Aerospace Engineering — P6

AEROSP.AEROSPACAFB1.P6

P6P6 — Principal Professionalhigh0.80approvedglobalv1

Focuses on the design, analysis, and certification of aircraft and spacecraft structures and aerodynamic systems — including fuselage and wing structural analysis, computational fluid dynamics for airflow modeling, stress testing of components, and integration of subsystems across disciplines. Distinct from propulsion-specific focuses (engine and powerplant design) and avionics/controls focuses; this focus owns airframe, aerodynamics, structural stress, and systems-level certification work.

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Level

P6 · P6 — Principal Professional · 12–18 yrs

Function · Focus

Aerospace & Propulsion Engineering · Aerospace Engineering

Market pay (median)

$188k ($148k–$240k)

Pay basis

function-anchored · wide bars

Focus — Aerospace Engineering

Material PAY and SKILL differential vs the function baseline.

Responsibilities by level

What this person actually does at each level on the professional track — escalating scope, not one generic blob. Your level is highlighted.

Supports senior engineers with design analysis and routine simulations, performing stress tests on components under close supervision.
Learns CAD software (AutoCAD, CATIA, SolidWorks) and documents technical findings following defined procedures.
Transforms conceptual designs into deliverables and converts measured data into CAD models, generating inspection reports.
Models airflow around fuselage designs and analyzes stress loads on wing structures using provided methods and templates.
Participates in standard testing procedures and records results for review by experienced staff.

Takes ownership of larger subsystems with growing autonomy, leading the design process for specific system components.
Performs advanced computational fluid dynamics simulations to evaluate aerodynamic performance of airframe designs.
Develops technical reports and presents findings to management within defined project scope.
Formulates mathematical models to evaluate or modify designs per customer requirements using MATLAB and Simulink.
Contributes to design reviews and may mentor junior engineers on simulation and CAD workflows.

Manages small to medium-sized projects and coordinates cross-functional teams to deliver airframe and aerodynamic solutions.
Leads small project teams and contributes substantively to design reviews across structural and aerodynamic disciplines.
Begins interfacing directly with customers or regulatory agencies on design requirements and compliance questions.
Evaluates identifiable design factors independently, planning day-to-day work toward project milestones.
Analyzes results of stress tests and CFD studies to recommend design refinements with milestone-level review.

Directs entire projects and manages engineering teams across structural, aerodynamic, and systems disciplines.
Leads complex subsystem designs and oversees integration across disciplines, selecting analysis methods for complex variables.
Defines requirements, approves critical drawings, and steers certification evidence generation against aerospace standards.
Drives root-cause analyses for in-service issues and recommends design changes based on in-depth analysis.
Mentors junior staff and represents engineering during design reviews and supplier audits.

Acts independently on broad and strategic airframe and aerodynamic assignments contributing to company program objectives.
Designs and supervises construction of aircraft and associated parts, resolving intangible design trade-offs.
Conducts research on flight characteristics and applies findings to advance design approaches across programs.
Serves as external spokesperson with customers and regulatory agencies on certification pathways and technical strategy.
Builds influential networks and provides expert guidance on complex systems engineering issues.

P6this profile

Owns the design and analysis of innovative engineering solutions across the full aircraft lifecycle with full independence.
Provides technical leadership and serves as primary technical authority on airframe, aerodynamic, and structural matters.
Serves as report signatory for test reports, ensuring accuracy and traceability of certification evidence.
Conducts R&D to advance technology and shapes field-defining structural and aerodynamic design approaches.
Provides high-level mentorship to senior engineers and influences peer professionals across the engineering organization.

Sets long-term technical direction for airframe and aerodynamic engineering, anticipating emerging challenges and defining roadmaps.
Solves ambiguous, precedent-free aerospace design problems with broad business and industry consequences.
Develops new models, analysis methods, or technologies that advance structural and CFD engineering practice.
Networks with executives, regulators, and industry leaders, persuading senior stakeholders on certification and technical strategy.
Shapes company-wide aerospace engineering capability and provides high-level mentorship to principal and senior professionals.

Level guidelines

The universal leveling rubric applied to this function — how scope, complexity, collaboration, and experience step up across levels.

Level	Knowledge & Application	Complexity & Problem Solving	Collaboration & Interaction	Typical Degree & Years
P1	Applies foundational engineering science, mathematics, and physics to routine simulations and stress tests using standard methods; learning CAD tools and documentation conventions.	Solves routine, well-defined problems with standard answers, such as modeling airflow on a fuselage or converting measured data to CAD models.	Works within stable internal relationships, supporting senior engineers and documenting findings under supervision.	0–1 years; new graduate or intern with a degree in aerospace or mechanical engineering.
P2	Applies engineering principles and CFD/stress-analysis techniques to conventional subsystem tasks; uses MATLAB, Simulink, and CAD platforms with growing proficiency.	Exercises judgment in familiar contexts, formulating mathematical models and running advanced CFD simulations within defined procedures.	Builds productive project relationships, presents findings to management, and may mentor junior staff.	2+ years with a BA/BS, or MS/PhD with limited experience; roughly 3–7 years of progression.
P3	Applies in-depth knowledge across structural, aerodynamic, and systems domains to diverse problems, evaluating identifiable factors with moderate independence.	Analyzes stress and CFD results to evaluate design factors, planning work and resolving diverse problems toward milestones.	Networks with senior professionals, coordinates project activities, and begins interfacing with customers and regulatory agencies.	5+ years (BA), 3 years (MA), or PhD without experience; approximately 7–10 years cumulative.
P4	Applies deep expertise to complex airframe and integration issues with functional impact; selects analysis methods and certification approaches.	Performs in-depth analysis of complex variables, drives root-cause analyses of in-service issues, and steers certification evidence.	Coordinates across groups, leads or supervises project teams, and represents engineering in design reviews and supplier audits.	8+ years, often with graduate education and demonstrated project leadership.
P5	Applies expert mastery to strategic, high-uncertainty design assignments; resolves intangible trade-offs and advances design approaches across programs.	Tackles strategic issues with high independence, conducting research on flight characteristics and resolving problems lacking clear precedent.	Builds influential networks, acts as external spokesperson with customers and regulators on certification and technical strategy.	12+ years with extensive aerospace structural and aerodynamic expertise.
P6	Applies field-defining expertise as primary technical authority across the aircraft lifecycle; signs test reports and shapes structural/CFD methodologies.	Solves critical, broad-design problems with visionary judgment, conducting R&D to advance aerospace technology.	Operates with full independence, influences industry and company practice, and provides high-level mentorship to senior engineers.	15+ years; principal expert, often PhD with recognized industry leadership.
P7	Develops new theories, models, and technologies that advance airframe and aerodynamic engineering; sets long-term technical roadmaps.	Solves ambiguous, precedent-free problems with broad business and industry consequences, anticipating emerging challenges.	Networks with executives, boards, regulators, and industry leaders; persuades and educates senior stakeholders on strategic priorities.	20+ years, or equivalent recognition (often PhD with significant industry contributions, patents, or publications).

Skills

Focus-specific skills the role applies — the relevance layer beyond the occupational base.

Engineering and Technology: Applies engineering science to the design and production of aircraft structures and aerodynamic systems.
Mathematics: Applies arithmetic, algebra, geometry, calculus, and statistics to aerospace analysis, design, and troubleshooting.
Design: Applies techniques, tools, and principles to produce precision technical plans, blueprints, drawings, and CAD models of airframe components.
Physics: Applies fluid, material, and atmospheric dynamics and mechanical/electrical principles to airframe and aerodynamic engineering.
Computers and Electronics: Applies knowledge of computer hardware, software, and electronic systems to aerospace design and simulation tasks.
Stress Analysis: Performs stress tests on components and analyzes stress loads on structures such as wings and fuselages.
Computational Fluid Dynamics: Models airflow and aerodynamic performance around airframe designs through advanced simulations.
Systems Integration: Oversees integration and performance of subsystems across multiple aerospace engineering disciplines.
Certification and Regulatory Compliance: Generates certification evidence and ensures compliance with aerospace standards and regulatory agency requirements.
MATLAB: Uses this tool effectively during the delivery of day-to-day aerospace analysis and modeling tasks.
MathWorks Simulink: Uses this tool effectively during the delivery of day-to-day modeling and simulation tasks.
Dassault Systèmes CATIA: Uses this tool effectively during the delivery of day-to-day airframe design and modeling tasks.
Dassault Systèmes SolidWorks: Uses this tool effectively during the delivery of day-to-day component design tasks.
Autodesk AutoCAD: Uses this tool effectively during the delivery of day-to-day technical drawing and CAD tasks.
PTC Creo Parametric: Uses this tool effectively during the delivery of day-to-day parametric design tasks.

Provenance

The evidence base behind this profile — every layer is sourced; quality is scored by an adversarial review panel (1–5; passes at ≥4 on the minimum dimension).

Level differentiation4.5Focus specificity5.0Concreteness4.5Factual accuracy4.5Real-world coverage4.0

13 sources

Level — P6 — Principal Professional

Top individual contributor; recognized authority with strategic impact, equivalent to a low executive level

Scope: Organization-wide architecture and the hardest problems
Autonomy: Defines direction; minimal oversight
Complexity: Strategic, open-ended problems shaping the technical future
Impact: Organization-wide
Decision rights: Sets technical strategy for a major area
Leadership: Recognized authority; multiplies many teams
Typical experience: 12–18 yrs

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