Direct reliability and performance engineering for a large and growing portfolio of solar and battery energy storage assets, managing a multidisciplinary team to improve safety, availability, energy performance, and total cost of ownership.
Responsibilities
Set fleet reliability and performance priorities
Lead and develop a multidisciplinary organization
Partner with senior leaders to prioritize fleet reliability and performance risks
Own the governance and executive communication of solar and storage reliability and performance
Develop, implement, and scale fleet reliability programs
Requirements
Bachelor’s degree in engineering or a related technical field
Master’s degree in engineering, reliability, data science, business administration, or a related field
Responsible for the development and maintenance of heavy-duty Fuel Injection Equipment, participating in new product development and product maintenance activities to optimize Quality, Delivery, Cost and Feature (QDCF) performance.
Responsibilities
Develop Fuel Injection Equipment considering system requirements, interface definitions, packaging constraints, manufacturability, serviceability, and operational environment
Take technical ownership of components throughout the product lifecycle, from concept development to industrialization and product maintenance
Create and release engineering documentation, including drawings, CAD models, installation documentation, technical specifications, system requirements, product structures and engineering change requests
Collaborate closely with suppliers, systems engineering, component owners, purchasing, manufacturing, aftermarket, and customer support teams to secure robust technical solutions
Drive quality improvement and problem-solving activities using structured methodologies such as Root Cause Analysis (RCA), 8D, and FMEA
Requirements
Bachelor's degree in Mechanical Engineering
Bachelor's degree in Control and Automation Engineering
Bachelor's degree in Mechatronics Engineering
Nice to have: Heavy-duty vehicles and applications knowledge
Nice to have: Agile product development methodologies
Lead assurance aspects of the spacecraft, from suppliers and subsystems to spacecraft integration and ground segment assurance.
Locations (2)
Didcot, Oxfordshire, United Kingdom
Tokyo, Tokyo, Japan
Responsibilities
Lead and deliver Product and Quality Assurance activities within project teams
Provide Product and Quality Assurance related support to multiple Astroscale projects
Implement all relevant quality and product assurance related principles and practices
Liaise with Customers’ PA and QA representatives as required
Support Supplier and Subcontractor related PA and QA activities, including assessment of supplier approaches, policies and processes, lead audits, and support ongoing supplier management activities in areas of PA and QA
Lead complex, hands-on complaint investigations for Class III medical devices, ensuring compliance with FDA and international regulatory requirements.
Compensation
The expected base salary range for this role is 118,300 - $148,000 which represents the company’s current good-faith estimate of compensation for this position. This role may also be eligible for bonuses, equity, and a comprehensive benefits package (medical, dental, vision, retirement savings, paid time off, and wellness resources).
Responsibilities
Independently lead complaint investigations from intake through closure
Perform hands-on troubleshooting, evaluation and failure analysis of returned devices and components
Analyze device history records (DHRs), manufacturing records, service records, software logs, and field data to support root cause investigations
Apply structured root cause analysis methodologies (e.g., 5 Whys, Fishbone, fault tree analysis) to identify failure modes, root cause conclusions and contributing factors
Partner cross-functionally with Engineering, Manufacturing, Service, Clinical, and Regulatory teams to gather technical inputs and validate investigation conclusions
Requirements
Bachelor’s degree in Mechanical, Electrical, Biomedical Engineering, or related scientific discipline
Master’s degree in Mechanical, Electrical, Biomedical Engineering, or related scientific discipline
Design, develop, qualify, and sustain rechargeable lithium-ion battery systems, contributing to end-to-end battery pack development.
Responsibilities
Design and develop Li-Ion battery packs from concept through production release
Define battery architecture, including cell configuration, electrical protection, thermal management, mechanical packaging, and BMS requirements
Evaluate and select Li-Ion cells based on performance, capacity, lifecycle, safety, availability, cost, and regulatory requirements
Define and support BMS functions such as State of Charge (SOC), State of Health (SOH), cell balancing, temperature monitoring, fault detection, and protection algorithms
Design, develop, qualify, and sustain rechargeable lithium-ion battery systems, contributing to end-to-end battery pack development.
Responsibilities
Design and develop Li-Ion battery packs from concept through production release
Define battery architecture, including cell configuration, electrical protection, thermal management, mechanical packaging, and BMS requirements
Evaluate and select Li-Ion cells based on performance, capacity, lifecycle, safety, availability, cost, and regulatory requirements
Define and support BMS functions such as State of Charge (SOC), State of Health (SOH), cell balancing, temperature monitoring, fault detection, and protection algorithms
Serve as a Subject Matter Expert (SME) in Root Cause Analysis (RCA), providing technical leadership for complex complaint investigations across Amgen's product and device platforms.
Compensation
The expected annual salary range for this role in the U.S. (excluding Puerto Rico) is posted. Actual salary will vary based on several factors including but not limited to, relevant skills, experience, and qualifications.
Salary Range 140,334.15USD -189,863.85 USD
Responsibilities
Serve as an RCA Subject Matter Expert, providing technical leadership, guidance, and oversight for complex product and device complaint investigations.
Independently lead complex technical investigations, applying critical thinking, structured problem-solving methodologies, and scientific and engineering principles to identify root causes and contributing factors.
Develop and execute robust investigation strategies, including hypothesis development, technical assessments, failure analysis, and evaluation of manufacturing, design, and product performance data.
Critically evaluate investigation findings, challenge assumptions, identify gaps in technical evidence, and ensure root cause conclusions are scientifically sound, data-driven, and defensible.
Author and critically review complex technical investigation reports, ensuring clear, concise, and accurate documentation of investigation methodologies, supporting evidence, technical rationale, and conclusions.
Requirements
Doctorate degree
T
Reliability Engineer III
Talent Software Services, Inc. · Posted Nov 11, 2026
The Mechanical Equipment Designer is responsible for the mechanical architecture, detailed design, component selection, troubleshooting, qualification, and lifecycle improvement of equipment used to manufacture precision semiconductor components.
Responsibilities
Translate user, process, quality, safety, cleanliness, throughput, and maintenance needs into measurable equipment requirements and acceptance criteria.
Develop concepts, trade studies, layouts, 3D CAD models, detailed drawings, bills of material, component specifications, tolerance schemes, and assembly documentation.
Perform or direct free-body, kinematic, tolerance-stack, thermal, structural, fatigue, vibration, fluid-flow, and pressure-drop analyses appropriate to the design risk.
Select bearings, seals, fasteners, motors, gearboxes, couplings, guides, actuators, pumps, valves, filters, sensors, materials, coatings, and lubricants based on duty cycle, environment, contamination sensitivity, and service life.
Lead design reviews addressing function, weakest-link components, precision, serviceability, cleanability, chemical compatibility, particle generation, ergonomics, EHS, utility interfaces, fault recovery, and supplier design quality.
Requirements
Bachelor’s degree in mechanical engineering, mechanical engineering technology, or a closely related discipline