About this Opportunity
Join Ericsson's cutting-edge journey to shape the future of 5G networks! As a Low-Power Physical Design Engineer, you'll work on pioneering digital ASIC designs vital to Ericsson's mobile network infrastructure. Our team, responsible for the final critical stage of chip design before fabrication, thrives on Lean and Agile principles, promoting close collaboration, daily progress-sharing, and continuous improvement. If you're passionate about advanced technology and ready to make a meaningful impact in telecom, this role is crafted just for you.
At Ericsson, we support your growth, offering opportunities to advance your skills while contributing to game-changing 5G/6G technologies. Here, you'll find a supportive, innovative environment focused on quality, teamwork, and career development. Join us and help shape the future of telecom!
About the Role
We are hiring a Low-Power Physical Design Engineer to own chip-level power estimation, analysis, and signoff using Synopsys PrimePower (PTPX) on high-performance, power-constrained SoC designs at advanced process nodes. You will define and drive power closure methodology, coordinate with RTL, physical design, and architecture teams to meet power budgets, and contribute to synthesis and STA flows as a secondary responsibility. This role is critical to the chip's power-performance story from early RTL through tape-out.
What you will do:
Dynamic Power Analysis• Own dynamic power analysis using Synopsys PrimePower (PTPX) across all design modes, workloads, and PVT corners.• Generate, annotate, and validate switching activity files (SAIF / VCD) from RTL and gate-level simulations for accurate power estimation.• Define representative workload scenarios and activity vectors for meaningful power measurement across use cases (active, idle, burst).• Perform clock-domain-level, block-level, and full-chip dynamic power breakdowns; identify high-power contributors and drive optimization.• Collaborate with RTL designers to implement low-power techniques - clock gating, operand isolation, fine-grained power gating - and verify their effectiveness in PTPX.
Static & Leakage Power Analysis• Perform leakage power analysis across process corners and temperatures; validate multi-Vt cell usage and leakage reduction strategies.• Analyze static power contribution from individual blocks and guide Vt optimization decisions in partnership with synthesis teams.• Validate UPF/CPF power intent implementation - isolation cells, level shifters, retention registers - for correctness and power impact.
Power Integrity & IR Drop• Coordinate with physical design and package teams on static and dynamic IR drop analysis using Ansys RedHawk or Synopsys VoltageStorm.• Analyze electromigration (EM) violations on power and signal nets; provide constraints and guidance to P&R for power grid fixes.• Define power delivery network (PDN) requirements and validate against IR drop targets throughout the design cycle.• Cross-correlate PTPX switching activity maps with IR drop hotspots to identify and resolve power integrity risks.
Power Signoff & Methodology• Define and own the power signoff checklist and sign-off criteria; lead power-related tape-out readiness reviews.• Build and maintain power estimation flows for early-stage RTL power budgeting and architecture trade-off studies.• Track power metrics across design milestones; produce detailed power reports for program management and architecture teams.• Develop and document power analysis methodology, scripts, and best practices for reuse across projects and technology nodes.• Engage with EDA vendors (Synopsys) to evaluate new PTPX features, resolve tool issues, and optimize flow runtime.
Synthesis Support• Assist synthesis team in reviewing QoR results from Design Compiler or Genus with a focus on power-aware optimization - multi-Vt assignment, clock gating inference, and operand isolation.• Provide power-driven feedback on synthesis constraints and strategies; validate that low-power RTL coding practices translate correctly through synthesis.• Review DFT-aware synthesis output to ensure scan and BIST insertion does not introduce unexpected switching activity or power overhead.
Static Timing Analysis Support• Contribute to STA reviews using PrimeTime - specifically for timing paths affected by power optimization changes (clock gating, Vt swaps, buffer insertion).• Validate that power-saving ECOs (gate sizing, Vt swaps) do not introduce timing regressions; flag and coordinate fixes with the STA team.• Support MMMC corner coverage for power-vs-timing trade-off analysis at critical operating points.
The skills you bring:
• B.Tech / M.Tech / M.S. in Electronics Engineering, VLSI Design, Computer Engineering, or a related field with 10+ years in power analysis or low-power design roles• Expert-level PTPX / PrimePower proficiency• SAIF/VCD generation, annotation, and validation• Strong understanding of dynamic, static, and leakage power dissipation mechanisms• Experience with UPF/CPF multi-voltage design flows• Familiarity with IR drop tools (RedHawk, VoltageStorm)• Working knowledge of synthesis (Fusion Compiler)• Basic STA familiarity (PrimeTime)• Proficiency in Tcl; Python scripting a strong plus• At least one tape-out on 7nm or below
Nice to Have
• Experience with architectural power modeling and early RTL estimation flows• Familiarity with P&R tools (Innovus, ICC2) for power-driven implementation• Knowledge of memory compiler power models and SRAM power characterization• Background in package-level power delivery and PDN co-design• Exposure to thermal analysis and junction temperature estimation• Familiarity with power-aware formal verification flows• Strong foundation in CMOS circuit theory, digital design, and power dissipation mechanisms (dynamic, short-circuit, leakage).• Analytical mindset with a track record of identifying and resolving complex power issues across large, multi-million gate designs.
EDA Tools & Environment
Synopsys PTPX / PrimePower, Ansys RedHawk, VC-LP, Synopsys VoltageStorm, VCS / Questa (SAIF/VCD), Fusion Compiler, Design Compiler, PrimeTime, Tcl / Python
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"All academic credentials must be from recognized and accredited institutions and are further subject to verification."
Why join Ericsson?At Ericsson, you'll have an outstanding opportunity. The chance to use your skills and imagination to push the boundaries of what's possible. To build solutions never seen before to some of the world's toughest problems. You'll be challenged, but you won't be alone. You'll be joining a team of diverse innovators, all driven to go beyond the status quo to craft what comes next.
What happens once you apply? Click Here to find all you need to know about what our typical hiring process looks like.Encouraging a diverse and inclusive organization is core to our values at Ericsson, that's why we champion it in everything we do. We truly believe that by collaborating with people with different experiences we drive innovation, which is essential for our future growth. We encourage people from all backgrounds to apply and realize their full potential as part of our Ericsson team. Ericsson is proud to be an Equal Opportunity Employer. learn more.
Primary country and city: India (IN) || Bangalore
Req ID: 786040
Skills Required
- B.Tech / M.Tech / M.S. in Electronics Engineering, VLSI Design, Computer Engineering, or related field with 10+ years in power analysis or low-power design roles
- Expert-level PTPX / PrimePower proficiency
- SAIF/VCD generation, annotation, and validation from RTL and gate-level simulations
- Strong understanding of dynamic, static, and leakage power dissipation mechanisms
- Experience with UPF/CPF multi-voltage design flows and power intent validation
- Familiarity with IR drop tools (Ansys RedHawk, Synopsys VoltageStorm) and PDN/IR drop analysis
- Working knowledge of synthesis tools (Fusion Compiler / Design Compiler) and power-driven synthesis feedback
- Basic STA familiarity (PrimeTime) and analysis of timing impacts from power optimizations
- Proficiency in Tcl
- Python scripting
- At least one tape-out on 7nm or below
- Experience with architectural power modeling and early RTL estimation flows
- Familiarity with P&R tools (Innovus, ICC2) for power-driven implementation
- Knowledge of memory compiler power models and SRAM power characterization
- Background in package-level power delivery and PDN co-design; thermal analysis exposure
- Familiarity with power-aware formal verification flows and strong CMOS circuit theory foundation
Ericsson Compensation & Benefits Highlights
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Healthcare Strength — Comprehensive medical, dental, vision, and mental‑health options are positioned as core benefits with multiple plan choices in key markets. Official materials explicitly emphasize healthcare breadth as part of “Life at Ericsson.”
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Retirement Support — 401(k) with employer matching in the U.S., pensions in some regions, and broad access to an ESPP indicate strong long‑term financial support. Company filings and AGM materials describe share programs and post‑employment benefits as ongoing pillars of the package.
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Leave & Time Off Breadth — Paid time off, sick leave, holidays, and paid volunteer time are highlighted alongside generous parental leave in various locations. Time‑off entitlements are presented as a strong component of the total rewards offering.
Ericsson Insights
What We Do
Ericsson builds the digital connectivity the world relies on. Our technology underpins the mobile networks, platforms, and systems that billions of people, businesses, and societies depend on every day. We are a global leader in communications technology, delivering mobile network infrastructure, cloud software, and wireless connectivity solutions for service providers and enterprises worldwide. Our networks support connectivity across 180+ countries, helping power everyday communication as well as critical digital services at global scale. Connectivity has evolved far beyond consumer mobile use. Today, nearly 80% of the world’s population accesses the internet via mobile networks, and Ericsson is helping shape what comes next. We are advancing 5G and 5G Advanced, developing network APIs that open connectivity to the global developer ecosystem, and applying automation and AI to make networks more intelligent, efficient, and resilient. Ericsson was the first company to launch live 5G networks on five continents, and our 5G platform is now commercially live in 150+ networks across 60+ countries. We also support more than 36,000 enterprise customers, enabling secure, high-performance connectivity for industries such as manufacturing, aviation, logistics, utilities, and public safety, where reliability and performance are mission critical. Innovation is central to how we work. Ericsson has approximately 28,000 employees in research and development, backed by one of the strongest intellectual property portfolios in the industry with 60,000+ granted patents. Our engineers, researchers, and technologists work across 100+ global R&D sites, helping define how networks evolve and how digital infrastructure is built for the long term. As the world moves toward a mobile-first, AI-powered, and cloud-driven future, connectivity becomes the foundation for digital transformation across every industry. Ericsson is building that foundation, shaping the future of digital connectivity through technology that operates at global scale and supports real-world impact, today and for what comes next.
Why Work With Us
Ericsson is a place for people who want to work on technology that powers everyday life. You’ll contribute to large-scale systems used every day, tackle complex challenges in live environments, and keep developing your skills and career in your own vision.
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