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

📍 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

Date Posted: August 05, 2026

Experience Level: 8-15 Years

🚀 Role Summary

• This role focuses on supporting advanced prototyping and emulation platforms within the Platform Engineering organization, bridging the gap between firmware, silicon design, and hardware validation.

• The engineer will be responsible for leading project bring-up, diagnostics, and complex system-level debugging on high-density FPGA deployments.

• A key aspect involves developing automation, monitoring scripts, and health-check reporting to enhance the reliability and throughput of the emulation and prototyping infrastructure.

• The position requires close collaboration with product firmware engineers to resolve execution barriers and abstract hardware complexities, acting as a first line of defense for system-level failures.

📝 Enhancement Note: This role is highly specialized within the ASIC development lifecycle, focusing on the critical pre-silicon validation phase. The emphasis on FPGA prototyping, emulation, and system-level debugging indicates a need for deep expertise in hardware-software co-verification and platform infrastructure management. The "Staff" title suggests a senior individual contributor role with significant autonomy and influence.

📈 Primary Responsibilities

• Lead the initial setup, environment configuration, and stabilization of emulation and prototyping platforms during critical project bring-up phases.

• Act as the primary point of contact for triaging and debugging complex system-level failures, rapidly isolating root causes across hardware, FPGA/emulator configurations, and early boot-code.

• Collaborate directly with product firmware engineers to proactively address and resolve execution barriers, ensuring smooth development pipelines and abstracting hardware complexities.

• Develop and implement robust automation, monitoring scripts, and health-check reporting mechanisms to maximize the reliability, utilization, and throughput of the global emulation and prototyping farm.

• Document innovative workarounds, capture detailed debug methodologies, and build standardized playbooks for platform setup, troubleshooting, and best practices.

📝 Enhancement Note: The responsibilities highlight a blend of hands-on technical execution and strategic infrastructure development. The emphasis on "leading" bring-up and acting as "first line of defense" signifies a senior technical leadership expectation, even within an individual contributor role.

🎓 Skills & Qualifications

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

Experience: 8–15 years of experience working in pre-silicon development, hardware verification, or platform bring-up.

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.

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

• Python Expertise: Advanced Python scripting skills for developing internal tools, parsing debug logs, and creating automated regression testing frameworks.

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

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

• Data Manipulation: Expertise in processing and analyzing usage metrics to optimize resource allocation across global infrastructure.

Preferred Skills:

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

• Familiarity with hardware emulation architectures (e.g., Cadence Palladium, Synopsys ZeBu) and mapping design code into an emulation environment.

📝 Enhancement Note: The required skills are highly specific to the pre-silicon validation domain. The emphasis on Python scripting and systems administration suggests the role involves significant automation and infrastructure management, beyond just traditional hardware debugging. Rudimentary firmware skills are crucial for validating the platform's core functionality.

📊 Process & Systems Portfolio Requirements

Portfolio Essentials:

• Demonstrate successful projects involving the bring-up and stabilization of complex FPGA prototyping or emulation platforms.

• Showcase examples of system-level debugging scenarios, detailing the methodology used to isolate and resolve intricate hardware/firmware issues.

• Provide evidence of developing automation scripts or tools (preferably in Python) that improved efficiency, reliability, or throughput of a development or testing environment.

• Include case studies illustrating how you partnered with firmware or design teams to unblock their development pipelines and abstract hardware complexities. Process Documentation:

• Documented workflows for platform setup, environment configuration, and initial diagnostics for emulation/prototyping systems.

• Examples of debug methodologies and standardized playbooks created for troubleshooting common or complex system-level failures.

• Metrics and analysis reports demonstrating optimization of resource allocation or utilization for prototyping/emulation farms.

📝 Enhancement Note: For a role at this level, a portfolio is expected to showcase not just technical execution but also problem-solving prowess, automation capabilities, and the ability to improve operational efficiency within the pre-silicon development process.

💵 Compensation & Benefits

Salary Range: Based on industry benchmarks for a Staff ASIC Digital Engineer with 8-15 years of experience in Bengaluru, India, the estimated annual salary range is ₹25,00,000 to ₹45,00,000. This range accounts for the specialized nature of FPGA prototyping, emulation, and system-level debugging skills, as well as the cost of living and market demand in Bengaluru.

Benefits:

• Comprehensive health insurance coverage (medical, dental, vision) for employees and dependents.

• Retirement savings plans, including provident fund contributions and potential matching schemes.

• Paid time off, including annual leave, sick leave, and public holidays, in line with Indian labor laws and company policy.

• Opportunities for professional development, including training programs, certifications, and attendance at industry conferences.

• Potential for performance-based bonuses and stock options/grants, reflecting Sandisk's global compensation structure.

• Access to company facilities and employee assistance programs.

Working Hours: The standard working hours are 40 hours per week, typically Monday to Friday. Some flexibility may be available, but the nature of platform bring-up and critical debugging may require occasional extended hours or weekend work to meet project deadlines and resolve urgent issues.

📝 Enhancement Note: The salary estimate is based on publicly available data for senior hardware engineering roles in Bengaluru, considering the specific technologies (FPGA, emulation, ASIC) and the "Staff" level designation. Benefits are standardized for a large, multinational tech company operating in India.

🎯 Team & Company Context

🏢 Company Culture

Industry: Technology, Semiconductor Manufacturing, Data Storage Solutions. Sandisk, now part of a larger entity, is renowned for its innovation in Flash and advanced memory technologies, underpinning the digital world's data consumption and storage needs. The company highlights its commitment to advanced 4IR (Fourth Industrial Revolution) innovations in its manufacturing facilities.

Company Size: While specific current data for Sandisk as a standalone entity isn't provided, it's a significant player in the semiconductor industry, implying a large global workforce. The "Staff" level role suggests it operates within a well-established organizational structure with dedicated engineering teams.

Founded: Sandisk has a rich history of innovation in flash memory, founded in 1988. Its integration into larger entities has maintained its legacy of technological advancement. This historical context suggests a culture that values long-term innovation and market leadership.

Team Structure:

• The Platform Engineering organization likely comprises specialized engineers focused on developing and maintaining the infrastructure essential for ASIC design and verification. This team bridges firmware, silicon design, and hardware validation.

• The reporting structure for a Staff Engineer typically involves reporting to an Engineering Manager or Director, with significant autonomy in technical decision-making within their domain.

• Cross-functional collaboration is critical, with close interaction expected between ASIC designers, firmware developers, hardware validation engineers, and other platform stakeholders. Methodology:

• Data-driven decision-making is implied through the need to analyze usage metrics for resource optimization.

• Workflow planning and optimization are central to developing automation and improving the efficiency of the emulation and prototyping farm.

• Automation and efficiency practices are core to the role's responsibilities, focusing on maximizing platform utilization and throughput.

Company Website: [Sandisk's primary corporate information is often integrated into its parent company's website, but a general search for "Sandisk" will lead to relevant product and company overview pages.]

📝 Enhancement Note: The company description emphasizes innovation, advanced manufacturing (4IR), and a global supply chain focus. This suggests an environment that values cutting-edge technology and operational excellence, which the Platform Engineering team directly supports.

📈 Career & Growth Analysis

Operations Career Level: This role is at the "Staff" level, indicating a senior individual contributor position. It signifies deep technical expertise, significant autonomy, and the ability to influence technical direction within the pre-silicon platform engineering domain. A Staff Engineer is expected to tackle complex, ambiguous problems and mentor junior engineers.

Reporting Structure: The engineer will likely report to an Engineering Manager or Director within the Platform Engineering organization. They will work independently on assigned projects and collaborate extensively with cross-functional teams, including ASIC design and firmware development.

Operations Impact: The engineer's work directly impacts the speed and quality of ASIC development. By ensuring robust and efficient FPGA prototyping and emulation platforms, they accelerate the firmware development lifecycle, reduce pre-silicon bugs, and ultimately contribute to faster time-to-market for Sandisk's advanced semiconductor products. Effective platform support and debugging are crucial for validating complex system-level designs before silicon tape-out.

Growth Opportunities:

• Technical Specialization: Deepen expertise in advanced FPGA prototyping techniques, hardware emulation architectures, and complex system-level debugging methodologies, potentially leading to principal engineer roles.

• Leadership & Mentorship: Grow into a technical lead or architect role, guiding other engineers on the team, defining platform strategies, and mentoring junior staff.

• Cross-Functional Expansion: Gain broader exposure to ASIC design flows, firmware architecture, and hardware validation strategies by working closely with these teams, potentially leading to roles in broader system engineering or verification management.

📝 Enhancement Note: The "Staff" designation is key here, implying a level of technical mastery and problem-solving capability that goes beyond typical senior engineer roles. Growth paths are strongly geared towards deepening technical expertise or moving into technical leadership.

🌐 Work Environment

Office Type: This is an on-site role at the Bengaluru PTP (Prototype and Test Platform) Office. The description implies a hands-on, lab-intensive environment where engineers work directly with specialized hardware platforms.

Office Location(s): Bengaluru, Karnataka, India (specifically the IBP office). This location is a major technology hub in India, offering access to a skilled talent pool and a vibrant tech ecosystem.

Workspace Context:

• The workspace will involve direct interaction with high-density FPGA prototyping boards, emulation systems, and associated debugging equipment.

• Access to advanced debugging tools (JTAG, logic analyzers, protocol analyzers) and potentially a dedicated lab environment is expected.

• Opportunities for collaboration with a team of specialized platform engineers, firmware developers, and ASIC designers are integral to the role.

Work Schedule: The primary work schedule is on-site, Monday to Friday, approximately 40 hours per week. However, the demands of platform bring-up and critical debugging may necessitate flexibility, including potential extended hours or weekend work to resolve urgent issues and meet tight project timelines.

📝 Enhancement Note: The "PTP Office" designation strongly suggests a dedicated hardware lab environment. The on-site requirement is crucial for this type of role, where direct interaction with physical hardware and specialized test equipment is paramount.

📄 Application & Portfolio Review Process

Interview Process:

• Initial Screening: Review of resume and application to assess experience alignment with required skills in FPGA prototyping, emulation, system-level debugging, and Python scripting.

• Technical Interview(s): In-depth discussions covering hardware/firmware intersection, debugging methodologies, FPGA design principles, and Python automation experience. Expect problem-solving scenarios related to platform bring-up and complex debug challenges.

• Portfolio Review: Presentation and discussion of past projects showcasing experience with large-scale FPGA prototyping, emulation platforms, and automation tool development. Emphasis will be on detailing your role, methodologies, and impact.

• System-Level Debugging Challenge: A practical or theoretical exercise may be presented to assess your approach to diagnosing and resolving complex system-level failures.

• Hiring Manager/Team Interview: Assessment of cultural fit, communication skills, ability to collaborate with cross-functional teams, and overall understanding of the role's impact on the ASIC development lifecycle.

Portfolio Review Tips:

• Quantify Impact: For each project, clearly state the problem, your solution, and the quantifiable results (e.g., reduction in debug time, increase in platform utilization, successful unblocking of firmware development).

• Showcase Debugging Methodology: Detail your systematic approach to isolating issues, the tools used, and the thought process behind tracing signals or state machines.

• Highlight Automation: Present Python scripts or tools developed, explaining the problem they solved, the complexity, and the benefits achieved (e.g., reduced manual effort, improved data analysis).

• Address Collaboration: Be prepared to discuss how you effectively partnered with firmware and design teams, translating technical needs and challenges.

Challenge Preparation:

• Review common FPGA prototyping and emulation issues, such as clocking, connectivity, synthesis constraints, and boot sequence failures.

• Practice explaining your debugging process for hypothetical complex system-level failures.

• Be ready to discuss how you would automate routine tasks or data analysis related to platform usage and health.

📝 Enhancement Note: The interview process will heavily weigh practical experience and problem-solving skills. A strong portfolio demonstrating hands-on work with the specified technologies and a clear articulation of impact are crucial for success.

🛠 Tools & Technology Stack

Primary Tools:

• FPGA Prototyping Platforms: Experience with Synopsys HAPS, or similar multi-FPGA board solutions is highly valued. Familiarity with custom multi-FPGA board designs.

• Hardware Emulation Architectures: Knowledge of Cadence Palladium or Synopsys ZeBu systems, including mapping design code and understanding their operational nuances.

• Debugging Tools: Proficiency with JTAG, various protocol analyzers (e.g., PCIe, USB), logic analyzers, and in-circuit emulators.

• Hardware Description Languages (HDLs): Strong understanding and practical experience with Verilog and SystemVerilog for design and debugging.

Analytics & Reporting:

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

• Familiarity with generating health-check reports and system monitoring dashboards. CRM & Automation:

• Python: Advanced scripting skills for developing internal tools, parsing debug logs, creating automation frameworks, and data manipulation.

• Scripting & Shell: Experience with shell scripting for UNIX/Linux environments.

📝 Enhancement Note: The technology stack is heavily weighted towards specialized pre-silicon validation tools and languages. Python's prominence underscores the role's automation and infrastructure management aspects.

👥 Team Culture & Values

Operations Values:

• Innovation: A drive to find new and better ways to support ASIC development through advanced platform technologies and automation.

• Collaboration: A strong emphasis on working effectively with firmware, silicon design, and hardware validation teams to achieve shared goals.

• Problem-Solving: A commitment to tackling complex, ambiguous technical challenges with a systematic and persistent approach.

• Efficiency & Reliability: A focus on maximizing the utilization and uptime of critical engineering resources like emulation and prototyping platforms.

• Technical Excellence: A dedication to deep technical understanding and continuous learning in the specialized field of pre-silicon validation.

Collaboration Style:

• Cross-functional Integration: Proactive engagement with firmware engineers to understand their needs and provide timely support, acting as a key enabler for their development cycles.

• Process Review Culture: Openness to sharing debug methodologies and documenting best practices, contributing to a collective knowledge base within the team.

• Knowledge Sharing: Actively documenting workarounds, capture debug methodologies, and building standardized playbooks to empower others and improve team efficiency.

📝 Enhancement Note: The company culture, as described, emphasizes innovation and global impact. Within this team, the values are likely geared towards technical depth, collaborative problem-solving, and operational efficiency that directly supports product development timelines.

⚡ Challenges & Growth Opportunities

Challenges:

• Complexity of System-Level Debugging: Tackling intricate failures that span across hardware, FPGA logic, and early boot firmware requires deep analytical skills and a systematic approach.

• Managing Diverse User Needs: Supporting a broad range of product firmware engineers with varying technical backgrounds and specific platform requirements.

• Keeping Pace with Technology: Continuously learning and adapting to new FPGA technologies, emulation platforms, and debugging tools in a rapidly evolving field.

• Infrastructure Scalability & Reliability: Ensuring the global emulation and prototyping farm remains robust, scalable, and highly available to meet increasing demand.

Learning & Development Opportunities:

• Advanced FPGA & Emulation Training: Opportunities to gain deeper expertise in cutting-edge FPGA design tools, emulation methodologies, and advanced debugging techniques.

• Industry Conferences & Certifications: Potential to attend leading industry events (e.g., DVCon, FPL) and pursue relevant certifications in hardware verification or FPGA design.

• Mentorship & Technical Leadership: Opportunities to mentor junior engineers, contribute to technical roadmaps, and potentially lead complex platform initiatives.

📝 Enhancement Note: The challenges are inherent to the specialized nature of pre-silicon validation. The growth opportunities are focused on deepening technical mastery and expanding influence within the engineering organization.

💡 Interview Preparation

Strategy Questions:

• "Describe a time you had to debug a complex system-level failure involving hardware, FPGA, and early firmware. What was your approach, and what was the outcome?" (Focus on systematic debugging, tool usage, and collaboration).

• "How would you automate the process of setting up a new FPGA prototyping environment for a firmware team?" (Highlight Python scripting, environment configuration, and user support).

• "Imagine an emulation platform is experiencing frequent crashes during a critical design phase. How would you diagnose and resolve this issue to minimize downtime?" (Emphasize root cause analysis, system stability, and communication). Company & Culture Questions:

• "What interests you about Sandisk and this specific role in Platform Engineering?" (Connect your skills to the company's mission in data storage and innovation, and the role's impact on ASIC development).

• "How do you approach collaborating with firmware engineers who may have different technical priorities or levels of hardware understanding?" (Demonstrate empathy, clear communication, and a focus on enabling their success).

• "How do you stay current with the latest advancements in FPGA technology and hardware emulation?" (Showcase your commitment to continuous learning and industry awareness). Portfolio Presentation Strategy:

• Structure: For each project, use a STAR (Situation, Task, Action, Result) or similar framework. Clearly define the problem, your specific role, the actions you took (especially technical steps and tools), and the quantifiable results.

• Highlight Automation: If showcasing automation tools, prepare a brief demo or clear screenshots/code snippets. Explain the problem solved, the complexity, and the efficiency gains.

• Emphasize Debugging: For debugging examples, walk through the logical steps taken to isolate the issue. Discuss the tools used and the insights gained.

• Tailor to Role: Focus on examples most relevant to FPGA prototyping, emulation, system-level debugging, and Python scripting.

📝 Enhancement Note: Candidates should be prepared to discuss technical challenges in detail, demonstrate a structured problem-solving approach, and articulate the impact of their work clearly.

📌 Application Steps

To apply for this operations position:

• Submit your application through the provided job portal link.

• Tailor Your Resume: Ensure your resume clearly highlights your experience with FPGA prototyping, emulation platforms (e.g., Synopsys HAPS, Cadence Palladium), system-level debugging tools (JTAG, logic analyzers), Verilog/SystemVerilog, and advanced Python scripting. Quantify achievements wherever possible.

• Prepare Your Portfolio: Compile examples of projects that demonstrate your capabilities in platform bring-up, automation development, and complex debugging. Be ready to present these with clear explanations of your role, methodology, and impact.

• Research Sandisk: Understand the company's position in the semiconductor and data storage industry, its commitment to innovation (e.g., 4IR), and its product lines.

• Practice Technical Explanations: Be ready to articulate your understanding of hardware-software co-verification, ASIC development lifecycles, and the importance of pre-silicon validation.

⚠️ 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.