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Hybrid Tool + ReportStage1b research update: 2026-04-26

10mm Gear Motor Sizing Tool and Decision Report (includes `10mm geared motor` alias intent)

Use one canonical URL to finish two tasks in sequence: get an immediate motor-fit estimate, then verify decision quality with evidence, boundaries, alternatives, and risk controls.

Published: 2026-04-26 | Last updated: 2026-04-26 | Review cadence: quarterly

Run sizing toolJump to methods and evidence
Tool layer: quick sizing input
Enter boundary-safe values first. Invalid input is blocked and recoverable.

Boundary: 1.5V to 8V.

Boundary: 200 to 20,000 rpm.

Boundary: 1 to 150 mNm.

Boundary: 5% to 100%.

Get RFQ checklist

If the result is inconclusive, use the design-review CTA instead of forcing a procurement choice.

Result layer: interpreted outputNo result yet
Result includes interpretation, uncertainty, and the next executable action.
Empty state
No calculation yet. Enter inputs and run the estimator to generate a fit decision.
10mm to 12mm class high-speed brushed DC motor reference image
10mm gear motor reference for low-speed high-torque outputs

Inquiry email

[email protected]

Open email appStart inquiry (opens default email app)
Tool inputResult interpretationKey conclusionsGap auditMethod and evidenceResearch deltaDriver windowRelease gatesFAQ10mm geared motor anchor set0716 frame selection page0717 7x17 sizing page

Stage1b gap audit and closure status

Audit-first enhancement: each high-impact content gap is tracked with explicit remediation status.

Gap closure ledger
Blocker/high gaps are closed in-page; unresolved items remain explicitly marked for follow-up.
Gap foundDecision impactStage1b actionStatus
RE10 Part 256105 reference text previously implied a 6V baseline, which conflicts with the current maxon product page listing.High risk of carrying wrong voltage assumptions into architecture and driver selection.Corrected RE10 reference to 12V + 12,500 rpm + 1.55 mNm + 14,000 rpm max-speed + NRND status with refreshed source date.Closed in stage1b
Gearhead section showed ratio envelope but did not expose stage-dependent efficiency/backlash penalties.High risk of over-promising output torque/speed without accounting for stage-count losses.Added GPX10 stage metrics (1-5 stages): efficiency 90%->59%, backlash 1.5°->2.5°, continuous torque/power boundaries.Closed in stage1b
Low-voltage path (<2.7V) was treated as near-binary failure without clarifying available 1.65V-class driver alternatives.Medium-to-high risk of discarding feasible low-voltage paths or choosing wrong power architecture too late.Added DRV8833 vs DRV8212 voltage-window split and boundary notes; explicitly marked DRV8212 continuous-current data as pending datasheet-level confirmation.Closed in stage1b
Compliance section focused on RoHS but did not carry REACH Article 33/7 obligations into procurement actions.High risk of incomplete compliance files for EU-facing shipments even if RoHS declarations are present.Added ECHA 2026-02-04 Candidate List update (253 entries), 0.1% w/w article threshold, and six-month notification timeline.Closed in stage1b
Rail-transient behavior near UVLO was not quantified, so 2.7V-class choices could be overestimated under startup sag.High risk of selecting a driver that passes static voltage checks but fails at startup due to VM droop and UVLO hysteresis.Added DRV8833 UVLO falling/recovery boundary (2.6V + 90mV hysteresis), startup-droop warning logic, and bulk-capacitance release gate.Closed in stage1b
DRV8212 discussion relied on product-card peak current without datasheet thermal-derate context.Medium-to-high risk of treating peak labels as continuous-current approval on compact PCBs.Added DRV8212 datasheet boundary: current capability depends on PCB thermal path, RDS(on) can rise ~1.5x at 85C, and VM ripple should be controlled during startup.Closed in stage1b
EU compliance flow did not explicitly include SCIP duty under WFD for article suppliers.High risk of clearing REACH communication but still missing mandatory SCIP submissions for EU market placement.Added SCIP trigger boundary (`>=0.1% w/w` Candidate List SVHC in articles) and a dedicated release gate tied to WFD Article 9 workflow.Closed in stage1b
Direct-drive recommendations lacked cross-source speed/lifetime planning window for brushed operation.Medium risk of promising life at low rpm/high load where gearhead architecture is usually more stable.Added maxon brushed-motor planning window (4,000-9,000 rpm) and life-range caveat to comparison + FAQ guidance.Closed in stage1b
Public standard for `10mm geared motor` nomenclature-to-performance mapping is absent.Medium risk of treating vendor alias phrase as an engineering standard.Marked as pending and required PN-level datasheet + drawing package before release.Open (evidence pending)

Report summary: conclusions and key numbers

Core conclusions are paired with quantifiable context before deep-dive sections.

Canonical query volume

0 / month

`10mm gear motor` (US keyword snapshot in this change proposal, 2026-04-06).

Alias query volume snapshot

Not published

`10mm geared motor` is treated as same-intent phrasing on this canonical URL.

Gear ratio envelope

4:1 to 1024:1

maxon GPX10 catalog page (EN-373, accessed 2026-04-26).

GPX10 stage efficiency window

90% to 59%

1 to 5 stages on maxon EN-373; higher stage counts trade efficiency for ratio.

RE10 boundary reference (PN256105)

12V, 12,500 rpm, 1.55 mNm

maxon product page (accessed 2026-04-26), with NRND lifecycle flag.

Driver floor split

2.7V vs 1.65V

TI DRV8833 (2.7V min) and DRV8212 (1.65V min) product pages (accessed 2026-04-26).

Driver current boundary

1.5A RMS / 2A peak

TI DRV8833 product page (accessed 2026-04-26).

DRV8833 UVLO boundary

2.6V fall / ~2.69V recover

DRV8833 datasheet Rev.E with 90mV UVLO hysteresis (accessed 2026-04-26).

DRV8212 thermal derate cue

RDS(on) ~1.5x at 85C

DRV8212 datasheet thermal example; keep VM ripple planning target near 10% before bench validation.

Brushed speed-life planning

4k-9k rpm preferred zone

maxon DC motor selection guide (2019) links this zone to better efficiency and life tradeoff.

REACH Candidate List

253 entries

ECHA update dated 2026-02-04; article obligations at 0.1% w/w remain active.

SCIP market-duty trigger

Since 2021-01-05

ECHA SCIP + Directive (EU) 2018/851 for articles with Candidate List SVHC above 0.1% w/w.

Reference lifecycle caveat

RE10 PN256105: NRND

Treat as class-level boundary data, not default production continuity.

Who this is suitable for
  • Need a fast pre-RFQ shortlist for 10mm direct-drive vs geared options.
  • Need to verify whether a 10mm geared motor should stay direct-drive or move to a gearhead.
  • Need output-speed/torque feasibility check before choosing ratio and driver class.
  • Need one decision memo with alias intent, evidence boundaries, and sourcing actions.
Who this is not suitable for
  • Safety-critical products needing certified thermal/lifetime tests.
  • Projects requiring guaranteed output-speed tolerance without supplier test data.
  • Applications with explosive atmosphere compliance or IP67 guarantee.
  • Mass production release without bench validation and sample approval.

Methods and evidence

Transparent formulas, dated sources, and explicit known/unknown boundaries.

Method flow
Input to estimate to boundary check to action path.
InputEstimateBoundary CheckAction
Method blockFormula / ruleDecision value
Mechanical power estimateP = 2 * pi * n / 60 * TConverts speed and torque into shaft mechanical load.
Rated current estimateI = P / (V * eta) + I_idleAdds efficiency + idle current to avoid optimistic sizing.
Geared output speed estimaten_out ~= n_motor / iProvides first-pass speed estimate before tolerance and load corrections.
Startup surge estimateI_start ~= 2.4 * I_ratedUsed for driver and power rail margin planning.
Startup droop guardrailV_min ~= V_nom - I_start * ESRChecks whether rail sag can cross UVLO boundaries during startup transients.
Bulk-capacitance first passC_bulk >= I_step * dt / dVUse datasheet-level ripple targets as initial sizing, then validate with oscilloscope waveforms.
Driver thermal checkP_driver ~= I_rms^2 * RDS(on)RMS current governs thermal stress; peak-current labels are not continuous-use guarantees.
Direct-drive speed marginspeed_margin = n_ref_max - n_targetFlags when target speed exceeds RE10-class 14k rpm reference envelope.
Brushed speed-life windowPrefer ~4,000-9,000 rpm for life/efficiency tradeoffAt low-speed targets, a gearhead path is often more practical than forcing direct-drive operation.
Nominal-to-exact ratio guardrailn_out exact ~= n_motor / i_exactFor high-ratio gearheads, use exact ratio and tolerance instead of nominal shorthand.
GPX10 stage-penalty checketa_max(1..5) = 90%, 81%, 73%, 65%, 59%Stage count increases ratio but typically lowers efficiency and increases backlash.
REACH article communication gateSVHC > 0.1% (w/w) => Art.33 info flow; Art.7(2) notification when applicableRoHS-only declarations are not sufficient for EU article-level chemical communication workflows.
Confidence scoreBase 91 - condition penaltiesReduces confidence in high duty, high heat, low voltage cases.
Source ledger
Time markers and certainty labels are mandatory for trust. Last refreshed: 2026-04-26.
Known and unknown evidence blocks must be explicit
SourceDateCoverageKnown / Unknown
openspec/changes/archive/2026-04-26-add-kw-10mm-gear-motor-page/proposal.md2026-04-06Canonical route and keyword snapshot context (`10mm gear motor`, volume shown as 0 in proposal).Known
openspec/changes/archive/2026-04-26-add-kw-10mm-gear-motor-page/specs/rwa-pages/spec.md2026-04-06Alias `10mm geared motor` -> `/learn/10mm-gear-motor`.Known
OpenSpec change: add-kw-10mm-gear-motor-page2026-04-26No standalone alias route; canonical-only decision.Known
maxon RE10 product page (Part No. 256105)Accessed 2026-04-2612V reference with 12,500 rpm no-load speed, 14,000 rpm max speed, 1.55 mNm nominal torque, 0.36A stall current, and NRND lifecycle flag.Known
maxon GPX10 catalog page (EN-373)Accessed 2026-04-26Reduction 4:1/16:1/64:1/256:1/1024:1 with 1-5 stages; max efficiency 90/81/73/65/59%; average backlash 1.5°-2.5°; continuous input speed 12,000 rpm; catalog page marks data as provisional.Known with provisional boundary
Pololu micro metal gearmotor product guideAccessed 2026-04-23Nominal 1000:1 maps to exact 986.41:1; no-load speed +/-20%; stall current +/-50%; recommended continuous load <=25% of stall current.Known with vendor scope
FAULHABER Precision Gearheads Technical InformationAccessed 2026-04-26Intermittent torque should be limited to short intervals and <=5% duty cycle; exceeding continuous torque can reduce service life; recommended motor steady-state temperature 60-70C to protect lubricant.Known with boundary
FAULHABER DC Motors Technical InformationAccessed 2026-04-26Brushed-motor operational lifetime about 1,000-5,000 h under typical load, from several hundred hours to >25,000 h depending on conditions; PWM recommendation at/above 20 kHz.Known with scope
TI DRV8833 product page + datasheetAccessed 2026-04-26VM range 2.7V-10.8V, full-scale output current 1.5A RMS, peak output current 2A, and 360mOhm HS+LS RDS(on) at 25C.Known
TI DRV8833 datasheet (Rev.E)Accessed 2026-04-26UVLO falling threshold around 2.6V with 90mV hysteresis and >=10uF VM bulk-capacitance recommendation for motor supply stability.Known
TI DRV8212 product pageAccessed 2026-04-26VM range 1.65V-12V, peak output current 4A, and 280mOhm HS+LS RDS(on) typical on product page.Known with boundary
TI DRV8212 datasheet (Rev.A)Accessed 2026-04-26Current capability depends on PCB/system thermal design; datasheet thermal example derates RDS(on) by ~1.5x at 85C and recommends keeping VM ripple under control with bulk capacitance.Known with boundary
TI Application Report SLVA505APublished 2024-07 (accessed 2026-04-26)Driver current limits are thermally constrained by RMS current and conduction losses scale with I^2 * RDS(on).Known
EUR-Lex Directive 2011/65/EU (RoHS baseline)Accessed 2026-04-26RoHS framework and Annex II concentration-limit structure for homogeneous materials.Known
EUR-Lex Directive (EU) 2015/863Accessed 2026-04-26Annex II expanded to 10 substances including DEHP/BBP/DBP/DIBP at 0.1%; general applicability from 2019-07-22 and medical/monitoring categories from 2021-07-22.Known
ECHA news: Candidate List updatePublished 2026-02-04 (accessed 2026-04-26)Candidate List now contains 253 SVHC entries; article suppliers must communicate safe-use information when thresholds are exceeded.Known
ECHA: Candidate List substances in articlesAccessed 2026-04-26Article-level threshold at 0.1% w/w and ECHA notification timing at six months after listing when notification conditions apply.Known
ECHA SCIP database guidanceAccessed 2026-04-26SCIP submissions are required for EU-supplied articles containing Candidate List SVHC above 0.1% w/w; submission timing is tied to market placement duties.Known with role boundary
EUR-Lex Directive (EU) 2018/851 (Waste Framework update)Accessed 2026-04-26Article 9 provisions establish article-level information obligations that feed SCIP workflows for SVHC-containing products in EU supply chains.Known
maxon: The selection of brushed DC motor (Technical article 130)Published 2019-11 (accessed 2026-04-26)Brushed operation often prefers ~4,000-9,000 rpm for efficiency/life tradeoff; cited life ranges vary from <100 h to >10,000 h depending on commutation system and load.Known with scope
On-page sizing model (this tool)2026-04-26Pre-RFQ current/power/fit scoring; not a substitute for PN-level endurance validation.Known
Cross-vendor standard mapping `10mm geared motor` query wording to electrical/thermal limitsPendingNo reliable public standard dataset found; vendor PNs remain authoritative.Pending confirmation / no reliable public dataset

Stage1b research delta

Only net-new, source-verifiable information is included here. Each row states scope and decision consequence.

New evidence-backed decision facts
Update date: 2026-04-26. Facts without stable public evidence stay in the pending block.
TopicNew factApplicable conditionDecision effectCertainty
10mm direct-drive boundarymaxon RE10 Part 256105 currently lists a 12V nominal point with 12,500 rpm no-load speed, 14,000 rpm max speed, 1.55 mNm nominal torque, 0.36A stall current, and NRND status.Reference is one public PN, used as a class-level boundary indicator rather than a universal motor limit.Use this PN for class-level boundary checks, not as default continuity-safe sourcing for mass-production RFQs.Known
Stage-count tradeoff (GPX10)maxon EN-373 catalog shows 1-5 stage efficiency falling from 90% to 59% and average backlash increasing from 1.5 degrees to 2.5 degrees, with 12,000 rpm continuous input speed limit.Catalog data is platform-specific and explicitly provisional.When selecting high ratios, reserve margin for stage losses/backlash growth and lock final commitments only on quote-controlled data.Known with provisional boundary
Low-voltage driver path splitTI DRV8833 lists 2.7V minimum VM with 1.5A RMS / 2A peak, while TI DRV8212 lists 1.65V minimum VM with 4A peak and 280mOhm HS+LS RDS(on) on its product page.DRV8212 product page emphasizes peak current; continuous thermal capability still requires datasheet + PCB thermal validation.For 1.65V-2.7V programs, do not auto-reject architecture, but force a driver thermal validation gate before RFQ freeze.Known with boundary
Startup UVLO recovery boundary (DRV8833)DRV8833 datasheet sets VM undervoltage lockout around 2.6V falling with about 90mV hysteresis, and recommends >=10uF VM bulk capacitance.Nominal rail checks are insufficient when startup surge causes transient droop.Use startup waveform capture and UVLO recovery margin checks before freezing 2.7V-class driver paths.Known
DRV8212 thermal and ripple boundaryDRV8212 datasheet states current capability depends heavily on PCB/system thermal design; example calculations use ~1.5x RDS(on) derating at 85C and reference VM ripple control via bulk capacitance.Peak-current label (4A) does not provide continuous-current approval by itself.Keep DRV8212 as a valid low-voltage option, but require thermal modeling + bench validation as a release gate.Known with boundary
Nominal-ratio counterexample + stall-current marginPololu guidance shows nominal 1000:1 equals exact 986.41:1, no-load speed tolerance near +/-20%, and recommends <=25% stall current for continuous operation.Tolerance and load guidance are vendor-family-specific but directly illustrate common micro-gearmotor pitfalls.Do not commit exact output rpm from nominal labels and avoid designing continuous operation close to stall regions.Known with vendor scope
Driver capability boundaryTI DRV8833 guidance lists 1.5A RMS continuous and 2A peak output current with 360mOhm combined HS+LS on-resistance.Applies when DRV8833-class topology is selected for brushed 10mm systems.Map estimator rated current to RMS limit and startup surge to peak limit before driver selection is frozen.Known
Driver thermal interpretation ruleTI SLVA505A states motor-driver thermal stress is governed by RMS current and conduction losses scale with I^2 * RDS(on).Rule is generic to MOSFET-based H-bridges and should be applied alongside each driver datasheet.Do not treat peak-current labels as steady-state capability; run thermal checks on RMS current profile.Known
Gearhead overload duty boundaryFAULHABER precision gearhead guidance limits intermittent torque use to short intervals and <=5% duty cycle, and recommends motor steady-state temperature around 60C-70C to protect lubricant life.Applies as boundary guidance; exact duty allowances vary by gearhead family.Treat intermittent torque as exception mode; force thermal + duty evidence in RFQ technical package.Known with boundary
Brushed speed-life planning windowmaxon brushed-motor selection guidance highlights ~4,000-9,000 rpm as an efficiency/life-friendly operating zone and reports life ranging from under 100 h to over 10,000 h depending on load and commutation system.Values are architecture- and duty-dependent, so they are planning boundaries rather than guaranteed contractual metrics.For low-speed targets, prefer gearhead architecture over forcing low-rpm direct-drive operation.Known with boundary
RoHS scope boundaryDirective (EU) 2015/863 extends Annex II to 10 restricted substances, including four phthalates at 0.1%, with staged applicability dates in 2019 and 2021.Applies to covered EEE categories and relevant exemption context.RFQ compliance packs must include phthalate declarations, not just Pb/Cd/Hg style metal declarations.Known
REACH article communication boundaryECHA Candidate List update dated 2026-02-04 states the list contains 253 SVHC entries; article obligations remain tied to 0.1% w/w threshold and candidate-list notification timelines.Article 33 communication and Article 7(2) notification applicability depend on article-level composition and supply-chain role.Add REACH article-level declarations and six-month notification checks to RFQ compliance gate, not only RoHS declarations.Known
SCIP execution boundaryECHA SCIP guidance and Directive (EU) 2018/851 establish article-level submission duties for EU-supplied products containing Candidate List SVHC above 0.1% w/w.Applies to article suppliers placing applicable products on the EU market; role and composition data define exact obligation path.Add a dedicated SCIP checklist step (role, threshold, submission ID traceability) before procurement release.Known with role boundary
Pending confirmation / no reliable public data
Evidence is insufficient for strong conclusions in these areas.
Open questionWhy evidence is insufficientDecision impact
Cross-vendor, normalized life curves for 10mm gear motor outputs under matched duty/load profiles.Public datasets use different rigs, lubrication packages, and load profiles.Cannot issue strong life claims; procurement should require PN-level endurance report.
Public standard linking alias phrase `10mm geared motor` to guaranteed electrical/thermal limits.No reliable cross-vendor public standard was identified in this iteration.Alias-wording-only purchasing remains high-risk without PN-level datasheets.
Backlash growth vs service life across different 10mm gearhead platforms.Most public publications report initial backlash but not life-cycle drift under matched duty.Backlash-sensitive applications need vendor endurance data before freezing architecture.
Continuous-current derating model for DRV8212-class low-voltage paths under specific PCB thermal designs.Datasheet confirms method-level thermal dependencies, but no universal continuous-current number exists without board-specific thermal characterization.Low-voltage rails can be misclassified as safe if peak-current figures are used without thermal qualification.

Alternative comparison

Use reproducible dimensions (voltage, torque, response, cost, fit) instead of generic claims.

Option comparison table
If a value is unavailable in your project context, keep it as N/A and request supplier evidence.
PerformanceCostSimplicityReliability
OptionVoltage bandTorque bandDynamic responseCost classBest-fit scenarioBoundary / counterexample
10mm direct-drive (RE10-class reference)3V-12V (PN-specific)1-8 mNm (class-level planning range)Very fastLow to mediumGood for compact high-speed, low-load tasksCounterexample: low-speed or sustained medium/high torque requests usually require gearing; brushed planning guidance highlights ~4k-9k rpm efficiency/life zone and RE10 Part 256105 is NRND.
10mm motor + GPX10-class gearhead3V-12V (motor-dependent)35-1000 mNm (catalog stage-dependent)MediumMediumGood when output torque and lower output rpm dominate requirementsHigh ratio adds efficiency/backlash penalties (max efficiency 90%->59%, backlash 1.5°->2.5°); catalog values are provisional.
10x12 micro metal gearmotor class (commodity reference)3V-6VVendor- and ratio-specificFastLow to mediumUseful for cost-sensitive builds needing common ratio optionsRatio nomenclature and tolerance must be read from exact-ratio tables, not nominal labels alone; continuous load should stay well below stall-current regions.
Mini BLDC + gearhead5V-12V15-120 mNm (architecture-dependent)FastMedium to highBetter lifetime/noise at the cost of controller complexityOften unsuitable for low-voltage and cost-constrained 10mm programs.

Driver window and rail boundary

Low-voltage rails need explicit driver-window mapping, not one-line pass/fail labels.

Driver envelope table
Keep unknowns visible: peak-current labels alone are insufficient for continuous thermal approval.
1.65V floor (DRV8212-class)2.7V floor (DRV8833-class)1.65V-2.7V: conditional low-voltage window
Driver pathVM windowCurrent windowConduction referenceBest-fit useBoundary / counterexample
TI DRV88332.7V-10.8V1.5A RMS / 2A peak360mOhm HS+LSMainstream low-voltage rails above 2.7V with known RMS profile and startup sag margin.VM UVLO falls near 2.6V (about 90mV hysteresis). Rail droop can still trigger UVLO even when nominal VM is above 2.7V.
TI DRV82121.65V-12V4A peak (continuous value depends on thermal design)280mOhm HS+LS1.65V-2.7V rails that need integrated H-bridge path and lower conduction-loss reference.Datasheet UVLO uses VCC thresholds (1.65V rising / 1.30V falling); current capability and ripple tolerance are PCB-dependent and must be validated.

Risk and mitigation

Covers misuse risk, cost risk, and scenario mismatch risk with direct mitigation actions.

Risk matrix
Probability axisImpact axis
RiskImpactProbabilityMitigation path
Treating `10mm geared motor` alias phrase as a standardized performance specificationHighMediumRequire PN-level datasheet + drawing package and verify electrical constants before RFQ freeze.
Selecting ratio by nominal label only (ignoring exact ratio and tolerance)HighHigh in high-ratio requestsTranslate nominal ratio into exact-ratio/tolerance output-speed range and validate on load.
Interpreting driver peak-current rating as continuous current capabilityHighMediumMap estimated rated current to RMS limits and startup surge to peak limits, then run thermal checks with I^2 * RDS(on).
Operating above continuous gearhead torque envelopeHighMediumUse vendor continuous/intermittent torque rows and duty-cycle limits as procurement gates.
Undersized startup current budgetHighMediumReserve >=2.4x rated current on driver + power path.
VM droop below motor-driver floor (or UVLO threshold)MediumMediumSplit low-voltage paths by driver floor (2.7V-class vs 1.65V-class), then verify transient droop and startup waveform on oscilloscope.
Nominal VM passes static check but fails UVLO during startup transientsHighMedium to high on weak battery railsValidate UVLO margin with startup waveform capture and apply bulk-capacitance sizing from current-step + ripple targets.
Thermal drift at high duty cycle without endurance curvesMediumMediumRun duty derating and include enclosure thermal path review.
RoHS-only compliance assumed while REACH article obligations are skippedHighMediumCollect supplier declaration and exemption mapping plus REACH Candidate List article declarations (0.1% w/w communication and notification checks).
REACH communication completed but SCIP submission duty is missed for EU article supplyHighMediumAdd explicit SCIP role/threshold review and require SCIP ID traceability before EU shipment release.
Using product-card peak current as continuous-current approval in low-voltage driver selectionHighMediumRequire datasheet thermal modeling and board-level validation before approving 1.65V-class paths for repetitive duty.
Using provisional catalog values as frozen procurement commitmentsMediumMediumTreat catalog numbers as planning references and lock final commitments to supplier technical offers and drawings.
Selecting an NRND reference PN for new mass-production plansHighMediumRequest active-production alternatives and lifecycle statements before awarding production RFQ.
Alias query interpreted as separate SKUMediumMediumKeep one canonical URL and answer alias intent explicitly in FAQ.

Pre-RFQ release gates

Each gate has a measurable check and a pass condition to prevent soft assumptions from entering purchase decisions.

Verification gate checklist
CurrentGearheadThermalCompliance
GateMeasurementPass conditionReference basis
Current waveform gateCapture startup peak and steady-state RMS current at min/nom/max voltage and target duty.RMS current stays below selected driver continuous limit; startup peak respects pulse/thermal envelope.TI DRV8833 + SLVA505A thermal interpretation
Rail-transient and UVLO gateRecord VM minimum and recovery behavior during startup at low-temperature and weak-battery conditions.Startup droop stays above UVLO falling thresholds with recovery margin; if DRV8212-class path is used, keep VM ripple within the datasheet-oriented planning target before final validation.TI DRV8833 + DRV8212 datasheets
Bulk-capacitance gateSize and verify VM bulk capacitance from startup current step, expected pulse width, and allowable ripple.Calculated and measured VM ripple is controlled (planning target <=10%), and minimum bulk-cap guidance is not below datasheet baseline values (for example >=10uF on DRV8833-class rails).TI DRV8833 + DRV8212 power-supply sections
Gearhead duty gateMap requested duty profile against continuous/intermittent torque definitions.Intermittent overload remains short-interval and <=5% duty; continuous torque stays within rated envelope.FAULHABER precision gearheads technical info
Steady-state thermal gateRun stabilized thermal test at representative load and enclosure condition.Motor steady-state temperature stays near 60C-70C guidance window for gearhead lubricant protection.FAULHABER precision gearheads technical info
EU compliance gateCollect RoHS Annex II + REACH Candidate List article declarations at PN and article level.0.1% w/w SVHC communication obligations are met and any required ECHA notification timeline is tracked.EUR-Lex RoHS + ECHA Candidate List obligations
SCIP submission gate (EU article supply)Determine supplier role, Candidate List concentration (>0.1% w/w) status, and EU market-placement timing for each article.SCIP submission duty is resolved before shipment where required, and SCIP IDs are retained with procurement records.ECHA SCIP + Directive (EU) 2018/851

Scenario examples

Each scenario includes assumptions, modeled output, and the minimum next action.

Scenario table
Startup-focusedBalanced dutyHigh duty / boundary
ScenarioAssumptionEstimated resultAction
10mm geared motor direct-drive request with medium torque demand3.7V rail, 9k rpm, 12 mNm target on 10mm direct-drive motor without gearheadConditional to not recommended for continuous duty.Evaluate geared architecture and validate thermal rise before shortlist lock.
High-ratio low-speed output from nominal-only ratioNominal 1000:1 selected without exact-ratio/tolerance conversionConditional fit with high spec-risk.Recalculate with exact ratio and tolerance window, then validate output speed on load.
10mm geared motor + moderate-ratio gearhead path6V rail, motor 10k rpm class, 64:1 ratio target, 45% dutyConditional fit (gearhead optional).Request A/B samples with two ratio options and compare backlash/temperature drift.
Low-voltage brushed path near 2.7V driver floor2.0V rail with DRV8833-class floor constraints and startup surgeConditional with architecture split required.Evaluate 1.65V-class driver path (or boosted rail) and validate continuous thermal behavior before RFQ lock.
Nominal 2.9V rail dips below UVLO at startupCold battery ESR + startup surge push VM below the 2.6V-class UVLO falling boundary.Conditional with high startup-reset risk.Increase bulk capacitance, reduce startup current profile, and verify VM minimum with oscilloscope before component freeze.
Startup surge passes bench, but RMS current exceeds driver thermal envelopeEstimated rated current >1.5A with repetitive duty; selected driver only has 2A peak margin.Conditional to not recommended for production without driver change.Re-select driver on RMS thermal rating, then validate with current waveform and temperature-rise tests.
RFQ drafted against RE10 Part 256105 onlyProgram treats RE10 reference PN as default production part without lifecycle screening.Conditional with sourcing continuity risk.Add active-PN alternatives and lifecycle statement requirement before RFQ release.
EU shipment uses RoHS declaration onlyCompliance packet omits REACH Candidate List article-level communication checks.Conditional with compliance gap risk.Add Article 33 information flow and Candidate List notification review into the procurement release checklist.
EU article shipment has SVHC >0.1% w/w but no SCIP dossierSupply chain completed REACH communication but skipped WFD/SCIP submission workflow.Conditional with legal release risk.Run SCIP duty determination and submit/trace SCIP IDs before shipment approval.

Alias coverage anchors

Internal anchors keep `10mm geared motor` traffic on this canonical page without split routes.

10mm geared motor: quick tool input10mm geared motor: result interpretation10mm geared motor: method and evidence10mm geared motor: FAQ decisions

Decision FAQ

Questions are grouped by intent, not glossary-only definitions.

B2B application fit, OEM options, and inquiry handoff

Move from estimator output to executable sourcing with factory customization scope and compliance-ready RFQ preparation.

Application fit
Projects that match this page's pre-RFQ scope.
  • Teams screening 10mm motor + gearhead options for compact drivetrain programs.
  • Programs consolidating `10mm gear motor` and `10mm geared motor` on one canonical URL.
  • Projects that need explicit direct-drive vs gearhead boundaries before RFQ submission.
OEM options
Customization knobs available from factory-side engineering.
  • Winding/Kv and no-load-speed tuning to match your voltage and output-speed envelope.
  • Gearhead ratio, stage count, backlash target, shaft geometry, and connector customization.
  • Lead-wire, insulation, and packaging customization aligned to your assembly flow.
Trust and compliance
Evidence gates required before production commitment.
  • Collect RoHS/REACH declarations with homogeneous-material granularity before order release.
  • Validate startup surge, thermal rise, and duty-cycle life on PN-level samples.
  • Keep this page as pre-RFQ guidance; final claims require manufacturer qualification files.

Inquiry email

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