Technology Electronics & Hardware Electronic Components & Distribution

Design-Win Distribution

Complex technical sales and manufacturing engagements across the global electronics supply chain.

Example organizations in this space: Arrow Electronics Avnet Future Electronics TTI

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
  1. 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? Options: Under 4 weeks, 4 to 8 weeks, 9 to 16 weeks, More than 16 weeks
    • Who on your team will be the primary technical contact for component evaluations and FAE sessions? Options: Hardware lead/engineer, Firmware/embedded engineer, Engineering manager, Program manager, Other
    • Which parts of the prototype are most constrained by package, power budget, thermal headroom, or cost? Options: Processor/microcontroller area, Power regulation area, RF/connectivity section, Sensor cluster, Mechanical/space-constrained area, Other
    • 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 Options: 1–2 units, 3–5 units, 6–10 units, More than 10, Flexible, explain in next field

    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? Options: Almost every prototype, Often, Occasionally, Rarely
    • 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? Options: Delay to product launch, Feature cut to meet schedule, Switch to different architecture, Cancel project, Other

    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 Options: 1=Top priority, 4=Lowest priority
    • Tell me how you weigh second-source availability against per-unit pricing when deciding which silicon to evaluate first Options: Balanced case-by-case, Second source trumps price, Price matters more early, second source later, No formal weighting
    • Identify the role that must sign off on a vendor design registration or locked pricing for this project Options: VP/Head of Engineering, Program/Product Manager, Procurement/Buyer, Operations/Production, Other
    • Typically, how many weeks of lab validation do you budget before a design is considered locked for procurement planning? Options: Under 2 weeks, 2–4 weeks, 5–8 weeks, More than 8 weeks
    • 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 Options: QFN incompatible with assembly, No required ADC or DMA, Package too large for enclosure, No second-source available, Other

    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 Options: Never, Once, 2–3 times, 4+ times
    • Name the internal stakeholder who most often blocks or slows sample orders because of procurement or compliance constraints Options: Procurement/Buyer, Vendor management, Security/Compliance, Program manager, Other
    • Would a guaranteed sample shipment within your prototype window be the difference between proceeding with an evaluation or pausing it? Options: Yes, we would proceed immediately, Maybe, depends on other factors, No, other constraints would still block us

    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 Options: Direct manufacturer, Other technical distributor, Broadline distributor, Internal sourcing, No alternatives evaluated
    • Under what conditions would you stay with your incumbent component instead of switching to a different candidate? Options: If pricing stays stable, If second source appears, If performance is unchanged, If timeline impact is negligible, Other
    • Do you have an internal proposal to solve sampling or evaluation without outside FAE support, and if so describe the core of that plan Options: Yes, internal lab can handle, Partially, need limited outside help, No, we rely on external FAEs
    • Does any alternative you're considering include dedicated FAE hours, reference design adaptation, or guaranteed kit provisioning? Options: Yes, full FAE support included, Some support but limited hours, No FAE support offered, Unclear from current alternatives
    • 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? Options: Lower total cost, Faster sample availability, More comprehensive FAE time, Better roadmap access, Other

    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? Options: Power profile, Boot reliability, Throughput/latency, Thermal margin, All of the above
    • Point to the evaluation kits, reference designs, or measurement setups you already have that we could reuse for faster validation Options: Manufacturer eval kits, In-house breakout boards, Custom reference PCB, No reusable kits available, Other
    • Specify the minimum sample quantity and any special test accessories you need for parallel board-level comparison Options: 1–2 per candidate, 3–5 per candidate, 6–10 per candidate, Test accessories required (e.g., power harness)
    • Do you require on-site bench sessions, remote debug with screen share, or a combination for the FAE-led bring-up? Options: On-site bench time, Remote debug sessions, Combination of both, No preference
    • Which internal approval or sign-off will immediately allow ordering production-qualifying samples if a candidate meets acceptance criteria in the lab? Options: Engineering sign-off, Program manager approval, Procurement release, Operations/production readiness

    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 Options: Power supplies and load boards, Telemetry/measurement systems, Firmware toolchains and JTAG access, Networked test racks, No external dependencies
    • Provide the names of roles who will own sample receipt, inventory, and disposition during the evaluation Options: Hardware engineer, Lab manager, Procurement, Program manager, Other
    • Are there compliance, security, or procurement approvals that typically delay sample acceptance at your facilities? Options: Yes, security screening, Yes, procurement paperwork, Yes, import/customs constraints, No major approvals required
    • State any assembly, carrier board, or mechanical constraints that would prevent you from testing a candidate on your reference PCB Options: Different package pitch, Special power rails, Thermal interface needed, No constraints
    • 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? Options: Stop evaluation until access provided, Proceed with black-box tests, Depends on the candidate and test objectives

    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 Options: Power under target, Boot reliability across samples, Throughput/latency target, Pass thermal margin
    • Rank these procurement concerns in order of urgency for production readiness: pricing stability, lead time, second-source availability, lifecycle roadmaps Options: 1=Most urgent, 4=Least urgent
    • 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? Options: Immediately, Within 2 weeks, Within 1 month, Longer than 1 month
    • 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? Options: Yes, Maybe, No
  2. 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
  3. 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? Options: Full evaluation kit, Single-part samples, Both
    • How many sample parts do you need per candidate device for parallel validation on your benches? Options: 1-3, 4-10, 11-50, 50+
    • Which shipping conditions matter for your receiving site (standard ground, temperature control, hazardous materials, expedited)? Options: Standard ground, Temperature-controlled, Hazmat/regulated, Expedited air
    • 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)? Options: Gerber, PCB CAD (source), BOM CSV, Assembly drawings, Pick-and-place, 3D STEP
    • 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 Options: Fabrication Gerbers, Source CAD files, Both

    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 Options: 1, 2, 3, More than 3 (requires change order)
    • 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 Options: 48 hours, 5 business days, 2 weeks, Custom
    • Confirm the format you want annotated deliverables returned in (PDF with comments, annotated CAD file, markup spreadsheet) Options: PDF with comments, Annotated CAD file, Markup spreadsheet

    Assemble Prototype Evaluation Boards

    • Do you require hand-assembled prototypes or a small factory-assembled run? Options: Hand-assembled (bench), Small factory run, Either
    • How many prototype boards do you need for lab validation and integration testing? Options: 1-3, 4-10, 11-25, 26+
    • 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) Options: Oscilloscope with probes, Power supply with sequencing, Logic analyzer, Current probe, All of the above
    • Estimate how many FAE support hours you expect for power-sequence debugging Options: 1-4 hours, 1 day, 2-3 days, More than 3 days
    • 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) Options: 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) Options: C, C++, ARM GCC, IAR, Other
    • Are there security or code-signing requirements for delivered binaries? Options: Yes, No
    • Choose whether example drivers must be provided as source code with build scripts or binaries only Options: Source code with build scripts, Binary examples only, Both

    Measure Power Consumption and Thermal Profile

    • Select the operating modes to be profiled (for example active, sleep, low-power idle, deep sleep) Options: Active, Sleep, 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) Options: DC current probe, Source-measure unit (SMU), 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) Options: IPC-2581, ODB++, Altium PCBLIB, KiCad, Other
    • 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) Options: I2C, SPI, UART, SDIO, USB, Other
    • 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 Options: <$0.10, $0.10-$1, $1-$10, $10+
    • 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 Options: Altium rules, IPC DRC, Custom DRC file, None

    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)
  4. 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
  5. 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.

  6. 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
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