דרושים » תוכנה » System Engineer, Graviton Team

As a Software Development Engineer in Test on our team, you will own the quality of Nitro card embedded software and firmware. You will design, develop, and maintain test automation for embedded systems and components, covering hardware interface verification, real-time firmware behavior validation, firmware update integrity, and fleet-scale deployment confidence. You will collaborate closely with firmware development teams to troubleshoot complex system-level problems at the hardware-software boundary and ensure timely delivery of high-quality Nitro card software to AWS Cloud solutions.

Key job responsibilities
- Own the firmware test automation framework - architect, develop, and extend a Python-based validation solution that scales across multiple Nitro card generations and hardware platforms, automating test coverage across the full firmware stack from boot sequences through board management layers and card-level system integration.
- Design and implement traceable, specification-driven test cases that validate firmware functional correctness, fault tolerance, and performance across hardware components, communication interfaces, and cross-subsystem interactions.
- Optimize CI/CD pipelines by integrating pre-merge and post-merge firmware validation, defining trigger policies per hardware generation, enforcing coding-standard compliance, and reducing commit-to-validated cycle time.
- Troubleshoot complex embedded system failures by analyzing firmware logs, system traces, and hardware diagnostics, then translate field incidents into targeted regression suites that prevent recurrence.
- Collaborate with firmware and hardware teams during new-generation silicon bring-up, define test plans, drive quality gates for production release, and mentor teammates on testing best practices and system architecture.

A day in the life
You start your morning reviewing overnight CI results and triaging any firmware validation failures flagged across active Nitro card generations. Mid-morning, you pair with a firmware engineer to debug a boot-sequence regression discovered during pre-merge testing, using hardware-in-the-loop test benches and system traces. After lunch, you join a design review for a next-generation Nitro card, providing input on testability and proposing validation strategies for new subsystem interfaces. Later, you refine your test framework to improve coverage for a recently released feature, then wrap up by sharing your findings in a team knowledge-sharing session.

We are looking for a Nitro System Manufacturing Integration Lead Engineer to be part of defining, shaping, and implementing manufacturing flows, test definitions, and card-to-server integration processes for Nitro-based platforms. This includes to be part of the manufacturing flow architecture, production test strategy, process stabilization, and yield optimization bridging system design intent with high-volume manufacturing execution.

Key job responsibilities
As a System Manufacturing Integration Lead Engineer, in the Nitro team, you will own the end-to-end manufacturing flows for accelerator card-to-server integration across manufacturing partner facilities driving the process from initial definition through stabilization into a scalable, high-yield mass production operation.

Key responsibilities include:
- Architect manufacturing flows - be part of the complete card-to-server integration sequence, including every process step, quality gate, and decision point from sub-assembly through system integration and tests.
- Define test strategy - be part of determining what to test, when, and at which station, covering card-level functional tests, post-integration validation, firmware provisioning, and first power-up diagnostics.
- Establish classification criteria - be part of determining pass/fail thresholds and test exit gates to maximize yield and minimize material waste.
- Drive process stabilization - work directly and on-site with manufacturing partners to implement, debug, and iterate on manufacturing flows from early builds through a locked, repeatable production process.
- Design alternative flows - develop parallel manufacturing paths to address real-world constraints such as component availability gaps, deferred card integration, and hub-based assembly models.
- Own process documentation & KPIs - maintain manufacturing flow baselines, drive process change control, and track yield, first-pass rate, cycle time, and defect Pareto.
- Lead cross-functional coordination - serve as the single point of ownership across hardware engineering, firmware, test/vetting, thermal, mechanical, and operations teams for Nitro-based accelerator servers built at scale.

We are looking for a HW Lead Engineer to help define, shape, and integrate cutting-edge solutions for the next generation of our cloud platforms.
As a Card Lead Engineer in the Nitro/K2 team you will be responsible for defining Annapurna Labs Network Interface Card (NIC) hardware for the Compute a storage servers type, owning the development and validation of Nitro cards, including readiness for mass production.
Youll provide leadership in new technologies of the HW interfaces, bringing them to large-scale deployment, in a continuous effort to deliver a world-class customer experience. This is a fast-paced, intellectually challenging position, and youll work with technical experts, senior leaders, and multiple areas of technology.


Key job responsibilities
- Own the design and sustain of the Nitro Smart Network Interface Card for CMRI vertical use cases.
- Work with joint design partners and manufacturing sites, to enable healthy mass production of the Nitro card.
- Review, identify, and qualify second-source electrical components, to enable continuity of supply.
- Analyze and debug design/manufacturing/integration issues.
- Continuously assess process capabilities and innovate to simplify processes, reduce costs, and shorten the time cycle of Nitro cards development and manufacturing.
- Collaborate with members of cross-functional teams, to gain knowledge and improve product design, processes, and quality.
- Work with customers, to optimize the entire value stream and put together joint processes that will lead to improved time cycle and lower costs.
- Willing to travel abroad one or two times a year, for a week at a time.

Required Staff Design Engineer, Networking, Cloud
About the job
Be part of a team that pushes boundaries, developing custom silicon solutions that power the future of our direct-to-consumer products. You'll contribute to the innovation behind products loved by millions worldwide. Your expertise will shape the next generation of hardware experiences, delivering unparalleled performance, efficiency, and integration.
In this role, you will be part of a team developing application-specific integrated circuits (ASICs) used to accelerate networking in data centers. You will have multiple responsibilities in areas such as project definition, design, and implementation. You will participate in the design, architecture, documentation, and implementation of the next generation of data center accelerators.You will also be responsible for performance analysis for a networking stack using your knowledge.
Responsibilities
Lead an ASIC subsystem.
Understand how it interacts with software and other ASIC subsystems to implement data center networks.
Define hardware/software interfaces. Write micro architecture and design specifications.
Define efficient micro-architecture and block partitioning/interfaces and flows.
Collaborate closely with software, verification, and physical design stakeholders to ensure the designs are complete, correct, and performant.

As a System Verification Software Engineer, you will join a unique team that works at the heart of chip development, at the HW/SW boundary, collaborating across teams to ensure our semiconductor platforms meet the highest standards before they reach production, as we lead the market with our cutting-edge devices.
Youll be part of a team that verifies Graviton chips across emulation, silicon, and AWS production fleets-developing the tests, automation, and debug tooling that give us confidence our features function correctly on real hardware.

Key job responsibilities
* Verify and validate Graviton chips in emulation, silicon, and post-production.
* Develop tests that ensure our features function as intended.
* Build automation and debugging tools for silicon regressions and bring-up.
* Collaborate with hardware design and software teams to identify, analyze, and resolve design issues and verification gaps.
* Debug failures across diverse platforms (emulation and silicon).

We are looking for a Post-Silicon Validation Engineer with strong hands-on experience in PCIe link bring-up, physical-layer debug, and silicon validation. Engineer will work closely with Design, Architecture, Firmware, Software, Engineering teams.

Key Responsibilities
Perform hands-on post-silicon validation.
Debug PCIe link issues including link training, LTSSM, equalization, recovery, resets, and link stability.
Analyze PCIe state-machine traces, protocol traces, registers, logs, eye diagrams, and lab measurements.
Drive complex issues from initial failure through root-cause analysis and final resolution.
Work closely with silicon, firmware, software, architecture, and signal-integrity engineers to isolate issues across HW/FW/SW boundaries.
Validate PCIe functionality across different generations, platforms, configurations, and operating conditions.
Develop and execute PCIe validation plans, stress tests, corner-case scenarios, and interoperability tests.
Develop automation to improve validation coverage, debug efficiency, and regression testing.

we are looking for a Staff Systems Engineer.
As a Staff Systems Engineer, you will be a critical contributor on our Electrophysiology Systems Engineering team focused on delivering the future in Advanced Imaging. This role will involve a range of responsibilities including but not limited to collaborating and leading teams in the strategy, development and analysis of system architecture, system performance and system integration for our next generation products including various imaging modalities such as echocardiography, CT, MRI, and 3D cardiac mapping. In this role you will be a key member of product development team to bring systems from concept to launch.
Duties and Responsibilities:
Define and influence, and drive execution of technical strategy for system-level programs while partnering with cross-functional stakeholders on business strategy and product roadmaps.
Utilize multidisciplinary engineering knowledge and experience to design, develop, and troubleshoot new products specific to cardiac mapping and advanced imaging.
Provide system engineering leadership and take ownership for overall project success for new products and features from concept phase through launch.
Work with Product Marketing, Clinical Engineering, and Key Opinion Leaders to develop design input requirements from user and business needs.
Communicate with Sr. Management including technical presentations, status updates, and program reviews.
Lead project-level system architecture, system behavior definition, and tradeoff analysis activities utilizing Model-Based Systems Engineering (MBSE) methodologies, including use case modeling, requirements traceability, system architecture modeling, and interface definition.
Lead cross-functional working groups to solve complex problems, mitigate risks, and develop strategies to overcome challenges.
Plan, manage, and report on overall systems integration activities including root cause analysis and solution generation.
Identify, communicate, and proactively manage technical, integration, and program risks throughout the product development lifecycle.
Provide input into the technology and product roadmaps.
Be a strong team player and lead cross-functional teams to resolve issues and meet budget and schedule requirements.
Create a positive, collaborative culture amongst the technical teams while working to solve challenging engineering problems.
Mentor engineers across multiple disciplines and serve as a technical leader driving engineering excellence, sound systems thinking, and effective technical decision-making.
Ensure compliance with procedural and documentation requirements of , FDA, ISO and other regulatory bodies.

Required Senior RTL Design Engineer, Cloud
About the job
Be part of a team that pushes boundaries, developing custom silicon solutions that power the future of our direct-to-consumer products. You'll contribute to the innovation behind products loved by millions worldwide. Your expertise will shape the next generation of hardware experiences, delivering unparalleled performance, efficiency, and integration.
In this role, you will use Application-Specific Integrated Circuit (ASIC) design to be part of a team that creates the System on a Chip (SoC) design cycle from start to finish. You will collaborate with design and verification engineers in projects, creating architecture definitions with Register-Transfer Level (RTL) coding, and running block level simulations. You will contribute in ASIC designs from design specification to production. You will collaborate with members of architecture, software, verification, power, timing, synthesis and more to specify and deliver high quality SoC/RTL. You will also solve technical problems with innovative micro-architecture and practical logic solutions, and evaluate design options with performance, power, and area in mind.Behind everything our users see online is the architecture built by the Technical Infrastructure team to keep it running. From developing and maintaining our data centers to building the next generation of our platforms, we make our product portfolio possible. We're proud to be our engineers' engineers and love voiding warranties by taking things apart so we can rebuild them. We keep our networks up and running, ensuring our users have the best and fastest experience possible.
Responsibilities
Lead a complex ASIC subsystem.
Understand how the subsystem interacts with software and other ASIC subsystems to implement groundbreaking data center.
Define high-performance hardware/software interfaces. Write micro architecture and design specifications.
Define efficient micro-architecture and block partitioning/interfaces and flows.
Collaborate closely with software, verification, and physical design stakeholders to ensure the designs are complete, correct, and performant.

Required RTL Design Engineer, Cloud
About the job
Be part of a team that pushes boundaries, developing custom silicon solutions that power the future of our direct-to-consumer products. You'll contribute to the innovation behind products loved by millions worldwide. Your expertise will shape the next generation of hardware experiences, delivering unparalleled performance, efficiency, and integration.
In this role, you will use Application-Specific Integrated Circuit (ASIC) design experience to be part of a team that develops complex ASIC System-on-Chip (SoC) intellectual property from proof-of-concept to production. This includes creating IP Level microarchitecture definitions, Register-Transfer Level (RTL) coding and all RTL quality checks. You will also have the opportunity to contribute to design flow and methodologies, including design generation automation. You will collaborate with members of architecture, software, verification, power, timing, synthesis design for testing, etc. You will develop/define design options for performance, power and area.
Responsibilities
Define the IP microarchitecture level design document such as interface protocol, block diagram, transaction flow, pipeline, etc.
Perform RTL development (coding and debug in Verilog, SystemVerilog).
Conduct function/performance simulation debug and Lint/CDC/FV/UPF checks.
Engage in synthesis, timing/power closure, and ASIC silicon bring-up.
Contribute to verification test plan and coverage analysis of block and SoC-level.

Required SoC Test Automation and Infrastructure Lead, Cloud
About the job
Be part of a team that pushes boundaries, developing custom silicon solutions that power the future of our direct-to-consumer products. You'll contribute to the innovation behind products loved by millions worldwide. Your expertise will shape the next generation of hardware experiences, delivering unparalleled performance, efficiency, and integration.
Our data centers are the most advanced in the world. In this role, you will help to manufacture the SoCs that power these data centers by developing and deploying comprehensive manufacturing test and data analytics solutions for high-volume manufacturing at wafer fabrications and Outsourced Semiconductor Assembly and Test (OSATs). You will have an opportunity to create silicon in the most advanced technologies and follow it into the field to close the loop back to design and test for the next-generation of chips.
You will help to integrate SoC technologies into devices and drive manufacturing test flows to assure performance and screen devices, drive yield improvement, cost optimization and work closely with cross-functional teams to ensure the optimal test coverage in production to ensure high quality SoCs
You will have a strong understanding of IC flows, wafer processing, testing, qualification, diagnostics and failure analysis. You will work with various groups to deploy screening methodologies and flows for data processing, analytics and diagnostics. You will drive the release of cost effective production test solutions into mass production to hit yield and quality goals.
Responsibilities:
Provide tools, set the environment and create automation to silicon engineering (SiEng) teams, collaborate with Test, Product, quality and reliability (Q&R) and system-level test (SLT) teams.
Create smooth and effective ways to manage silicon engineering (SiEng) datastream to and from suppliers and internally, between different platforms, while optimizing formats and datalogs, convert per need.
Verify test solutions on pre-silicon models (simulation or emulation) and support Automated Test Equipment (ATE) test development setup and environment.
Develop test method for ATE platforms.
Provide pre and post silicon dashboards and indicators that will reflect the status, demonstrate progress and point on the gaps.