Torque To Axial Force Equation:
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The Torque To Axial Force equation calculates the axial force generated from applied torque, taking into account the torque coefficient and diameter. This is particularly useful in mechanical engineering applications involving fasteners and threaded connections.
The calculator uses the Torque To Axial Force equation:
Where:
Explanation: The equation converts applied torque into the resulting axial force, accounting for the mechanical advantage and friction characteristics represented by the torque coefficient.
Details: Accurate axial force calculation is crucial for proper fastener tensioning, bolt preload determination, and ensuring structural integrity in mechanical assemblies.
Tips: Enter torque in lb-in, torque coefficient as a decimal value, and diameter in inches. All values must be positive numbers greater than zero.
Q1: What is the torque coefficient (K)?
A: The torque coefficient is a dimensionless factor that accounts for friction and thread geometry in fastener assemblies. Typical values range from 0.15 to 0.25 for standard threaded fasteners.
Q2: How accurate is this calculation?
A: The accuracy depends on the precision of the torque coefficient value. For critical applications, experimentally determined K factors should be used.
Q3: Can this equation be used for metric units?
A: Yes, but all input values must use consistent units (e.g., N-m for torque, mm for diameter, with appropriate unit conversion for the result).
Q4: What factors affect the torque coefficient?
A: Surface finish, lubrication, thread pitch, and material properties all influence the torque coefficient value.
Q5: When is this calculation most commonly used?
A: This calculation is essential in bolted joint design, automotive assembly, aerospace applications, and any situation where precise fastener tension is required.