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Case study · Execution stabilization

Chaos to clarity: rebuilding requirements traceability in a hard-tech company

What happens when hardware, software and manufacturing each believe the requirements are agreed, and none of them mean the same thing by it.

Industry
Mobility, integrated hardware and software
Stage
VC-backed, post-Series B, around 250 people
Engagement
12 months, stabilized in about 90 days
Scale of the problem
5,000+ open issues, many stalled over a year
The engagement

Before irreversible commitments, ambiguity is the risk

Execution stabilization
A post-Series B mobility company where speed amplified risk instead of progress
Business problem

Despite strong funding and rapid growth, product execution had become unpredictable. Delivery dates slipped, roadmaps churned, and teams debated the same priorities repeatedly without resolution. Several consulting frameworks had been introduced and none of them translated into day-to-day execution.

As disagreements over product direction escalated, leadership turnover increased and delivery confidence eroded. Meanwhile the programs underway were approaching decisions that would lock in cost, architecture and manufacturing complexity for years.

Risk / assumption that was missed

Everyone assumed the requirements were shared. They were not. Product requirements were vague, incomplete, or interpreted differently across hardware, software and manufacturing, and there was no consistent definition of what “done” meant across the three.

Ownership of requirements, issues and decisions was fragmented, and upstream assumptions were never made explicit, so roadmaps changed whenever an unstated assumption turned out to be wrong. Traceability from a requirement to the work that satisfied it had broken down entirely, leaving more than 5,000 open issues, many of them stalled for over a year.

It looked like a capacity problem or a process problem. It was neither. In an organization moving this fast, ambiguity did not slow things down. It let the organization move quickly in inconsistent directions.

When it became visible

The symptoms had been visible for a long time: missed dates, roadmap churn, recurring debates, leadership turnover. Each was read as a management problem rather than as evidence of the same underlying gap.

It became undeniable when major delivery commitments approached and the next decisions would lock in cost, architecture and manufacturing complexity that could not be revisited.

Engineering intervention

An execution-first, engineering-led approach, aimed at the root cause rather than at the symptoms.

  • Diagnose the actual failure. Ambiguous PRDs and broken traceability across hardware, software and manufacturing, rather than capacity or process discipline.
  • A requirements framework built for integrated products. Practical and enforceable, written for hardware and software developed together, not a generic template.
  • Rationalize the backlog. More than 5,000 issues mapped and triaged, restoring traceability from requirements through to bugs and enhancements.
  • One definition of done. Leadership aligned on a single shared standard, which ended the recurring debates and the late-stage surprises they produced.
  • Embedded during the crisis window. Working alongside product and engineering leads to rebuild trust and hold consistent decision rules while the organization was under pressure.
Business / program consequence

More than 5,000 issues were rationalized and tied back to clear product requirements. Roadmap churn fell once assumptions and trade-offs were made explicit rather than argued from memory. On-time delivery improved through clearer ownership and a defined decision flow.

Cross-functional trust was restored across product, engineering and manufacturing, and execution stabilized in about 90 days, through a period of executive turnover.

Lesson for engineering leaders

In integrated hardware and software organizations, ambiguity compounds faster than it does in software-only teams, because the cost of reversing a decision is not symmetrical across the disciplines. Process alone does not fix it. Explicit, shared, decision-grade requirements do.

There is a direct consequence for design risk. A DFMEA is only as good as the requirements it is written against. If hardware, software and manufacturing do not agree on what the product must do, they cannot agree on what counts as a failure, and the risk analysis inherits every ambiguity underneath it.

This is what the stage before design risk analysis looks like when it has been skipped. The requirements have to be real before the failure modes written against them mean anything.
“You cut through the chaos and brought stability to the organization in a time of significant crisis.” Head of Product Development, mid-stage mobility company
Before irreversible commitments

Would your teams give the same answer to what this product must do?

Requirements that everyone believes are agreed and requirements that everyone reads the same way look identical in a program review. The difference shows up at the interface, usually after tooling.

Where the requirements are sound, an independent design risk review challenges the failure modes written against them before the next commitment. Where they are not, that is worth knowing first, and a 90-day execution stabilization engagement addresses it directly.