Quick Introductions — who’s in the room (and why they matter)?

• Which of these roles on your team will we likely engage with during this project? Options: Design Engineer, Maintenance Engineer, Procurement Specialist, Quality/QA Engineer, Operations/Plant Engineer, Materials Scientist, Safety/Regulatory, Program/Project Manager, Other
• Who is the single person we should treat as the primary decision contact (name and title)?
• Who will act as the day-to-day technical contact for tests, samples, and design clarifications?
• Which communication methods does your team prefer for technical work (pick all that apply)? Options: Email, Phone, Video meeting (Teams/Zoom), Slack/MS Teams chat, CustomerNode platform messages, Periodic in-person meetings, Other
• If we asked for a short kickoff with the team, how long does your contact roster allow for a first session? Options: 15 minutes, 30 minutes, 60 minutes, 90 minutes, We need a pre-approved agenda first

If this part fails again tomorrow, who gets the call and what breaks?

• When a sealing component fails in your operation, what is the first real-world consequence you see (safety incident, downtime, contamination, or other)? Options: Safety incident, Process shutdown/downtime, Product contamination/quality loss, Environmental release, Escalation to leadership, Regulatory reporting, Other
• How often have these failures occurred in the last 12 months? Options: Never, Once, 2–5 times, 6–12 times, More than 12 times, Unknown
• Tell me about the most recent failure: what happened, what was the suspected cause, and what were the downstream impacts?
• How quickly do you require containment or replacement once a failure is detected? Options: Immediate (hours), Same shift, Within 24–48 hours, Within the week, At next planned outage
• Who typically owns emergency sourcing or one-off replacement buys when a component fails unexpectedly? Options: Maintenance, Procurement, Operations, Site Management, Third-party contractor, Other

Hidden Gatekeepers — what approvals quietly block progress?

• Which formal approvals are required before a new material or design can be used (select all that apply)? Options: Quality/QA sign-off, Materials certification, Safety review, Regulatory approval, Procurement purchase order, Engineering change request (ECR)/ECO, Operations acceptance, Legal review, Finance/budget approval
• Which single approval has caused the longest delays on past projects, and why?
• How long do typical approval cycles take for each function you selected (provide realistic ranges if possible)?
• Are there external third-party certifications or lab reports you always need to see (material test reports, third-party compatibility testing, ATEX/IECEx, etc.)? Options: Yes, No, Sometimes/It depends
• If yes or sometimes, list the specific certificates, lab tests, or formats that will be required for sign-off.

What Would True Alignment Unlock for Your Team?

• If every stakeholder agreed on a solution today, what tangible outcome would change first (reduced downtime, faster procurements, clear warranty, etc.)? Options: Reduced downtime, Predictable lead-times, Faster approvals, Single accountable supplier, Lower total cost of ownership, Improved safety/compliance, Other
• How would you measure that outcome internally (specific KPIs, allowable failure rates, MTTR improvements, cost targets)?
• What acceptance criteria does your QA or operations team require to approve a replacement part (functional tests, immersion hours, burst pressure, dimensional checks)? Options: Bench pressure test, Temperature cycling, Chemical immersion compatibility, Dynamic wear test, First-article inspection, Field pilot, Other
• Who must apply the final 'go/no-go' signature for release to production?
• What level of warranty or remanufacture commitment would change procurement behavior for you? Options: Standard manufacturer warranty, Extended warranty with failure analysis, Guaranteed replacement within X hours/days, Performance-based warranty tied to uptime, Other

The Timeline Truth — what’s realistic, not optimistic?

• What is your target decision or implementation date for choosing a new material/design? Options: Immediately, Within 2 weeks, Within 1 month, 1–3 months, 3–6 months, No fixed date/long term
• Which internal events drive that date (scheduled shutdown, audit, release to production, budget cycle)?
• How flexible are your internal milestones if testing or approvals take longer than expected? Options: Very flexible, Somewhat flexible, Not flexible, Unknown
• If timelines slip, what are the real operational consequences (extended downtime, missed shipments, escalations)?
• What procurement lead-times can you accommodate for custom or prototyped parts? Options: Days (stocked parts), 1–2 weeks (rapid prototypes), 3–6 weeks (small production), 8–16 weeks (tooling/long lead), Longer than 16 weeks

What Keeps Your Team Up at Night (and what proof would calm that concern)?

• Describe the worst-case scenario you associate with a seal or gasket failure in your process and why it matters to you personally or to the business.
• Which of these outcomes cause you the most anxiety when approving new components? Options: Safety incidents, Regulatory non-compliance, Production loss, Unplanned costs, Supplier reliability, Unknown failure modes
• Do you tend to favor proven, conservative materials or higher-risk, higher-performance options when the trade-off is uncertain? Options: Conservative/proven, Higher-performance/experimental, Hybrid approach (pilot first), Depends on use case
• What types of evidence would move you from concern to confidence (third-party test data, on-site pilot, long-term field data, guaranteed replacement, co-developed test plan)? Options: Third-party lab reports, In-house bench tests, Field pilot with monitoring, Failure-mode analysis and mitigation plan, Warranty commitments, Other
• How long have these concerns been shaping your supplier choices, and what have you tried before to mitigate them?

Next Steps That Actually Move the Needle (pick the smallest thing that proves value)

• Which of these next steps would you be willing to commit to in order to validate a solution quickly? Options: 60–90 minute technical workshop, Material compatibility datasheet review, Rapid prototype for bench testing, Field pilot sample run, Draft purchase terms and warranty, Quality acceptance checklist creation
• Who on your team must attend the first technical workshop to make decisions on specs, tests, and timelines?
• What deliverable would make this an immediate 'yes' for your procurement team (costed PO, fixed lead-time, warranty, stocked parts)? Options: Costed PO/quote, Fixed lead-time confirmation, Warranty terms, Sample acceptance report, Signed test plan, Other
• What internal risks or blockers should we expect when we prepare a proposal (budget freeze, vendor lists, safety review backlog)?
• Are there any other stakeholders, locations, or compliance regimes we should include in our plan now to avoid delays later? Options: Other plant/sites, Corporate procurement, Local regulatory body, Parent company engineering, External certifying lab, None

Start Here — Tell Me About the Part and Where It Lives

• What is the part name, internal part number, and any reference drawing number we should use?
• Which system or assembly is this component installed in (e.g., subsea wellhead, chemical reactor, wafer fab tool), and where exactly is it located? Options: Subsea wellhead, Surface pressure system, Chemical reactor/vessel, Pumping station, Aerospace actuator, Semiconductor fab tool, Food/bioprocessing line, Other
• Do you have CAD files, 2D drawings, material certifications, or photographs available to share? Options: CAD (STEP/IGES), 2D drawing (PDF/DWG), Material cert(s), Failure photos, Test logs, No files available yet
• Who on your team is the technical owner for this part (name, role, and best contact) and who else usually signs off on engineering changes?

How Long Have You Been Living With This Problem?

• When did you first notice this failure mode, and how has its frequency changed since then? Options: Just emerged (<1 month), Recent increase (1–6 months), Ongoing issue (6–24 months), Persistent for years (>2 years)
• How often do failures occur on an affected unit or line (per shift, per week, per run, per year)? Options: Multiple times per shift, Daily, Weekly, Monthly, Quarterly, Yearly, Intermittent/rare
• What triggered the last failure event (if known)—startup, pressure spike, cleaning cycle, abrasion, installation, other? Options: Startup/transient, Pressure spike, Thermal cycling, Chemical exposure/cleaning, Mechanical abrasion, Improper installation, Unknown
• Roughly how many parts have failed across your fleet or installations to date? Options: Single unit, 2–5 units, 6–20 units, 21–100 units, 100+ units, Unknown

Is This a Nuisance—or Something That Could Shut You Down?

• What are the primary consequences when the part fails (choose all that apply)? Options: Unplanned downtime, Production scrap/loss, Safety incident/injury risk, Environmental release, Contamination of product, Customer penalty/contract breach, Inspection/maintenance delay
• Estimate the immediate cost impact of a single failure event (repair, lost production, mobilization) or provide a cost range. Options: <$1k, $1k–$10k, $10k–$50k, $50k–$250k, >$250k, Unknown
• Have any failures resulted in regulatory actions, quality escapes, or customer complaints? If yes, what happened and what was the outcome? Options: Yes — regulatory action, Yes — quality/customer complaint, Near miss only, No
• Who is responsible for declaring the part unserviceable and authorizing replacement in the field? Options: Maintenance lead, Shift supervisor, Quality engineer, Design engineer, Safety officer, Other

Let’s Map the Real Operating Conditions — Not the Nominal Specs

• What is the normal and the extreme temperature range this part sees (lowest and highest actual temperatures experienced)?
• What steady-state and peak pressures does the component experience, including any transient spikes or vacuum events?
• Which fluids, gases, or chemistries contact the part? Please list common media, cleaning agents, and any known impurities (e.g., H2S, chlorides, solvents). Options: Hydrocarbons, Brines/high salinity, Acids, Bases/alkalis, Solvents (organic), Steam/condensate, Process contaminants/particulates, Other — specify below
• Is the part submerged, exposed to intermittent splash, or in a dry environment? Describe exposure cycles and immersion duration. Options: Fully submerged continuous, Intermittent immersion/splash, Occasionally wet (drips), Always dry/air
• Does the part see relative motion (dynamic sealing, reciprocating, rotating) or static sealing only? Provide stroke/rpm and cycle frequency if dynamic. Options: Static sealing, Reciprocating/linear motion, Rotary motion, Oscillatory/vibration, Combination — explain below

The Wear Story — What Do Your Inspections Actually Show?

• When you inspect failed or worn parts, what patterns do you observe (extrusion, hardening, cracking, swelling, chemical etch, abrasion, biometric growth)? Options: Extrusion/cold flow, Cracking/tear, Swelling/softening, Chemical etch/discoloration, Abrasion/abrasive wear, Delamination/coating loss, Other
• How are inspections documented today (photos, measurements, hardness tests, lab analysis)? Which of those artifacts can you share? Options: Photographs, Dimensional checks, Hardness (Shore/A), Microscopy images, Laboratory chemical analysis, Inspection reports, None available
• Has anyone done a formal root-cause analysis (FMEA, FTA, metallography, FTIR, GC-MS)? If so, what hypotheses were tested and what evidence supported or contradicted them? Options: Yes — FMEA/FTA, Yes — lab analysis, Informal troubleshooting only, No formal RCA done
• How long does a typical inspection or repair take, and how often does maintenance need temporary fixes between scheduled overhauls? Options: Minutes–hours, Half-day, Full shift, Multiple shifts, Requires plant shutdown

Material and Manufacturing — Could the Part Be Its Own Problem?

• What material is the part currently made from (specific elastomer grade, PTFE variant, PEEK, etc.), and can you provide durometer or material spec details? Options: FKM/Viton, FFKM perfluoroelastomer, EPDM, HNBR, Silicone, PTFE/TFM, PEEK/UHMWPE, Unknown — needs testing
• How is the part produced—molded, molded with post-machining, extruded, CNC-machined from rod, sintered, or an assembly of multiple materials? Options: Compression/transfer molded, Injection molded, CNC machined, Extruded then closed, Sintered/forged, Assembled multi-material
• Have there been any supplier, material lot, or process changes around the time failures began? If yes, what changed and when? Options: Material supplier change, Compound/formulation change, Process/tooling change, No changes, Unknown
• What are the mating hardware materials and surface finishes the part interfaces with, and are there any alignment or tolerance issues noted during assembly?
• Do you have material certificates, batch numbers, or cure data available for failed parts? Options: Full material certs and batch, Partial/cursory certs, Batch numbers only, No traceability

What Are You Willing to Try — Constraints and Decision Speed

• What is your preferred timeline to validate and implement a fix (prototype test in weeks, months, or longer)? Options: Immediately (1–2 weeks), Short (2–4 weeks), Moderate (1–3 months), Longer (3–6 months), TBD/No timeline
• What procurement or budget constraints might force a temporary workaround instead of a long-term redesign? Options: Tight CAPEX limits, Only maintenance budget available, Requires capital approval, No budget constraints, Other
• Which stakeholders must approve changes (choose all that will be actively involved in decisions)? Options: Design engineering, Maintenance/operations, Procurement, Quality/QA, Health & Safety, Production management, Customer/end-user
• How quickly can you share failed samples or ship prototypes for testing if we provide pre-paid shipping instructions? Options: Same week, Within 2 weeks, Within a month, Longer/needs scheduling, Samples not available

What Would ‘Fixed’ Actually Look Like?

• If this problem were solved, what measurable outcomes would signal success to you (MTBF, leak rate, % downtime reduction, no customer complaints)? Options: Increase MTBF, Reduce unplanned downtime, Eliminate leaks/contamination, Reduce maintenance labor, Meet regulatory threshold, Other — define below
• What minimum lifetime or cycles do you need from the replacement part to consider it acceptable? Options: Single event/short-term, 1 month, 3 months, 6 months, 12 months, Multi-year
• What acceptance criteria would you require for a prototype (bench test parameters, field trial length, pass/fail thresholds)?
• How important are secondary outcomes like ease of installation, interchangeability with existing spares, and stocking requirements? Options: Critical — must be drop-in, Important — minor mods allowed, Nice to have, Not important

The Data Handoff — Everything We’ll Need to Diagnose Root Cause

• Which of the following artifacts can you provide for root-cause diagnosis and testing? Options: Failed part(s) for lab, Good part(s)/comparison samples, CAD/2D drawings, Installation procedure, Maintenance logs, Operating sensor data (temp/pressure/time-series), Chemical spec/MSDS, Photos/videos of failure
• Do you require an NDA before sharing drawings or failure samples? Options: Yes — NDA required, No — open to share, We can share under PO, Unsure — ask legal
• Who will coordinate sample shipping, and are there any hazardous or controlled-material shipping constraints we should know about? Options: Maintenance coordinates, Engineering coordinates, Procurement coordinates, Requires HazMat packaging, No special constraints
• Would you like us to propose an initial diagnostic plan (lab tests, bench fixtures, material analysis) and an estimated timeline and cost? Options: Yes — propose plan, Maybe — need internal approval, No — we have our own lab plan

Closing the Loop — Agreeing Next Steps and Who Does What

• Given everything discussed, which immediate next step feels most useful: schedule a technical workshop, send a part request kit, do a preliminary materials analysis, or provide a quote for prototyping? Options: Schedule technical workshop, Send part/sample request kit, Perform preliminary materials analysis, Provide prototype quote and timeline, Other — specify
• Who will be our day-to-day point of contact and backup for coordinating tests, approvals, and shipping?
• What is your target date for a go/no-go decision after prototype results (if applicable)? Options: Within 2 weeks of test, 2–4 weeks, 1–3 months, Longer/depends on outcome, TBD
• Is there anything we didn’t ask that would change how we prioritize or approach diagnosing this failure?

Quick Check — Where Are We Right Now?

• Who am I talking to on this project and what is your role in the deployment decision? Options: Design Engineer, Maintenance Engineer, Procurement Specialist, Quality/QA Engineer, Operations Manager, Other
• Which component or assembly are we preparing to deploy (part number, drawing revision, or short description)?
• What are the critical operating boundaries we must validate before release (temperature range, pressure, chemical media, dynamic/static duty)?
• Do you already have physical samples or a prototype available for pre-deployment testing? Options: Yes — prototype ready, Yes — limited samples only, No — need prototype build, Unsure
• When would you ideally need the first qualified samples on site? Options: Within 1 week, 1–3 weeks, 3–6 weeks, 6–12 weeks, Flexible / TBD

What If Tests Aren’t Ready When Your Line Is?

• If the planned bench or immersion tests slip by two to four weeks, how would that affect your go/no-go timeline? Options: Critical delay to project, Manageable with minor schedule shift, Can be absorbed with contingency plan, Would require re-prioritization of other work
• Which of these test capabilities do you expect us to provide vs. you run in-house? Options: Pressure burst, Temperature cycling, Chemical immersion/compatibility, Dynamic wear/fatigue, Cleanroom/particle testing, We run all tests in-house, Other
• Tell us the specific fluids/media and concentrations we must test with — include any contaminants, solvents, or cleaning agents.
• Do you require certified third-party lab validation or will internal QA test results be sufficient? Options: Third-party certified lab, Internal QA validation is sufficient, Combination (third-party for some tests), Undecided
• How important is the ability to perform on-site field tests versus bench/immersion tests in our lab? Options: Field tests are essential, Prefer field tests but not essential, Bench tests suffice, Undecided

Who’s Owning Acceptance — And Are They Aligned?

• If a component passes lab acceptance but QA on-site refuses sign-off, who has final authority to release parts into service? Options: Customer QA/Quality, Customer Operations, Customer Engineering, Combined sign-off required, Other
• List the stakeholder groups that must sign off before production release and name the responsible point of contact for each.
• Which formal approvals or certifications are mandatory for release (e.g., ATEX, NORSOK, ISO 9001 FAI, material certifications, customer-specific Q-docs)? Options: Material certificate (MTR), First Article Inspection (FAI), Customer-specific PQ/TR, Regulatory compliance (e.g., ATEX), No external certifications required, Other
• Have all sign-off parties previously aligned on acceptance gates for prototypes, pilot runs, and full production? Options: Yes — alignment documented, Aligned verbally but not documented, No alignment yet, Partially aligned
• If there’s disagreement on acceptance results, what is your escalation path and expected timeline to resolution?

What Would a Failed Release Cost You?

• If a component released to production fails in the field, which consequence concerns you most — safety, downtime, contamination, regulatory penalty, or reputation? Options: Safety incident, Unscheduled downtime, Product contamination, Regulatory fines, Customer reputational damage, All of the above
• Quantify the rough order-of-magnitude cost of an unexpected field failure (repair + downtime + penalties) if possible. Options: <$10k, $10k–$100k, $100k–$1M, >$1M, Not sure / prefer not to say
• How tolerant is your operation of incremental risk during early field trials (e.g., limited pilot with backup parts) versus zero-risk expectation? Options: Limited pilot acceptable, Only zero-risk allowed, Conditional pilot with containment plan, Undecided
• Have you experienced a similar failure in the past 24 months, and if so, how long did it take to recover operations? Options: Yes — <24 hours, Yes — 1–7 days, Yes — >7 days, No recent failures, Unsure
• Emotionally, what keeps you up at night about releasing a new sealing material or geometry into your process?

Sample Handling & Packaging — Will It Survive The Journey?

• If samples travel across sites or borders, which of the following are constraints we must address? Options: Customs documentation, Temperature-controlled transport, Cleanroom handling, Hazmat paperwork, Limited package size, No cross-border movement
• What packaging preservation is required to keep samples representative (e.g., desiccant, inert gas, sealed foil, refrigeration)? Options: Desiccant, Nitrogen purge/inert gas, Sealed moisture barrier, Refrigerated transport, No special preservation, Other
• How many samples do you need for the combined bench, QA, and field qualifications? Options: 1–5, 6–20, 21–50, 50+, Unsure
• Who will handle incoming inspection at your site and what acceptance paperwork accompanies each sample? Options: Customer QA inspects, Customer receiving team, Shared inspection with supplier, Other
• Are there labeling or batch-tracing expectations we must meet for each sample (lot codes, material IDs, test history)? Options: Full lot traceability required, Basic part number/lot info, No labeling requirements, Undecided

Tooling, Lead-times, and the Calendar That Can Make or Break It

• If tooling lead-time extends beyond your target launch, what would you rather do — delay, phase production, or approve temporary runs? Options: Delay launch, Phase production/pilot, Approve temporary workaround, Other
• Which items are currently long-lead or at risk: raw polymer compounds, custom mandrels, precision molds, certified materials, or external subassemblies? Options: Raw polymer compounds, Custom mandrels, Precision molds/tooling, Certified materials (MTRs), External subassemblies, None identified
• What is your preferred cadence for tooling progress updates and what level of detail do you need (weekly build photos, milestone dates, risk log)? Options: Weekly detailed updates, Bi-weekly summary, Milestone notifications only, As-needed for issues
• Are there internal change freezes, outage windows, or procurement cutoffs we must hit (e.g., month-end, plant shutdowns, seasonal demand spikes)? Options: Yes — fixed dates, Yes — approximate windows, No freeze windows, Unsure
• What contingency would make you comfortable if a tooling delay occurs (e.g., interim machined parts, temporary O-rings, expedited shipping)? Options: Interim machined parts, Temporary standard parts, Expedited tooling option, Hold production until tooling ready, Other

Measurement — How Will We Know It Works?

• What are the non-negotiable acceptance metrics for release (e.g., leakage rate, torque retention, compression set, particle shed per million, life cycles)? Options: Leak rate, Compression set, Torque retention, Particle generation, Life cycles/fatigue, Other
• Do you require quantitative statistical sampling (AQL, sample size tables) for batch acceptance or is 100% inspection expected for initial runs? Options: Statistical sampling (AQL), 100% inspection for first runs, Hybrid approach, Undecided
• Which test methods or standards must we reference in reports (ASTM, ISO, customer-specific procedures)? Please list specifics.
• How do you prefer measurement evidence to be presented — raw data, summarized report with pass/fail, or both with raw files available? Options: Summarized report with pass/fail, Raw data only, Both summarized and raw files, Executive summary + raw files
• Who in your team will verify test data and how quickly do you expect feedback after test completion? Options: Customer QA, Customer Engineering, Operations + QA jointly, No preference/undecided

Next Steps — What Would Make You Confident to Release?

• If we delivered a full pre-deployment package tomorrow (samples, test report, packaging plan, tooling schedule), would you be ready to sign a release or require one more internal review? Options: Ready to sign release, Require one more internal review, Need further testing, Undecided
• What are the single biggest unknowns that, if resolved, would move this project from cautious to confident?
• Who should be on a weekly risk-and-progress call during pre-deployment and how long should that meeting be? Options: Engineering + QA (30 min), Engineering + Procurement + QA (45 min), Full stakeholder review (60 min), Ad-hoc as needed
• What would you consider a successful pilot run — duration, sample size in-field, and key success signals?
• Finally, what would be the preferred format and timing for a formal deployment readiness sign-off (digital approval, on-site witness, QA document package)? Options: Digital signature with package, On-site witness and inspection, Hybrid (digital + witness), Other

Quick Intro: What's Brought You Here Today?

• Which role best describes you for this project? Options: Design Engineer, Maintenance Engineer, Procurement Specialist, Quality / Safety Engineer, Operations Manager, Other
• Briefly, what problem or decision prompted you to start this conversation now?
• How would you describe the urgency on a scale from 'FYI' to 'stop the line'? Options: Informational / planning, Next procurement cycle, Planned outage window, High priority — affecting current operations, Emergency / production stopped
• Who else on your side should be in the room to evaluate technical trade-offs and sign approvals? Options: Principal Engineer, Maintenance Lead, Procurement Buyer, Quality / QA Manager, Safety / Compliance, Supply Chain / Logistics, Other
• What’s one thing you hope to get out of this engagement that would make it feel successful to you?

If This Keeps Happening, What Else Breaks?

• How often are you seeing the failure or issue today? Options: Multiple times per day, Daily, Weekly, Monthly, Intermittent / unpredictable
• When a failure occurs, what are the concrete impacts you see (choose all that apply)? Options: Unplanned downtime, Safety incident risk, Product contamination, Costly repairs, Regulatory exposure, Customer penalties, Other
• Roughly, what does a single failure event cost your organization (time or dollars)? Options: <$1k, $1k–$10k, $10k–$100k, >$100k, Prefer not to share / unknown
• How do these repeated failures affect team morale, customer confidence, or your credibility internally?
• What workaround or temporary fix are you currently using—and how long has it been relied upon?

What Are You Assuming About the Root Cause — And Could That Be Wrong?

• You may believe X is causing this—how confident are you in that diagnosis? Options: Very confident (data-backed), Somewhat confident (partial data), Low confidence (anecdotal), Not sure / no diagnosis yet
• What evidence or data have you already collected to support the suspected root cause (drawings, logs, photos, lab analysis)? Options: Failure photos, Process logs / telemetry, Material composition reports, Metallurgy / microscopy, No data collected yet, Other
• If we tested a different hypothesis and it proved true, what would that imply for procurement, design, or maintenance?
• Which failure analyses have you tried before (if any), and what did they miss?
• How open is your team to experimenting with new materials or geometries versus staying with a known but imperfect solution? Options: Fully open, Open with prototypes only, Conservative — need strong justification, Not open

Paint the Perfect Fix — Not Just 'Good Enough'

• If this component never failed again, what would that enable for your operation?
• What specific performance targets would feel like 'mission accomplished' (select those you care about)? Options: Temperature range (°C/°F), Pressure rating (psi/bar), Chemical compatibility with specified media, Dynamic life cycles / reciprocation count, Leak rate / sealing standard, Other
• Please state the numeric targets or acceptance criteria you need (e.g., -40–150°C, 5000 psi, 1e-6 mbar·L/s leakage):
• What trade-offs are acceptable (select all that apply)? Options: Higher cost for higher reliability, Longer lead time for validated performance, Slight geometry change with same mating parts, Reduced service life but lower replacement cost, None — must be drop-in replacement
• What would 'acceptable risk' look like for you in a safety-critical application? Options: Zero tolerance, Very low probability with mitigation plan, Moderate risk with monitoring, Not sure — need guidance

Who's Really On the Hook for This Decision?

• If we propose a new design or material, who needs to approve it before you can use it in production? Options: Design Engineering, Maintenance, Procurement, Quality / QA, Safety / HSE, Regulatory, Other
• Are there formal approval gates or sign-off documents your team requires (e.g., FMEA sign-off, PQR, material certs)? Options: FMEA, PQR, MTR / Material Certs, First Article Inspection (FAI), Quality release documentation, None formal
• How long does your internal approval process typically take once engineering recommends a solution? Options: <1 week, 1–4 weeks, 1–3 months, 3+ months
• What procurement constraints might block adoption even if the part meets technical needs (e.g., preferred vendors, sourcing rules, budget cycles)?
• What evidence would make procurement comfortable to place a trial or blanket order (e.g., test reports, price breaks, warranty terms)? Options: Third-party test data, In-house test results, Prototype pass with field trial, Competitive pricing / cost justification, Warranty or liability terms

What Would Proof Look Like to You?

• When you evaluate a prototype, what are the non-negotiable tests or validations we must run? Options: Pressure testing, Temperature cycling, Chemical immersion, Dynamic wear testing, Dimensional inspection, Other
• Would you prefer to see bench test results first, or do you require a short field trial before formal acceptance? Options: Bench tests first, Short field trial first, Parallel bench and field testing, Depends on criticality
• How do you want test data delivered—raw datasets, summarized report, video of failure mode, or an executive summary? Options: Raw datasets, Summarized technical report, Video/photo documentation, Executive summary for stakeholders, Combination
• Who on your team will lead prototype evaluation, and can we coordinate access to your test rigs or operating equipment?
• What acceptance gates will move this from trial to approved part number in your system? Options: Prototype pass & QA sign-off, Field trial completion, First article inspection, Purchase order & supplier onboarding, Other

Where Are You Willing to Bend — And Where Is Non-Negotiable?

• Which material families are off the table for you and why (e.g., contamination risk, outgassing, regulatory limits)? Options: Fluoropolymers (PTFE/FFKM), Elastomers (FKM/HNBR/EPDM), High-performance plastics (PEEK/PEI), Metallic components, None — open to anything
• Are there geometric constraints that must remain exactly as-is (mating surfaces, gland depth, cross-section)? Options: Drop-in required (no geometry changes), Minor geometry changes allowed, Full redesign acceptable, Unsure
• What are your absolute maximum allowable lead times for prototypes and production parts? Options: Prototypes: <1 week, Prototypes: 1–3 weeks, Production lead-time: <4 weeks, Production lead-time: 4–12 weeks, Longer acceptable with long-term contract
• Is there a cost ceiling per part or per run that would make this project infeasible? Options: Yes — please specify in comments, No strict ceiling, Need internal cost approval first
• Do you require specific warranties, liability limits, or traceability for materials? Options: Standard warranty, Extended warranty required, Full material traceability / MTR, Specific regulatory compliance (specify below), None required

How Fast Do You Need Change, Really?

• If everything aligned perfectly, what is your ideal timeline to move from concept to a prototype in-hand? Options: <1 week, 1–2 weeks, 3–4 weeks, 1–3 months
• What business or operational milestone is driving that timeline (e.g., scheduled outage, customer delivery, audit)?
• If timelines slip by 2–4 weeks, what are the practical consequences? Options: Minor inconvenience, Rescheduled outage, Production loss, Customer penalty / contractual breach, Safety/regulatory risk
• Are there fixed procurement windows or budget cycles we must align with? Options: Quarterly procurement cycle, Annual budgeting, Ad-hoc approvals, Emergency procurement allowed
• How quickly can your team evaluate a received prototype and provide structured feedback? Options: Within 48 hours, Within 1 week, 1–2 weeks, Longer / variable

Let’s Map the First 90 Days Together

• If we started now, what would you want the key milestones to be at 2 weeks, 6 weeks, and 12 weeks?
• What internal resources can you commit to the project (time for design review, access to test rigs, inspection personnel)? Options: Design review time, Maintenance technician for field tests, Access to lab/test bench, Quality inspector availability, None currently available
• Would you like us to propose a phased plan (discovery → prototype → field pilot → production readiness)? Options: Yes — propose phased plan, Yes — we prefer a compressed schedule, No — we have an internal plan, Unsure
• Which communication cadence works best for you during an active project? Options: Weekly status calls, Biweekly, Ad-hoc as milestones complete, Email updates only, Shared project workspace (preferred)
• Who should be the single point of contact for technical decisions and who for commercial/PO conversations?

What Would Give You Comfort About Our Work And Ourselves?

• Which supplier credentials matter most to you when trusting a solution partner? Options: Material science expertise, In-house prototyping, Relevant case studies, ISO / quality certifications, Warranty and liability terms, Other
• Would seeing samples or case studies of similar problem solves increase your confidence? If so, what details matter most? Options: Failure mode comparisons, Specific test data, Customer references, Design drawings, Other
• How do you prefer contractual protections to be handled around prototypes, IP, and confidentiality? Options: NDA before sharing details, Standard supplier agreement, Mutual IP terms, No formal agreement needed at discovery
• If we propose a solution that reduces failure frequency by X%, what threshold would convince you to change vendors or part numbers? Options: >90%, 70–90%, 50–70%, <50% — not sufficient
• What past supplier experiences (good or bad) should we be aware of so we avoid repeating mistakes?

Final Check: Anything Hidden We Should Surface Now?

• Are there legacy specifications, drawings, or non-disclosed constraints we should see to avoid dead ends? Options: Legacy drawings available, Specification documents available, Proprietary constraints (need NDA), None
• Have you worked with other vendors on this issue—what specifically failed for you with them?
• Are there regulatory, export control, or site access restrictions we need to plan around? Options: Regulatory limits (specify below), Export controlled material, Site access restrictions, No special restrictions
• Is there any internal political, budgetary, or strategic timing that could quietly derail an otherwise good technical solution?
• What's the single biggest remaining question you have for a supplier before you would engage in prototyping or testing?