Staff ASIC Digital Engineer (FPGA Prototyping, Emulation, System-Level Debugging) with 8 to 12 years of experience

Sandisk
Full-timeβ€’Bengaluru, India

πŸ“ Job Overview

Job Title: Staff ASIC Digital Engineer (FPGA Prototyping, Emulation, System-Level Debugging)

Company: Sandisk

Location: Bengaluru, Karnataka, India

Job Type: Full-time

Category: ASIC Development Engineering / Platform Engineering

Date Posted: 2026-08-26

Experience Level: 8-15 years (Senior/Staff Level)

Remote Status: On-site

πŸš€ Role Summary

  • This role is critical for advancing Sandisk's cutting-edge ASIC development by focusing on the crucial pre-silicon validation phases.

  • The Staff ASIC Digital Engineer will be instrumental in setting up, debugging, and optimizing complex FPGA prototyping and hardware emulation platforms.

  • A key aspect of this position involves acting as a technical bridge, facilitating seamless communication and collaboration between ASIC design, firmware development, and hardware validation teams.

  • The engineer will drive infrastructure automation and data analysis to enhance the efficiency, utilization, and reliability of the global emulation and prototyping resources.

πŸ“ Enhancement Note: The job title and description clearly indicate a senior-level role within ASIC development, specifically focusing on the platform engineering aspects that support pre-silicon verification. The emphasis on "bridging the communication and skillset divide" and "supporting our advanced prototyping and emulation platforms, with a specific focus on end users" suggests a role that requires strong technical depth combined with excellent interpersonal and problem-solving skills to unblock development teams. This is not a pure design role but one focused on enabling the design and verification process.

πŸ“ˆ Primary Responsibilities

  • Lead Platform Bring-Up & Stabilization: Spearhead the initial setup, environment configuration, and stabilization of large-scale FPGA prototyping and hardware emulation platforms for new ASIC projects.

  • System-Level Debugging & Triage: Act as the primary point of contact for complex, system-level failures during platform bring-up, rapidly isolating root causes across hardware, FPGA/emulator configurations, and early boot-code.

  • Customer Support & Enablement: Collaborate closely with product firmware engineers to identify and resolve execution barriers, providing technical guidance and abstracting hardware complexities to accelerate their development cycles.

  • Infrastructure Automation & Optimization: Develop and implement advanced automation scripts, monitoring tools, and health-check reporting mechanisms to maximize the reliability, utilization, and throughput of the global emulation and prototyping infrastructure.

  • Knowledge Management & Documentation: Create comprehensive documentation, including debug methodologies, creative workarounds, and standardized playbooks for platform setup, configuration, and troubleshooting to foster knowledge sharing and efficiency.

  • Data Analysis for Resource Management: Process and analyze platform usage metrics and performance data to optimize resource allocation, identify bottlenecks, and drive continuous improvement across the global infrastructure.

πŸ“ Enhancement Note: The responsibilities highlight a blend of hands-on technical work (bring-up, debugging) and strategic contributions (automation, knowledge sharing, data analysis). The "first line of defense" and "partner with customers" aspects emphasize a support and enablement function within the broader ASIC development lifecycle.

πŸŽ“ Skills & Qualifications

Education: BS or MS in Electrical Engineering, Computer Engineering, or Computer Science.

Experience: 8–15 years of experience in pre-silicon development, hardware verification, platform bring-up, or closely related fields within ASIC engineering.

Required Skills:

  • FPGA Prototyping Support: Proven experience supporting large-scale FPGA prototyping platforms (e.g., Synopsys HAPS, custom multi-FPGA boards).

  • System-Level Debugging: Mastery of debugging tools and protocols such as JTAG, protocol analyzers, logic analyzers, and in-circuit emulators for tracing signals and state machines during early platform bring-up.

  • Hardware Emulation Platforms: Familiarity with hardware emulation architectures (e.g., Cadence Palladium, Synopsys ZeBu) and the process of mapping design code into an emulation environment.

  • Hardware/Firmware Intersection: Solid understanding of firmware development lifecycle, ASIC development flows, and hardware description languages (Verilog/SystemVerilog).

  • Advanced Python Scripting: Demonstrated expertise in Python for developing internal tools, parsing debug logs, and building automated regression testing frameworks.

  • Low-Level Firmware/Diagnostic Skills: Ability to write and debug low-level diagnostic code or bare-metal software to validate platform functionality.

  • Systems Administration Fundamentals: Functional understanding of networking, UNIX/Linux, and Windows administration, including troubleshooting local environment, licensing, and OS-level issues.

  • Data Manipulation & Analysis: Proficiency in processing and analyzing usage metrics to optimize resource allocation and infrastructure performance.

Preferred Skills:

  • Understanding of FPGA synthesis, place-and-route constraints, and clocking strategies.

  • Experience with version control systems (e.g., Git) and CI/CD pipelines for infrastructure automation.

  • Familiarity with scripting languages beyond Python (e.g., Shell scripting, Perl).

  • Knowledge of ASIC bring-up methodologies and common challenges.

πŸ“ Enhancement Note: The required skills are highly specific to the pre-silicon validation and platform engineering domain. The emphasis on both hardware-centric skills (FPGA, emulation, debugging tools) and software/scripting skills (Python, firmware diagnostics, systems admin) underscores the hybrid nature of this role. The experience level (8-15 years) positions this as a senior individual contributor or staff engineer.

πŸ“Š Process & Systems Portfolio Requirements

Portfolio Essentials:

  • Platform Bring-Up Case Studies: Showcase successful projects where you led or significantly contributed to the bring-up of complex FPGA prototyping or emulation platforms, detailing the challenges and your methodology.

  • System-Level Debugging Examples: Provide specific examples of complex issues you diagnosed and resolved during early platform bring-up, highlighting the tools and techniques used to identify root causes across hardware and software boundaries.

  • Automation & Tool Development Projects: Present examples of internal tools or automation scripts (especially in Python) you developed to improve platform efficiency, utilization, or reliability, including metrics on impact.

  • Infrastructure Optimization Contributions: Detail instances where your data analysis or process improvements led to better resource allocation, increased throughput, or reduced downtime for shared engineering resources.

Process Documentation:

  • Workflow Design & Optimization: Demonstrate experience in designing and documenting workflows for platform setup, configuration, and troubleshooting, ensuring clarity and repeatability.

  • Implementation & Automation Methods: Showcase your ability to implement and automate complex engineering processes, particularly those related to resource management, testing, and reporting for large-scale systems.

  • Measurement & Performance Analysis: Provide examples of how you defined, tracked, and analyzed key performance indicators (KPIs) for engineering platforms to drive improvements and demonstrate ROI.

πŸ“ Enhancement Note: For a role focused on platform engineering and enablement, a portfolio demonstrating practical application of skills is crucial. Candidates should be prepared to showcase specific instances of problem-solving, tool development, and process improvement, ideally with quantifiable results. The emphasis is on enabling others, so examples of how you've unblocked teams or improved shared infrastructure are highly relevant.

πŸ’΅ Compensation & Benefits

Salary Range:

  • Given the Staff Engineer level, the extensive experience required (8-15 years), and the specialized nature of the role (FPGA prototyping, emulation, system-level debugging), a competitive salary package is expected.

  • For Bengaluru, India, a Staff ASIC Digital Engineer with this profile could typically expect an annual salary in the range of β‚Ή25,00,000 to β‚Ή45,00,000 (INR), depending on the specific experience, skill set, and negotiation. This range is based on industry benchmarks for senior engineering roles in major tech hubs in India, considering factors like cost of living and demand for specialized hardware engineering talent. Benefits:

  • Comprehensive Health Insurance: Medical, dental, and vision coverage for employees and their dependents.

  • Retirement Savings Plan: Contributions to a provident fund or similar retirement savings scheme.

  • Performance Bonuses: Annual or project-based bonuses tied to individual and company performance.

  • Stock Options/RSUs: Potential for equity grants as part of the compensation package, reflecting Sandisk's status as a significant technology company.

  • Paid Time Off: Generous vacation, sick leave, and public holiday allowances.

  • Professional Development: Opportunities for training, certifications, and attendance at industry conferences.

  • Employee Assistance Programs: Support services for personal and professional well-being.

  • Relocation Assistance: May be available for candidates relocating to Bengaluru.

Working Hours:

  • Standard full-time work week, typically 40 hours.

  • While on-site, there may be flexibility in start/end times, but core hours will likely align with team collaboration needs.

  • Occasional extended hours may be required to address critical platform bring-up issues or meet project deadlines, particularly during intense development phases.

πŸ“ Enhancement Note: The salary range is an estimate based on current market data for senior hardware engineering roles in Bengaluru, India, and the specified experience level. It's essential for candidates to research current local compensation standards for similar roles. The benefits listed are typical for large technology firms and should be confirmed with Sandisk.

🎯 Team & Company Context

🏒 Company Culture

Industry: Semiconductor and Data Storage Solutions. Sandisk, now part of Western Digital, is a leader in flash memory and advanced storage technologies, driving innovation in data consumption and digital transformation.

Company Size: Sandisk (Western Digital) is a large, global enterprise with tens of thousands of employees worldwide. This implies robust processes, established engineering practices, and significant resources.

Founded: Sandisk was founded in 1988, and Western Digital (which acquired Sandisk) was founded in 1970. This long history signifies deep expertise, stability, and a track record of innovation in the data storage and semiconductor industries.

Team Structure:

  • The role is within the Platform Engineering organization, which is a specialized group focused on providing the infrastructure and tools that enable other engineering teams (ASIC design, firmware, verification).

  • The team likely comprises engineers with diverse specializations, including ASIC design, FPGA development, firmware engineering, hardware validation, and systems administration, fostering a collaborative, cross-disciplinary environment.

  • The reporting structure would typically be to an Engineering Manager or Director responsible for platform engineering initiatives. Methodology:

  • Data-Driven Decision Making: Emphasis on using metrics and analytics to optimize platform utilization, identify bottlenecks, and guide infrastructure investments.

  • Process Optimization & Automation: A strong focus on developing and refining workflows to increase efficiency, reduce manual effort, and improve the reliability of engineering processes.

  • Cross-Functional Collaboration: A methodology that relies heavily on close partnerships with ASIC design, firmware, and verification teams to understand their needs and provide effective solutions.

  • Agile/Iterative Development: While not explicitly stated, large-scale engineering projects often benefit from iterative approaches to platform development and problem-solving.

Company Website: https://www.sandisk.com/ (Note: Sandisk is a brand under Western Digital, so company_url might lead to WD)

πŸ“ Enhancement Note: The company context highlights Sandisk's position as a major player in storage technology, suggesting a demanding yet rewarding environment with opportunities to work on advanced projects. The "Global Lighthouse Network" mentions indicate a commitment to advanced manufacturing and 4IR innovations, which likely extends to their R&D and engineering practices.

πŸ“ˆ Career & Growth Analysis

Operations Career Level: This is a Staff ASIC Digital Engineer role, signifying a senior individual contributor position. It requires deep technical expertise, the ability to work independently on complex problems, and the capacity to mentor junior engineers. This level often involves influencing technical direction and solving problems that span multiple projects or teams.

Reporting Structure: The role reports into the Platform Engineering organization, likely to a Manager or Director. This position will collaborate extensively with ASIC Design, Firmware, and Hardware Validation teams, acting as a key enabler for their success.

Operations Impact: The impact of this role is significant as it directly influences the speed, efficiency, and quality of pre-silicon ASIC development. By ensuring robust prototyping and emulation platforms, the engineer accelerates product cycles, reduces critical bugs found post-silicon, and ultimately contributes to faster time-to-market for Sandisk's innovative storage products. Effective platform engineering is foundational to the entire ASIC development process.

Growth Opportunities:

  • Technical Specialization: Deepen expertise in FPGA prototyping, hardware emulation, advanced debugging techniques, or specific ASIC design flows.

  • Leadership Development: Transition into technical leadership roles, such as technical lead for platform engineering initiatives, or manage projects involving multiple engineers.

  • Cross-Functional Mobility: Move into related areas like ASIC verification, firmware development, or even product management, leveraging a broad systems-level understanding.

  • Mentorship & Training: Guide and mentor junior engineers, contribute to internal training programs, and help establish best practices within the platform engineering domain.

  • Global Project Involvement: Participate in and lead projects that have a global scope, interacting with engineering teams across different regions.

πŸ“ Enhancement Note: The "Staff" title indicates a high level of technical contribution and influence. Growth paths are likely to involve either deeper technical specialization or a move towards technical leadership and management within the engineering organization. The role's central position in the development pipeline offers excellent visibility and opportunities to impact multiple product lines.

🌐 Work Environment

Office Type: The job listing mentions "Bengaluru PTP Office (IBP)--LOC_WDT_IBP," indicating a physical office environment. Given the nature of the work involving specialized hardware and collaborative debugging, it is an on-site role.

Office Location(s): Bengaluru, Karnataka, India. This is a major technology hub, offering a vibrant ecosystem for engineering professionals.

Workspace Context:

  • Collaborative Environment: The role requires close interaction with various engineering teams, necessitating a collaborative office layout and strong communication channels.

  • Access to Specialized Hardware: The engineer will have access to high-density FPGA boards, emulation systems, advanced debugging equipment, and potentially a dedicated lab environment.

  • Technology & Tools: A robust IT infrastructure, including high-performance workstations, networking capabilities, and access to specialized software licenses, will be essential.

  • Team Interaction: Regular meetings, design reviews, and ad-hoc problem-solving sessions with colleagues within the Platform Engineering team and external stakeholders (design, firmware, verification).

Work Schedule: Standard full-time business hours, with potential for occasional extended hours to address critical issues. The on-site nature ensures direct access to hardware and immediate collaboration opportunities.

πŸ“ Enhancement Note: The on-site requirement is typical for roles involving hands-on work with specialized hardware and direct collaboration with teams that also operate from physical locations. The Bengaluru location suggests being part of a significant engineering hub.

πŸ“„ Application & Portfolio Review Process

Interview Process:

  • Initial Screening: HR or recruiter call to assess basic qualifications, experience, and interest in the role and company.

  • Technical Phone/Video Interview: In-depth discussion with an engineering manager or senior engineer to evaluate technical skills in FPGA prototyping, emulation, system-level debugging, and scripting (Python).

Expect questions on past projects and problem-solving approaches.

  • On-site/Virtual Technical Interviews: A series of interviews with team members and potential peers. This may include:

    • Deep Dive Technical Sessions: Focused discussions on specific areas like FPGA architecture, emulation methodologies, debugging techniques, and hardware-firmware interactions.
    • Problem-Solving Exercises: Hypothetical scenarios or debugging challenges to assess analytical thinking and approach.
    • Portfolio Review: Presentation and discussion of your technical portfolio, focusing on how you've applied your skills to solve real-world engineering problems.
  • Hiring Manager Interview: Final discussion with the hiring manager to assess cultural fit, leadership potential, and overall alignment with the team's goals.

Portfolio Review Tips:

  • Quantify Impact: For each project, clearly state the problem, your solution, and the quantifiable results (e.g., "reduced bring-up time by 30%", "identified critical bug X weeks earlier", "increased platform utilization by 15%").

  • Highlight Collaboration: Showcase instances where your work enabled other teams, facilitated communication, or solved cross-functional issues.

  • Structure Your Presentation: Organize your portfolio logically, perhaps by skill area or project type. Use clear visuals (diagrams, screenshots) where appropriate.

  • Be Ready for Deep Dives: Prepare to discuss the technical details of your projects, including challenges, trade-offs, and lessons learned.

  • Focus on Relevance: Tailor your portfolio presentation to highlight the skills and experiences most relevant to the Staff ASIC Digital Engineer role as described.

Challenge Preparation:

  • Debugging Scenarios: Practice thinking through complex system-level failures, outlining a systematic approach to root cause analysis.

  • Scripting Challenges: Be prepared for coding exercises or discussions about Python scripting for automation, data analysis, or tool development.

  • FPGA/Emulation Concepts: Review fundamental concepts related to FPGA design, synthesis, timing, and the differences/use cases of emulation platforms.

  • Hardware-Firmware Interaction: Consider common issues and debugging strategies at the boundary between hardware and firmware.

πŸ“ Enhancement Note: The interview process will likely be rigorous, focusing on both deep technical expertise and practical problem-solving abilities. A well-prepared portfolio that clearly demonstrates impact and relevant experience will be a significant asset.

πŸ›  Tools & Technology Stack

Primary Tools:

  • FPGA Prototyping Platforms: Synopsys HAPS, custom multi-FPGA boards.

  • Hardware Emulation Platforms: Cadence Palladium, Synopsys ZeBu.

  • Debugging Tools: JTAG debuggers, protocol analyzers, logic analyzers, in-circuit emulators.

  • Hardware Description Languages (HDLs): Verilog, SystemVerilog (for understanding design context).

  • Scripting & Automation: Advanced Python is a core requirement. Shell scripting, Perl may also be useful.

  • Version Control: Git, Perforce (common in semiconductor industry).

Analytics & Reporting:

  • Tools for processing and analyzing usage metrics (e.g., custom scripts, potentially SQL or data analysis libraries in Python).

  • Dashboarding tools for reporting infrastructure health and utilization (e.g., Grafana, internal tools). CRM & Automation:

  • While not a CRM role, understanding how platform usage data feeds into resource planning and potentially project management systems is relevant.

  • Workflow automation tools for setting up environments, running tests, and generating reports. Operating Systems & Administration:

  • UNIX/Linux (essential for server environments and scripting).

  • Windows Administration (for managing mixed environments and user workstations).

  • Networking fundamentals.

πŸ“ Enhancement Note: Proficiency in Python for automation and data analysis is a key technical requirement. Familiarity with specific FPGA and emulation platforms is highly valued, though the ability to learn and adapt to Sandisk's specific stack is also important.

πŸ‘₯ Team Culture & Values

Operations Values:

  • Innovation & Problem Solving: A culture that encourages creative solutions to complex technical challenges, particularly in optimizing engineering processes and platforms.

  • Collaboration & Teamwork: Strong emphasis on working effectively across teams (ASIC design, firmware, verification) to achieve common goals.

  • Efficiency & Optimization: A drive to improve processes, automate tasks, and maximize resource utilization to accelerate product development cycles.

  • Technical Excellence: A commitment to deep technical understanding and continuous learning in the rapidly evolving fields of silicon design and verification.

  • Ownership & Accountability: Taking responsibility for critical platform stability and performance, ensuring reliability for internal customers.

Collaboration Style:

  • Proactive Engagement: Actively reaching out to user teams to understand their needs and potential roadblocks.

  • Clear Communication: Articulating complex technical issues and solutions effectively to diverse audiences.

  • Supportive & Enabling: Acting as a partner to other engineering teams, providing them with the tools and support they need to succeed.

  • Knowledge Sharing: Willingness to document, share best practices, and mentor others to build collective expertise.

πŸ“ Enhancement Note: The culture likely values engineers who are technically adept, proactive in solving problems, and adept at working collaboratively within a large, complex organization. The emphasis on enabling other teams is a defining characteristic of platform engineering roles.

⚑ Challenges & Growth Opportunities

Challenges:

  • Managing Complexity: Dealing with highly complex, multi-board FPGA systems and sophisticated emulation environments requires meticulous attention to detail.

  • Root Cause Analysis: Debugging elusive, system-level failures that span hardware, firmware, and platform configurations can be time-consuming and demanding.

  • Keeping Pace with Technology: The rapid evolution of ASIC technologies, FPGA capabilities, and emulation platforms requires continuous learning and adaptation.

  • Balancing Support & Development: Juggling immediate support requests from multiple engineering teams with the need to develop long-term automation and infrastructure improvements.

  • Global Infrastructure Management: Ensuring consistent performance, reliability, and accessibility of platforms distributed across global engineering sites.

Learning & Development Opportunities:

  • Advanced FPGA & Emulation Techniques: Gaining hands-on experience with state-of-the-art prototyping and emulation solutions.

  • Deep Dive into ASIC Bring-up: Understanding the intricacies of the ASIC development lifecycle from a platform enablement perspective.

  • Scripting & Automation Expertise: Further developing skills in Python and other automation tools to build sophisticated engineering infrastructure.

  • System-Level Architecture: Broadening understanding of how different components (hardware, firmware, software) interact in complex systems.

  • Industry Best Practices: Learning and applying best practices in hardware verification, platform engineering, and DevOps principles within a semiconductor context.

πŸ“ Enhancement Note: This role offers significant opportunities for growth by tackling challenging technical problems and staying at the forefront of pre-silicon verification technologies. The challenges are inherent to working with cutting-edge hardware development.

πŸ’‘ Interview Preparation

Strategy Questions:

  • "Describe a time you had to debug a complex system-level issue during hardware bring-up. What was your approach, and what tools did you use?" (Focus on systematic problem-solving, tools, and root cause analysis.)

  • "How would you automate the process of setting up and testing a new FPGA prototyping board for a large design?" (Assess scripting skills, understanding of workflow automation, and practical implementation.)

  • "Explain the trade-offs between using FPGA prototyping versus hardware emulation for ASIC verification." (Demonstrate understanding of different pre-silicon validation methodologies.)

  • "Imagine a firmware team is reporting consistent crashes on your emulation platform. How would you approach diagnosing and resolving this issue?" (Focus on collaboration, systematic debugging across boundaries, and stakeholder communication.) Company & Culture Questions:

  • "What interests you about Sandisk and its role in the data storage industry?" (Show research into the company's mission, products, and market position.)

  • "How do you approach working with teams that have different technical priorities or skill sets?" (Highlight collaboration, communication, and empathy.)

  • "Describe your ideal work environment and team culture." (Align your response with Sandisk's emphasis on innovation, collaboration, and technical excellence.) Portfolio Presentation Strategy:

  • The STAR Method: Structure your portfolio examples using Situation, Task, Action, Result. Clearly articulate the context, your role, the steps you took, and the outcome.

  • Visual Aids: Use diagrams of your setups, screenshots of your scripts or dashboards, and charts showing performance improvements.

  • Technical Depth: Be prepared to answer detailed technical questions about your projects, including design choices, challenges, and alternative approaches you considered.

  • Impact Focus: Emphasize how your work directly benefited the engineering teams or the company's product development process.

  • Conciseness: Present your key achievements efficiently, respecting the interviewer's time.

πŸ“ Enhancement Note: Interviewers will be looking for a strong blend of technical acumen, practical problem-solving skills, and the ability to collaborate effectively. A well-prepared candidate will be able to articulate their experience through concrete examples, demonstrating a clear understanding of the role's impact.

πŸ“Œ Application Steps

To apply for this Staff ASIC Digital Engineer position:

  • Submit your application through the provided link on jobs.smartrecruiters.com.

  • Tailor Your Resume: Ensure your resume clearly highlights your experience with FPGA prototyping, hardware emulation, system-level debugging, and advanced Python scripting, using keywords from the job description. Quantify your achievements wherever possible.

  • Prepare Your Portfolio: Curate 2-4 key projects or case studies that best demonstrate your expertise in platform bring-up, automation, and complex debugging. Be ready to present these, focusing on your specific contributions and the impact.

  • Research Sandisk & Western Digital: Understand the company's mission, products, and recent innovations, particularly in storage technology and advanced manufacturing.

  • Practice Technical Concepts: Review core concepts in HDL, FPGA design, emulation architectures, and common debugging methodologies. Prepare to discuss your experience with specific tools like HAPS, Palladium, or ZeBu.

  • Prepare for Behavioral Questions: Think about examples that showcase your problem-solving skills, collaboration abilities, and how you handle challenging technical situations.

⚠️ 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.

Application Requirements

Candidates must have 8 to 15 years of experience in pre-silicon development, hardware verification, or platform bring-up. A Bachelor's or Master's degree in Electrical Engineering, Computer Engineering, or Computer Science is required.