Starting Point: How You Measure Success

• Describe your primary measurement goals for this program, in plain business terms.
• Which inspection instruments do you currently rely on to hit those goals? Options: Bridge CMM, Portable CMM / articulated arm, Optical scanner / vision station, Laser tracker, Manual gauges only, Third-party lab
• How many distinct part families will this system need to handle on a single line or cell? Options: 1, 2–5, 6–15, 16–50, More than 50
• Tell me the tightest dimensional tolerance you routinely need to validate, and whether it is a critical pass/fail feature. Options: ≤ 5 µm, 6–20 µm, 21–50 µm, 51–100 µm, > 100 µm
• List the stakeholders who will judge whether this project succeeds, and the success metric each owns. Options: Quality manager, measurement capability, Metrology supervisor, throughput and utilization, Production manager, uptime and yield, VP operations, ROI and total cost of ownership, Procurement, budget adherence
• If this inspection solution delivered everything on your wish list, what single business outcome would change first? Options: Lower scrap/rework, Fewer field returns, Higher throughput / fewer bottlenecks, Faster new-program launch, Lower outsourcing spend

Where Measurement Breaks Production

• Which recurring measurement failure causes the biggest disruption to your operation right now? Options: False rejects from drift, Missed defects until final assembly, Long CMM cycle times, Operator-dependent variability, Calibration failures
• When that failure occurs, where in your process is it first detected? Options: In-line inspection at cell, End-of-line final inspection, Assembly station, Customer site / field, Incoming inspection
• During the last six months, how often has a measurement-related issue caused a production delay or rework event? Options: Weekly, Monthly, Quarterly, Less than quarterly
• Explain the typical consequence when the issue appears, with a concrete cost or time example if possible.
• Which single unresolved measurement risk, if left for another quarter, would make you stop the project or escalate to executive leadership? Options: Unclear measurement uncertainty on critical feature, No capacity for peak runs, Inability to integrate with MES/ERP, Lack of local service support

Competitive Landscape: Who You're Comparing Us Against

• Which alternatives are you actively evaluating right now? Options: Current incumbent vendor, Internal upgrade / DIY fixtures and scripts, Different technology family (optical vs tactile), Third-party inspection lab, No replacement planned yet
• Who is the incumbent on the lines you plan to change, and what would have to be true for you to keep using them?
• Has anyone on your team proposed an internal build or scripted workaround instead of buying new equipment? Options: Yes, internal build proposed, No internal build proposed, Currently evaluating both
• If your current approach were to remain in place, what operational metric would need to match or exceed to avoid change? Options: Measurement uncertainty within tolerance, Throughput meets peak demand, Total cost lower than new purchase, Local service response within SLA
• Which factor among cost, speed, accuracy, and service would tip the decision toward your incumbent or DIY option? Options: Cost, Speed / throughput, Accuracy / uncertainty, Service and proximity, Ease of integration

Throughput and Workflow Realities

• When production peaks, how frequently do inspection queues cause parts to miss shipment or trigger overtime? Options: Regularly (weekly), Occasionally (monthly), Rarely, Never
• Which part attributes make cycle time worst, pick the top two? Options: Complex 3D geometry, High feature count, Soft or reflective surface, Large physical size, Requires multiple setups
• In a typical shift, how many setups or changeovers would an operator need to perform for the parts this system must handle? Options: None / single setup, 1–2, 3–5, More than 5
• Who currently programs inspection routines and how long does a new part program take to validate? Options: In-house metrology engineer, days–weeks, Shop-floor operator, hours–days, Vendor provided, days, No standard process
• If a delivered system could not reach your peak parts-per-hour target, would you still move forward and accept staged improvements? Options: Yes, with timelines for improvement, No, peak throughput is non-negotiable, Depends on cost and compensating gains

Accuracy Boundaries and Risk Tolerances

• Which dimensional feature sits closest to your measurement capability and keeps you up at night? Options: Form/flatness, Hole position/diameter, Surface profile, Assembly interface location, Thin-wall thickness
• Quantify the measurement uncertainty margin you require relative to the tightest tolerance, for example percentage or absolute value. Options: < 10% of tolerance, 10–25% of tolerance, 26–50% of tolerance, > 50% of tolerance
• Which environmental factor in your facility most threatens that uncertainty? Options: Temperature variation, Floor vibration, Air flow / dust, Lack of climate control, None significant
• How long can you tolerate calibration drift or out-of-tolerance before production impact becomes critical? Options: < 1 week, 1–4 weeks, 1–3 months, More than 3 months
• If measurement uncertainty could not be verified to your spec during acceptance testing, would that stop the project or trigger negotiated remediation? Options: Stop the project, Trigger remediation plan, Accept with risk sign-off

Who Decides, Who Signs, and How Fast

• Who has final sign-off authority for capital purchases of this size, and what approval threshold do they control? Options: Plant manager, <$100k, VP operations, $100k–$500k, CFO, >$500k, Procurement committee
• Which stakeholders must be satisfied during a pilot for you to proceed to purchase? Options: Quality manager, Metrology lead, Production manager, IT/network owner, Finance/procurement
• When a vendor proves required performance in a pilot, who can sign the purchase order within your organization, and on what timeline? Options: Plant manager within 1 week, VP within 2–4 weeks, Committee >4 weeks, No one can sign immediately
• Would a successful pilot remove remaining procurement hurdles so you could commit within the quarter? Options: Yes, absolutely, Possibly with budget approval, No, other approvals required
• If the procurement timeline slips beyond your target window, what consequence would that create for the program? Options: Delay in product launch, Extended outsourcing cost, Missed customer deadlines, No material impact

Integration, Data, and Reporting Expectations

• Which integration, if missing, would make the delivered system effectively unusable for your operations? Options: MES/SPC feed, ERP work-order sync, Network security / domain join, QMS nonconformance logging, None required
• Who owns the endpoints we would need to connect to (MES, ERP, QMS), and are APIs available? Options: Your IT team owns endpoints, APIs available, Your IT team, custom work required, No internal owner yet, Third-party manages systems
• Share an example of the report or data export format you must receive automatically from inspection runs. Options: CSV with feature trace, Standard SPC charts, Pass/fail summary per part, XML/JSON for MES, Other
• If integration work required 4–8 weeks of vendor or internal development, would that timeline be acceptable? Options: Yes, Only if parallel work proceeds, No, needs to be <4 weeks
• Which compliance or security constraint must we meet before connecting to your network? Options: Network segmentation and firewall rules, Vendor VPN access, SOC2/generic security review, No extra constraints

Practical Site Readiness and Constraints

• Which site constraint could prevent installation entirely if not resolved in advance? Options: Insufficient power/voltage, Inadequate floor load or leveling, Lack of climate control, No crane or rigging access, Network absence
• In your facility, what are the available windows for heavy equipment delivery and installation? Options: Any weekday daytime, Night shifts only, Weekend windows, Specific scheduled shutdowns
• Who will be the on-site owner for installation readiness items, and do they have authority to book contractors? Options: Facilities manager, Maintenance lead, Metrology supervisor, Production manager
• Estimate the lead time to resolve common readiness items like power upgrades or floor preparation. Options: <2 weeks, 2–6 weeks, 6–12 weeks, >12 weeks
• If site readiness cannot be achieved within your target launch window, would you delay acceptance or accept staged commissioning? Options: Delay acceptance, Staged commissioning acceptable, Depends on mitigation plan

Acceptance Criteria and Pilot Success Signals

• Which measurable acceptance tests must the system pass before you will accept delivery? Options: Measurement uncertainty verification, Throughput validation, Operator competency sign-off, SPC integration test, All of the above
• If we run an acceptance test using three representative parts, what pass/fail threshold would you require for sign-off? Options: All features within spec on 100% of samples, Cp/Cpk above target for critical features, No more than 1 nonconformance per batch, Custom acceptance criteria
• Who will perform the acceptance testing and who will sign the acceptance document? Options: Quality manager, Metrology supervisor, Production manager, Cross-functional team
• If a pilot proves the numbers you need, what internal approvals or budget moves remain before you could place an order? Options: None, PO can be issued, Finance approval required, Capital committee approval required, Procurement quote and negotiation needed
• Would a pilot that meets your acceptance criteria accelerate the timeline to commit within this quarter? Options: Yes, Yes with caveats, No

Budget, Timing, and Next Steps

• What is the budget range allocated or expected for this purchase? Options: <$50k, $50k–$150k, $150k–$500k, >$500k
• By when do you need the new inspection capability in production to avoid program risk? Options: Within 4 weeks, Within 8 weeks, 2–3 months, 3+ months
• Which internal milestone, if missed, would force you to postpone or cancel the acquisition? Options: Budget approval, Facility readiness, Supplier qualification, Customer program date
• Walk me through the simplest next step that would move this forward from your perspective.
• Who should we engage next on your side to validate technical details and schedule a pilot? Options: Metrology supervisor, Quality manager, Production manager, Facilities/maintenance

• Solution Experience Session

• Confirm the current state and cost
• You confirm the demonstrated measurement workflow yields uncertainty within your critical tolerances for the target features.
• Run a measurement uncertainty simulation using the provided CAD and part tolerance data and deliver a report with confidence intervals before the follow-up session.
• You confirm the demonstrated throughput approach meets or can be tuned to meet your production cycle targets for the sample parts.
• Proof, measurement uncertainty on your part scenario
• Provide representative parts or high-resolution scans, current cycle times, and any fixturing constraints for the simulation and throughput validation.
• Proof, throughput validation for your workflows
• Draft proposed installation and calibration acceptance tests with pass/fail metrics and share them for review before the commissioning phase.
• You agree on the remaining evidence and measurable acceptance criteria required to proceed toward procurement and deployment.
• Proof, reporting and usability with your data
• Schedule a follow-up, hands-on validation session at the lab or on the production floor to run the agreed acceptance tests.
• Scope anchors, calibration, and acceptance criteria
• Validate the future state
• Agree next evidence to close the gap

• Solution Experience Session
• Solution Experience Deck
• Solution Brief — Inspection Systems

• meeting
• slides
• document

• Install and Level Bridge CMM
• Install and Calibrate Portable CMM and Laser Tracker
• Install Inline Optical Inspection Sensor
• Perform Factory and On-site Calibration to ISO Standards
• Develop Automated Part-Specific Measurement Programs
• Migrate Measurement Programs and Probe Libraries from Legacy Systems
• Configure GD&T Analysis, SPC Reporting, and Pass/Fail Workflows
• Integrate Inspection Data with MES and ERP Systems
• Train Operators and Metrology Staff on Hardware and Software
• Provide Preventive Maintenance and Calibration Service Contract
• Provide On-site Repair and Emergency Calibration
• Supply and Configure Fixtures, Probes, and Stylus Kits
• Install Vibration Isolation and Temperature Control Solutions
• Deploy Automated First-Article Inspection Workflow
• Deliver Accredited Calibration and Measurement Certification

Install and Level Bridge CMM

• Is the installation location prepared with a load-bearing concrete slab and clear access for the CMM? Options: Yes, No, Requires site prep
• Provide the largest part envelope (X×Y×Z mm) and typical workpiece mass (kg) you will inspect on the bridge CMM.
• Identify the maximum allowed measurement uncertainty for the critical features you will inspect (specify in micrometers) and the drawing GD&T callout those features reference.
• List utility and access constraints at the installation point (power voltage and phase, ceiling height, forklift access, crane availability).
• What measurable acceptance criteria will confirm the CMM is installed and leveled (for example: maximum probing uncertainty µm, geometric deviation over a reference artifact mm, and required sign-off role)?

Install and Calibrate Portable CMM and Laser Tracker

• Which part locations or machine centers require portable measurement coverage (press line, assembly cell, jig area)? Options: Press line, Assembly cell, Jig area, Toolroom, Other
• Provide the typical working distances and common line-of-sight obstacles for laser tracker setups (distance in meters and obstruction types).
• Identify the probe types you plan to use with the portable CMM or tracker (touch probe, scanning probe, long stylus, retroreflector locations). Options: Touch probe, Scanning probe, Long stylus, Retroreflector, Other
• Will you require on-site environmental compensation (temperature correction or humidity logging) for portable measurements? Options: Yes, No, Optional
• When do you plan to schedule portable measurement activities relative to production (maintenance window, scheduled downtime, end-of-shift audits)? Options: Maintenance window, Scheduled downtime, End of shift audits, As-needed

Install Inline Optical Inspection Sensor

• Which conveyor or process line and station will the inline sensor mount to (line identifier, station number)?
• State the cycle time target per part and the required field of view (FOV) in millimeters for the optical sensor.
• Specify the tightest feature tolerance the inline sensor must resolve (in micrometers) and the feature type (edge, hole, radius, surface finish).
• Are there existing PLC or line control signals the sensor must connect to? If yes, list the signal types and protocols. Options: Discrete trigger, Analog input, Profinet/Profinet IO, Other
• Will you require a part reject or marking integration at the sensor station and which method is preferred (pusher, air blast, PLC trigger)? Options: Pneumatic pusher, Air blast, PLC trigger only, No reject integration

Perform Factory and On-site Calibration to ISO Standards

• State the calibration standard you require traceability to (ISO 17025, national measurement institute traceability, other). Options: ISO 17025, National measurement institute traceability, Other
• List the calibration artifacts you expect to be used during calibration (gauge blocks, step gauges, angle artifacts, laser interferometer).
• Specify the maximum allowable drift between calibrations for critical dimensions (µm) and the desired calibration interval.
• Do calibration certificates need to include measurement uncertainty budgets and a short description of the measurement procedure? Options: Yes, No
• How will you verify acceptance of factory and on-site calibration (name the artifact to be used for verification, acceptable uncertainty threshold in µm, and required certificate fields)?

Develop Automated Part-Specific Measurement Programs

• Name the part family or drawing revision that the first automated measurement program should target (drawing number and revision).
• Describe the typical fixture orientation and datum references used during inspection for that part family.
• Select the required program output for each run (full dimensional report, critical-feature pass/fail, SPC-ready CSV, or combination). Options: Full dimensional report, Critical-feature pass/fail, SPC-ready CSV, Combination
• Indicate the preferred program file format you need for retention and transfer (neutral CAD with PMI, native metrology file, CSV/JSON export). Options: Neutral CAD with PMI, Native metrology file, CSV/JSON for SPC, Other
• Do you require sample measurement cycles timed against production to confirm throughput targets? Options: Yes, No

Migrate Measurement Programs and Probe Libraries from Legacy Systems

• Name the legacy controller or metrology software that programs and probe libraries will be migrated from (include version if known).
• Estimate the number of measurement programs and probe definitions to migrate. Options: 1-10, 11-50, 51-200, 200+
• Describe any custom macros, jigs, or non-standard probe calibrations that must be translated or re-qualified.
• Are validation runs required to compare legacy and new system outputs on a sample production part? Options: Yes, No
• Indicate the acceptance threshold that will demonstrate migration fidelity (for example: dimensional deviation < X µm across Y features).

Configure GD&T Analysis, SPC Reporting, and Pass/Fail Workflows

• Provide the GD&T regime you use on drawings (ASME Y14.5, ISO GPS, or other) so analysis rules align with your expectations. Options: ASME Y14.5, ISO GPS, Other
• Which critical characteristics require SPC control charts and what sampling frequency is required for each (parts per shift or per lot)?
• Specify pass/fail thresholds for automated workflows (for example: Cpk target, tolerance limits, allowable deviations) and the notification routing for out-of-spec events.
• Select the export formats your SPC system accepts for automated ingestion (CSV, OPC UA tags, REST JSON). Options: CSV, OPC UA, REST JSON, Other
• Who in your team will own approval of GD&T configuration and SPC thresholds (role or job title)?

Integrate Inspection Data with MES and ERP Systems

• Which MES or ERP endpoint will receive inspection results and which protocol should be used (OPC UA, REST API, SFTP file drop)? Options: OPC UA, REST API, SFTP/FTP, CSV file drop, Other
• Provide the list of data fields your MES requires for each inspection record (part number, serial, lot, timestamp, result, operator).
• Specify the traceability key used on the line (barcode format, RFID tag scheme, serial number format) to link parts to inspection records.
• Do you require real-time push of inspection results to the MES or are scheduled batch uploads acceptable? Options: Real-time push, Scheduled batch, Both
• Are there authentication or network restrictions for the integration endpoint (allow-listed IPs, VPN only, no outbound connections)? Options: Allow-listed IPs required, VPN required, No restrictions, Other

Train Operators and Metrology Staff on Hardware and Software

• Which roles require training (machine operators, lab technicians, process engineers, quality managers)? Options: Machine operators, Lab technicians, Process engineers, Quality managers, Other
• Describe the desired split between hands-on training and classroom or virtual sessions (hours or percentage).
• Specify competency check criteria for operators (for example: number of supervised runs, measurement repeatability within X µm).
• Do you require train-the-trainer materials and documentation for internal onboarding and future hires? Options: Yes, No
• When should initial training be scheduled relative to installation and commissioning (before installation, during commissioning, after acceptance)? Options: Before installation, During commissioning, After acceptance, Phased schedule

Provide Preventive Maintenance and Calibration Service Contract

• Which service cadence do you prefer for preventive maintenance and calibration (monthly, quarterly, semi-annual, annual)? Options: Monthly, Quarterly, Semi-Annual, Annual, Custom
• Provide the list of assets to include under the contract by serial or asset tag.
• Identify required response time SLAs for corrective maintenance (for example: on-site within 24 hours) and whether priority windows are needed.
• Which calibration delivery do you prefer under the contract: on-site calibration, laboratory calibration with certified artifacts, or a combination? Options: On-site calibration, Laboratory calibration with certificate, Both, Not required
• Will you include remote monitoring or telemetry of machine health in the service scope? Options: Yes, No, Discuss options

Provide On-site Repair and Emergency Calibration

• Which hours should emergency support cover (business hours, extended hours, 24/7 on-call)? Options: Business hours, Extended hours, 24/7 on-call
• Describe past failures that required on-site support and the typical resolution steps and times you experienced.
• Specify spare parts you expect to keep on-site (controller boards, probe modules, optical elements) and minimum stock levels.
• Do you require guaranteed calibration turnaround time for emergency calibrations and if so what target (24, 48, 72 hours)? Options: 24 hours, 48 hours, 72 hours, Custom
• Who will be the on-site contact for emergency dispatch and what authorization level will they have for repairs and purchasing?

Supply and Configure Fixtures, Probes, and Stylus Kits

• Which fixture standards do you use (custom fixturing, modular tombstones, pallet dimensions)? Provide dimensions where relevant.
• Provide the list of probe types and stylus configurations required (stylus length mm, material, ball diameter mm) for your typical parts.
• Indicate whether probe calibration correction factors need to be recorded in the new system and retained for audit. Options: Yes, No
• Do you require spare stylus kits and an initial inventory list delivered with the system? Options: Yes, No
• Specify acceptance criteria for fixtures and probes (for example: probe repeatability < X µm, fixture runout < Y mm).

• Purchase Agreement
• Order Confirmation
• Master Services Agreement (MSA)
• Statement of Work (SOW)
• Software License Agreement
• Warranty Addendum
• Service Level Agreement (SLA) & Support Options
• Payment Schedule & Milestones
• Acceptance Test Protocol
• Change Order Agreement
• Calibration & Traceability Plan
• Installation & Commissioning Sign-off

• Go-live Health Check (weeks 1-4)
• Calibration and Service Cadence Planning (weeks 2-6)
• First Measurement Review (weeks 4-10)
• Quarterly Operational Review
• Annual Performance and Service Cost Review

• Publish the quarterly performance dashboard and the prioritized defect list with resolution timelines.
• Schedule focused calibration, fixturing adjustment, or measurement-program updates needed to correct identified issues.
• Deliver targeted operator training sessions and distribute updated SOPs before the next operational review.
• 90-day performance and trend review
• All persistent defects are assigned remediation owners with committed completion dates and clear acceptance criteria.
• Calibration compliance meets the cadence agreed in Solution Scope or has an approved mitigation plan.
• Next quarter priorities and scheduled service windows are published to the shared calendar.
• Re-confirm success criteria and owners
• Schedule any planned on-site service or calibration events for the coming quarter and notify operations windows.
• Move approved enhancement requests into the ticket backlog with priority and expected delivery quarter.
• Annual outcomes vs targets
• Agreement on whether the system met annual targets for first-pass yield and whether TCO matches forecast or requires budget adjustments.
• Decision on any changes to multi-year calibration cadence or service-level commitments based on observed performance.
• Consolidated lessons learned and a list of process improvements with owners and timelines.
• Publish the annual performance summary, actual spend vs forecast, and the recommended adjustments to service or calibration cadence.
• Document agreed long-term adjustments to calibration intervals or service SLAs and add them to the maintenance calendar.
• Compile the lessons learned into an operational playbook update for operators and maintenance staff.
• All deployment checklist items from Solution Scope are confirmed as complete or have an agreed remediation plan.
• Ticketing channel for issues and enhancements is created and communicated to the operations team.
• Top 3 operational blockers identified with resolution dates and owners.
• Create the centralized ticketing channel for support, incidents, and enhancement requests and publish access details to the buyer's team.
• Document and circulate the remediation plan for the top 3 blockers with target resolution dates.
• If an incumbent system exists, produce an incumbent wind-down checklist and schedule required decommissioning tasks or retention actions.
• Review recommended calibration schedule and standards
• A recurring calibration calendar is published with target calibration completion rate and dates tied to equipment and part families as recorded in Solution Scope.
• Service-level response targets are agreed and documented, including the target mean time to resolve service tickets.
• Owners for calibration tasks and record retention are named and the documentation flow is defined.
• Publish the agreed calibration calendar and attach the calibration standards and certificate template to the shared workspace.
• Configure ticketing channel routing to ensure measurement-critical tickets trigger the agreed response SLA.
• Record the service cadence and SLA terms in the buyer's maintenance calendar and notify named owners.
• Present first measurement dataset vs Solution Scope targets
• Decision on whether current measurement uncertainty and throughput meet Solution Scope targets or require remediation.
• Named remediation actions and schedule to return metrics to the agreed ranges.
• Training plan or SOP updates scheduled for any observed operator competency gaps.
• Publish the analyzed dataset and the agreed root-cause findings with explicit next-step actions and target dates.
• Deployment and configuration validation
• Ticket burn-down and outstanding defects
• Total cost of ownership and service spend review
• Root-cause analysis for any gaps
• Confirm service-level options and response times
• Operational ownership and documentation flow
• Operator competency and training needs
• Long-term calibration and service cadence validation
• Early adoption signals and usage patterns
• Calibration compliance and drift assessment
• Incumbent wind-down status (if applicable)
• Plan adjustments and next quarter priorities
• Lessons learned and operational improvements
• Integration of ticketing channel and escalation path
• Agree corrective actions and timeline to steady-state performance
• Open issues, blockers, and immediate remediation actions