Sr Advanced Systems Engr

Senior Advanced System Engineer

• MBSE, Engines/APU Aerospace Systems Engineering | Model-Based Systems Engineering | INCOSE CSEP Experience: 10+ years in Aerospace, with strong systems engineering depth Certification: INCOSE CSEP required Domain: Engines, Auxiliary Power Unit, propulsion or power systems Core Skill: MBSE methods, architecture, requirements, V&V and digital thread Education: B.E./B.Tech or M.E./M.Tech in Mechanical, Aerospace, Aeronautical or related field Role Type: Technical leadership role for system definition, integration and delivery Role Purpose We are looking for a Senior Advanced System Engineer to own system definition, architecture, requirements, integration and verification for aerospace engine/APU products. The candidate will provide technical leadership across the product life cycle, drive MBSE adoption, and ensure system solutions meet customer, regulatory, safety, performance and program objectives.

Key Responsibilities

Lead system engineering activities for Engines, APU, propulsion or aircraft power system programs from concept through qualification and service support. Develop and maintain system architecture, functional decomposition, interfaces, system models, requirements and verification strategy using MBSE practices. Create concept of operations, operational requirements, system specifications, interface definitions and derived requirements for new and existing platforms.

Manage requirements elicitation, analysis, allocation, traceability, prioritization, change control and test mapping using tools such as DOORS, Jama, Polarion or equivalent. Lead system trade studies, performance assessments, Measures of Effectiveness, Measures of Performance and technical risk closure. Drive system integration, validation and verification planning, including review of test cases, bench analysis, qualification evidence and compliance artifacts.

Coordinate technical reviews such as SRR, PDR, CDR, TRR and qualification readiness reviews with cross-functional and global engineering teams. Ensure alignment with aerospace development and safety practices, including ARP4754A/ARP4761, DO-160 and applicable customer or regulatory requirements. Mentor systems engineers, guide model quality, review technical deliverables and strengthen reusable MBSE assets and engineering standards.

Support proposal inputs, effort estimation, cost-out ideas, field issue resolution and continuous improvement initiatives for cycle time, quality and competitiveness. Required Qualifications Bachelor's degree in Mechanical, Aerospace, Aeronautical, Systems Engineering or a related engineering discipline. Master's degree preferred.

Minimum 10+ years of total experience in the Aerospace industry, with significant hands-on systems engineering ownership. INCOSE CSEP certification is mandatory. Demonstrated proficiency in MBSE, including system modeling, architecture definition, requirements modeling, traceability and model reviews. Strong technical expertise in Engines, APU, propulsion systems, aircraft power systems or closely related aerospace mechanical systems.

Practical knowledge of aerospace system development life cycle, integration, V&V, qualification and certification support activities. Working knowledge of relevant standards and practices such as ARP4754A, ARP4761, DO-160, configuration management and functional audits. Experience with requirements management and modeling tools such as DOORS, Cameo, Magic.

Draw, Rhapsody, Enterprise Architect, Jama or equivalent. Ability to lead technical discussions independently with program teams, customers, suppliers and cross-discipline engineering stakeholders.

Preferred Skills

Experience with SysML, digital thread implementation, product line architecture, safety analysis interfaces and model-based verification. Exposure to fuel systems, thermal systems, electric propulsion, connected aircraft, health monitoring or advanced aerospace power technologies. Ability to write clear technical documents, review engineering drawings, understand PLM workflows and support design for manufacturability/serviceability.

Design for Six Sigma, structured problem solving, data-driven decision making and continuous improvement mindset.