A torque specification
100 N·m is about 73.756215 lbf·ft. At a 0.25 m perpendicular lever arm, the corresponding ideal force is 400 N.
Convert a moment of force with force units written explicitly. Supply a perpendicular lever arm to see the equivalent applied force under a simple lever model.
Force units are explicit: lbf is pound-force, kgf is kilogram-force. Signed torque values are supported.
pound-force feet (lbf·ft)
A conversion does not establish a safe tightening specification. Use the equipment maker’s specified procedure and torque.
| Unit | Amount |
|---|---|
| newton meters (N·m) | 100 |
| newton centimeters (N·cm) | 10,000 |
| millinewton meters (mN·m) | 100,000 |
| kilonewton meters (kN·m) | 0.1 |
| pound-force feet (lbf·ft) | 73.7562149 |
| pound-force inches (lbf·in) | 885.074579 |
| ounce-force inches (ozf·in) | 14,161.1933 |
| kilogram-force meters (kgf·m) | 10.1971621 |
| kilogram-force centimeters (kgf·cm) | 1,019.71621 |
Displayed values are rounded. CSV uses the available JavaScript numeric precision; it cannot restore precision absent from the input.
Calculations and CSV generation run locally in your browser. No measurement data is uploaded by this tool.
Enter a signed torque amount and select the source and target torque units. lbf and kgf refer to force, not mass.
Enter a positive perpendicular lever arm in meters for the force estimate. The arm must be the distance from the pivot to the force’s line of action.
Read the conversion and estimated force. Copy the result or export the torque-equivalent table for your notes.
100 N·m is about 73.756215 lbf·ft. At a 0.25 m perpendicular lever arm, the corresponding ideal force is 400 N.
12 lbf·in equals 1 lbf·ft. The same force acting through twelve inches has the same moment as acting through one foot.
1 kgf·m equals 9.80665 N·m. The kilogram-force is defined using standard gravity and is distinct from a kilogram of mass.
Each listed unit is expressed as a factor of N·m. For pound-force units, the calculation uses the international pound’s mass and standard gravity, then the international inch or foot for the lever distance. This keeps force and length conventions consistent across lbf·in and lbf·ft.
For perpendicular force, torque magnitude equals force times lever arm. The force estimate divides signed torque by a positive arm. If force is applied at another angle, the perpendicular distance is shorter than the physical handle length. Extensions and adapters may also change the effective arm; that geometry is not inferred here.
Torque and energy share the same base dimensions, but they describe different quantities. A torque value alone does not tell you the work done without an angular displacement. Use a torque unit label such as N·m for a moment of force rather than interpreting the number as an energy in joules.
Torque specifications often abbreviate pound-force feet as lb-ft. This tool writes lbf·ft explicitly so the force meaning is clear. Check the original specification if its notation is ambiguous.
Yes. The sign is preserved and can indicate opposite rotation under your chosen axis convention. The diagram-free force estimate uses the same sign.
No. It converts a value you already have. Required torque depends on the equipment, fastener, lubrication, procedure, and other factors specified by its manufacturer.
No. A nonzero torque cannot be produced by finite perpendicular force at zero distance from the pivot. Enter a positive arm.