Air Vehicle Design Engineer, Configuration & OML

Job description

Job responsibilities

• Translate mission and system requirements into feasible aircraft and missile configurations through first-order sizing, layout development, and architecture studies.
• Define, loft, and maintain vehicle OML geometry, including planforms, bodies, noses, control surfaces, inlets, aerodynamic fairings, and propulsion and payload integration.
• Build robust parametric CAD models for OML, internal packaging, subsystem interfaces, and major assemblies that can accommodate changing requirements and configuration trades.
• Develop integrated vehicle layouts that balance aerodynamic performance, weight, packaging, manufacturability, modularity, and subsystem needs.
• Provide configuration geometry and interface definitions to discipline teams, then incorporate analysis results, packaging constraints, and manufacturing feedback into the evolving design.
• Partner with Aerodynamics, Propulsion, Structures, GNC, Manufacturing, and Flight Test to resolve cross-disciplinary issues and keep configurations viable.
• Support prototype fabrication, vehicle integration, and design changes as configurations move into hardware.
• Present configuration alternatives, trade studies, and technical recommendations to engineering leadership and program stakeholders.

Job requirements

• Bachelor's degree in Aerospace Engineering, Mechanical Engineering, or a related engineering discipline.
• 2+ years of professional experience in aircraft, missile, or unmanned vehicle design.
• Experience with conceptual or preliminary vehicle design, including first-order sizing, configuration development, layout, or multidisciplinary trade studies.
• Hands-on experience defining and maintaining vehicle OML geometry, including lofting and surfacing aerodynamic shapes.
• Proficiency in NX, CATIA, Creo, or equivalent CAD software, including parametric modeling and model architectures that support rapid configuration changes.
• Demonstrated ability to translate requirements and engineering constraints into vehicle geometry.
• Working knowledge of aerospace vehicle packaging and the interactions among aerodynamics, propulsion, structures, controls, manufacturing, and mission performance.
• Ability to communicate design rationale, assumptions, and tradeoffs clearly across multidisciplinary teams.