Design-Win Distribution
Complex technical sales and manufacturing engagements across the global electronics supply chain.
This interactive experience is the shipped product itself — the same application code customers run in production, mounted read-only in your browser over a real sample journey. Not a video, not a mockup: because the demo and the product are one codebase, it can never drift from the real thing.
Inside this journey
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Outcome Discovery
Align on product requirements, prototype constraints, stakeholders, and success signals (performance, power, package, cost) to prioritize suitable components.
Discovery Questions
Project kickoff and quick context
- Tell me about the product and prototype that pushed the BOM decision onto your radar right now
- How many weeks remain until your formal BOM lock or design freeze?
- Who on your team will be the primary technical contact for component evaluations and FAE sessions?
- Which parts of the prototype are most constrained by package, power budget, thermal headroom, or cost?
- Estimate the minimum number of sample units you would need per candidate to complete board bring-up and parallel testing, or explain if you are flexible
Reality check: where the current setup breaks down
- When an allocated or single-sourced component shows up in a prototype BOM, how does that usually affect your delivery calendar?
- Describe the last time a prototype required rework because the chosen component failed to meet a board-level constraint, and who owned the fix
- How often do you hit unexpected power sequencing, thermal, or signal-integrity problems during initial bring-up?
- Walk me through your current board bring-up workflow, from sample arrival to a validated test case
- If your current prototype part remains unavailable for another 40 weeks, what single project outcome would you consider a showstopper?
Hard trade-offs and non-negotiables
- Rank these trade-offs in order of what your team refuses to compromise on: power consumption, package size, throughput/performance, unit cost
- Tell me how you weigh second-source availability against per-unit pricing when deciding which silicon to evaluate first
- Identify the role that must sign off on a vendor design registration or locked pricing for this project
- Typically, how many weeks of lab validation do you budget before a design is considered locked for procurement planning?
- List any hard constraints that would make a candidate part unusable even if it otherwise met specs, for example unacceptable package type, missing peripheral, or unsupported voltage rail
Where the process trips you up
- Why do past component choices create late surprises or require rework in your experience?
- Recall a recent allocation, lead-time, or sample shortage incident and summarize the mitigation steps you took
- Estimate how often sample shortages or late shipments have forced you to change a test plan or delay a milestone in the last year
- Name the internal stakeholder who most often blocks or slows sample orders because of procurement or compliance constraints
- Would a guaranteed sample shipment within your prototype window be the difference between proceeding with an evaluation or pausing it?
Competitive landscape, who else could you do this with?
- List the alternatives you are actively evaluating or have already considered, including direct manufacturer channels, other distributors, or an internal sourcing plan
- Under what conditions would you stay with your incumbent component instead of switching to a different candidate?
- Do you have an internal proposal to solve sampling or evaluation without outside FAE support, and if so describe the core of that plan
- Does any alternative you're considering include dedicated FAE hours, reference design adaptation, or guaranteed kit provisioning?
- What would have to be true about a competitor or internal approach for you to prefer it over using an external distributor with embedded FAEs?
How you plan to validate candidates in the lab
- Imagine you have two weeks of bench time, which validation must succeed in that window to keep the project on schedule: power profile, boot reliability, throughput, or thermal margin?
- Point to the evaluation kits, reference designs, or measurement setups you already have that we could reuse for faster validation
- Specify the minimum sample quantity and any special test accessories you need for parallel board-level comparison
- Do you require on-site bench sessions, remote debug with screen share, or a combination for the FAE-led bring-up?
- Which internal approval or sign-off will immediately allow ordering production-qualifying samples if a candidate meets acceptance criteria in the lab?
Operational readiness and practical constraints
- Identify third-party systems, APIs, or lab infrastructure that must be available before an FAE can validate your board in-circuit
- Provide the names of roles who will own sample receipt, inventory, and disposition during the evaluation
- Are there compliance, security, or procurement approvals that typically delay sample acceptance at your facilities?
- State any assembly, carrier board, or mechanical constraints that would prevent you from testing a candidate on your reference PCB
- If you cannot provide JTAG or firmware access for an initial test, would that stop the evaluation or can the seller's FAE proceed with black-box testing?
Success signals and the path to a mutual commit
- Point to the single metric or acceptance test that, if achieved, would make you ready to commit to a design registration or sample order
- Rank these procurement concerns in order of urgency for production readiness: pricing stability, lead time, second-source availability, lifecycle roadmaps
- Explain the internal timeline from successful evaluation to when procurement must see a held price or lead-time commitment
- When would you be prepared to run a funded pilot or register a design if a candidate meets the agreed acceptance criteria?
- Would a shared channel for ongoing issues and a named FAE for follow-up make you more likely to move from evaluation to design registration quickly?
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Solution Walkthrough & Lab Plan
Map how the seller's FAEs, evaluation kits, and reference designs will validate candidate components against the buyer's real circuits and prototyping workflows.
Solution Experience
- Solution Walkthrough & Lab Plan
- Confirm the current state and its cost to your team
- You confirm the stated current-state description and the quantified schedule and rework cost.
- Deliver an itemized evaluation kit and sample list mapped to each acceptance criterion, including recommended sample quantities and estimated lead times within three business days.
- You confirm the acceptance criteria and agree that the proposed lab tests will prove compliance against your real circuits.
- Align acceptance criteria to measurable tests
- Produce a draft lab test procedure that maps each test step to the pass/fail thresholds agreed in the session.
- Provide the latest prototype schematic, BOM, and one representative test case for the planned validation within three business days.
- You agree to the sample quantities, FAE support window, and timeline required to produce test evidence for design registration.
- Walk your prototype integration points
- Schedule the hands-on bench session and confirm attendees and the preferred test window.
- You identify any remaining gaps in the plan that must be closed before ordering samples or committing to registration.
- Show the lab validation plan and roles
- Surface failure modes and contingencies
- Agree the go/no-go sign-off criteria and the checkpoint for design-registration next steps after validation.
- Forced validation, confirm this matches your need
- Solution Walkthrough & Lab Plan
- Solution Walkthrough & Lab Plan Deck
- Solution Brief — Solution Walkthrough & Lab Plan
- meeting
- slides
- document
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Solution Scope
Define evaluation deliverables, sample quantities, reference-design adaptations, FAE support hours, responsibilities, timelines, and measurable acceptance criteria for design-in.
Scope Configuration
- Provision Evaluation Kits and Sample Parts
- Deliver Board-Level Reference Design Package
- Adapt Reference Design to Buyer Schematic
- Review and Annotate Schematic with Corrections
- Assemble Prototype Evaluation Boards
- Debug Power Sequencing on Prototype Hardware
- Provide Application Firmware Examples and Drivers
- Measure Power Consumption and Thermal Profile
- Supply PCB Footprint and Land-Pattern Files
- Integrate and Test Sensor or Connectivity Module
- Deliver BOM with Second-Source Component Options
- Provide Reference PCB Layout and Stack-Up Guidance
- Run High-Speed Signal-Integrity Fixes on Prototype
Scope Questions
Provision Evaluation Kits and Sample Parts
- Do you require full evaluation kits or single-part samples for first-pass testing?
- How many sample parts do you need per candidate device for parallel validation on your benches?
- Which shipping conditions matter for your receiving site (standard ground, temperature control, hazardous materials, expedited)?
- Provide the target project milestones tied to sample delivery (for example: first bench test on day 14, design review on week 6)
- Identify any import, export, or internal procurement approvals required by your receiving operations team
Deliver Board-Level Reference Design Package
- Which file types do you need in the reference package (Gerber, source CAD, BOM CSV, assembly drawings, pick-and-place)?
- Provide the functional tests and pass/fail criteria that the reference board must demonstrate for your design-in acceptance (for example: boot to application, ADC SNR threshold, peripheral init within X ms)
- List any footprint or library standards your PCB team requires (for example IPC-7351, manufacturer footprint ID, internal library reference)
- Specify whether you need fabrication-ready Gerbers or source CAD files for internal modifications
Adapt Reference Design to Buyer Schematic
- Describe the schematic differences we should adapt for (net names, power-rail mapping, alternate connectors, mechanical connectors)
- Identify the pin mappings or alternate footprints in your schematic that require cross-wiring changes on the reference board
- Indicate the target mechanical constraints to respect during adaptation (board dimensions, keepouts, connector locations in millimeters)
- Specify the acceptable number of board revision cycles included for adaptation
- Confirm who on your team will approve the adapted schematic and PCB drawings
Review and Annotate Schematic with Corrections
- List the schematic documents we should review (for example PDF schematic, native CAD file, netlist)
- Name the critical nets or power rails that need focused annotation (for example VDD_CORE, VDDA, VBAT)
- Describe the level of annotation required (component-value checks, decoupling verification, signal-integrity notes)
- Choose the expected turnaround time for annotated schematic review
- Confirm the format you want annotated deliverables returned in (PDF with comments, annotated CAD file, markup spreadsheet)
Assemble Prototype Evaluation Boards
- Do you require hand-assembled prototypes or a small factory-assembled run?
- How many prototype boards do you need for lab validation and integration testing?
- Indicate the acceptable component substitutions or second-source rules for assembly (value tolerances, case sizes, approved alternates)
- State stencils, solder paste, or SMD assembly preferences (for example type 3 paste, no-clean flux, stencil aperture notes)
- Name any test jigs or fixtures required for board acceptance
Debug Power Sequencing on Prototype Hardware
- State the power rails and sequencing order your design requires (for example VDDIO before VDD_CORE, POR thresholds in volts)
- Explain the symptoms you've observed or the failure modes to reproduce during debugging (brownout, reset loops, dead boot)
- Share the bench equipment available to you for debugging (oscilloscope bandwidth, power supply with sequencing, logic analyzer, current probe)
- Estimate how many FAE support hours you expect for power-sequence debugging
- Outline the test procedure you use to reproduce the sequencing issue on your bench (step-by-step, input voltages, connectors)
Provide Application Firmware Examples and Drivers
- Tell us the MCU SDK or real-time operating system (RTOS) you use or prefer in your prototype (bare-metal, FreeRTOS, Zephyr, other)
- Share the peripheral use-cases your firmware must demonstrate (for example ADC sampling at X ksps, UART bootloader, I2C sensor read)
- Select the language and toolchain required for examples and drivers (C, C++, ARM GCC, IAR, Keil)
- Are there security or code-signing requirements for delivered binaries?
- Choose whether example drivers must be provided as source code with build scripts or binaries only
Measure Power Consumption and Thermal Profile
- Select the operating modes to be profiled (for example active, sleep, low-power idle, deep sleep)
- Write the exact test load conditions for power measurements (clock frequency, enabled peripherals, sample workload in mW or MIPS)
- Give the thermal environments and ambient temperatures for thermal profiling (for example 25°C, 60°C, enclosure closed)
- Tell us the instrumentation you expect us to use for measurements (DC current probe, source-measure unit, thermal camera, data logger)
- Give the maximum allowable active and standby currents (in mA/µA) that will define acceptance for your design-in
Supply PCB Footprint and Land-Pattern Files
- Supply the preferred footprint standards your PCB CAD team requires (for example IPC-7351, manufacturer drawing, internal library ID)
- Enumerate the package variants you need footprints for (QFN, LGA, BGA, TQFP) and indicate pin counts where applicable
- Enumerate the file formats required for CAD import (for example IPC-2581, ODB++, Altium PCBLIB, KiCad)
- Write your solder mask expansion and courtyard clearance preferences in mils or millimeters
- Attach any solder paste stencil aperture guidelines or paste-threshold rules you require
Integrate and Test Sensor or Connectivity Module
- Declare the sensor or module interfaces that must be validated on your board (for example I2C, SPI, UART, SDIO, USB)
- Detail the data-rate and throughput targets for the connectivity module under expected loads (specify in kb/s or Mbps)
- Outline the environmental tests required for the sensor (temperature range, humidity, shock) with numeric thresholds
- Define the functional acceptance criteria for the sensor or module (for example accuracy ±X units, false-positive rate, packet error rate)
- Detail any antenna or RF layout constraints to preserve link performance (keepout area, board edge clearance in millimeters)
Deliver BOM with Second-Source Component Options
- Declare the critical long-lead or single-source components that require second-source alternatives
- Sketch acceptable substitution rules for passive components (value tolerance, case size, temperature coefficient)
- Mark the price-band or target unit-cost thresholds you want the BOM to reflect
- For procurement, list your preferred distributors or procurement channels for sourcing comparisons
- Explain the qualification testing required for identified second-source components
Provide Reference PCB Layout and Stack-Up Guidance
- For stack-up, provide number of layers, dielectric thickness, and core materials in your target manufacturing units
- For high-speed routing, specify constraints to follow (impedance control, differential pair spacing, maximum trace length)
- For EMI, list the board-level mitigation requirements you need (filter placements, common-mode chokes, ground pours)
- For layer assignments, indicate preferred assignments for power, signals, and ground
- For DRC, specify whether you require rule files for your board house and which CAD tool format
Run High-Speed Signal-Integrity Fixes on Prototype
- For high-speed nets, name the interfaces that need SI fixes (for example USB3, PCIe, DDR routing, LVDS)
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Mutual Commit
Confirm design-registration terms, pricing holds, lead-time acknowledgements, and mutual responsibilities before ordering samples or submitting registrations.
Agreement Modules
- Design Registration Agreement
- Sample Order & Authorization
- Pricing & Lead-Time Commitment
- Statement of Work (SOW) — Evaluation & FAE Support
- Master Services Agreement (MSA) for FAE Services
- Acceptance & Escalation Protocol
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Prototype Provisioning & Support
Schedule sample shipments, hands-on bench sessions, schematic reviews, and milestone check-ins to execute the agreed evaluation and design-in plan.
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Success
Confirm chosen components meet acceptance criteria, capture production-readiness signals (pricing, lead times, second-source), and maintain a shared channel for issues and enhancements.
Success Reviews
- Go-live health check (weeks 1-4)
- First measurement review (weeks 4-10)
- Acceptance gate review (around day 90)
- Ongoing quarterly success review
Issues & Enhancements
- Publish a short status summary in the shared channel ahead of the next quarterly meeting, including any production risks.
- Produce a documented per-criterion pass/fail record against the Solution Scope targets.
- Capture the buyer's documented go or no-go decision on the evaluated components and next immediate steps.
- If required, record a remediation plan with concrete milestones and a verification date.
- Publish the acceptance results document showing pass/fail per criterion and the buyer's documented decision.
- Create and circulate a remediation plan for any failed criteria with milestones and verification dates.
- If accepted, update the production-readiness tracker with confirmed lead times and preliminary pricing commitments.
- Production-readiness signals
- Confirm production-readiness metrics, including current lead time and verified unit pricing at target volume, are tracked and within acceptable bounds.
- Ensure all open issues are assigned resolution dates and that second-source qualification progress is visible and on track.
- Maintain an agreed shared channel and escalation workflow for production or field issues.
- Update the lead-time and pricing tracker monthly and circulate the updated sheet before the next quarterly review.
- Document the current second-source qualification status and list remaining steps to qualify alternate suppliers.
- Re-confirm acceptance criteria and owners
- Confirm prototypes are operational and basic functional checks have passed.
- Document all open blockers with clear remediation tasks and due dates.
- Confirm schedule and data sources for the first measurement meeting.
- Publish current prototype build status and a list of device serials used in evaluation.
- Document firmware and schematic review notes and circulate to stakeholders.
- Schedule the first measurement data collection window and specify the test procedures to be used.
- Present first-data snapshot against Solution Scope targets
- Determine whether prototype pass rate and power consumption are trending to the Solution Scope targets and identify any gaps.
- Agree concrete remediation tasks and dates required to meet acceptance criteria at the day-90 gate.
- Capture current sample counts, unit pricing indicators, and lead-time observations for production-readiness tracking.
- Run the agreed focused bench tests to isolate observed failure modes and publish results in the shared channel.
- Order additional prototype samples or evaluation kits if test coverage is insufficient for acceptance decision.
- Update the sample and lead-time tracker with current vendor lead-time estimates and tentative pricing.
- Restate acceptance criteria and numeric targets
- Deployment and bring-up validation
- Present outcome data against each criterion
- Open issues and enhancement request burn-down
- Root-cause diagnosis for any metric gaps
- Shared support channel and escalation process check
- Sample availability and preliminary supply signals
- Early adoption and support signals
- Document pass/fail per criterion and buyer decision
- Agree corrective actions and timeline to acceptance gate
- Agree remediation plan and resolution timeline for any failed criteria
- Quarter plan and data cadence
- Open issues and blockers
- Agree immediate remediation actions and timeline