Semiconductor and IC Design Program Management
Semiconductor programs operate under delivery constraints that generic project management frameworks were not designed to handle: fixed tapeout windows, multi-vendor foundry dependencies, hardware/software/firmware co-design sequences, and verification phases where a single missed assumption costs months and millions.
PMOVA brings PM leadership calibrated to these constraints — from IP block planning and TRL milestone gating through silicon bring-up and post-silicon validation coordination. We integrate into your design team's workflow, not on top of it.
Where PM Breaks Down in IC Design Programs
Tapeout Window Compression
Tapeout dates are externally fixed by foundry shuttle schedules. Schedule compression almost always begins at the verification phase — the point where the problem is already too late to solve without rescheduling the shuttle.
Co-Design Sequencing Gaps
RTL, firmware, BSP, and application software streams have hard interdependencies but are typically owned by separate leads with no shared governance layer. Interface assumptions go unverified until integration reveals them.
Foundry and IP Vendor Dependencies
Third-party IP delivery schedules, PDK releases, EDA tool qualification timelines, and NDA expiry dates are rarely tracked as first-class project dependencies — until they land on the critical path.
TRL Gate Misalignment
Milestone gates defined for funding agencies (Mitacs, NSERC, DARPA) often misalign with internal engineering milestones, forcing compliance reporting burdens at the exact moments when engineering bandwidth is most constrained.
What We Manage
Each area is a standing delivery responsibility — maintained continuously across the program lifecycle, not assembled for milestone reviews.
Tapeout Coordination
Managing the 90-day tapeout critical path as a dedicated workstream: design freeze tracking, LVS/DRC/ERC sign-off sequencing, timing closure verification, foundry handoff package preparation, and shuttle slot confirmation — with escalation protocols that trigger weeks before a gate, not days.
Verification Phase Governance
Milestone tracking across simulation, emulation, and physical verification phases — with risk escalation when coverage metrics or timing closure trajectories show early warning signs before they become schedule threats.
Hardware/Software Co-Design Tracking
Single delivery framework spanning RTL, firmware, BSP, and application software streams. Dependencies mapped, handoff criteria defined, and interface contracts maintained so each team's readiness is visible before the integration gate.
Foundry and IP Vendor Coordination
Foundry PDK releases, IP delivery schedules, EDA tool qualification timelines, and multi-party NDAs tracked as integrated project dependencies — not managed reactively when they become blockers.
TRL-Gated Milestone Planning
Milestone architecture that satisfies both internal engineering gates and external funding-agency TRL reporting requirements simultaneously — single source of truth, multiple reporting formats.
Risk and Contingency Governance
Proactive identification of schedule, technical, and supply-chain risks — with quantified impact estimates and documented contingency plans for every critical-path dependency before the risk materializes.
The 90-Day Tapeout Critical Path
Tapeout is the single highest-cost, hardest-to-reschedule milestone in any IC program. A missed foundry shuttle can mean 6–12 months of delay and significant re-tapeout fees — with downstream consequences for funding milestones, investor commitments, and product timelines.
We manage the final 90-day tapeout critical path as a dedicated governance workstream: design freeze confirmation, LVS/DRC/ERC sign-off sequencing, static timing analysis closure, antenna rule check resolution, foundry handoff package preparation, and shuttle slot confirmation. Escalation protocols are set up to trigger weeks before each gate — not when the gate is already at risk.
Program Types
Full-lifecycle PM from architecture definition and IP sourcing through RTL freeze, physical design, verification sign-off, and GDS-II submission to foundry.
FPGA-based system development programs and FPGA-to-ASIC migration — partition planning, timing closure governance, and handoff sequencing between prototype and production silicon.
Multi-IP block integration, subsystem verification, full-chip tapeout coordination, and bring-up planning for complex System-on-Chip designs.
Programs with analog/digital co-simulation requirements, additional PDK constraints, and extended characterization phases that require careful integration with digital delivery streams.
Emerging process technology programs with non-standard design flows, foundry-specific PDK maturity constraints, and process qualification milestones alongside circuit performance targets.
2.5D and 3D integration programs with multi-die assembly coordination, UCIe/HBM interface governance, and package-level test planning spanning multiple foundry and OSAT partners.
Who It's For
- Fabless semiconductor startups developing first or second silicon
- ASIC design teams within enterprise hardware and systems organizations
- University and research lab IC design groups with government-funded programs
- FPGA system integrators managing the transition to custom ASIC
- Deep-tech companies developing novel process node or photonics designs
- Hardware organizations running hardware/software co-design programs with parallel firmware and BSP teams
Related Service
Semiconductor programs benefit from an embedded PM who attends design reviews and owns governance end-to-end.
Related Service
Many semiconductor programs run under Mitacs, NSERC, or IRAP funding with parallel compliance obligations.
Running an ASIC, FPGA, or SoC program?
Tell us about your program — technology node, team composition, tapeout timeline, and the delivery challenge you're facing. We'll assess fit and respond within 48 hours.