Servo & Reducer Sizing — AGV Wheel Drive
Motor torque and thrust for a agv wheel drive from load, speed and ratio.
AGV drives are sized on the ramp, not the flat: a 3% incline at full load typically triples the thrust requirement. The wheel is the 'pinion' (pitch = πD), and the grade term here is the difference between a drive that glides and one that stalls at the dock plate.
Formula
Note: Planning-level engineering estimate — final robot selection, guarding layout and risk assessment must follow the integrator's calculations and a documented ISO 12100/10218 risk assessment.
Motor torque and thrust for a agv wheel drive from load, speed and ratio. A free industrial robot kinematics & cell design tool — no sign-up, no upload, instant results in your browser.
About Servo & Reducer Sizing — AGV Wheel Drive
Servo & Reducer Sizing — AGV Wheel Drive computes the governing relationship F = m(a + g·sinθ + µ·g·cosθ) · T = F·lead/(2π·η) live as you type. AGV drives are sized on the ramp, not the flat: a 3% incline at full load typically triples the thrust requirement. The wheel is the 'pinion' (pitch = πD), and the grade term here is the difference between a drive that glides and one that stalls at the dock plate. Defaults are pre-filled with realistic values for this exact scenario, and the worked example substitutes your numbers step by step so the math is never a black box.
How to use Servo & Reducer Sizing — AGV Wheel Drive
- 1Enter your values — Moved mass, Acceleration, Max speed, Drive circumference (πD or rack pitch·z) and more (sensible defaults are pre-filled).
- 2Read the live results: Peak thrust, Motor torque, Motor speed at v_max.
- 3Check the "with your numbers" line to see F = m(a + g·sinθ + µ·g·cosθ) · T = F·lead/(2π·η) substituted step by step.
- 4Adjust inputs until the scenario matches yours, then copy or share the result.
Why use Servo & Reducer Sizing — AGV Wheel Drive?
- ✓Instant, free and private — every calculation runs client-side in your browser; nothing is uploaded
- ✓Built on the stated formula F = m(a + g·sinθ + µ·g·cosθ) · T = F·lead/(2π·η) with authoritative sources cited on the page (Nabtesco / Harmonic Drive sizing guidelines; Siciliano & Khatib (eds.), Springer Handbook of Robotics, 2nd ed.)
- ✓AGV drives are sized on the ramp, not the flat: a 3% incline at full load typically triples the thrust requirement.
- ✓SI ⇄ Imperial toggle converts your inputs in place, so you can work in the units your drawings use
Frequently asked questions
What formula does the servo & reducer sizing — agv wheel drive use?+
It evaluates F = m(a + g·sinθ + µ·g·cosθ) · T = F·lead/(2π·η), exactly as published. Sources: Nabtesco / Harmonic Drive sizing guidelines; Siciliano & Khatib (eds.), Springer Handbook of Robotics, 2nd ed.. The substituted worked example on the page lets you verify every step against the textbook.
How should I read the result — and how far can I trust it?+
AGV drives are sized on the ramp, not the flat: a 3% incline at full load typically triples the thrust requirement. Planning-level engineering estimate — final robot selection, guarding layout and risk assessment must follow the integrator's calculations and a documented ISO 12100/10218 risk assessment.
When is this calculator the right tool for the job?+
Motor torque and thrust for a agv wheel drive from load, speed and ratio. A free industrial robot kinematics & cell design tool. The wheel is the 'pinion' (pitch = πD), and the grade term here is the difference between a drive that glides and one that stalls at the dock plate. For neighbouring scenarios, the related tools below cover the same engine with different presets.
Does it support both metric and imperial units?+
Yes — the SI ⇄ Imperial toggle converts the values already in the fields, preserving the physical quantity, so you can flip mid-calculation without re-entering anything.
Related tools
- Accuracy Budget — SCARA Precision Assembly
- Accuracy Budget — Arc-Welding Cell
- Accuracy Budget — Robotic Milling/Trimming
- Accuracy Budget — Palletizing Stack Accuracy
- Accuracy Budget — Vision-Guided Bin/Belt Pick
- Accuracy Budget — Sealant Bead Placement
- Accuracy Budget — Robot-Carried Inspection Sensor
- Mass Concrete Temperature — Cooling-Pipe Decision Check
- Ballast Stability Concept — Cross-Base Ballast Check
Related Manufacturing tools
Spindle Speed Calculator — Aluminum 6061
Carbide starting RPM for milling Aluminum 6061: n = 1000·Vc/(π·D) with a handbook cutting speed preset.
● LiveSpindle Speed Calculator — Mild Steel 1018
Carbide starting RPM for milling Mild Steel 1018: n = 1000·Vc/(π·D) with a handbook cutting speed preset.
● LiveSpindle Speed Calculator — Stainless 304
Carbide starting RPM for milling Stainless 304: n = 1000·Vc/(π·D) with a handbook cutting speed preset.
● Live