Top Hardware Engineer Jobs in Atlanta, GA

Lead the Platform Firmware team at Samsara, driving hardware program execution, managing firmware engineers, and collaborating with various stakeholders for high-quality hardware delivery.

The Data Center Engineer I is responsible for deploying and maintaining infrastructure, diagnosing issues, managing inventory, and collaborating with peers in a data center environment.

Supports the health, modernization, deployment, testing, and maintenance of organization-wide IT infrastructure. Troubleshoots incidents, monitors system performance and capacity, supports business applications and packages, resolves recurring issues, contributes to system design and complex projects, and provides technical support and escalation assistance to junior engineers.

The Systems Engineer validates sold solutions, participates in engineering and customer discussions, defines system interfaces and specifications, coordinates simulation updates, and plans and executes software acceptance, emulation, integration, throughput, and system acceptance testing. The role also guides system tuning and adjustments while collaborating with geographically distributed teams and customers. Approximately 60% annual travel is required.

Validate server hardware components and new platform designs through power, thermal, performance, firmware, and automation testing. Maintain hardware test infrastructure, document technical findings, coordinate with ODM/OEM partners, and collaborate with software teams on BIOS, kernel, and firmware optimization. The role requires expertise in server architectures, validation methodologies, Linux, Python, Bash, Redfish, IPMI, and industry standards including PCIe, NVMe, and DDR.

The Applications Engineer installs and integrates AI vision systems on production lines, troubleshoots issues, and provides customer support in manufacturing environments.

Leads board hardware design projects from requirements through schematic creation, simulation, layout coordination, validation, bring-up, debugging, and engineering changes. Collaborates with architects, product managers, mechanical and physical design engineers, signal integrity teams, firmware, validation, customers, and contractors. Designs high-speed PCBs and DC/DC regulator circuits, manages components and bills of materials, writes functional specifications and test plans, and supports multiple concurrent assignments.

Provides technical leadership for the architecture, design, validation, and production support of coherent optical transceivers and optical transport systems. Designs high-speed circuit boards, leads signal and power integrity analysis, evaluates optical components, develops validation strategies, and supports product qualification and manufacturing transfer. Collaborates with cross-functional engineering, manufacturing, suppliers, and customers while mentoring engineers and resolving complex technical issues.

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.

Engineering interns support robotics and warehouse automation projects across software, electrical, mechanical, and systems engineering. Responsibilities include testing, debugging, validation, prototyping, fixture development, engineering data analysis, technical documentation, reviews, and mentored individual projects. Interns gain hands-on experience solving technical problems and contributing to automation systems deployed in customer operations.

The engineer will design, develop, test and improve integrated hardware/software systems, analyze customer issues, and provide technical expertise in photonic integrated circuits.

Seeking exceptional technical builders for undefined role, focused on operating complex systems and solving tough problems across various layers of technology.

The Principal Engineer, Hardware will lead design, integration, and manufacturing of autonomous vehicle systems, ensuring reliability and compliance with safety standards across mechanical and electrical disciplines.

Design, prototype, test, and iterate in-house four-wheeled and quadruped robotic platforms. Lead mechanical, electrical, and embedded hardware development from rapid prototypes to manufacturable, deployable products, incorporating customer feedback and overseeing reliability and production readiness.

Own the hardware-software interface for production robotic platforms: develop sensor and actuator drivers, manage communication buses and Linux configurations, integrate new hardware, monitor system health, build edge/cloud device management, and support field-deployed robots through diagnostics and validation.

Design and execute comprehensive hardware tests, develop manufacturing test setups and automated test systems, analyze results to identify defects, collaborate with engineering to resolve issues, mentor junior engineers, and document procedures to ensure production readiness.

Design and develop wireless power transfer and energy-harvesting hardware for IoT and wearable devices. Apply power electronics, RF and electromagnetic theory to create ICs and circuits, integrate solutions into scalable systems, optimize energy efficiency, and drive sustainable innovation for large sensor networks.

Design compact connected hardware from concept through prototyping and validation for IoT devices. Optimize for connectivity, energy efficiency, durability, usability, and manufacturability. Collaborate with software and engineering teams, participate in design reviews, and apply current hardware design trends and tools.

Lead hardware engineering for IoT devices focusing on PCB design, embedded firmware, and low-power long-range communications (LoRaWAN and Sub-GHz). Manage multidisciplinary teams, ensure regulatory compliance and interoperability, optimize power consumption and network performance for industrial LPWAN deployments, and drive technical strategy for scalable, reliable connected devices.

Lead end-to-end hardware organization for AeroVect vehicle platforms across mechanical, electrical, and electromechanical domains. Own hardware roadmap, architecture, drive-by-wire and safety-critical systems, sensor and compute integration, DFM, supplier/CM relationships, and manufacturing scale. Hire and run the hardware organization while remaining hands-on in design reviews and field reliability improvements to enable certified, driverless operation at scale.

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.

Provides technical leadership and customer support for Marvell switching, PHY, and processor SoC products. Architects hardware solutions, investigates and reproduces hardware and software issues, performs schematic reviews, debugs boot sequencing and customer-reported problems, and supports Linux BSPs, U-Boot, device drivers, and board designs. Serves as a liaison among customers, Avnet field applications engineers, and Marvell engineering teams, while delivering training and occasional customer-site support.

Leads global hardware engineering and architecture for servers, firewalls, security appliances, switches, and access points. Defines system architectures, coordinates board and system design, power, signal integrity, mechanical and thermal engineering, validation, and compliance. Oversees internal and JDM/ODM development, executive reporting, product strategy, budgets, hiring, and team development while partnering with Software, Product, Finance, Operations, and Supply Chain.

Design, evaluate, and integrate passive and active optical components and subsystems for DWDM systems. Develop mixed-signal electronics and control algorithms, perform laboratory testing and automated data acquisition, analyze performance data, drive qualification and reliability testing, and collaborate cross-functionally through product development and production support.

Design, evaluate, integrate, and qualify passive and active optical components and subsystems for DWDM transport. Develop mixed-signal hardware, control electronics, and test automation. Perform lab characterization, data analysis, cross-functional design reviews, and support product qualification and supplier collaboration.