Convert Kilogram-force-centimeters to Inch-pounds-force
Instantly convert Kilogram-force-centimeters (kgf·cm) to Inch-pounds-force (in·lbf) with our free online calculator.
Formula: kgf·cm to in·lbf — multiply by 0.86796
Reference Table
| Kilogram-force-centimeters (kgf·cm) | Inch-pounds-force (in·lbf) |
|---|---|
| 1 | 0.86796 |
| 5 | 4.3398 |
| 10 | 8.6796 |
| 25 | 21.699 |
| 50 | 43.398 |
| 100 | 86.796 |
How to Convert Kilogram-force-centimeters to Inch-pounds-force
Formula
To convert Kilogram-force-centimeters (kgf·cm) to Inch-pounds-force (in·lbf): multiply by 0.86796
Step-by-Step
- Start with your value in Kilogram-force-centimeters (kgf·cm).
- Multiply by 0.86796 to perform the conversion.
- The result is your value expressed in Inch-pounds-force (in·lbf).
Conversion Factor
1 kgf·cm = 0.86796 in·lbf
Reverse Factor
1 in·lbf = 1.15213 kgf·cm
Worked Example
Convert 25 Kilogram-force-centimeters to Inch-pounds-force: 25 kgf·cm = 21.699 in·lbf
About Kilogram-force-centimeter (kgf·cm)
A legacy metric unit of torque equal to one kilogram-force applied at a one-centimeter lever arm (exactly 0.0980665 N·m). kgf·cm is heavily used on small-motor datasheets, especially from Japanese, Korean, and Chinese manufacturers: stepper motor holding torque (NEMA-17 typically 30-90 oz·in = 21-65 kgf·cm; NEMA-23 90-180 oz·in = 65-130 kgf·cm), small DC and servo motors for robotics and hobby applications (e.g., a Tower Pro MG996R servo is rated 9.4 kgf·cm at 4.8 V, 11 kgf·cm at 6.0 V), RC vehicle drive motors, brushless gimbal motors for stabilized camera platforms, small-engine specifications (handheld power equipment, generators), and legacy small-appliance / scientific-instrument torque specs. kgf·cm is sized between in·lbf (8.85 kgf·cm = 1 ft·lbf, 0.738 kgf·cm = 1 in·lbf) and N·m, making it convenient for sub-1-N·m torques without leading zeros. Convert kgf·cm to N·m by dividing by 10.197; to oz·in by multiplying by 13.89.
About Inch-pound-force (in·lbf)
An imperial unit of torque equal to one pound-force applied at a one-inch lever arm (≈ 0.112985 N·m per NIST SP 811 — exactly 1/12 of a ft·lbf). Inch-pounds are the standard US unit for small-fastener torque applications where ft·lbf would give awkwardly small decimal values: precision computer-assembly screws (M2-M5 fasteners typically 4-25 in·lbf), firearms receivers and optic mounting (Picatinny rail screws 15-65 in·lbf depending on size, scope-ring screws 18-22 in·lbf), small-engine carburetor and intake-manifold screws, precision-instrument assembly (laboratory benchtop devices, medical-device sub-assemblies), aerospace small-fastener torque tables in NASM 33540, and #6-#10 machine screws (60-80 in·lbf for 1/4-20 stainless per Industrial Fastener Institute recommendations). US-made small torque wrenches and 1/4-inch drive click drivers are calibrated in in·lbf, often dual-scale with N·cm or sub-N·m scales. Convert in·lbf to N·m by multiplying by 0.113; to ft·lbf by dividing by 12.
Quick Facts
- 1 Kilogram-force-centimeter equals 0.86796 Inch-pounds-force
- 1 Inch-pound-force equals 1.15213 Kilogram-force-centimeters
- Kilogram-force-centimeter is a unit of torque
- Inch-pound-force is a unit of torque
- This conversion is commonly used in automotive maintenance, structural engineering, and manufacturing
- The Kilogram-force-centimeter belongs to the metric system
- The Inch-pound-force belongs to the imperial system
Common Kilogram-force-centimeter to Inch-pound-force Conversions
| Kilogram-force-centimeters (kgf·cm) | Inch-pounds-force (in·lbf) |
|---|---|
| 0.01 | 0.0086796 |
| 0.1 | 0.086796 |
| 0.25 | 0.21699 |
| 0.5 | 0.43398 |
| 1 | 0.86796 |
| 2 | 1.73592 |
| 3 | 2.60388 |
| 5 | 4.3398 |
| 10 | 8.6796 |
| 15 | 13.0194 |
| 20 | 17.3592 |
| 25 | 21.699 |
| 50 | 43.398 |
| 75 | 65.097 |
| 100 | 86.796 |
| 250 | 216.99 |
| 500 | 433.98 |
| 1000 | 867.96 |
| 5000 | 4339.8 |
| 10000 | 8679.6 |
Understanding Kilogram-force-centimeters
The Kilogram-force-centimeter (symbol: kgf·cm) is a unit of torque. A legacy metric unit of torque equal to one kilogram-force applied at a one-centimeter lever arm (exactly 0.0980665 N·m). kgf·cm is heavily used on small-motor datasheets, especially from Japanese, Korean, and Chinese manufacturers: stepper motor holding torque (NEMA-17 typically 30-90 oz·in = 21-65 kgf·cm; NEMA-23 90-180 oz·in = 65-130 kgf·cm), small DC and servo motors for robotics and hobby applications (e.g., a Tower Pro MG996R servo is rated 9.4 kgf·cm at 4.8 V, 11 kgf·cm at 6.0 V), RC vehicle drive motors, brushless gimbal motors for stabilized camera platforms, small-engine specifications (handheld power equipment, generators), and legacy small-appliance / scientific-instrument torque specs. kgf·cm is sized between in·lbf (8.85 kgf·cm = 1 ft·lbf, 0.738 kgf·cm = 1 in·lbf) and N·m, making it convenient for sub-1-N·m torques without leading zeros. Convert kgf·cm to N·m by dividing by 10.197; to oz·in by multiplying by 13.89.
It belongs to the metric measurement system.
Kilogram-force-centimeters are commonly used in automotive maintenance, structural engineering, and manufacturing.
Understanding Inch-pounds-force
The Inch-pound-force (symbol: in·lbf) is a unit of torque. An imperial unit of torque equal to one pound-force applied at a one-inch lever arm (≈ 0.112985 N·m per NIST SP 811 — exactly 1/12 of a ft·lbf). Inch-pounds are the standard US unit for small-fastener torque applications where ft·lbf would give awkwardly small decimal values: precision computer-assembly screws (M2-M5 fasteners typically 4-25 in·lbf), firearms receivers and optic mounting (Picatinny rail screws 15-65 in·lbf depending on size, scope-ring screws 18-22 in·lbf), small-engine carburetor and intake-manifold screws, precision-instrument assembly (laboratory benchtop devices, medical-device sub-assemblies), aerospace small-fastener torque tables in NASM 33540, and #6-#10 machine screws (60-80 in·lbf for 1/4-20 stainless per Industrial Fastener Institute recommendations). US-made small torque wrenches and 1/4-inch drive click drivers are calibrated in in·lbf, often dual-scale with N·cm or sub-N·m scales. Convert in·lbf to N·m by multiplying by 0.113; to ft·lbf by dividing by 12.
It belongs to the imperial measurement system.
Inch-pounds-force are commonly used in automotive maintenance, structural engineering, and manufacturing.
Why Convert Kilogram-force-centimeters to Inch-pounds-force?
Converting between Kilogram-force-centimeters and Inch-pounds-force is a frequent requirement for engineers, scientists, and students working with torque values. Different industries and regions favour different unit systems, so having a dependable conversion tool saves time and prevents errors in technical calculations. Whether you are verifying a specification sheet, cross-checking simulation results, or preparing a report for an international audience, accurate torque conversion is essential.
Frequently Asked Questions
How do I convert Kilogram-force-centimeters to Inch-pounds-force?
A legacy metric unit of torque equal to one kilogram-force applied at a one-centimeter lever arm (exactly 0. To convert Kilogram-force-centimeters to Inch-pounds-force, multiply by 0.86796. For example, 25 kgf·cm equals 21.699 in·lbf.
How many Inch-pounds-force are in 1 Kilogram-force-centimeter?
There are 0.86796 Inch-pounds-force in 1 Kilogram-force-centimeter.
How many Kilogram-force-centimeters are in 1 Inch-pound-force?
There are 1.15213 Kilogram-force-centimeters in 1 Inch-pound-force.
What is the formula for Kilogram-force-centimeter to Inch-pound-force conversion?
The formula is: multiply by 0.86796. This means 1 kgf·cm = 0.86796 in·lbf.
Is a Kilogram-force-centimeter bigger than a Inch-pound-force?
Yes. One Kilogram-force-centimeter is larger than one Inch-pound-force because 1 kgf·cm equals 0.86796 in·lbf, which is less than 1.
When do you need to convert between Kilogram-force-centimeters and Inch-pounds-force?
An imperial unit of torque equal to one pound-force applied at a one-inch lever arm (≈ 0. Kilogram-force-centimeter and Inch-pound-force are both torque units, so conversion comes up whenever one source of information uses one unit and another uses the other — a classic cross-reference challenge in engineering, trade, travel, and everyday life.