vs Aerospace Engineer?

AspectAerodynamics EngineerAerospace Engineer
Required CredentialsBachelor's or Master's in Aerospace, Mechanical, or Aeronautical EngineeringBachelor's or Master's in Aerospace, Mechanical, or related engineering fields
Work EnvironmentDesign labs, wind tunnels, simulation software, aircraft or vehicle testing sitesDesign, development, testing of aircraft, spacecraft, and related systems
Industry UsagePrimarily in aeronautics, automotive, and defense sectors focusing on airflow and performanceBroader aerospace sector including aircraft, spacecraft, satellites, and defense systems

While both roles require similar educational backgrounds and often work in related environments, Aerodynamics Engineers focus specifically on airflow and performance optimization, whereas Aerospace Engineers have a broader scope including design and development of entire aerospace systems.

How much do aerodynamics engineers make?

Aerodynamics engineers typically earn a median annual salary of around $80,000 to $120,000, depending on experience, education, and location. Senior roles or those working in aerospace or defense industries can earn higher salaries, often exceeding $150,000. Skills in computational fluid dynamics (CFD) and proficiency with simulation tools can also influence compensation.

What are popular job titles related to Aerodynamics Engineer jobs in Madison, WI?

For Aerodynamics Engineer jobs in Madison, WI, the most frequently searched job titles are:

What job categories do people searching Aerodynamics Engineer jobs in Madison, WI look for?

The top searched job categories for Aerodynamics Engineer jobs in Madison, WI are:

Infographic showing various Aerodynamics Engineer job openings in Madison, WI as of August 2026, with employment types broken down into 100% Full Time. Highlights an 100% In-person job distribution, with an average salary of $94,894 per year, or $45.6 per hour.

Aircraft Loft Engineer

Haast Autonomous

Oregon, WI • On-site

$125 - $150/hr

Other

Posted 3 days ago

New


Job description

Haast Autonomous is building an autonomous aircraft network for time-sensitive medical logistics. We’re developing long-range VTOL aircraft, autonomy software, and the operational foundation needed to move critical payloads between hospitals, labs, and healthcare facilities on-demand faster and more reliably.

We’re early, small, and moving quickly. Joining now means you'll have a direct role in shaping the foundation of Haast — our culture, engineering process, testing discipline, partner relationships, and the path from prototype to a real medical logistics network.

We’re looking for high-agency people who want ownership, urgency, and system‑level impact from day one.

The Role

Haast is seeking a Senior CAD Loft Engineer to own the geometric definition and master CAD models for our aircraft.

This is a highly specialized CAD position focused on aircraft lofting, advanced surfacing, outer-mold-line development, and production‑quality design definition. You will convert aerodynamic inputs, airfoil data, packaging requirements, and preliminary aircraft layouts into precise, continuous, manufacturable aircraft geometry.

You will be responsible for establishing and maintaining the master aircraft model from which structures, tooling, molds, drawings, and production parts are developed. Approximately 70–80% of this role will involve CAD modeling, surfacing, product definition, and drawing release.

The ideal candidate has previously lofted complete aircraft or major airframe sections and can demonstrate aircraft geometry that has been manufactured, assembled, and flown.

Responsibilities
  • Own and maintain the authoritative master CAD model and outer mold line for Haast aircraft.

  • Develop complete aircraft lofts from airfoil coordinates, aerodynamic surfaces, station data, packaging envelopes, and configuration layouts.

  • Create production‑quality surfaces for the fuselage, wings, wing‑body intersections, fairings, nacelles, booms, empennage, payload doors, access panels, and propulsion integrations.

  • Establish aircraft coordinate systems, reference geometry, waterlines, buttock lines, fuselage stations, master sections, datums, and interface locations.

  • Build robust parametric models using master sketches, skeleton models, guide curves, boundary surfaces, multi‑section lofts, and top‑down design methods.

  • Maintain appropriate positional, tangent, and curvature continuity across complex aircraft surfaces.

  • Evaluate surface quality using curvature analysis, zebra analysis, deviation checks, section cuts, and other CAD inspection methods.

  • Convert outer-mold-line surfaces into manufacturable composite structures, skins, cores, bulkheads, ribs, spars, frames, and bonded assemblies.

  • Develop accurate split lines, trim definitions, offsets, tooling surfaces, molds, plugs, fixtures, and assembly references.

  • Ensure that aerodynamic surfaces remain controlled as structural, payload, propulsion, avionics, and manufacturing requirements evolve.

  • Manage external references, model dependencies, naming conventions, configurations, revisions, and released CAD data.

  • Identify and resolve surface gaps, discontinuities, intersections, minimum‑radius problems, thickness conflicts, and non‑manufacturable geometry.

  • Produce detailed part models, assemblies, engineering drawings, interface‑control drawings, GD&T, tolerance definitions, and bills of materials.

  • Work closely with aerodynamicists, structural engineers, manufacturing partners, and the flight‑test team to incorporate design changes without degrading the master geometry.

  • Support fabrication and assembly by investigating CAD discrepancies, tooling issues, part‑fit problems, and deviations from design intent.

  • Help establish Haast’s standards for CAD architecture, geometric control, drawing release, and configuration management.

Required Qualifications
  • At least two years of professional experience in aircraft lofting, airframe surface design, aerospace CAD, or aircraft product definition.

  • Demonstrated experience developing the outer mold line or master geometry for a complete aircraft or major airframe assembly.

  • Expert proficiency in CATIA, Siemens NX, Creo, SolidWorks, or an equivalent production CAD platform.

  • Advanced capability in complex surfacing, multi‑section lofting, guide‑curve development, boundary surfaces, surface trimming, blending, and repair.

  • Strong understanding of surface continuity, spline behavior, curvature control, and the relationship between aerodynamic intent and manufacturable geometry.

  • Experience with aircraft coordinate systems, airfoil data, wing planforms, fuselage sections, aerodynamic intersections, and control‑surface geometry.

  • Experience building stable master‑model or skeleton‑model CAD architectures that support multiple engineers and downstream parts.

  • Ability to translate conceptual aircraft geometry into production‑quality models, drawings, tooling, and manufacturing data.

  • Understanding of GD&T, tolerance analysis, engineering drawings, assembly interfaces, and configuration control.

  • Experience with composite, molded, machined, or fabricated aerospace structures.

  • Portfolio or work samples demonstrating complex aircraft lofting and surfacing work.

Preferred Qualifications
  • Experience with fixed‑wing UAV, eVTOL, general‑aviation, or experimental‑aircraft development.

  • Experience lofting composite fuselages, wings, fairings, nacelles, payload doors, and aerodynamic transitions.

  • Proficiency with CATIA Generative Shape Design, Siemens NX Shape Studio, or equivalent advanced surfacing environments.

  • Experience importing, cleaning, and controlling airfoil coordinates and aerodynamic reference geometry.

  • Familiarity with PDM or PLM systems, model‑based definition, release workflows, and aerospace configuration‑control practices.

  • Experience developing molds, tooling surfaces, trim fixtures, assembly jigs, and composite manufacturing data.

  • Familiarity with CFD geometry preparation, mesh‑ready surface cleanup, and exchanging geometry with aerodynamic‑analysis tools.

  • Hands‑on experience supporting aircraft fabrication, assembly, inspection, and flight testing.

What Success Looks Like

Within your first several weeks, you will establish a clean and controlled master aircraft model, improve the quality and stability of Haast’s outer‑mold‑line geometry, and create a reliable CAD foundation for structural design, tooling, manufacturing, and future aircraft configurations.

Your work will allow Haast to move from rapidly evolving prototype geometry to accurate, repeatable, production‑ready aircraft definition.

We care more about agency, ownership, taste, and evidence that you can build than whether you match every bullet point. If you have worked on aircraft, drones, robots, vehicles, rockets, or other hard technical systems and want to help build something from the ground up, we want to hear from you.

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