You have spent a decade building memory circuits that do not just pass simulation, they survive silicon. You know that an SRAM bitcell is not just six transistors, it is a balancing act between read stability, write margin, leakage, and yield, and you have made those tradeoffs enough times to know which corners will bite you at 0.6V and which ones only look scary in Monte Carlo.
When a sense amplifier fails timing at the worst-case corner, you do not panic, you pull up HSPICE, trace the critical path, and figure out whether it is a device issue, a layout parasitics problem, or a floorplan decision someone made two months ago. You have debugged silicon that came back wrong and figured out what the test data was actually telling you, not what you hoped it was saying.
You are comfortable sitting with a layout engineer to optimize a bitcell for another 2% density without breaking read margin, and you can explain to a product manager why that extra 50mV of assist voltage matters for their automotive customer. At Synopsys, you will work on SRAM IP that powers AI accelerators, mobile SoCs, and networking chips used across the industry.
What You'll Be Doing
Design and optimize SRAM bitcells and peripheral circuits including sense amplifiers, write drivers, precharge circuits, row and column decoders, and read/write assist blocks for advanced FinFET nodes (7nm, 5nm, 3nm)Drive transistor-level circuit simulations using HSPICE and PrimeSim, running Monte Carlo, variability, SNM, and reliability analysis across PVT corners to ensure design closureDevelop and enhance SRAM compiler capabilities, building automated memory generation flows that balance power, performance, area, and yieldCollaborate with layout teams on custom cell design and parasitic closure, working through LVS, DRC, and PEX iterations to hit timing and power targetsSupport silicon bring-up and debug, correlating lab measurements with simulation models and identifying root causes when characterization data does not match expectationsAutomate design and validation workflows using Python, Perl, TCL, and shell scripting to improve efficiency and repeatability across memory development projectsMentor junior engineers on circuit design techniques, simulation methodologies, and design-for-manufacturing principlesThe Impact You Will Have
Your SRAM designs will be integrated into AI, HPC, mobile, networking, and automotive SoCs used by customers worldwide, directly affecting performance and power efficiency of next-generation chipsThe memory compilers you develop will enable faster time-to-market for Synopsys IP customers, giving them flexible, high-quality SRAM solutions across multiple process nodesYour circuit optimizations will push the boundaries of memory density, speed, and low-power operation in advanced FinFET technologiesThe design methodologies and automation scripts you build will be reused across future memory IP projects, improving team productivity and design qualityYour silicon debug work will close the loop between design intent and real-world performance, improving correlation models and making future designs more predictableThe technical leadership you provide will raise the bar for circuit design excellence within the memory IP teamYour contributions to technical reviews and design discussions will shape architecture decisions that affect product roadmaps and customer engagementsWhat You'll Need
Bachelor's or Master's degree in Electrical Engineering, Electronics Engineering, VLSI Design, Microelectronics, or related field10+ years of hands-on experience designing SRAM memory circuits and custom analog/mixed-signal blocks in production environmentsDeep expertise in SRAM bitcell design, peripheral circuits (sense amps, write drivers, decoders, assist circuits), and memory architectureStrong proficiency with Synopsys tools including HSPICE/PrimeSim, Custom Compiler, StarRC, IC Validator, and PrimeTimeSolid understanding of CMOS device physics, FinFET technology, and design challenges in advanced nodes (16nm/7nm/5nm/3nm)Experience with Monte Carlo analysis, PVT validation, SNM analysis, and reliability simulations to ensure robust designs across cornersScripting skills in Python, Perl, TCL, or shell for design automation and flow development; experience developing SRAM compilers or memory generators is a strong plusWho You Are
You can look at a failing Monte Carlo run and quickly isolate whether it is a statistical outlier, a corner case that needs circuit tuning, or a fundamental architecture problem that requires a different approachWhen layout parasitics break your timing budget, you work directly with the layout team to understand the routing bottleneck and propose circuit or floorplan changes that actually solve itYou know how to explain a complex circuit tradeoff to a product architect in two sentences without losing the technical nuance, and you can defend your design choices with dataYou do not wait for perfect specs, you ask the right questions early, align with cross-functional teams on priorities, and make progress even when requirements are still evolvingYou have debugged silicon that did not behave as expected and worked backward from lab data to figure out what the design missed, what the model missed, or what the test setup missedYou take ownership of your designs from schematic through silicon validation, and you care about whether they actually work in production, not just in simulationThe Team You'll Be Part Of
Your recruiter will share more about the team structure and mission during the interview process.
Rewards and Benefits
We offer a comprehensive range of health, wellness, and financial benefits to cater to your needs. Our total rewards include both monetary and non-monetary offerings. Your recruiter will provide more details about the salary range and benefits during the hiring process.
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