Reliability Engineer responsible for ensuring the reliability of electrical and electronic systems across the product lifecycle for unmanned aircraft systems.
Compensation
Level IV: $161,000 - $200,000
Level V: $198,000 - $235,000
Pay range for this role
$161,000—$235,000 USD
Responsibilities
Perform reliability predictions for electronic assemblies and systems using MIL-HDBK-217F, Telcordia SR-332, FIDES, or other customer-accepted methods
Lead Failure Modes, Effects, and Criticality Analyses (FMECA) for electrical and electronic hardware per MIL-STD-1629A or equivalent
Perform parts stress and derating analysis and work with designers to resolve overstressed components
Participate in design reviews and provide reliability recommendations on component selection, thermal management, and circuit design
Plan and support reliability testing including HALT, HASS, ESS, and reliability growth testing
Requirements
Bachelor's degree in Electrical Engineering or a related field
Nice to have: ASQ Certified Reliability Engineer (CRE)
The System Engineer supports the definition, integration, and delivery of complex metro systems, ensuring that technical requirements, interfaces, and system performance are effectively managed throughout the project lifecycle.
Responsibilities
Develop and maintain the System Assurance / RAMS Plan and associated framework
Define, manage and demonstrate RAMS requirements and targets across the lifecycle, including reliability, availability, maintainability and safety objectives
Perform reliability and availability analyses and demonstrations using appropriate methods such as Reliability Block Diagrams, failure-rate/MTBF calculations, availability modelling, maintainainability/MTTR assessment, reliability prediction and sensitivity analysis
Undertake FMEA/FMECA and support maintainability and maintenance-related assessments
Lead or facilitate hazard identification and risk assessment activities including PHA, HAZID, HAZOP, SHA/SSHA, interface hazard analysis and operational hazard analysis
The selected candidate will join a team modeling high level Reliability, Availability, Maintainability, Cost (RAM-C) processes across multiple campuses. This role will focus Reliability Centered Maintenance (RCM) modeling and strategy selection for a large missile system.
Performs technical planning, system integration, verification and validation, cost and risk, and supportability and effectiveness analyses for total systems.
Analyses are performed at all levels of total system product to include concept, design, fabrication, test, installation, operation, maintenance and disposal.
Ensures the logical and systematic conversion of customer or product requirements into total systems solutions that acknowledge technical, schedule, and cost constraints.
Performs functional analysis, timeline analysis, detailed trade studies, requirements allocation and interface definition studies to translate customer requirements into hardware and software specifications.
Requirements
Bachelor's degree in a Science, Technology, Engineering or Mathematics (STEM) discipline
Responsible for electrical, mechanical, and environmental testing and evaluation of fitness equipment, building test stands, and performing software related functional tests.
Compensation
The salary range for this position, intended for U.S. applicants, is $48,700 - $67,800 annually.
Responsibilities
Assemble, modify, validate, and maintain test equipment and related structural assemblies by reading and interpreting schematics, engineering drawings and sketches.
Take direction from senior staff on safe working procedures, use of equipment, recording of test data, and monitoring of results.
Perform all tasks as directed by Supervisor and Engineers, providing accurate and timely documented results and communicating test results to appropriate engineering personnel.
Use schematics, diagrams, written and verbal descriptions or defined plans to perform testing and troubleshooting on electronic or mechanical components, equipment, or systems.
Perform “test to failure,” “test to learn,” and accelerated testing activities as part of the product development process.
Requirements
Associate Degree in Electrical or Mechanical Technology (or similar)
Nice to have: Applied knowledge of strain gauge installation, instrumentation, and implementation
Nice to have: Applied knowledge of LabView tools and programming
Nice to have: Applied knowledge of Python script development
Principal / Sr Principal Modeling Simulation Systems Engineer
Lead modeling, simulation, and reliability engineering for large missile systems, developing and integrating simulation frameworks, performance models, and operational analysis tools.
The role focuses on Reliability Centered Maintenance (RCM) modeling and strategy selection for a large missile system, supporting RAM-C processes across campuses for the Sentinel Program.
Responsibilities
Performs technical planning, system integration, verification and validation, cost and risk, and supportability and effectiveness analyses for total systems.
Analyses at all levels of total system product include concept, design, fabrication, test, installation, operation and disposal.
Ensures the logical and systematic conversion of customer or product requirements into total systems solutions that acknowledge technical, schedule, and cost constraints.
Performs functional analysis, timeline analysis, detailed trade studies, requirements allocation and interface studies to translate customer requirements into hardware and software specifications.
Requirements
Bachelor's degree in Science, Technology, Engineering or Mathematics (STEM)
Perform RAM (Reliability Availability Maintainability) activities in Projects and Programs using industry standard RAM tools and calculation methods.
Compensation
The anticipated salary range for candidates who will work in Rochester, NY is $65,100 to $97,700 per year.
Responsibilities
Coordinate and perform all the RAM activities for projects and product design lifecycles, from the Tender phase through commissioning and demonstration periods.
Define the RAM approach and strategy for assigned projects and programs
Responsible for the main RAM deliverables through a project/program lifecycle, including RAM Program Plan, RAM report/analysis, Demonstration Test Plans & Procedures, RAM Monitoring plans, and RAM Monitoring reports
Perform core RAM activities for projects and programs, including Tender/Design phases: Reliability Prediction (MTTF/ MTBF/ MTBFF/ MTBSF/ MTTR), Lifetime Analysis, Failure Modes & Effects Analysis (FMEA), Degraded modes analysis, Creates Reliability Block Diagram, Functional Reliability, Service Reliability and/or Availability modelling
Operational phase: data collection from field/customer and data collection from repair sites, root cause identification and RAM classification definition, statistical analysis of collected data, Reliability growth analysis, and actions plan proposal as part of an overall FRACAS effort
Requirements
B.S. in RAM, Engineering, Quality Assurance, related technical field, or additional 4 years of relevant experience
Act as the reliability architect for complex power-module and advanced-packaging platforms, leading reliability strategy from concept through qualification and product release.
Responsibilities
Own the reliability strategy for complex power-module and advanced-packaging platforms, including die, interconnect, package, materials, and assembly-process qualification for high-power applications.
Translate customer use conditions, system mission profiles, and application requirements into measurable reliability targets, acceleration models, stress conditions, and qualification plans.
Apply physics-of-failure and design-for-reliability methods to identify critical failure mechanisms, define reliability margins, and influence design and material selections early in development.
Develop and deploy best-in-class reliability test and characterization methods, including appropriate electrical, thermal, mechanical, environmental, and power-cycling stresses.
Own reliability test planning and execution, including sample strategy, test conditions, acceptance criteria, schedules, logistics, data quality, and risk-based prioritization.