Top Senior Hardware Engineer Jobs in Detroit, MI

Lead development and validation of optical film stacks and light-management technologies for automotive LCD and OLED displays. Evaluate films, polarizers, coatings, and bonding technologies; perform optical simulations and measurements; analyze brightness, contrast, glare, reflections, uniformity, and related performance data; collaborate with suppliers and display manufacturers; and mature validated optical solutions for production vehicle display programs.

Develop and mature next-generation OLED panel technologies for automotive displays. Responsibilities include evaluating pixel and tandem stack architectures, defining technology requirements, validating TCON and driver IC specifications, conducting optical simulations and bench testing, leading supplier testing under automotive conditions, analyzing panel performance data, resolving defects such as Mura and burn-in, and transferring production-ready technologies to Sourcing.

Leads development and maturation of next-generation automotive LCD panel technologies, including TFT backplanes, pixel structures, driver electronics, and halo mitigation. Evaluates emerging architectures, defines technical requirements, collaborates with display and semiconductor suppliers, conducts proof-of-concept builds and environmental validation, analyzes performance data, resolves panel defects, and transfers mature technologies toward sourcing and production readiness.

Leads design release and product development for exterior hardware and movable roof systems, including requirements, sourcing, supplier coordination, vehicle integration, verification and validation, cost control, DFMEA, engineering documentation, and launch activities. The role manages cross-functional Product Development Teams, resolves component and vehicle-level issues, supports build events, and drives design improvements and cost reductions.

Leads hardware design and execution for low-voltage automotive electric power components, including schematics, PCB layouts, embedded architectures, power distribution, validation, and production testing. Coordinates cross-functional teams and suppliers, resolves technical and manufacturing issues, supports vehicle integration, and drives quality, cost, timing, continuous improvement, and regulatory compliance across the product lifecycle.

Maintains and troubleshoots server, storage, networking, cabling, and power hardware across a large-scale production data center fleet. Writes Python automation scripts, reviews logs and alerts, performs diagnostics, supports deployments, builds hardware health dashboards, coordinates with DevOps, supply chain, and vendors, and assists with hardware evaluation and reliability improvements. Requires on-call availability and travel to data center sites.

Lead design, development, validation, and release of vehicle thermal management components and subsystems. Manage supplier relationships, define interface requirements, perform analytical validation (FEA/CFD/modal), coordinate cross-functional activities, resolve production issues, and drive continuous improvement to meet performance, cost, manufacturability, and quality targets.

Lead development of advanced inverter and power electronics hardware for electric vehicles. Design analog and digital circuits, high-voltage PCBs, magnetics, and fast-switching power stages. Perform signal and power integrity, electromagnetic, thermal, and worst-case analyses; optimize layouts for manufacturability, EMC, reliability, and performance. Collaborate with systems, mechanical, manufacturing, suppliers, and engineering teams through validation and production readiness.

Design and develop automotive embedded electronic hardware from requirements analysis and architecture through schematic design, PCB development, validation, and production launch. Perform engineering analyses, EMC compliance, troubleshooting, and root-cause investigations. Collaborate with systems, software, mechanical, validation, manufacturing, quality, and customer teams. Provide technical leadership, support OEM and Tier 1 programs, and apply design-for-manufacturing, reliability, testing, and cost principles.

Own hardware strategy and lifecycle for industrial computer vision systems, including cameras, imaging components, edge computing, networking, power delivery, testing, sourcing, compliance, and fleet support. Specify and validate hardware for manufacturing environments, develop standardized BOMs, assess environmental performance, support GigE Vision and PLC integrations, manage certifications, and collaborate with engineering, manufacturing, IT, cybersecurity, vendors, and plant stakeholders. The role requires full-time daily onsite work in Detroit, Michigan.

Tests, validates, and troubleshoots next-generation cloud server hardware for performance, power, reliability, and quality. Develops test scripts, documents results, identifies defects, recommends improvements, and resolves hardware issues across engineering and manufacturing environments. Requires hands-on embedded systems debugging, Linux and scripting experience, and knowledge of server architecture, firmware, operating systems, networking, storage, and hardware acceleration technologies.

Develop and operate Akamai’s Linux-based cloud infrastructure, including bare-metal and virtual machine platforms, kernels, operating systems, and KVM/QEMU virtualization. Build software, automation, observability, and infrastructure enhancements at scale; troubleshoot complex distributed-system issues; collaborate across engineering and operations; mentor team members; and participate in on-call service restoration.

Designs and develops FPGA SmartNIC networking acceleration for Microsoft Azure. Responsibilities include hardware architecture evaluation, RTL coding in Verilog/SystemVerilog, simulation, hardware testing, debugging, verification, scripting, software development, Agile collaboration, and production DevOps support. The role partners across hardware and software teams to deliver cloud networking infrastructure, including SDN capabilities, packet manipulation, and performance improvements.

The role involves optimizing hardware support within a software stack for AI model deployment, collaborating with teams and hardware vendors to enhance performance and portability across platforms.

Owns the hardware lifecycle for GPU and infrastructure assets, including fleet health monitoring, vendor RMA workflows, firmware and BIOS upgrades, burn-in testing, failure investigation, inventory accuracy, capacity planning, spare-parts strategy, runbook creation, and new platform qualification. The role serves as the technical owner of physical compute platforms and supports high-density GPU infrastructure across sites.

Design, develop, and validate electronic hardware for automotive control modules. Responsibilities include schematic design, circuit analysis, PCB layout oversight, BOM selection, testing (including EMC), troubleshooting, and cross-functional/customer coordination through prototype, pre-production, and product release.

Develop and own compute and GPU server platforms from architecture through global deployment. Responsibilities include schematic and layout reviews, design for manufacturability, new product introduction, board and system bring-up, validation, debugging, firmware and BIOS feature management, technology qualification, and vendor coordination. The role requires hands-on server architecture, board-level design, Linux and scripting expertise, platform validation, and five-day-per-week presence in the Cambridge office.

Pipeline hiring for hardware engineers at all experience levels. Work includes circuit board design, schematic capture, component selection and prototype bring-up, hardware debug/testing and failure analysis, integration with firmware/software teams, and design for manufacturability with production handoff.

This role involves developing and executing hardware testing plans and procedures, analyzing test results, and maintaining test equipment for validation in the automotive sector.

Design electrical control solutions: create schematics, panel layouts, BOMs, size components, calculate power/SCCR/heat, ensure NEC & UL508A compliance, design PLC/servo systems, collaborate with customers and project teams.

Design, develop, and validate electronic hardware for automotive control modules. Responsibilities include schematic design, circuit analysis, PCB layout oversight, BOM selection, prototype and production support, DFMEA/WCCA/thermal analysis, EMC validation and troubleshooting, customer liaison, and cross-functional coordination with software, production, and purchasing teams.

Designs and leads safety-critical embedded firmware for automotive hardware safety and power systems. Responsibilities include architecting safe-state strategies, power sequencing, thermal monitoring, watchdog systems, low-level drivers, diagnostic frameworks, and HALs for ARM-based SoCs. The role requires FreeRTOS or SafeRTOS expertise, ISO 26262 ASIL-B/C knowledge, register-level debugging, hardware-software safety integration, code reviews, failure analysis, and mentoring engineers.

Lead standardization strategy for optical transport and Ethernet technologies, develop and advocate contributions to standards bodies (ITU‑T, IEEE, OIF, OpenROADM), coordinate with PLMs and R&D, report progress internally, provide technical influence and guidance, and represent Nokia at standards meetings and industry events.

Design, develop, and validate electronic hardware for automotive control modules. Responsibilities include schematic design, circuit and thermal analysis, PCB layout oversight, BOM selection, supplier interfacing, prototype and production support, EMC testing, customer liaison, and documentation for software-hardware integration.

Design, build, and operate reliable backend systems while mentoring engineers, participating in design discussions, and improving system performance.