Getting oriented, your current measurement program

• Tell me about your current bench inventory and which test programs each station supports.
• How many standalone bench instruments do you have planned for replacement in the current capital cycle? Options: 1–5, 6–10, 11–25, 26–50, More than 50
• Which measurement domains are most common across your benches right now? Options: RF characterization, Mixed-signal capture/analysis, High-speed digitizing, Signal generation, Switching/routing, Power and current measurement, Other
• When was the last time your team had to buy a new category of instrument because a module gap prevented reusing existing gear? Options: Within 6 months, 6–12 months, 1–2 years, More than 2 years, Never
• Who on your team owns the instrument roadmap and the five-year measurement plan? Options: Principal test engineer, Test systems architect, VP Engineering, Procurement, Site lab manager, Other
• If a single chassis could cover multiple current bench applications, what procurement or governance hurdle would still block its adoption?

Where measurement performance actually decides the deal

• When your VP asks for proof of parity, what single measurement failure would make them halt a platform decision immediately?
• Define the accuracy, timing skew, and noise floor thresholds that would be non-negotiable for platform approval. Options: Accuracy within existing instrument spec, Timing skew below 1 ns, Noise floor equal to or lower than current bench, Other (specify)
• For the DUTs you run, which signal levels, bandwidths, and timing windows are the hardest to replicate on modular hardware?
• Which of the following acceptance criteria does your team prioritize most? Options: Per-slot measurement accuracy, Cross-slot timing synchronization, Noise floor / dynamic range, Driver stability in your test environment, Module catalog coverage for roadmap
• Estimate the measurement error budget you allocate per slot for the most critical tests. Options: <0.1%, 0.1–0.5%, 0.5–1%, 1–2%, >2%
• Which specific DUT characteristic, if unsupported by the platform, would force you to retain dedicated instruments for that station?

How you run, verify, and trust benchmarks today

• Walk me through the last time your team benchmarked a new instrument against your reference, step by step.
• Which programming environments and driver stacks do your test scripts run in today? Options: Python (scipy/numpy), LabVIEW, C/C++, MATLAB, Proprietary test framework, Other
• How do you validate driver behavior and integration quality during a pilot? Options: Unit tests against simulator, Full DUT regression runs, Pair-programming with vendor, Static code review and test harness audit, Other
• Tell me about the test fixtures, calibration procedures, and verification scripts you require during benchmarking.
• Which of these data capture and logging capabilities must be present for your engineers to accept pilot results? Options: Raw waveforms with timestamps, Per-slot meta telemetry (temperature, firmware), Event and error logs exportable to your system, Automated pass/fail reports, Time-synced multi-slot traces
• If driver integration required rewriting portions of your test harness, how many engineering weeks would you accept before it becomes a deal breaker? Options: <2 weeks, 2–4 weeks, 4–8 weeks, More than 8 weeks

What consolidation actually frees up for you

• Estimate the total capital and annual maintenance spend you could free up within the program if consolidation hits the 40 to 60 percent range.
• How many spare modules, spare chassis, and service contracts does your operations team currently budget per site? Options: None, Small spares pool (1–2 modules), Moderate spares pool (3–5 modules), Large spares pool (>5 modules)
• Which operational savings matter most to your CFO when evaluating platform consolidation? Options: Reduced capital spend, Lower ongoing maintenance, Reduced bench floor space, Simplified contracts and vendor count, Faster time to reconfigure
• What single contractual or support guarantee would be required for you to commit to replacing existing instruments?
• Describe the escalation path and SLAs you would demand if a module failed on a production station.
• If the vendor guaranteed a five year upgrade and driver support schedule, would that eliminate your orphaning risk? Options: Yes, Partly, I would need additional assurances, No

Lab, integration, and approval gates

• Which access, security, or compliance gates would stop a pilot from being scheduled on your lab floor? Options: Facility security approvals, Network isolation requirements, Export control / ITAR reviews, Safety / EHS approvals, None
• Who owns physical lab access, network ports, and the rack space approvals you would need? Options: Site lab manager, IT/network team, Facilities, Security/compliance office, Other
• Do your test stations require specific orchestration or supervisory systems to be integrated before a new instrument can be installed? Options: Yes, mandatory supervision system, Optional but preferred, No, independent stations
• Which third party systems must connect to the platform, and are APIs or drivers available today? Options: DUT control systems, MES / production scheduler, Data lake / test data repository, Custom lab orchestration, None
• If any single integration dependency lacked an accessible API or owner, would that stop the pilot entirely? Options: Yes, cannot proceed, Possibly, depending on workaround cost, No, we can run an isolated pilot
• Provide the number of full time engineer equivalents your organization can dedicate to a 3 month pilot. Options: 0, 0.5, 1, 2, 3+, Unsure

Other options you are actively weighing

• Name the categories of alternatives your team is actively considering, for example incumbent dedicated instruments, another modular platform, an internal build, or keeping the status quo. Options: Incumbent dedicated instruments, Competing modular platform, Internal build/automation, Do nothing / status quo, Other
• Which of those alternatives do you think is most likely to win if our pilot does not move quickly? Options: Incumbent dedicated instruments, Competing modular platform, Internal build, Status quo
• What would have to be true about your current approach for you to keep it rather than switching to a modular platform?
• Has an internal proposal to build similar modular capability been presented, and if so who is sponsoring it? Options: Yes, engineering sponsors it, Yes, procurement sponsors it, No internal proposal, Unsure
• If the incumbent offered matching specs on accuracy, timing, and noise floor but at higher total cost, which factors would tip your decision back to them? Options: Lower engineering risk, Existing driver ecosystem, Single-vendor support, Faster procurement, Other
• Which procurement model are you most likely to pursue if the pilot succeeds? Options: Capital purchase, Capital lease, Operational lease / subscription, Hybrid (capex + support contract)

Pilot to rollout, decision triggers and owners

• If the pilot proves parity on your acceptance metrics, what is the single fastest path to station-by-station adoption in your organization?
• Which stakeholders must sign off to move from pilot to production at a single station? Options: Principal test engineer, Test systems architect, VP Engineering, Procurement, Operations / lab manager, Other
• List the acceptance tests, pass/fail thresholds, and required test artifacts we should include in the pilot scope.
• How long is your target window to complete a pilot and make a production decision? Options: 2–4 weeks, 1–2 months, 3 months, 4–6 months, Longer
• If the pilot meets all acceptance criteria but procurement requires a separate approval cycle, how much time would that add to your rollout plan? Options: No additional time, 2–4 weeks, 1–2 months, More than 2 months
• Name the single remaining barrier to signing an initial order within seven days after an acceptable pilot.
• Which commercial term is a must-have to close the pilot and begin station-by-station adoption? Options: Multi-year support commitment, Software updates included, Performance SLAs with remedies, Source code escrow, On-site support windows, Training for your engineers

• Supply and install chassis backplane
• Supply and install high-speed digitizer module
• Supply and install RF signal generator module
• Supply and install RF analyzer module
• Supply and install switch/matrix module
• Supply and install precision power-supply module
• Install and configure orchestration software and licenses
• Deploy driver SDKs for supported programming environments
• Provide measurement benchmark suite and example scripts
• Configure cross-slot timing synchronization fabric
• Perform factory calibration and deliver calibration certificates
• Deliver module firmware updates and lifecycle management
• Provide financing options and total cost-of-ownership model

Supply and install chassis backplane

• How many module slots do you need populated at initial deployment for your test station? Options: 1-4, 5-8, 9-16
• Which rack type and power feed will host the chassis at the lab bench (for example 19-inch rack, 200-240 VAC single-phase)? Options: Bench-mount (no rack), 19-inch rack, Custom cabinet
• What is the maximum ambient temperature and required uninterrupted runtime at the station that the chassis must support? Options: Up to 25°C, 25-35°C, Above 35°C
• Who is responsible for on-site mechanical installation and lockout/tagout (LOTO) coordination for chassis mounting? Options: Your facilities team, Your third-party contractor, We coordinate installation
• Specify the backplane lane density you require for module-to-module streaming (for example number of high-speed lanes per slot or expected aggregate throughput in Gbps). Options: Standard lane density (typical instrumentation), High density for multi-Gbps streaming, Unsure — need recommendation

Supply and install high-speed digitizer module

• How many digitizer channels and what per-channel sampling rate must be supported for your device under test (DUT) measurements? Options: 1-4 channels, 5-8 channels, 9+ channels
• Which input connector types does your DUT require the digitizer to mate with (for example SMA, BNC, or low-loss coax termination)? Options: SMA, BNC, Other
• What per-slot amplitude accuracy or resolution target do you need on your DUT measurements (provide units such as bits or parts per million)?
• Identify any DUT front-end conditioning you currently use (for example external attenuators, amplifiers, or matching networks) that the digitizer must accept. Options: No external conditioning, Attenuators in place, Amplifiers in place, Custom matching network
• Describe the DUT test waveform types you will capture during benchmarking (for example pulsed RF signals, multi-tone, or mixed-signal digital bursts). Options: Pulsed RF, Multi-tone, Mixed-signal digital bursts, Other

Supply and install RF signal generator module

• How many independent RF output ports and what frequency ranges must the generator support for your DUT characterization? Options: Single output, narrowband, Multiple outputs, wideband, Wide tunable range required
• Which modulation types and waveform formats do you need for stimulus (for example AM, FM, phase modulation, arbitrary waveform)? Options: Sine/CW, AM/FM/PM, Arbitrary waveforms, IQ modulation
• What maximum output power and required output leveling accuracy are needed to exercise your DUT RF front end? Options: Low power (<0 dBm), Medium (0-+10 dBm), High (>+10 dBm)
• Identify any synchronization inputs the generator must accept from your DUT or external clock sources (for example 10 MHz reference or trigger pulses). Options: 10 MHz reference, External trigger pulse, No external sync required, Other
• Describe any interoperability requirements with your existing attenuation, RF switching, or shielding fixtures used during signal injection to the DUT.

Supply and install RF analyzer module

• Which measurement tasks will the RF analyzer perform on your DUT (for example spectral mask, occupied bandwidth, spurious content, or phase noise)? Options: Spectral analysis and spurs, Phase noise, Occupied bandwidth, All of the above
• What dynamic range and minimum detectable signal level (noise floor in dBm) must the analyzer achieve to match your current bench instrument results on the DUT?
• Which front-end connector and recommended input attenuation do you use when connecting the analyzer to your DUT? Options: SMA with 0 dB attenuation, SMA with fixed attenuator, BNC, Custom
• Identify the standard measurement sweep or averaging procedures you run today for certification of DUT RF performance that the analyzer must reproduce.
• Specify any required analyzer measurement automation hooks your scripts depend on such as marker tracking, zero-span FFT capture, or digitizer capture handoff.

Supply and install switch/matrix module

• How many I/O paths and what switching density are required in the matrix to route signals between DUT ports and modules? Options: Low density (<=8x8), Medium (9x9 to 32x32), High density (>32x32)
• Which connector families and contact types on your DUT fixtures must the switch support for minimal rework? Options: SMA, BNC, D-Sub or custom harness, Other
• What maximum switching speed and settling time do your test procedures require between route changes? Options: Slow (>100 ms), Medium (10-100 ms), Fast (<10 ms)
• Describe any isolation or crosstalk thresholds between matrix paths that are necessary for your mixed-signal measurements.
• Who will own the wiring harness and fixture compatibility testing between the switch and your DUT fixtures? Options: Your test engineering team, Your fixture vendor, We coordinate testing

Supply and install precision power-supply module

• How many independent power rails and what voltage/current ranges must the module deliver to exercise your DUT? Options: Single rail low voltage, Multiple rails mixed voltages, High current rails
• What transient response and regulation accuracy are required when stimulating your DUT (for example load-step settling time and voltage droop limits)?
• Which DUT power sequencing or margining workflows do you run today that the power module must support programmatically? Options: Startup sequencing, Margin testing, Burn-in profiles, Other
• Specify any required power monitoring telemetry frequency and logging retention for post-test analysis. Options: Per-test snapshot, 1 Hz telemetry, 100 Hz telemetry, Custom
• Identify safety or isolation requirements for the power module when connecting to your DUT fixture (for example earth isolation, current limiting). Options: Earth isolated, Current limiting required, No special requirement

Install and configure orchestration software and licenses

• Which orchestration features are must-haves for your test workflows (for example multi-module sequencing, error recovery, or test-data tagging)? Options: Error recovery, Sequencing, Test-data tagging, All of the above
• What is your preferred deployment model for orchestration: on-premises in your lab, virtualized in your data center, or cloud-hosted for offsite access? Options: On-premises, Virtualized on-site, Cloud-hosted
• How many concurrent test sessions should the orchestration software support for your expected station-by-station rollout phase? Options: 1-2, 3-5, 6+
• Who will manage license entitlement and software updates inside your organization (for example lab admin, IT, or a managed services partner)? Options: Lab admin, IT team, Managed services partner
• When do you require integration between orchestration and your artifact repository or test data lake for results archival? Options: At pilot completion, During station rollout, Not required

Deploy driver SDKs for supported programming environments

• Which programming environments must be supported out of the box for your test engineers (for example Python, LabVIEW, or C++)? Options: Python, LabVIEW, C/C++, Other
• How important is binary compatibility with your existing CI/CD and build pipelines when deploying new driver versions? Options: Critical, Nice to have, Not required
• Do you require sample driver integrations or reference wrappers for your internal test frameworks? Options: Yes — full examples, Yes — basic examples, No
• Which remote deployment model do you prefer for SDK installation across multiple workstations (for example package management, push from orchestration, or manual install)? Options: Package manager, Orchestration push, Manual install
• Identify any code-signed or security policies your environment enforces that drivers must comply with before installation.

Provide measurement benchmark suite and example scripts

• Which DUT benchmark cases from your current validation plan must be reproduced by the benchmark suite (for example per-slot amplitude accuracy, timing channel alignment, and noise-floor sweeps)? Options: Per-slot amplitude accuracy, Timing alignment, Noise-floor sweeps, All listed
• What programming language should the example scripts be delivered in to match your bench automation (for example Python scripts with pytest wrappers or LabVIEW VIs)? Options: Python with pytest, LabVIEW VIs, C/C++ examples, Other
• Who will run the benchmark on your live DUT and provide the comparison results for acceptance (for example test engineers, validation lab, or third-party lab)? Options: Your test engineers, Your validation lab, Third-party lab
• What is the numeric acceptance threshold for per-slot measurement parity against your reference instrument (for example amplitude error in dB or timing offset in ns)?
• What evidence will you require to accept that the modular platform matches your bench instruments on the DUT (for example captured raw waveforms, side-by-side plots, or signed benchmark report)? Options: Raw waveform captures, Side-by-side plots, Signed benchmark report, All of the above

Configure cross-slot timing synchronization fabric

• Which timing reference will you use for slot synchronization at your site (for example 10 MHz reference clock, GPS-disciplined reference, or external rubidium)? Options: 10 MHz reference, GPS-disciplined reference, Rubidium oscillator, Other
• What maximum inter-slot timing skew is acceptable when running distributed captures on your DUT (specify in nanoseconds)?
• Identify the trigger distribution method your fixtures use today so we can map trigger routing into the synchronization fabric. Options: Dedicated trigger bus, Backplane trigger, External trigger cabling, Other
• How will you validate timing synchronization on the DUT during the pilot (for example loopback measurement, common-clock capture, or cross-correlation of known stimulus)? Options: Loopback measurement, Common-clock capture, Cross-correlation, Other
• What acceptance threshold will you use to sign off cross-slot synchronization performance on your DUT (for example skew < 1 ns RMS)?

Perform factory calibration and deliver calibration certificates

• Which calibration standards or labs do you accept for module calibration certificates (for example ISO/IEC traceable lab or your internal calibration house)? Options: ISO/IEC traceable lab, Your internal calibration lab, Third-party accredited lab
• How often do you require recalibration for instrument-grade measurements on the DUT (for example annually, semi-annually)? Options: Annually, Semi-annually, Custom cadence
• What set of calibration artifacts and uncertainty statements must be present on the certificate to meet your audit (for example per-channel gain uncertainty, phase error, and frequency response)?
• Who will retain the delivered calibration certificates and manage traceability for your lab audits? Options: Your quality team, Your calibration group, We provide storage support
• What evidence will you accept as proof of calibration before putting modules into baseline DUT testing (for example signed certificate and calibration data files)? Options: Signed certificate, Calibration data files, Both signed certificate and data files

Deliver module firmware updates and lifecycle management

• How do you prefer firmware updates to be delivered and approved into your environment (for example staged rollout, security review, or automatic push)? Options: Staged rollout, Security review then push, Automatic push
• Which firmware lifecycle guarantees are required for your procurement cycle (for example guaranteed updates for 3 years, 5 years, or custom SLA)? Options: 3 years, 5 years, Custom
• Specify any code-signing or binary verification policies that firmware images must meet for installation into your lab.
• Who will be the change approver inside your organization for module firmware rollouts to production stations? Options: Lab manager, IT change board, Your validation lead
• Indicate how firmware rollback should be handled if a new release impacts your DUT tests (for example automated rollback to last known good or manual revert). Options: Automated rollback, Manual revert, Require engineering intervention

• success_criteria
• decision_readiness
• desired_state
• stakeholders
• gaps
• current_state
• desired_state
• success_criteria
• gaps
• decision_readiness
• current_state
• stakeholders
• stakeholders
• decision_readiness
• current_state
• decision_readiness
• decision_readiness
• decision_readiness
• decision_readiness

• Purchase Agreement / Order Confirmation
• Software Subscription Agreement
• Master Services Agreement (MSA)
• Statement of Work (SOW)
• Service Level Agreement (SLA)
• Acceptance Criteria and Test Plan
• Software Lifecycle and End-of-Life (EOL) Policy
• Hardware Maintenance & Spare-Parts Agreement
• Change Order Agreement
• Payment Schedule & Milestone Terms
• Export Compliance & Controlled-Goods Addendum (conditional)

• Go-live Health Check (weeks 1-4)
• First Measurement Review (weeks 4-10)
• Acceptance Gate — 90-day Outcome Decision
• Scale Parity Validation (post-acceptance, day 120-180)
• Quarterly Operational Review — Ongoing Support

• Create enhancement request tickets for prioritized items and publish expected resolution windows.
• Confirm incumbent instrument decommissioning status and data archival or migration completion to avoid dual-running costs.
• Publish the acceptance decision, including pass/fail per criterion and any conditional remediation timelines.
• If incumbent is retired, archive or migrate data and document the decommissioning completion in the project log.
• Schedule any required remediation runs and a follow-up validation date to confirm closure of failed criteria.
• Aggregate measurement distributions across stations
• Confirm that per-slot accuracy distribution across stations is within the tolerance band agreed in Benchmark & Scope Definition or identify targeted stations for remediation.
• Verify the number of stations achieving cross-slot timing skew below 1 ns and set remediation actions for the remainder.
• Agree on a prioritized list of enhancement requests and fixes required to maintain parity as the platform scales.
• Schedule targeted retest runs at stations that fall outside the acceptance tolerances and capture required environmental logs.
• Re-confirm success criteria and owners
• Consolidate and distribute a scale-parity summary report showing station-by-station status and next steps.
• Support metrics and ticket trends
• Reduce the open critical ticket count and improve burn-down rate compared with the prior quarter.
• Lower mean time to resolution for critical measurement defects and confirm module uptime meets operational expectations.
• Ensure the shared support channel is functioning and escalation paths are verified for the next quarter.
• Update runbooks and the knowledge base for the top three recurring incidents identified in this review.
• Publish a quarterly support health summary showing ticket burn-down, MTTR, and open high-priority items.
• Schedule follow-up targeted remediation runs for any stations with repeat failures and log outcomes for the next quarterly review.
• Confirm deployment and configuration match the deployment checklist from Benchmark & Scope Definition.
• List and prioritize top open issues with remediation windows to ensure first measurement can proceed.
• Confirm user access and initial test-run signals indicate readiness for measurement benchmarking.
• Publish a go-live health summary including open issues, remediation windows, and owner assignments.
• Resolve P0 deployment defects within the agreed remediation window and report status before the first measurement meeting.
• Collect and share first-week usage logs and test sequence extracts for bench teams to review asynchronously.
• Present benchmark results vs targets
• Determine whether per-slot measurement accuracy delta versus incumbent is trending toward the targets recorded in Benchmark & Scope Definition.
• Confirm cross-slot timing skew distribution meets the synchronization target or identify root causes if not.
• Agree a concrete remediation plan and date for the next validation run before the acceptance gate.
• Execute a controlled repeat benchmark with fixed DUT and environment settings to validate root-cause hypotheses.
• Capture and share driver and firmware logs for all slots during the repeat benchmark for forensic analysis.
• Produce a short report summarizing gaps against Benchmark & Scope Definition targets and the planned remediation steps.
• Restate acceptance criteria and numeric targets
• Document pass or fail status for each acceptance criterion recorded in Benchmark & Scope Definition.
• Capture a formal acceptance decision appropriate to the deal type, including signatory details where required.
• Present outcome data against each acceptance criterion
• Operational stability and module uptime
• Deployment and configuration validation
• Count of stations meeting timing skew target
• Noise floor and driver behavior review
• Enhancement backlog status and prioritization
• Early adoption signals and usage patterns
• Formal acceptance decision and signatory capture (enterprise-managed)
• Root-cause diagnosis for any gaps
• Open issues and ticket burn-down review
• Enhancement requests and known limitations
• Blockers and open issues triage
• Incumbent decommissioning check
• Agree remediation actions and timeline to acceptance gate
• Shared support channel and escalation path review
• Agree immediate remediation actions
• Remediation plan for any failed criteria
• Capture lessons learned and documentation updates