FPGA Design and Prototyping Engineer

📍 Job Overview

Job Title: FPGA Design and Prototyping Engineer

Company: Advanced Micro Devices, Inc (AMD)

Location: San Jose, California, United States

Job Type: FULL_TIME

Category: Engineering / FPGA Design & Prototyping

Date Posted: 2026-09-24

Experience Level: 7+ years (Mid to Senior Level)

Remote Status: On-site

🚀 Role Summary

• Lead the definition, development, and execution of FPGA prototyping strategies for complex System-on-Chip (SoC) designs, ensuring timely and successful hardware validation and software bring-up.

• Drive the architecture, methodology, and platform strategy for multi-FPGA prototyping environments, encompassing partitioning, interconnects, clocking, and debug infrastructure.

• Collaborate extensively with cross-functional teams, including Architecture, IP Design, Physical Design, Verification, Software, and Product Engineering, to enable early hardware access and accelerate product development cycles.

• Provide technical leadership and mentorship to FPGA prototyping engineers, fostering best practices, efficient workflows, and continuous improvement within the team.

• Represent the FPGA prototyping function in key technical and program reviews, engaging with EDA and FPGA tool vendors to drive technology adoption and resolve complex engineering challenges.

📝 Enhancement Note: This role is categorized under Engineering, specifically focusing on FPGA Design & Prototyping. The experience level is inferred from the "7+ years" stated in the preferred qualifications and the leadership responsibilities. The "On-site" work arrangement is derived from the explicit mention of the San Jose, CA location and lack of remote work options.

📈 Primary Responsibilities

• Define and own the FPGA prototyping architecture, methodology roadmap, and platform strategy for complex SoCs, including critical aspects like partitioning, interconnects, clocking, debug infrastructure, and high-speed interfaces.

• Lead the development and deployment of robust FPGA prototype platforms, encompassing RTL adaptation, efficient implementation flows, comprehensive verification infrastructure, automated regression environments, and advanced system-level debug capabilities.

• Drive seamless collaboration across Architecture, RTL Design, Verification, Emulation, Software, and Firmware teams to enable critical early hardware validation, accelerated software bring-up, and achievement of functional coverage goals.

• Provide strong technical leadership for FPGA prototyping engineers through proactive mentoring, rigorous design reviews, development of industry best practices, meticulous project planning, and timely execution of key program milestones.

• Establish and refine engineering processes, implementation methodologies, comprehensive documentation standards, and continuous improvement initiatives to enhance team efficiency, product quality, and overall scalability.

• Represent the FPGA prototyping organization effectively in critical architecture reviews, program reviews, and customer-facing technical discussions, while actively partnering with EDA and FPGA tool vendors to drive technology adoption and resolve complex technical challenges.

📝 Enhancement Note: The primary responsibilities have been structured to emphasize the strategic and leadership aspects of the role, aligning with the "7+ years" experience requirement and the description of the ideal candidate as a "highly experienced FPGA prototyping engineer with strong technical leadership skills." Each bullet point is crafted to highlight specific operational and technical contributions expected of a senior engineer in this domain.

🎓 Skills & Qualifications

Education:

• Bachelor's or Master's degree in Electrical Engineering, Electronics Engineering, Computer Engineering, or a closely related technical field. Experience:

• Minimum of 7 years of hands-on experience in FPGA design, implementation, and System-on-Chip (SoC) prototyping.

• Demonstrated experience leading FPGA prototyping efforts for large-scale, complex semiconductor programs. Required Skills:

• Proven expertise in defining and owning FPGA prototyping architecture, methodology, and platform strategy for complex SoCs.

• Strong proficiency in RTL adaptation, implementation flows, verification infrastructure, and system-level debug capabilities for multi-FPGA systems.

• Extensive experience in driving cross-functional collaboration with Architecture, RTL Design, Verification, Software, and Firmware teams.

• Demonstrated technical leadership and mentoring capabilities for engineering teams, including design reviews and best-practice development.

• Solid understanding and practical application of engineering process establishment, documentation standards, and continuous improvement initiatives.

• Proficiency in representing technical organizations in architecture, program, and customer-facing reviews.

• Experience partnering with EDA and FPGA tool vendors. Preferred Skills:

• Hands-on experience with industry-leading FPGA prototyping platforms such as Synopsys HAPS and/or Cadence Protium.

• Strong knowledge of multi-FPGA partitioning techniques, board bring-up procedures, and high-speed interfaces including PCIe, DDR, Ethernet, USB, and HBM.

• Expert proficiency with AMD/Xilinx Vivado and Vitis toolchains.

• Deep expertise in critical FPGA design aspects: timing closure, floorplanning, Clock Domain Crossing (CDC) analysis, pipelining, and performance optimization.

• Strong SystemVerilog and/or Verilog design and verification experience.

• Solid understanding of modern SoC architectures, including CPUs, cache hierarchies, memory subsystems, Network-on-Chip (NoC)/interconnects, and I/O protocols such as AXI, ACE, CHI, PCIe, and DDR.

📝 Enhancement Note: The "Required Skills" section synthesizes the core duties and the "preferred qualifications" list from the original description, framing them as essential competencies for the role. The "Preferred Skills" are directly translated from the provided text, highlighting specific tool and technical knowledge critical for success in advanced FPGA prototyping.

📊 Process & Systems Portfolio Requirements

Portfolio Essentials:

• Demonstrate experience in defining and executing FPGA prototyping strategies for complex SoC designs, showcasing methodology, architecture, and platform development.

• Provide examples of successful multi-FPGA partitioning, RTL adaptation, and implementation flow development for large-scale projects.

• Showcase experience with system-level debug capabilities and verification infrastructure within FPGA prototyping environments.

• Include evidence of technical leadership, mentoring, and process improvement initiatives within engineering teams. Process Documentation:

• Illustrate the development and deployment of FPGA prototype platforms, detailing implementation flows and regression environments.

• Present examples of established engineering processes, documentation standards, and continuous improvement cycles implemented in previous roles.

• Detail methodologies used for cross-functional collaboration, particularly with Architecture, RTL Design, Verification, and Software teams, to enable early hardware validation and software bring-up.

• Showcase experience in working with EDA and FPGA tool vendors to resolve technical challenges and drive technology adoption.

📝 Enhancement Note: This section infers portfolio expectations based on the role's responsibilities, which heavily involve strategy, development, and cross-functional collaboration. The emphasis is on demonstrating practical application of FPGA prototyping methodologies, technical leadership, and process enhancement.

💵 Compensation & Benefits

Salary Range:

• Based on industry benchmarks for FPGA Design and Prototyping Engineers with 7+ years of experience in San Jose, California, the estimated annual salary range is approximately $150,000 - $220,000 USD. This range accounts for the high cost of living in the San Jose area, the specialized nature of FPGA engineering, and the senior-level responsibilities outlined. Benefits:

• Comprehensive health, dental, and vision insurance plans.

• Retirement savings plans, such as a 401(k) with company match.

• Paid time off, including vacation, sick leave, and holidays.

• Stock purchase plans and potential for equity grants.

• Professional development opportunities, including training, conferences, and tuition reimbursement.

• Employee assistance programs and wellness initiatives.

• Access to AMD's employee benefits portal for detailed information: AMD benefits at a glance. Working Hours:

• Standard full-time work week, typically 40 hours. Flexibility may be available based on project needs and team agreements, but the role is primarily on-site.

📝 Enhancement Note: The salary range is an estimate based on industry data for similar roles in San Jose, CA. The provided benefits are standard for large tech companies like AMD and are aligned with the link provided in the original description. The working hours are inferred from the "FULL_TIME" employment type and standard industry practices.

🎯 Team & Company Context

🏢 Company Culture

Industry: Semiconductor Manufacturing and Technology. AMD is a global leader in high-performance computing, graphics, and visualization technologies, driving innovation in data centers, gaming, and professional visualization markets.

Company Size: Large enterprise (AMD is a publicly traded company with tens of thousands of employees globally). This size implies a structured environment with established processes, extensive resources, and opportunities for specialized career paths.

Founded: 1969. AMD has a long history of innovation, evolving from a semiconductor manufacturer to a key player in advanced CPU and GPU technologies, powering significant technological advancements.

Team Structure:

• The FPGA Prototyping team is likely a specialized unit within AMD's broader engineering organization, focusing on hardware acceleration and early validation.

• This team operates within a matrixed structure, reporting to senior engineering management while collaborating closely with various design and software teams across different business units.

• Cross-functional collaboration is a cornerstone, requiring constant interaction with Architecture, RTL Design, Verification, Software Development, Firmware Engineering, and Product Engineering departments to ensure seamless integration and validation. Methodology:

• Data-Driven Design & Validation: Emphasis on rigorous data analysis to define prototyping strategies, optimize RTL adaptation, and identify performance bottlenecks.

• Agile Prototyping & Iteration: Implementing agile methodologies for platform development and validation cycles, enabling rapid iteration and feedback loops.

• Process Optimization & Automation: Continuous focus on improving engineering processes, automating build and regression environments, and enhancing system-level debug capabilities for increased efficiency and scalability.

Company Website: https://www.amd.com

📝 Enhancement Note: Company context is derived from the input data and general knowledge of AMD as a major semiconductor firm. The team structure and methodology are inferred based on the role's description within a large, complex engineering organization.

📈 Career & Growth Analysis

Operations Career Level: This role represents a Senior Engineer or Lead Engineer position within the FPGA Design and Prototyping domain. It involves significant technical depth, project ownership, and leadership responsibilities, including mentoring junior engineers and influencing cross-functional strategies.

Reporting Structure: The FPGA Design and Prototyping Engineer will likely report to an Engineering Manager or Director responsible for the front-end design and integration efforts. They will work closely with project leads and architects from various engineering disciplines.

Operations Impact: The role has a direct and critical impact on the success of AMD's next-generation products. By enabling early hardware validation and software bring-up through advanced FPGA prototyping, this position accelerates time-to-market, reduces costly silicon re-spins, and ensures the quality and performance of cutting-edge processors and GPUs.

Growth Opportunities:

• Technical Specialization: Deepen expertise in advanced FPGA technologies, high-speed interfaces, SoC architectures, and emulation platforms, potentially leading to Principal or Distinguished Engineer roles.

• Leadership & Management: Transition into technical leadership roles managing larger teams, driving strategic initiatives, or moving into engineering management positions.

• Cross-Disciplinary Roles: Leverage deep understanding of hardware-software co-design to move into roles focused on architectural definition, system-level validation, or product engineering.

• Industry Engagement: Represent AMD at industry conferences, contribute to standards bodies, and engage with EDA/FPGA vendors to influence future technology roadmaps.

📝 Enhancement Note: Career analysis is based on the experience level, responsibilities, and the nature of the role within a leading semiconductor company. Growth opportunities are typical for senior engineers in such environments, focusing on both technical and leadership progression.

🌐 Work Environment

Office Type: Primarily an on-site role, indicating a dedicated office and lab environment within AMD's San Jose campus. This setting facilitates close collaboration, access to specialized hardware, and direct interaction with engineering teams.

Office Location(s): 2100 Logic Drive, San Jose, California, 95124. This location is a key engineering hub for AMD, likely providing access to state-of-the-art facilities and a concentrated pool of engineering talent.

Workspace Context:

• The workspace will likely be collaborative, with opportunities for engineers to work together on complex design challenges, share insights, and conduct joint debugging sessions.

• Access to advanced FPGA development tools, high-performance computing resources, specialized lab equipment, and robust network infrastructure is expected.

• Frequent interaction with architects, RTL designers, verification engineers, and software developers will be integral to the role, fostering a dynamic and integrated engineering environment. Work Schedule:

• The role requires a standard full-time commitment (approximately 40 hours per week) with an on-site presence. While some flexibility might be possible for specific tasks or personal needs, consistent availability during core business hours in San Jose is expected due to the collaborative and hardware-intensive nature of the work.

📝 Enhancement Note: The work environment description is based on the "On-site" designation and the specific address provided, inferring the typical setup for a hardware engineering role in a major tech company.

📄 Application & Portfolio Review Process

Interview Process:

• Initial Screening: HR or recruiter call to assess basic qualifications, interest, and cultural fit.

• Technical Phone Screen: Interview with a senior engineer or hiring manager to delve into FPGA design, prototyping experience,

SoC architecture knowledge, and problem-solving skills.

• On-site/Virtual On-site Interviews: Multiple rounds, typically including:

  • Deep Dive Technical Interviews: Focused discussions on specific FPGA design challenges, timing closure, partitioning strategies, and tool proficiency (Vivado, Vitis, HAPS/Protium).
  • Architecture & System Design: Questions assessing understanding of modern SoC architectures, interconnects (AXI, NoC), and high-speed interfaces.
  • Leadership & Mentorship: Behavioral questions evaluating leadership capabilities, team collaboration, and experience mentoring junior engineers.
  • Problem-Solving/Case Study: A technical challenge, potentially involving RTL debugging, performance optimization, or a system-level design scenario presented as a hypothetical problem.
  • Cross-Functional Collaboration: Scenarios assessing how candidates work with other teams (e.g., verification, software) and manage stakeholder expectations.

• Hiring Manager Final Interview: Discussion on overall fit, career aspirations, and final assessment of suitability for the role and team.

Portfolio Review Tips:

• Highlight Impactful Projects: Focus on key FPGA prototyping projects that demonstrate your ownership, technical contributions, and successful outcomes. Quantify achievements whenever possible (e.g., "reduced bring-up time by X%", "achieved Y% performance improvement").

• Showcase Technical Depth: Be prepared to walk through complex technical challenges you've overcome, such as multi-FPGA partitioning, intricate timing closure issues, or advanced debug infrastructure implementation.

• Demonstrate Process Leadership: Include examples of how you've defined methodologies, established engineering processes, mentored teams, or driven continuous improvement initiatives.

• Tool Proficiency Evidence: Clearly articulate your experience with specific tools like Vivado, Vitis, HAPS, and Protium, providing context on how you leveraged them to solve problems.

• SoC Architecture Understanding: Prepare to discuss your knowledge of modern SoC components and interconnects, explaining how they influence prototyping strategies.

Challenge Preparation:

• FPGA Design Fundamentals: Brush up on RTL design principles (Verilog/SystemVerilog), synthesis, place-and-route, timing analysis, and clock domain crossing.

• Prototyping Specifics: Review concepts like multi-FPGA partitioning, board bring-up, high-speed interface protocols (PCIe, DDR), and debug methodologies.

• Problem-Solving Framework: Practice using a structured approach (e.g., understand the problem, explore options, propose a solution, discuss trade-offs) for technical challenges.

• SoC Architecture: Refresh your knowledge of CPU/GPU architectures, cache hierarchies, memory systems, and interconnects (AXI, NoC).

📝 Enhancement Note: This section details a typical interview process for a senior engineering role in a major tech company, with specific emphasis on FPGA and SoC prototyping. The portfolio and challenge preparation advice are tailored to the technical requirements of this role.

🛠 Tools & Technology Stack

Primary Tools:

• FPGA Design & Implementation: AMD/Xilinx Vivado (mandatory), Vitis (mandatory for software/hardware co-development).

• Prototyping Platforms: Synopsys HAPS (preferred), Cadence Protium (preferred). Experience with other high-level synthesis or prototyping tools may also be relevant.

• Hardware Description Languages: SystemVerilog (primary), Verilog. VHDL may also be used in some legacy contexts.

Analytics & Reporting:

• Timing Analysis Tools: Integrated within Vivado, but deep expertise in interpreting and optimizing timing reports is crucial.

• Simulation & Verification Tools: While not the primary focus, understanding of simulators (e.g., QuestaSim, VCS) and verification methodologies is beneficial for debugging adapted RTL.

• Version Control Systems: Git, Perforce for managing large codebases and collaborative development.

CRM & Automation:

• Project Management Tools: Tools like Jira, Confluence for task tracking, documentation, and collaboration.

• Scripting Languages: Python, TCL for automation of build flows, regression, and tool scripting.

• SoC Integration Tools: Understanding of tools and methodologies for integrating various IPs (CPU, GPU, memory controllers, I/O) into a cohesive SoC design.

📝 Enhancement Note: This section lists specific tools and technologies mentioned in the job description, categorized by their function within the FPGA design and prototyping workflow. Proficiency in these tools is critical for the role.

👥 Team Culture & Values

Operations Values:

• Innovation: A drive to push the boundaries of technology, developing novel solutions for complex FPGA prototyping challenges.

• Collaboration: A strong emphasis on teamwork, open communication, and mutual support across diverse engineering disciplines.

• Excellence: A commitment to high-quality design, rigorous validation, and achieving first-pass silicon success through meticulous engineering.

• Ownership & Accountability: Taking responsibility for critical aspects of the prototyping process, from architecture definition to successful execution and debug.

• Continuous Improvement: An ongoing effort to refine processes, adopt new technologies, and enhance efficiency and scalability within the team.

Collaboration Style:

• Cross-Functional Integration: Proactive engagement with Architecture, RTL Design, Verification, and Software teams to ensure seamless hardware-software co-development and validation.

• Open Dialogue & Feedback: Encouraging a culture where technical ideas are freely shared, debated constructively, and feedback is readily given and received.

• Knowledge Sharing: Facilitating the dissemination of best practices, lessons learned, and technical expertise through design reviews, documentation, and internal presentations.

• Problem-Solving Partnership: Working collaboratively to tackle complex technical issues, leveraging collective expertise to find optimal solutions.

📝 Enhancement Note: Team culture and values are inferred from AMD's general corporate messaging and the nature of a high-performance engineering team in the semiconductor industry. The emphasis is on innovation, collaboration, and technical excellence.

⚡ Challenges & Growth Opportunities

Challenges:

• Complexity of Modern SoCs: Managing the intricate design and integration of increasingly complex SoC architectures on multi-FPGA platforms.

• Time-to-Market Pressure: Balancing the need for thorough validation with aggressive product development schedules, requiring efficient prototyping and debug strategies.

• Multi-Disciplinary Coordination: Orchestrating efforts across diverse engineering teams (hardware, software, firmware) with potentially different priorities and methodologies.

• Rapid Technology Evolution: Keeping pace with advancements in FPGA technology, EDA tools, and SoC architectures to maintain a leading-edge prototyping capability.

Learning & Development Opportunities:

• Advanced FPGA Techniques: Opportunities to master cutting-edge FPGA design, implementation, and optimization techniques for next-generation silicon.

• SoC Architecture Expertise: Deepen understanding of high-performance CPU, GPU, and AI accelerator architectures, including memory systems and interconnects.

• Hardware-Software Co-Design: Gain extensive experience in enabling early software development and validation on FPGA prototypes.

• Technical Leadership Development: Participate in leadership training, mentorship programs, and take on increasing responsibility for project execution and team guidance.

• Industry Exposure: Attend leading industry conferences (e.g., DAC, SNUG, XDF) and engage with EDA and FPGA vendors to stay abreast of the latest technologies.

📝 Enhancement Note: Challenges are identified based on the inherent complexities of FPGA prototyping for advanced SoCs at a company like AMD. Growth opportunities are aligned with typical career progression paths for senior hardware engineers in the tech industry.

💡 Interview Preparation

Strategy Questions:

• "Describe a complex multi-FPGA partitioning challenge you faced and how you resolved it. What were the key trade-offs?" (Focus on methodology, problem-solving, and impact).

• "How would you establish an efficient RTL adaptation and implementation flow for a large SoC on an FPGA prototype platform?" (Focus on process, tools, and scalability).

• "Walk me through your approach to enabling system-level debug for a complex SoC on an FPGA prototype. What tools and techniques would you use?" (Focus on debug infrastructure, methodologies, and experience).

• "How do you ensure effective collaboration and communication between FPGA prototyping, RTL design, and software teams, especially when timelines are tight?" (Focus on cross-functional skills and stakeholder management). Company & Culture Questions:

• "What do you know about AMD's current product lines and your interest in contributing to our next-generation technologies?" (Demonstrate research and alignment with AMD's mission).

• "Describe a time you had to influence a cross-functional team or senior stakeholders to adopt a new process or technology. What was the outcome?" (Assess leadership and communication skills).

• "How do you stay current with the rapidly evolving landscape of FPGA technology and SoC design?" (Show commitment to continuous learning).

• "What are your expectations regarding team culture and collaboration within an engineering environment like AMD's?" (Assess cultural fit and understanding of team dynamics). Portfolio Presentation Strategy:

• Structure Your Narrative: For each project, clearly outline the challenge, your role and approach, the technical solutions implemented (especially regarding partitioning, RTL adaptation, debug), the results achieved (quantified if possible), and lessons learned.

• Highlight Key Technologies: Explicitly discuss your use of Vivado, Vitis, HAPS/Protium, SystemVerilog, and your understanding of SoC architectures and high-speed interfaces.

• Emphasize Leadership: If applicable, showcase instances where you led teams, mentored engineers, or drove process improvements.

• Be Ready for Deep Dives: Anticipate detailed technical questions about your projects. Be prepared to explain the 'why' behind your design choices and problem-solving strategies.

• Conciseness and Clarity: Present information clearly and concisely, focusing on the most impactful aspects of your experience.

📝 Enhancement Note: Interview preparation advice is tailored to the specific technical requirements of an FPGA Design and Prototyping Engineer role at a semiconductor company, focusing on relevant tools, methodologies, and problem-solving approaches.

📌 Application Steps

To apply for this FPGA Design and Prototyping Engineer position:

• Submit your application through the AMD Careers portal via the provided link.

• Tailor your Resume: Emphasize your 7+ years of experience in FPGA design, implementation, and SoC prototyping. Clearly list your proficiency with AMD/Xilinx Vivado, Vitis, and any experience with Synopsys HAPS or Cadence Protium platforms. Highlight your experience with multi-FPGA partitioning, high-speed interfaces, and modern SoC architectures. Use keywords from the job description.

• Prepare Your Portfolio: Select 2-3 key projects that best showcase your leadership in defining FPGA prototyping strategies, developing platforms, and driving cross-functional collaboration. Be ready to articulate your contributions, technical challenges overcome, and the impact of your work.

• Practice Technical Questions: Review fundamental FPGA concepts, SoC architecture, and common prototyping challenges. Prepare specific examples to answer behavioral questions related to leadership, collaboration, and problem-solving.

• Research AMD: Familiarize yourself with AMD's latest product announcements, technological advancements, and their position in the semiconductor industry. Understand their commitment to innovation and high-performance computing.

⚠️ Important Notice: This enhanced job description includes AI-generated insights and operations industry-standard assumptions. All details should be verified directly with the hiring organization before making application decisions.