Before you commit to tooling, find the design risks your team may have missed.
Product Recovery Group independently challenges complex physical-product designs before tooling, validation and production. It applies rigorous DFMEA and product-risk methods to expose critical risks, questionable assumptions and validation gaps while they can still be addressed.
When broader issues emerge, PRG can continue through risk closure, validation, manufacturing readiness and product recovery.
Defined scope. Defined decision objective. No open-ended consulting commitment required.
When is an independent design-risk review valuable?
The architecture is stabilizing and major changes are becoming more expensive.
Capital is about to be committed to production-intent hardware.
Important assumptions or failure modes may have changed.
Testing needs to demonstrate that consequential risks are actually controlled.
Leadership wants another experienced set of eyes before scale.
Stronger evidence of systematic design-risk management is required.
If one of these events is approaching, this is the point to challenge the design, not after the issue reaches tooling, production or the customer.
Consequential design risks usually survive internal review for structural reasons
Experienced, well-resourced engineering teams still carry design assumptions forward without re-examining them. The challenge is rarely a lack of effort or capability.
The people closest to the product are the same people who set its original assumptions. As the architecture stabilizes, those assumptions stop being questioned and start being built on.
That is a structural problem, not a people problem. Waqar has seen it at GM scale and at EV startup scale. The failure modes are structurally identical, and so is the way to expose them.
Embedded assumptions: early decisions stop being challenged once the architecture is considered settled.
Change without re-analysis: the design moves on, but the risk analysis behind it does not always move with it.
Documentation without challenge: the FMEA gets completed for the gate rather than used to interrogate the design.
Validation drift: testing verifies what is convenient to test, not necessarily what is most consequential.
The later you discover product risk, the more expensive the decision becomes.
Directional only. The chart illustrates that the cost and disruption of a design change generally increase as the product moves downstream. It does not represent measured values for any specific program.
DFMEA creates value by forcing critical failure questions upstream, while engineering teams still have practical options for changing the design.
Review before commitment
Independent technical challenge
An outside engineering perspective applied to functions, interfaces and failure logic.Prioritized risk picture
Consequential risks separated from engineering noise.Engineering actions
Identified risks converted into specific actions with ownership.Validation gaps
Where the test plan does not yet address the important failure mechanisms.Management decision support
A risk summary leadership can actually make a commitment decision against.Discovery after commitment
Tool modification
Changes to production-intent hardware after capital has been committed.Retesting
Validation work repeated against a changed design.Launch disruption
Schedule and readiness commitments made under a different set of assumptions.Containment
Sorting, holding or reworking product already built.Warranty exposure
Failure modes that reach the customer carry cost long after launch.Field corrective action
The most expensive place to resolve a design decision.These are the categories of consequence that late discovery can create. PRG does not control whether they occur. The objective of an earlier review is to make the underlying risks visible while options still exist.
What “too late” can look like
The purpose of an independent Product Risk Review is to challenge consequential assumptions before the next expensive commitment.
An accelerator-backed ClimateTech startup had developed an MVP, passed lab testing, and secured a facility operator willing to host a pilot installation. The team was small and moving quickly toward first deployment.
Electrical and thermal safety constraints were treated as downstream checks rather than first-order product requirements. The MVP was built around assumptions that held under controlled lab conditions but not under real electrical and thermal loads in a working facility.
Immediately before deployment, after the design was set and a customer had already committed to the pilot.
The root constraints were isolated, the MVP strategy was rebuilt around them, and a validation framework mapped performance targets and safety tolerances to facility-level conditions.
The customer withdrew from the pilot. The team lost its deployment slot, momentum stalled, and credibility had to be rebuilt before facility operators could be re-engaged.
Structured design-risk analysis would have forced the electrical and thermal failure modes to be stated as product requirements, challenged against real facility operating conditions, and tied to specific validation evidence before a customer commitment depended on them.
Independent DFMEA & Product Risk Review
Challenge the design before the next major commitment.
Internal teams know their products deeply. That knowledge is essential, but familiarity can also allow assumptions to become embedded in the design. PRG provides an independent engineering challenge focused on what could fail, why it could fail, how consequential the failure could be, and whether the existing controls and validation evidence are sufficient.
- DFMEA quality and completeness review
- Missing or underestimated failure modes
- Severity and risk challenges
- Design-control gaps
- Recommended engineering actions
- Validation gaps linked to identified risks
- Prioritized management-ready risk summary
Best fit: Design freeze • Tooling • Major redesign • Supplier nomination • Validation • Production readiness
Scope, decision objective and exit point agreed before the engagement starts.
Know which product risks deserve attention before the next major commitment.
Not another FMEA spreadsheet exercise.
A completed spreadsheet is not the objective. Better engineering decisions are.
Challenge the design
Question assumptions, interfaces, functions and failure logic.
Connect risk to action
Make consequential risks generate clear engineering decisions and ownership.
Connect risk to evidence
Determine whether validation actually addresses the important failure mechanisms.
Apply independent judgment
Bring an experienced outside perspective to risks the development team may have normalized or overlooked.
PRG uses DFMEA as an engineering decision process, not a documentation exercise.
Not sure whether you need a full DFMEA review?
Start with a focused conversation about where the product is in development, what has changed, what major commitment comes next and how design risk is currently being managed.
If an independent review makes sense, we’ll define the scope and decision objective. If it doesn’t, there is no reason to force an engagement.
Request a 30-minute Design Risk Review- Where is the product in the development cycle?
- What major commitment comes next?
- What has changed since the DFMEA was last challenged?
- What evidence supports the most consequential design risks?
What happens when the review finds a bigger problem?
The independent review is designed to answer a decision question, not manufacture a larger consulting engagement. Sometimes the review confirms that risk is appropriately controlled. Sometimes it exposes issues requiring additional engineering work.
Risk closure & validation
“Can we demonstrate that the consequential risks have actually been reduced?”
- Engineering action closure
- DVP&R
- DOE
- Tolerance analysis
- Reliability
- Evidence review
Outcome: turn identified risks into engineering actions and objective evidence.
Manufacturing readiness
“Can the product be built repeatedly without carrying design weaknesses into production?”
- DFM/DFA
- Supplier readiness
- Manufacturing-risk interfaces
- PFMEA alignment
- Production readiness
Outcome: determine whether a working prototype is truly ready for repeatable production.
Product recovery
“What happens when the problem has already escaped?”
- 8D
- Root-cause analysis
- Failure analysis
- Corrective action
- Technical program recovery
Outcome: contain the issue, identify the cause, implement corrective action and feed the learning back upstream.
These are follow-on paths, not competing entry points. Each one begins only if the initial review establishes that it is warranted.
Start with a defined problem. Scale only when needed.
Independent DFMEA & Product Risk Review
Know what could fail before it becomes expensive.
Manufacturing Readiness Assessment
Know whether the product is truly ready for repeatable production.
Engineering Recovery & Implementation
Close consequential design, validation, manufacturing or recovery gaps.
Manufacturing Automation Assessment, start with one process with scope defined per assessment. See the approach →
What recovery looks like in practice
Two further engagements where a risk or assumption became visible later than it should have. Each is a different failure mode, addressed with the same structured approach applied to a specific situation.
A high-growth hard-tech company had lost product focus across a sprawling roadmap. The team was busy but not making progress.
That a growing set of priorities could be executed without explicit ownership. As priorities multiplied, ownership blurred.
Once effort stopped converting into delivered progress. It was visible as activity without advancement rather than as any single failed decision.
A structured diagnostic followed by roadmap realignment.
Direction was restored within weeks.
Priorities that are never explicitly owned behave like unmanaged risk: they accumulate quietly and are only recognised once delivery has already slowed.
A hardware and software program had experienced a product recall and needed to re-launch on a fixed date with board and customer confidence fully restored.
The failure had already escaped to the field, which is the point at which a design or integration risk stops being an engineering question and becomes a customer and board question.
After launch, through the recall.
Cross-functional coordination across hardware and software, with milestone discipline applied to a fixed re-launch date.
The product shipped on time.
Recovery after an escape is possible, but it is the most expensive place to resolve a product risk, and the hardest place to rebuild confidence.
Before the commitment, and after it when the issue has already escaped
PRG concentrates on the window where design risk can still be challenged at reasonable cost: approaching design freeze, tooling, validation and production readiness. When a problem has already reached production or the field, the same engineering discipline is applied in reverse.
Waqar has operated across this entire lifecycle, from concept at GM through prototype at EV startups to launch and production. PRG concentrates on the commitment zone because that is where an identified risk still has practical engineering options.
Some of this might sound familiar
None of these mean the design is wrong. They mean the risk picture may be less complete than the program is assuming, and that is worth establishing before the next commitment rather than after it.
The DFMEA exists, but it hasn’t been revisited since the design changed
High-severity failure modes rely on detection rather than prevention
Critical assumptions are supported by judgment rather than analysis or test evidence
The test plan grew from the previous program rather than from this product’s failure modes
Interfaces between subsystems have no clear owner for failure behavior
Supplier or manufacturing assumptions have changed since the design was set
Open high-risk items are tracked in engineering but not visible to leadership
A tooling or launch date is approaching and nobody has independently challenged the design
These become significantly more expensive to address the closer the program gets to committed hardware. The right moment for an independent challenge is before that point.
Not a consulting firm. A recovery practice.
Most consulting firms study your problem from the outside and hand you a report. Product Recovery Group comes in, works alongside your team, and stays until the defined risk problem is resolved. Here is exactly what that difference looks like in practice.
Typical consultants
Arrive with a pre-built framework
The solution is decided before the problem is understood. Your situation is fitted to their methodology, not the other way around.Deliver a report and leave
You receive a document. The engineering problem remains. The team is left to implement recommendations without the person who made them.Work at advisory distance
Observations from the outside. No visibility into the actual design decisions, trade-offs and constraints that created the risk.Create ongoing dependency
Open-ended engagements with no defined exit. No transfer of capability to the internal team. The need for the consultant never diminishes.Product Recovery Group
Diagnose before prescribing
Every engagement begins with a structured diagnostic or clearly defined decision objective. No assumptions carried in.Defined scope, defined exit
Every engagement has a clear deliverable and a defined end point. You know exactly what you are getting and when it will be complete before we start.Embedded alongside your team
Working directly with engineering, product, and leadership, inside the decisions rather than observing them. 30 years of operating experience in your room.Capability transferred back
Every engagement ends with the internal team owning the outcome: documented risk, evidence and decision tools that require no ongoing external support.The objective is not to create dependency on PRG. It is to resolve the defined risk problem, leave objective evidence behind and strengthen the client’s ability to manage the product going forward.
Challenge, prioritize, close, prove, hand back
Challenge
Independently challenge assumptions, failure logic and risk.
Prioritize
Separate consequential issues from engineering noise.
Close
Define actions, ownership and decision criteria.
Prove
Establish objective evidence that consequential risk has been reduced.
Hand back
Leave the team with updated risk, evidence and decision systems.
The depth of each stage depends on the engagement scope. A fixed-scope review concentrates on the first two stages; a broader engagement carries through to evidence and hand-back.
When engineering leaders call PRG
Representative situations, not client quotations.
VP Engineering / CTO
Typical concernWe’re approaching a major design or manufacturing commitment and I want an independent challenge of the product risk.
Chief Engineer / Engineering Director
Typical concernThe DFMEA exists, but I want to know whether the important assumptions have really been challenged.
VP Manufacturing / Operations
Typical concernThe prototype works, but I don’t want unresolved design weaknesses carried into production.
COO / President
Typical concernA technical issue is becoming a launch, quality, cost or customer problem.
Program Director
Typical concernI need the critical technical risks converted into an actionable recovery plan.
Built for complex product environments
We work with hardware and deep-tech companies where product development timelines are long, tooling and validation costs are high, and the consequences of a late design change are significant. These are environments where Waqar has operated directly, not advised from a distance.
Experience recovering complex products and programs
Verified recommendations from founders, executives, and investors across automotive, EV, and hardware programs. Drawn from LinkedIn and direct engagements spanning more than two decades of operating work.
"This guy's the real deal. Waqar is a remarkably well-rounded engineering leader with the knowledge and temperament to guide seasoned technical teams. After his departure, the sentiment among leadership was unanimous: 'We really need Waqar.'"
"He brings structure, urgency, and results. Waqar took over a struggling high-volume program and rapidly broke down issues into logical groupings, driving focus where it mattered most. Within months, quality, throughput, and cost targets were back on track."
"Calm under pressure, one of the most critical leadership skills in complex environments. His ability to listen, think methodically, and guide teams through design decisions earned trust quickly and consistently."
"A rare ability to organize complexity into execution. Waqar takes extremely complex programs and organizes them into actionable, accountable execution plans. His integrity and people-first leadership make teams want to work with him."
"Supremely professional with an analytical product development mind. He brings calm to chaotic meetings, synthesizes perspectives, and proposes balanced paths forward. Exceptionally effective at leading both new product development and existing product issue resolution."
"Waqar consistently helped startups rapidly assess what 'good' looks like in product development, then translate that into actionable strategies. His practical guidance enabled founders to overcome technical challenges and stay on track toward commercialisation milestones."
Engineering methods deployed when the problem requires them
Design
Risk
Validation
Manufacturing
Recovery
The client does not need to select the methodology. PRG starts with the decision or risk problem and deploys the appropriate engineering methods.
Before you automate the factory, start with one process.
When a process is hard to staff, creating a bottleneck or driving excessive overtime, automation starts to look like the answer. PRG independently evaluates the process first, then determines whether automation makes technical and financial sense, and what should change before any equipment is quoted. Independent, vendor-neutral, ROI-driven.
Traditional question
Which robot or cell should we buy for this operation?PRG question
Should this process be automated at all, and what should be improved before capital is committed?Every assessment ends with one recommendation: automate, improve first, investigate, or do not automate. One process in. One clear management decision out.
Pre-Tooling Design Risk Checklist
Questions engineering leaders should ask before committing a complex physical product to production tooling.
- Have all critical product functions been identified?
- Have credible failure modes been challenged independently?
- Have significant design changes been reflected in the DFMEA?
- Are high-severity failure modes supported by adequate prevention/detection controls?
- Are critical assumptions supported by analysis or test evidence?
- Does DVP&R address the important failure mechanisms identified by DFMEA?
- Have interfaces, tolerances, environmental conditions and misuse cases been considered?
- Have manufacturing and supplier assumptions changed?
- Are unresolved high-risk items visible to engineering leadership?
- Is ownership established for risk-closure actions?
Want an independent challenge before tooling? Request a 30-minute Design Risk Review.
30 years inside programs like yours.
Waqar has spent his career inside the most complex product development environments in the world, and spent the last several years specifically helping companies identify and resolve product risk when those environments break down.
He served as Chief Engineer on programs that won JD Powers awards and 5-star NCAP ratings. He has been VP Engineering at EV startups operating under board pressure with shrinking runways and launch dates that could not move again. He has seen design risk surface late at GM scale and at startup scale. The failure modes are structurally identical.
That cross-functional experience allows PRG to examine design risk not only as an engineering-document problem, but in the context of validation, manufacturing, launch and field consequences.