Braking Torque for Shoe Brake given Force Applied at End of Lever Solution

STEP 0: Pre-Calculation Summary
Formula Used
Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Force applied at the end of the lever*Distance b/w fulcrum and end of lever*Radius of Wheel)/Distance b/w fulcrum and axis of wheel
Mt = (μbrake*P*l*rwheel)/x
This formula uses 6 Variables
Variables Used
Braking or fixing torque on fixed member - (Measured in Newton Meter) - Braking or fixing torque on fixed member is the measure of the force that can cause an object to rotate about an axis.
Coefficient of Friction for Brake - Coefficient of Friction for Brake is the ratio defining the force that resists the motion of one body in relation to another body in contact with it.
Force applied at the end of the lever - (Measured in Newton) - Force applied at the end of the lever is any interaction that, when unopposed, will change the motion of an object.
Distance b/w fulcrum and end of lever - (Measured in Meter) - Distance b/w fulcrum and end of lever is a numerical measurement of how far apart objects or points are.
Radius of Wheel - (Measured in Meter) - The Radius of Wheel is any of the line segments from its center to its perimeter, and in more modern usage, it is also their length.
Distance b/w fulcrum and axis of wheel - (Measured in Meter) - Distance b/w fulcrum and axis of wheel is the distance between fulcrum and the vertical axis passing through mid of wheel.
STEP 1: Convert Input(s) to Base Unit
Coefficient of Friction for Brake: 0.35 --> No Conversion Required
Force applied at the end of the lever: 16 Newton --> 16 Newton No Conversion Required
Distance b/w fulcrum and end of lever: 1.1 Meter --> 1.1 Meter No Conversion Required
Radius of Wheel: 1.89 Meter --> 1.89 Meter No Conversion Required
Distance b/w fulcrum and axis of wheel: 5 Meter --> 5 Meter No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
Mt = (μbrake*P*l*rwheel)/x --> (0.35*16*1.1*1.89)/5
Evaluating ... ...
Mt = 2.32848
STEP 3: Convert Result to Output's Unit
2.32848 Newton Meter --> No Conversion Required
FINAL ANSWER
2.32848 Newton Meter <-- Braking or fixing torque on fixed member
(Calculation completed in 00.004 seconds)

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12 Braking Torque Calculators

Braking Torque for Shoe Brake if Line of Action of Tangential Force Passes above Fulcrum Anti Clock
Go Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Radius of Wheel*Force applied at the end of the lever*Distance b/w fulcrum and end of lever)/(Distance b/w fulcrum and axis of wheel+Coefficient of Friction for Brake*Shift in line of action of tangential force)
Braking Torque of Shoe Brake if Line of Action of Tangential Force Passes below Fulcrum Anti Clock
Go Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Radius of Wheel*Force applied at the end of the lever*Distance b/w fulcrum and end of lever)/(Distance b/w fulcrum and axis of wheel-Coefficient of Friction for Brake*Shift in line of action of tangential force)
Braking Torque of Shoe Brake if Line of Action of Tangential Force Passes above Fulcrum Clockwise
Go Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Radius of Wheel*Force applied at the end of the lever*Distance b/w fulcrum and end of lever)/(Distance b/w fulcrum and axis of wheel-Coefficient of Friction for Brake*Shift in line of action of tangential force)
Braking Torque of Shoe Brake if Line of Action of Tangential Force Passes below Fulcrum Clockwise
Go Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Radius of Wheel*Force applied at the end of the lever*Distance b/w fulcrum and end of lever)/(Distance b/w fulcrum and axis of wheel+Coefficient of Friction for Brake*Shift in line of action of tangential force)
Braking Torque for Shoe Brake given Force Applied at End of Lever
Go Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Force applied at the end of the lever*Distance b/w fulcrum and end of lever*Radius of Wheel)/Distance b/w fulcrum and axis of wheel
Braking Torque for Pivoted Block or Shoe Brake
Go Braking or fixing torque on fixed member = Equivalent Coefficient of Friction*Normal force pressing the brake block on the wheel*Radius of Wheel
Braking Torque on Drum for Simple Band Brake Considering Band Thickness
Go Braking or fixing torque on fixed member = (Tension in Tight Side of the Band-Tension in the slack side of band)*Effective radius of the drum
Braking Torque for Band and Block Brake, Considering Thickness of Band
Go Braking or fixing torque on fixed member = (Tension in Tight Side of the Band-Tension in the slack side of band)*Effective radius of the drum
Braking Torque on Drum for Simple Band Brake, Neglecting Thickness of Band
Go Braking or fixing torque on fixed member = (Tension in Tight Side of the Band-Tension in the slack side of band)*Radius of the drum
Braking Torque for Band and Block Brake, Neglecting Thickness of Band
Go Braking or fixing torque on fixed member = (Tension in Tight Side of the Band-Tension in the slack side of band)*Radius of the drum
Braking Torque for Double Block or Shoe Brake
Go Braking or fixing torque on fixed member = (Braking forces on the block 1+Braking forces on the block 2)*Radius of Wheel
Braking Torque for Shoe Brake
Go Braking or fixing torque on fixed member = Tangential Braking Force*Radius of Wheel

Braking Torque for Shoe Brake given Force Applied at End of Lever Formula

Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Force applied at the end of the lever*Distance b/w fulcrum and end of lever*Radius of Wheel)/Distance b/w fulcrum and axis of wheel
Mt = (μbrake*P*l*rwheel)/x

What is single block or shoe brake?

A single block or shoe brake consists of a block or shoe which is pressed against the rim of a revolving brake wheel drum. The block is made of a softer material than the rim of the wheel.

How to Calculate Braking Torque for Shoe Brake given Force Applied at End of Lever?

Braking Torque for Shoe Brake given Force Applied at End of Lever calculator uses Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Force applied at the end of the lever*Distance b/w fulcrum and end of lever*Radius of Wheel)/Distance b/w fulcrum and axis of wheel to calculate the Braking or fixing torque on fixed member, The Braking torque for shoe brake given force applied at end of lever formula is defined as the force applied at the brake wheel to stop the motion of the moving equipment. Braking or fixing torque on fixed member is denoted by Mt symbol.

How to calculate Braking Torque for Shoe Brake given Force Applied at End of Lever using this online calculator? To use this online calculator for Braking Torque for Shoe Brake given Force Applied at End of Lever, enter Coefficient of Friction for Brake brake), Force applied at the end of the lever (P), Distance b/w fulcrum and end of lever (l), Radius of Wheel (rwheel) & Distance b/w fulcrum and axis of wheel (x) and hit the calculate button. Here is how the Braking Torque for Shoe Brake given Force Applied at End of Lever calculation can be explained with given input values -> 14.553 = (0.35*16*1.1*1.89)/5.

FAQ

What is Braking Torque for Shoe Brake given Force Applied at End of Lever?
The Braking torque for shoe brake given force applied at end of lever formula is defined as the force applied at the brake wheel to stop the motion of the moving equipment and is represented as Mt = (μbrake*P*l*rwheel)/x or Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Force applied at the end of the lever*Distance b/w fulcrum and end of lever*Radius of Wheel)/Distance b/w fulcrum and axis of wheel. Coefficient of Friction for Brake is the ratio defining the force that resists the motion of one body in relation to another body in contact with it, Force applied at the end of the lever is any interaction that, when unopposed, will change the motion of an object, Distance b/w fulcrum and end of lever is a numerical measurement of how far apart objects or points are, The Radius of Wheel is any of the line segments from its center to its perimeter, and in more modern usage, it is also their length & Distance b/w fulcrum and axis of wheel is the distance between fulcrum and the vertical axis passing through mid of wheel.
How to calculate Braking Torque for Shoe Brake given Force Applied at End of Lever?
The Braking torque for shoe brake given force applied at end of lever formula is defined as the force applied at the brake wheel to stop the motion of the moving equipment is calculated using Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Force applied at the end of the lever*Distance b/w fulcrum and end of lever*Radius of Wheel)/Distance b/w fulcrum and axis of wheel. To calculate Braking Torque for Shoe Brake given Force Applied at End of Lever, you need Coefficient of Friction for Brake brake), Force applied at the end of the lever (P), Distance b/w fulcrum and end of lever (l), Radius of Wheel (rwheel) & Distance b/w fulcrum and axis of wheel (x). With our tool, you need to enter the respective value for Coefficient of Friction for Brake, Force applied at the end of the lever, Distance b/w fulcrum and end of lever, Radius of Wheel & Distance b/w fulcrum and axis of wheel and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.
How many ways are there to calculate Braking or fixing torque on fixed member?
In this formula, Braking or fixing torque on fixed member uses Coefficient of Friction for Brake, Force applied at the end of the lever, Distance b/w fulcrum and end of lever, Radius of Wheel & Distance b/w fulcrum and axis of wheel. We can use 11 other way(s) to calculate the same, which is/are as follows -
  • Braking or fixing torque on fixed member = (Braking forces on the block 1+Braking forces on the block 2)*Radius of Wheel
  • Braking or fixing torque on fixed member = Equivalent Coefficient of Friction*Normal force pressing the brake block on the wheel*Radius of Wheel
  • Braking or fixing torque on fixed member = (Tension in Tight Side of the Band-Tension in the slack side of band)*Effective radius of the drum
  • Braking or fixing torque on fixed member = (Tension in Tight Side of the Band-Tension in the slack side of band)*Radius of the drum
  • Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Radius of Wheel*Force applied at the end of the lever*Distance b/w fulcrum and end of lever)/(Distance b/w fulcrum and axis of wheel+Coefficient of Friction for Brake*Shift in line of action of tangential force)
  • Braking or fixing torque on fixed member = Tangential Braking Force*Radius of Wheel
  • Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Radius of Wheel*Force applied at the end of the lever*Distance b/w fulcrum and end of lever)/(Distance b/w fulcrum and axis of wheel-Coefficient of Friction for Brake*Shift in line of action of tangential force)
  • Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Radius of Wheel*Force applied at the end of the lever*Distance b/w fulcrum and end of lever)/(Distance b/w fulcrum and axis of wheel-Coefficient of Friction for Brake*Shift in line of action of tangential force)
  • Braking or fixing torque on fixed member = (Coefficient of Friction for Brake*Radius of Wheel*Force applied at the end of the lever*Distance b/w fulcrum and end of lever)/(Distance b/w fulcrum and axis of wheel+Coefficient of Friction for Brake*Shift in line of action of tangential force)
  • Braking or fixing torque on fixed member = (Tension in Tight Side of the Band-Tension in the slack side of band)*Effective radius of the drum
  • Braking or fixing torque on fixed member = (Tension in Tight Side of the Band-Tension in the slack side of band)*Radius of the drum
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