Lead ASIC Design Verification Engineer (UVM)

Chelsea Search GroupMinneapolis, MN

About The Position

A Lead ASIC Design Verification Engineer will establish, staff, and lead our ASIC verification team. This is a hands-on technical leadership role – you will personally architect and build UVM testbenches for our current programs while simultaneously defining the verification methodology, infrastructure, and hiring plan that will scale the function from a single contributor to a full team. You will be the technical authority on verification – setting coverage-driven sign-off criteria, owning verification schedule and risk for tapeouts, and making the build-versus-buy calls on VIP, tools, and compute. If you have been the strongest verification engineer on someone else’s team and want to build your own, this is the role.

Requirements

  • B.S. in Electrical Engineering, Computer Engineering, or Computer Science.
  • 8+ years of ASIC/SoC verification experience, with demonstrated ownership of verification for at least one production tapeout.
  • Expert-level SystemVerilog and UVM. You have architected UVM environments from scratch — not only extended environments built by others.
  • Strong command of constrained-random verification, functional coverage, coverage-driven closure, and assertion-based verification with SVA.
  • Experience with commercial simulation and coverage tools (Synopsys VCS/Verdi, Cadence Xcelium, and/or Siemens Questa) and with regression management at scale.
  • Working knowledge of digital design and RTL — sufficient to read, reason about, and debug a designer's code, and to argue productively about intent versus implementation.
  • Scripting proficiency for verification infrastructure (Python, Perl, TCL, and shell) and fluency with Git-based workflows and Linux development environments.
  • Demonstrated technical leadership: mentoring engineers, leading a verification effort, or owning verification schedule and sign-off for a program.
  • Clear written and verbal communication — including the ability to present verification status and evidence to non-verification stakeholders and customers.
  • U.S. Citizenship is required due to ITAR and DFARS requirements applicable to our programs, along with the ability to obtain and maintain a U.S. Government security clearance.

Responsibilities

  • Define and own the ASIC verification methodology, standards, and sign-off criteria across company programs.
  • Architect UVM-based verification environments for digital SoCs, memory subsystems, secure boot and cryptographic subsystems, and die-to-die interfaces.
  • Establish reusable verification infrastructure — base classes, VIP strategy, scoreboarding and checker architecture, register abstraction (UVM RAL), and coverage models — designed for reuse across programs and derivative parts.
  • Own verification planning: testplan development, coverage closure strategy, regression architecture, and quantitative sign-off metrics reported to program and customer stakeholders.
  • Serve as the verification voice in design and architecture reviews, and as the technical interface to customers, primes, and government stakeholders on verification approach and evidence.
  • Onboard, mentor, and technically develop verification engineers, including junior engineers and design engineers transitioning into verification.
  • Define team structure, roles, and hiring profiles for the verification organization; participate directly in recruiting, interviewing, and selection.
  • Establish and enforce code review, revision control, documentation, and traceability practices appropriate to defense-qualified deliverables.
  • Allocate verification effort across concurrent programs and communicate resourcing risk to engineering and program management.
  • Write SystemVerilog/UVM testbench code, sequences, agents, and functional coverage models — this role is expected to remain approximately 50–70% hands-on.
  • Drive constrained-random and directed verification to coverage closure; triage failures and drive root-cause resolution with designers.
  • Apply complementary methods where they are the right tool: formal property verification, assertion-based verification (SVA), gate-level simulation, and emulation/prototyping.
  • Support verification of radiation-hardening and fault-tolerance features, including TMR structures, error detection and correction, and SEU/SET mitigation behavior.
  • Support post-silicon bring-up by correlating silicon behavior to pre-silicon models and closing verification gaps.
  • Own and maintain regression infrastructure, simulation licensing and compute utilization, and CI for verification.
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