• Overseeing project design progression from inception to completion including design, permits, as-builts, and operations and maintenance manuals • Develop a comprehensive design plan to meet schedules and budgets • Participate in team and on-site progress meetings • Understand and follow all published codes, standards, and unique project specifications while ensuring AHJ requirements and procedures are followed • Multi-task and prioritize among assignments with strong adherence to deadlines in a team-oriented, fast-paced environment

• Develop and execute verification plans for block-level, subsystem-level, and full-chip environments. • Build SystemVerilog/UVM test benches, including agents, monitors, scoreboards, checkers, and coverage models. • Write SystemVerilog Assertions (SVA) and integrate formal verification where appropriate. • Drive constrained-random and directed testing strategies to validate functionality, corner cases, and stress scenarios. • Run simulations, triage failures, drive root-cause analysis, and collaborate with RTL designers to resolve issues. • Implement and maintain functional coverage, code coverage, assertion coverage, and ensure coverage closure for sign-off. • Manage regression testing, simulation farms, and CI pipelines to ensure high test throughput and fast debug iterations. • Participate in design reviews, microarchitecture discussions, and influence design-for-verification (DFV) best practices. • Work closely with architecture, RTL design, DFT, firmware, physical design, and silicon validation engineers to ensure end-to-end coverage and test. • Support silicon bring-up and post-silicon validation through test reuse, diagnostics, and debug analysis. • Participate in ASIC team interviews. • Drive advancement of DV methodologies and improvements. • Manage external IP providers and verification partners when needed. • Take lead on large and/or complex systems.

• Develop and execute verification plans for block-level, subsystem-level, and full-chip environments. • Build SystemVerilog/UVM test benches, including agents, monitors, scoreboards, checkers, and coverage models. • Write SystemVerilog Assertions (SVA) and integrate formal verification where appropriate. • Drive constrained-random and directed testing strategies to validate functionality, corner cases, and stress scenarios. • Run simulations, triage failures, drive root-cause analysis, and collaborate with RTL designers to resolve issues. • Implement and maintain functional coverage, code coverage, assertion coverage, and ensure coverage closure for sign-off. • Manage regression testing, simulation farms, and CI pipelines to ensure high test throughput and fast debug iterations. • Participate in design reviews, microarchitecture discussions, and influence design-for-verification (DFV) best practices. • Work closely with architecture, RTL design, DFT, firmware, physical design, and silicon validation engineers to ensure end-to-end coverage and test. • Support silicon bring-up and post-silicon validation through test reuse, diagnostics, and debug analysis. • Participate in ASIC team interviews. • Contribute to advancement of DV methodologies and improvements. • Engage external IP providers and verification partners when needed.

• Develop and execute verification plans for block-level, subsystem-level, and full-chip environments. • Build SystemVerilog/UVM test benches, including agents, monitors, scoreboards, checkers, and coverage models. • Write SystemVerilog Assertions (SVA) and integrate formal verification where appropriate. • Drive constrained-random and directed testing strategies to validate functionality, corner cases, and stress scenarios. • Run simulations, triage failures, drive root-cause analysis, and collaborate with RTL designers to resolve issues. • Implement and maintain functional coverage, code coverage, assertion coverage, and ensure coverage closure for sign-off. • Manage regression testing, simulation farms, and CI pipelines to ensure high test throughput and fast debug iterations. • Participate in design reviews and microarchitecture discussions.