AGV Drive Wheel
Contact
Traction sizing calculatorRotation-unit RFQ guideCovers AGV horizontal motor wheels and motor rotation units

AGV Motor Rotation Unit & Drive-Wheel Traction Sizing Tool

Use this AGV motor rotation unit tool to screen BLDC drive-wheel traction demand, then compare module packaging and review the steering, load, and controller data that must come from the selected manufacturer.

Run AGV Motor Tool

Published - Last updated

Input: AGV traction mission and reference model
This calculator screens BLDC traction demand for 24V or 48V systems. It does not size the steering axis or certify a complete rotation unit; use the module boundary checklist for the remaining RFQ inputs. The optional BLV620K30S-1 profile is a legacy 24V replacement reference.

All numeric inputs are required. Enter 0 for a level route or no stop-start events; a blank field is treated as an error.

Default values are transparent and editable after selection.

24V or 48V selectableGear User-definedEvidence Tool model

Use free-form mission inputs for 24V or 48V traction-motor RFQ screening. Steering-axis sizing is a separate module-level check.

No model-specific lifecycle assumption is applied. Confirm datasheet status with supplier.

The BLV620K30S-1 profile is fixed at 24V. Choose Custom to screen a 48V alternative.

Input limits and boundary ranges
Input fieldRange
Total moving mass (kg)120 - 5000 (step 10)
Drive wheel diameter (mm)100 - 400 (step 5)
Target speed (m/s)0.2 - 2.8 (step 0.05)
Route grade (%)0 - 18 (step 0.5)
Duty hours per day2 - 24 (step 1)
Stop-start events per minute0 - 45 (step 1)
Gearbox ratio6 - 40 (step 1)
Safety factor1.05 - 1.8 (step 0.05)
Motor Kv (rpm/V)40 - 220 (step 2)
Drive wheel count1, 2, or 4
Nominal DC bus voltage24V or 48V; BLV reference is fixed at 24V
Result: fit band with boundary interpretation
Output includes a traction-screening result, its assumptions, uncertainty boundary, and next action.
Fit band appears after calculation so the empty state does not imply fit, review, or redesign.
Empty state

Fill the tool inputs and calculate traction, current-proxy, voltage-headroom, and thermal boundaries.

Executive summary for AGV motor, horizontal wheel, and rotation unit decisions

Core conclusions, key numbers, and applicability boundaries in one screen before deeper section review.

Core conclusion 1
In this heuristic, voltage use below 82% and a thermal index below 8.0 remain under the initial review thresholds. These values are not supplier ratings or evidence of efficiency.

Source tag: S9

Core conclusion 2
Stop-start frequency raises this model’s transient torque proxy. Measure real current peaks and temperatures during a representative pilot before procurement lock.

Source tag: S9

Core conclusion 3
BLV620K30S-1 should be treated as a discontinued 200W reference model, not a fresh-purchase target. Use the tool output to decide whether BLV Series R Type / equivalent migration is enough or a voltage architecture change is required.

Source tags: S12, S13

Core conclusion 4
At equal power and ideal 100% efficiency, a 48V bus needs half the current of a 24V bus. Compare real battery, drive, cable, safety, and integration costs before changing architecture.

Source tags: S4 + P=V*I derivation

Core conclusion 5
Consider a horizontal layout when chassis height is constrained and a vertical layout when plan-view width is constrained. Check the chosen module drawing and cable path.

Source tags: S16, S17

Motor-current proxy threshold
<= 80A proxy
Voltage review threshold
82% - 92%
Thermal redesign threshold
> 12.0 index
Page review updated
2026-10-14

Applicable for

  • Indoor logistics routes with known floor profile and grade map.
  • Teams that can run pilot instrumentation before final lock.
  • Programs comparing 24V against 48V with clear TCO criteria.

Not applicable for

  • Unmeasured outdoor routes with large traction uncertainty.
  • Safety-critical final approval without supplier test evidence.
  • Steering-axis sizing, module-load approval, or safety sign-off without manufacturer data.

Key conclusions: evidence, limits, and applicability

Use the source tags to trace each recommendation and its boundary; the calculator’s own fit bands remain internal screening heuristics.

ConclusionApplies whenLimit or counter-exampleEvidenceChecked
Use ISO 3691-4 primarily for driverless truck safety scope and misuse boundaries.Deployment scoping, hazard review, and route-operating-zone preparation.Not for power-source requirements; severe conditions (freezer/public road/explosive zones) need extra controls; official page lists a draft successor under development.S12026-07-07
Normalize supplier duty terminology to IEC 60034-1:2026 before RFQ comparison.Comparing continuous/peak claims across motor vendors and controller stacks.Legacy sheets may still cite IEC 60034-1:2022 (withdrawn on 2026-03-13).S2, S32026-04-28
Use IEC 61800-9-2 system-level indicators for efficiency comparisons.24V versus 48V architecture screening where controller + motor losses both matter.Full clause text is paywalled; final compliance interpretation requires purchased standards.S42026-04-28
Workplace conditions (surface, ramps, hazardous areas) must be part of operational readiness.Facilities where AGV routes overlap PIT-style operating constraints.OSHA citation is U.S.-specific; use local legal framework in other jurisdictions.S52026-04-28
Freeze fleet-interface protocol version in RFQ/FAT to reduce integration surprises.Projects integrating mobile robots and central fleet-control systems.Public protocol release does not guarantee backward compatibility for your stack.S6, S72026-04-28
Keep calculated continuous load inside supplier T_cont and request peak/stall margin evidence before using a 3x target.General sizing for AGVs before specific vendor testing.The 3x target is a screening heuristic, not a universal standard; duty cycles deviating from S1 (e.g. S2 or S3) may require custom thermal simulations rather than fixed ratios.S9 (explicitly uncertain)2026-07-07
Do not select brushed DC without a documented brush/commutator inspection plan.Legacy AGV retrofits or high-uptime lines.BLDC removes brush wear but still needs bearing-life and thermal validation from supplier data.S102026-07-07
The thermal index is not a temperature prediction; verify winding and magnet limits against supplier data and pilot measurements.Continuous heavy-grade or high stop-start routes.Magnet temperature class is not a guaranteed operating limit under load; demagnetization margin also depends on the motor magnetic circuit and current.S112026-10-14
Migrate legacy 200W 24V DC designs (e.g., Oriental Motor BLV620K30S-1) to current-generation replacement families (e.g., BLV Series R Type) to avoid obsolete-part procurement.Legacy AGV retrofits and BOM updates for 200W-class drive platforms.Direct drop-in mechanical, driver, interface, and mounting compatibility must be verified against the current supplier datasheet.S12, S132026-10-14
Check IEC 60034-30-1:2025 scope before using its IE classes for an AGV motor; nominal 24V/48V battery modules are not automatically covered.Evaluating BLDC efficiency claims for AGV battery runtime.The standard covers single-speed, sinusoidal 50/60Hz motors rated 50–1,000V. A compact drive that cannot be tested separately falls under complete power-drive-system evaluation.S142026-10-14
Evaluate drive/controller Safe Torque Off (STO) evidence per IEC 61800-5-2 when the AGV safety architecture relies on controller-level torque prevention.New AGV/AMR designs with integrated motor drives, E-stop recovery requirements, or safety functions assigned to the drive controller.STO is not a motor sizing metric and does not replace the full ISO 3691-4 risk assessment; some legacy or low-risk architectures may use other validated torque-removal methods.S1, S152026-07-07
Choose horizontal or vertical drive-wheel layouts against the available height and plan-view envelope.Chassis design phase, deciding between horizontal vs vertical drive module orientation.Horizontal and vertical layouts trade chassis height against horizontal footprint; verify the selected module drawing, access, and cable path.S16, S172026-07-23

Rotation-unit sizing boundary and RFQ checklist

The checker estimates traction demand only. A rotation unit also needs module-specific steering, structural, and control checks; those values are not interchangeable across suppliers.

Check areaIncluded in this toolVerify for the selected module
Traction motor and wheel demandPre-screened from vehicle mass, route, wheel, ratio, and selected 24V/48V bus.Confirm continuous and peak torque, thermal duty, current convention, traction, and cooling against the motor/controller datasheet.
Wheel-module load and chassis fitNot calculated; the traction model splits load evenly across the entered drive-wheel count.Check rated wheel load, center of gravity, load transfer, mount envelope, floor contact, service access, and cable clearance.
Steering axis and rotation rangeNot calculated by this traction checker.Request steering output torque under load, steering speed, permitted angle, continuous-rotation/cable design, encoder, and mechanical stop details.
Controller, braking, and safety functionsNot assessed; a fit band is not a safety or compliance result.Confirm controller interfaces and braking. Validate any STO or other safety function in the project safety architecture.

VDA 5050 factsheets can describe whether a wheel is driven or steered and record its position and geometry. That vehicle description does not specify steering torque, range, or motor sizing (S7). Request those values from the selected module supplier.

Visualized force and voltage boundaries
Structured visuals reduce ambiguity before procurement decisions.
RollGradeShockSafetyTotal force grows when shock and safety factors stack82% review boundarymotor rpm demand%
Thermal and evidence signal view
Keep known and unknown evidence explicit near decision thresholds.
heatduty hoursstop-startindex focusKnownPartialUnknownPilot data can replace open evidence gaps with project measurements.Rotation-unit evidence boundary checked 2026-10-14.
Methodology and assumptions
Reproducible equations used by tool and scenario sections.
Inputmass speed floorForcestraction torqueBoundarycurrent thermalActionRFQ or pilot
Method itemFormula / ruleDecision value
Traction demandF_total = m*g*(Crr + grade) * shock * transient * safety; Crr = 0.015/0.022/0.032 and shock = 1.0/1.1/1.2 by floorSeparates route physics from duty amplification. The floor coefficients are screening assumptions; acceleration, wheel slip, and steering scrub are not modeled.
Wheel torque splitT_wheel = F_total * radius / driveWheelCountDrive-wheel count directly changes torque share and continuous thermal stress.
Motor torque estimateT_motor_cont = T_wheel / (gearRatio * drivetrainEfficiency); efficiency = 0.88 outer-rotor or 0.90 inner-rotorConverts wheel demand to a motor-side screen using assumed family efficiency, not a supplier rating.
Peak torque factorT_motor_peak = T_motor_cont * min(2.25, 1.5 + stopStartPerMinute * 0.02)Internal transient proxy only; actual peak torque depends on acceleration, braking, traction, and controller limits.
Motor current proxyI_motor proxy = T_motor_peak / Kt; Kt ≈ 9.549 / Kv (Nm/A)This is a torque/Kv estimate, not battery DC-bus current or a controller rating. Match the supplier current convention before comparison.
Voltage headroom checkVoltage use (%) = motorRPM / (Kv * selected nominal DC bus voltage) * 100This is a no-load speed-headroom proxy; loaded performance still needs motor and controller data.
Thermal load indexdutyHours * transient * motorFamilyFactor * (powerKw / 1.6); motor-family factor = 1.06/1.00Dimensionless screening heuristic; it does not predict winding or magnet temperature. Validate with supplier thermal data and a representative pilot.

P/V values are ideal lower-bound bus-current estimates at 100% efficiency. At equal conductor resistance, 48V gives half the current and one-quarter the I²R loss; real motor, drive, battery, and cable losses are not modeled.

Mechanical powerIdeal bus current at 24VIdeal bus current at 48VIdeal relative I^2R loss (24V vs 48V)Decision hint
1.2 kW50.0 A25.0 A4.0xModerate duty: 24V can remain practical if peak events are controlled.
2.4 kW100.0 A50.0 A4.0xModerate duty: 24V can remain practical if peak events are controlled.
3.6 kW150.0 A75.0 A4.0xHigh-power duty: controller, cable, and thermal budget stress rises quickly at 24V.
Evidence quality and boundary notes
Known vs unknown evidence is explicit to avoid false certainty.
SourceScopeDateStatus
ISO 3691-4:2023Safety requirements for driverless industrial trucks including AGV/AMR2023-06 (Edition 2); official status checked 2026-10-14Known
IEC 60034-1:2026 RLVMotor rating/performance definitions with converter-duty clarificationsPublished 2026-03-13Known
IEC 60034-1:2022 (withdrawn)Legacy edition marker for supplier datasheet cross-checksWithdrawal date 2026-03-13Known
IEC 61800-9-2:2023IE/IES indicators and test procedures for complete drive systems2023Partially known
OSHA 29 CFR 1910.178Workplace training/evaluation and operating-condition controls for PIT environmentsRegulation page checked 2026-04-28Known
VDA 5050 v3.0 press release + GitHub repositoryFleet protocol versioning impact on integration riskGitHub release 2026-03-18; VDA press release 2026-04-20Known
Microchip AN885 (DS00885A)BLDC commutation and rated/peak torque concept baseline2003Known
AGV motor pre-screen heuristic and open-data gapContinuous/peak torque screening heuristic and duty-cycle uncertaintyInternal audit 2026-04-28; reviewed 2026-07-07Partially known
Portescap brushed vs BLDC motor-life boundaryBrush/commutator wear versus bearing-limited BLDC lifeSource checked 2026-07-02Known
Neodymium temperature-class reference table & B-H CurvesN/SH/UH working-temperature reference points and intrinsic coercivitySource checked 2026-07-07Known
Oriental Motor BLV Series / BLV Series R Type transition200W AGV drive motor obsolescence and replacement pathSource checked 2026-10-14Known
IEC 60034-30-1:2025 Efficiency classesEfficiency classes (IE1-IE5) applicability to AGV DC motorsSource checked 2026-10-14Known
IEC 61800-5-2:2016Safety requirements for adjustable speed electrical power drive systems, including STOSource checked 2026-10-14Known
Horizontal vs Vertical AGV Drive Wheel ArchitectureSpatial orientation impacts on maintenance, heat dissipation, and footprintSource checked 2026-07-23Known
Rotation-unit performance evidence gapModel-specific steering, load, and control values for integrated modulesEvidence boundary checked 2026-10-14Unknown
  • ISO 3691-4:2023: Scope is safety and verification; requirements for power sources are explicitly outside this document and severe-condition scenarios require additional safeguards. The official ISO page also marks a draft successor under development, so re-check edition status before compliance sign-off. (S1).
  • IEC 60034-1:2026 RLV: Active edition for terminology alignment. Use this edition in RFQ packets when comparing continuous and converter-duty claims (S2).
  • IEC 60034-1:2022 (withdrawn): Legacy sheets may still cite the 2022 edition. Normalize terms against the 2026 edition to avoid duty-meaning mismatch (S3).
  • IEC 61800-9-2:2023: Public listing confirms IE/IES classification scope and additional IES classes to IES5. Full clauses remain paywalled (S4).
  • OSHA 29 CFR 1910.178: Training topics include surface conditions and ramps, and operator evaluations are required at least once every three years (S5).
  • VDA 5050 v3.0 press release + GitHub repository: VDA 5050 v3.0 factsheet wheelDefinitions identify actively driven/steered wheels and record geometry. The interface does not define wheel-module steering torque, steering range, or motor sizing; freeze the protocol version in procurement and FAT plans (S6, S7).
  • Microchip AN885 (DS00885A): Conceptual reference only. It explains continuous vs peak torque behavior and notes many robotics cases use <=48V motors (S8).
  • AGV motor pre-screen heuristic and open-data gap: Use continuous load within supplier T_cont and request peak/stall margin evidence before treating a 3x continuous target as acceptable. The 3x target is a conservative screening prompt in this page, not a universal standard. Final limits require supplier thermal maps and pilot logs. (S9)
  • Portescap brushed vs BLDC motor-life boundary: Brushed DC motor life is limited by brush and commutator wear; electronically commutated BLDC motors shift the wear limit mainly to bearings. Actual inspection hours must come from supplier data and pilot logs, not a universal fixed interval. (S10)
  • Neodymium temperature-class reference table & B-H Curves: Reference tables list N at ~80°C, SH at ~150°C, and UH at ~180°C max working temperature. However, operating near these limits combined with opposing magnetic fields from stator currents can still cause irreversible demagnetization. Engineers must consult B-H demagnetization curves at operating temps, not just the temperature grade. (S11)
  • Oriental Motor BLV Series / BLV Series R Type transition: Oriental Motor lists the BLV620K30S-1 (24VDC, 200W, 30:1 gear) in its legacy/discontinued catalog and identifies BLV Series R Type as the replacement series. Confirm the current quote, driver, interface, and mounting compatibility with the supplier before release. (S12, S13)
  • IEC 60034-30-1:2025 Efficiency classes: IEC 60034-30-1:2025 covers single-speed motors rated 50–1,000V for sinusoidal 50/60Hz operation and replaces the 2014 edition. Nominal 24V/48V battery modules are not automatically in scope; fully integrated compact drives that cannot be tested separately are classified as complete power-drive systems under IEC 61800-9-2. (S14)
  • IEC 61800-5-2:2016: Defines functional-safety requirements for adjustable-speed power drive systems, including STO as a drive/controller safety function. Treat STO as a specification candidate in the safety architecture rather than a motor-only requirement; final PL/SIL targets must come from the project risk assessment and compliance owner. (S15)
  • Horizontal vs Vertical AGV Drive Wheel Architecture: Horizontal steering drive wheels place the drive motor horizontally for lower AGV height, while vertical steering drive wheels place the motor vertically to save horizontal footprint. Treat agv horizontal motor wheel and agv motor rotation unit selection as a packaging constraint before sizing torque and current. (S16, S17)
  • Rotation-unit performance evidence gap: This page does not use a cross-vendor baseline for steering angle, continuous rotation, steering speed, load definition, gear ratio, or safety functions. Treat these as selected-module requirements; request the manufacturer datasheet and validate cable routing, load distribution, controller compatibility, and the project safety architecture. (U1)

Boundary table: when to trust and when to stop

This boundary layer prevents over-confidence in nominal labels and gives minimum fallback actions.

ConditionThresholdRisk if ignoredMinimum action
Motor-current proxy crosses the internal screen> 80A (review), > 120A (redesign); heuristic onlyThe estimate may not match the motor or controller current convention.Compare supplier motor phase/RMS/peak ratings and controller limits on the same basis.
Voltage utilization near saturation> 82% (review), > 92% (redesign)Back-EMF headroom collapse at speed and torque fade.Lower Kv, reduce target speed, or evaluate 48V architecture.
Thermal load index above sustained envelope> 8.0 (review), > 12.0 (redesign)This index cannot predict winding or magnet temperature; excessive heat can cause insulation damage or demagnetization.Request supplier winding/magnet limits and thermal maps, then validate with representative pilot measurements.
Route grade and floor shock combined stressgrade >= 8% with rough floorWheel slip and torque spikes beyond nominal datasheet claims.Pilot on real route and collect slip/current events.
Gear ratio too low for payload-speed pair< 10 in heavy duty profileContinuous high motor current and low efficiency region operation.Increase gear ratio or reduce required top speed.
Harsh environment with fluid or dust exposureCleaning protocols require IP65 or IP69KPremature bearing failure or electrical short in non-sealed standard indoor motors.Specify IP65/IP69K motor housing and sealed connectors in the RFQ.
Architecture comparison and agv horizontal motor wheel & rotation unit trade-offs
Compare 24V/48V traction paths and horizontal-versus-vertical drive wheel packaging, before lock-in.
24V lower integration cost48V higher headroomTrade-off balance
ArchitectureVoltageControl complexityEfficiency windowBest fitMain risk
24V BLDC + gearbox24V nominalMediumGood at moderate duty and speedCompact indoor AGV retrofit and SMB warehouse linesHigh-current spikes under heavy grade and aggressive acceleration
48V BLDC + gearbox48V nominalMediumBetter headroom under high power demandHigh-throughput lanes and heavier payload envelopesBattery and charger ecosystem migration cost
Brushed DC + gearbox24V/48VLowLower efficiency; brush/commutator maintenance requiredLegacy low-budget platforms with simple control stackBrush replacement downtime and carbon dust if inspection interval is not defined
PMSM/servo direct drive48V or higherHighHigh precision and high dynamic performancePrecision path tracking and high-end throughput linesIntegration complexity and capex escalation
Horizontal motor wheel drive24V/48VMediumGood, but cooling is sometimes constrained by low profileUnderride (submerged) AGVs, low-profile sorting robots, and restricted height chassisMaintenance access can be difficult; wider horizontal footprint
Vertical motor wheel drive24V/48VMediumExcellent heat dissipation and robust load-bearingHeavy payload AGVs, forklifts, narrow chassis with vertical clearanceToo tall for low-profile underride tasks
Risk register and mitigation
Covers misuse risk, cost risk, and scenario mismatch risk.
ImpactProbability
RiskTriggerImpact
Misuse risk: assume nominal torque equals sustained torqueVendor sheet lacks thermal duty definition or ambient assumptionsHigh
Cost risk: under-sized 24V stack causes reworkMeasured drive current repeatedly exceeds the selected controller limit during pilot runsHigh
Scenario mismatch risk: route roughness not includedSizing uses smooth-floor assumptions for seam-heavy facilitiesMedium
Integration risk: fleet protocol version driftMotor controller and fleet stack version freeze not alignedMedium
Availability risk: single-vendor dependencyCritical module without second-source compatible envelopeMedium
Safety compliance gap riskDeployment scope interpreted outside applicable standard boundariesHigh
Safety architecture gap: torque removal method not validatedIntegrated motor drive is selected without STO evidence or an alternate validated torque-removal methodMedium
  • Mitigation: Request continuous/peak duty map with ambient and cooling conditions in RFQ.
  • Mitigation: Add pilot gate before procurement lock and compare 24V vs 48V TCO scenario.
  • Mitigation: Use measured floor segment classes and recalculate shock-adjusted demand.
  • Mitigation: Freeze interface version early and include interoperability tests in FAT.
  • Mitigation: Define multi-vendor electrical/mechanical envelope in sourcing spec.
  • Mitigation: Run standards scope review with compliance owner before commissioning.
  • Mitigation: Ask the supplier for IEC 61800-5-2 STO data or document the alternate contactor/main-power-disconnect safety chain in the compliance file.

Scenario examples with assumptions and outcomes

Scenarios reuse the same tool model to keep recommendation logic consistent across cases.

Case A: Mid-load indoor tugger line
1.0-1.3m/s route, coated concrete, 16h duty. Typical 24V BLDC feasible if current margin is held.
Inside this traction screening modelHeuristic screen

Motor-current proxy 53.59A

Voltage use 61.6%

Move to supplier RFQ with torque/current envelope and thermal boundary from this tool output.

Case B: Heavy pallet transfer lane
1.5m/s target with 7% grade and high stop-start demand. Often becomes 24V borderline zone.
Out of envelope: redesign voltage or drivetrainHeuristic screen

Motor-current proxy 337.26A

Voltage use 51.9%

Evaluate 48V architecture, lower target speed, or larger wheel-module gear ratio before rerun.

Case C: Rough-floor legacy retrofit
Rough floor and seam impacts make shock multiplier dominant. Pilot-first is usually required.
Out of envelope: redesign voltage or drivetrainHeuristic screen

Motor-current proxy 177.01A

Voltage use 49.5%

Evaluate 48V architecture, lower target speed, or larger wheel-module gear ratio before rerun.

Decision FAQ by intent

FAQ is grouped by route scope, method boundary, and procurement action.

Intent and route scope

Sizing method and data boundaries

Decision, risk, and procurement action

Source registry for core conclusions
Human-readable references for S1-S17 and evidence gap U1. Page last updated 2026-10-14; orientation evidence checked 2026-07-23.
TagSourcePublisherVersion / dateChecked
S1ISO 3691-4:2023 Driverless industrial trucks and their systemsISOEdition 2, 2023-06; official page status: Published / to be revised2026-10-14
S2IEC 60034-1:2026 RLV Rotating electrical machines - Rating and performanceIECEdition 15.0, publication date 2026-03-132026-10-14
S3IEC 60034-1:2022 (withdrawn) Rotating electrical machines - Rating and performanceIECEdition 14.0, withdrawal date 2026-03-132026-10-14
S4IEC 61800-9-2:2023 Ecodesign for motor systems and IES classesIECEdition 2.0, publication date 2023-10-202026-04-28
S5OSHA 29 CFR 1910.178 Powered industrial trucksU.S. OSHARegulatory text (includes training content and three-year evaluation rule)2026-04-28
S6Version 3.0 of VDA 5050 releasedVDAPress release, 2026-04-202026-04-28
S7VDA 5050 official repository and factsheet schemaVDA / VDMAVersion 3.0.0; factsheet wheelDefinitions include driven/steered flags and geometry2026-10-14
S8Microchip AN885 (DS00885A) BLDC fundamentals and low-voltage examplesMicrochipApplication note PDF, 20032026-04-28
S9Open-data gap note for AGV motor peak/current heuristicAGV Drive Wheel review noteInternal screening heuristic, not an external standard2026-10-14
S10Selecting precision motors: brushed DC wear versus BLDC bearing lifePortescapWhite paper, 20232026-07-07
S11Working temperatures of neodymium magnetssupermagnete.deFAQ table for N/M/H/SH/UH/EH/AH temperature types2026-07-07
S12BLV620K30S-1 legacy / discontinued catalog itemOriental Motor USALegacy / discontinued product page; BLV Series R Type replacement note2026-10-14
S13BLV Series R Type product specifications and featuresOriental MotorReplacement-series specification page2026-07-07
S14IEC 60034-30-1:2025 Efficiency classes of line operated AC motors (IE code)IECEdition 2.0, publication date 2025-12-01; replaces 2014 edition2026-10-14
S15IEC 61800-5-2:2016 Adjustable speed electrical power drive systems - Part 5-2: Safety requirementsIECEdition 2.0, publication date 2016-04-182026-10-14
S16Common AGV Drive Wheel ConfigurationsAGV MotorKnowledge article, 2026-07-14; covers horizontal and vertical steering drive wheels2026-07-23
S17AGV System electric drive wheel categoriesPhoenixPowerSupplier category reference defining horizontal and vertical drive wheel mounting2026-07-23
U1Rotation-unit parameters are module-specificEvidence gap noteNo cross-vendor values used; checked 2026-10-142026-10-14
Action center
Continue from checker output to RFQ or adjacent technical pages.
Primary action

Send your input and result snapshot to engineering RFQ for continuous/peak curve confirmation.

Request AGV motor engineering review
Related engineering paths

Compliance boundary reminder: safety and standards interpretation still requires your designated compliance owner review.

Related AGV electric motors engineering resources

Continue with drivetrain architecture checks, integration references, and direct technical RFQ actions.

WhatsApp