Longitudinal stress in cylinder given circumferential strain in cylinder Solution

STEP 0: Pre-Calculation Summary
Formula Used
Longitudinal Stress = (Circumferential stress due to fluid pressure-(Circumferential strain*Young's Modulus Cylinder))/(Poisson's Ratio)
Οƒl = (Οƒc-(e1*E))/(π›Ž)
This formula uses 5 Variables
Variables Used
Longitudinal Stress - (Measured in Pascal) - Longitudinal Stress is defined as the stress produced when a pipe is subjected to internal pressure.
Circumferential stress due to fluid pressure - (Measured in Pascal) - Circumferential stress due to fluid pressure is a kind of tensile stress exerted on cylinder due to fluid pressure.
Circumferential strain - Circumferential strain represents the change in length.
Young's Modulus Cylinder - (Measured in Pascal) - Young's Modulus Cylinder is a mechanical property of linear elastic solid substances. It describes the relationship between longitudinal stress and longitudinal strain.
Poisson's Ratio - Poisson's Ratio is defined as the ratio of the lateral and axial strain. For many metals and alloys, values of Poisson’s ratio range between 0.1 and 0.5.
STEP 1: Convert Input(s) to Base Unit
Circumferential stress due to fluid pressure: 0.002 Megapascal --> 2000 Pascal (Check conversion here)
Circumferential strain: 2.5 --> No Conversion Required
Young's Modulus Cylinder: 9.6 Megapascal --> 9600000 Pascal (Check conversion here)
Poisson's Ratio: 0.3 --> No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
Οƒl = (Οƒc-(e1*E))/(π›Ž) --> (2000-(2.5*9600000))/(0.3)
Evaluating ... ...
Οƒl = -79993333.3333333
STEP 3: Convert Result to Output's Unit
-79993333.3333333 Pascal -->-79.9933333333333 Megapascal (Check conversion here)
FINAL ANSWER
-79.9933333333333 β‰ˆ -79.993333 Megapascal <-- Longitudinal Stress
(Calculation completed in 00.004 seconds)

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21 Stress Calculators

Circumferential stress in cylinder due to fluid given bursting force due to fluid pressure
Go Circumferential stress due to fluid pressure = ((Force/Length of wire)-((pi/2)*Diameter of Wire*Stress in wire due to fluid pressure))/(2*Thickness Of Wire)
Stress in wire due to fluid pressure given bursting force due to fluid pressure
Go Stress in wire due to fluid pressure = ((Force/Length of wire)-(2*Thickness Of Wire*Circumferential stress due to fluid pressure))/((pi/2)*Diameter of Wire)
Longitudinal stress in cylinder given circumferential strain in cylinder
Go Longitudinal Stress = (Circumferential stress due to fluid pressure-(Circumferential strain*Young's Modulus Cylinder))/(Poisson's Ratio)
Circumferential stress in cylinder given circumferential strain in cylinder
Go Circumferential stress due to fluid pressure = (Circumferential strain*Young's Modulus Cylinder)+(Poisson's Ratio*Longitudinal Stress)
Initial winding stress in wire given compressive circumferential stress exerted by wire
Go Initial Winding Stress = (Compressive Circumferential Stress*(4*Thickness Of Wire))/(pi*Diameter of Wire)
Compressive circumferential stress exerted by wire given initial winding stress in wire
Go Compressive Circumferential Stress = (pi*Diameter of Wire*Initial Winding Stress)/(4*Thickness Of Wire)
Initial winding stress in wire given initial tensile force in wire
Go Initial Winding Stress = Force/((Number of turns of wire*((pi/2)*(Diameter of Wire^2))))
Stress in wire due to fluid pressure given resisting force on wire and diameter of wire
Go Stress in wire due to fluid pressure = Force/(Length of wire*(pi/2)*Diameter of Wire)
Stress in wire due to fluid pressure given resisting force of wire per cm length
Go Stress in wire due to fluid pressure = (2*Force)/(Length of wire*pi*Diameter of Wire)
Initial winding stress in wire given initial tensile force in wire and length of wire
Go Initial Winding Stress = Force/(Length of wire*(pi/2)*Diameter of Wire)
Stress in wire due to fluid pressure given resisting force on wire
Go Stress in wire due to fluid pressure = Force/(Number of turns of wire*(2*Cross-Sectional Area Wire))
Compressive circumferential stress exerted by wire on cylinder given compressive force
Go Compressive Circumferential Stress = Compressive Force/(2*Length of wire*Thickness Of Wire)
Circumferential stress due to fluid pressure given resisting force of cylinder
Go Circumferential stress due to fluid pressure = Force/(2*Length of wire*Thickness Of Wire)
Longitudinal stress in wire due to fluid pressure
Go Longitudinal Stress = ((Internal Pressure*Diameter of Cylinder)/(4*Thickness Of Wire))
Compressive circumferential stress exerted by wire given resultant stress in cylinder
Go Compressive Circumferential Stress = Circumferential stress due to fluid pressure-Resultant Stress
Circumferential stress due to fluid pressure given resultant stress in cylinder
Go Circumferential stress due to fluid pressure = Resultant Stress+Compressive Circumferential Stress
Resultant stress in cylinder
Go Resultant Stress = Circumferential stress due to fluid pressure-Compressive Circumferential Stress
Stress developed in wire due to fluid pressure given strain in wire
Go Stress in wire due to fluid pressure = Young's Modulus Cylinder*Stress in Component
Stress developed in wire due to fluid pressure given resultant stress in wire
Go Stress in wire due to fluid pressure = Resultant Stress-Initial Winding Stress
Initial winding stress in wire given resultant stress in wire
Go Initial Winding Stress = Resultant Stress-Stress in wire due to fluid pressure
Resultant stress in wire
Go Resultant Stress = Initial Winding Stress+Stress in wire due to fluid pressure

Longitudinal stress in cylinder given circumferential strain in cylinder Formula

Longitudinal Stress = (Circumferential stress due to fluid pressure-(Circumferential strain*Young's Modulus Cylinder))/(Poisson's Ratio)
Οƒl = (Οƒc-(e1*E))/(π›Ž)

Is a higher Young's modulus better?

The coefficient of proportionality is Young's modulus. The higher the modulus, the more stress is needed to create the same amount of strain; an idealized rigid body would have an infinite Young's modulus. Conversely, a very soft material such as fluid would deform without force and would have zero Young's Modulus.

How to Calculate Longitudinal stress in cylinder given circumferential strain in cylinder?

Longitudinal stress in cylinder given circumferential strain in cylinder calculator uses Longitudinal Stress = (Circumferential stress due to fluid pressure-(Circumferential strain*Young's Modulus Cylinder))/(Poisson's Ratio) to calculate the Longitudinal Stress, The Longitudinal stress in cylinder given circumferential strain in cylinder formula is defined as the force acting on the unit area of a material. The effect of stress on a body is named strain. Stress can deform the body. Longitudinal Stress is denoted by Οƒl symbol.

How to calculate Longitudinal stress in cylinder given circumferential strain in cylinder using this online calculator? To use this online calculator for Longitudinal stress in cylinder given circumferential strain in cylinder, enter Circumferential stress due to fluid pressure (Οƒc), Circumferential strain (e1), Young's Modulus Cylinder (E) & Poisson's Ratio (π›Ž) and hit the calculate button. Here is how the Longitudinal stress in cylinder given circumferential strain in cylinder calculation can be explained with given input values -> -8E-5 = (2000-(2.5*9600000))/(0.3).

FAQ

What is Longitudinal stress in cylinder given circumferential strain in cylinder?
The Longitudinal stress in cylinder given circumferential strain in cylinder formula is defined as the force acting on the unit area of a material. The effect of stress on a body is named strain. Stress can deform the body and is represented as Οƒl = (Οƒc-(e1*E))/(π›Ž) or Longitudinal Stress = (Circumferential stress due to fluid pressure-(Circumferential strain*Young's Modulus Cylinder))/(Poisson's Ratio). Circumferential stress due to fluid pressure is a kind of tensile stress exerted on cylinder due to fluid pressure, Circumferential strain represents the change in length, Young's Modulus Cylinder is a mechanical property of linear elastic solid substances. It describes the relationship between longitudinal stress and longitudinal strain & Poisson's Ratio is defined as the ratio of the lateral and axial strain. For many metals and alloys, values of Poisson’s ratio range between 0.1 and 0.5.
How to calculate Longitudinal stress in cylinder given circumferential strain in cylinder?
The Longitudinal stress in cylinder given circumferential strain in cylinder formula is defined as the force acting on the unit area of a material. The effect of stress on a body is named strain. Stress can deform the body is calculated using Longitudinal Stress = (Circumferential stress due to fluid pressure-(Circumferential strain*Young's Modulus Cylinder))/(Poisson's Ratio). To calculate Longitudinal stress in cylinder given circumferential strain in cylinder, you need Circumferential stress due to fluid pressure (Οƒc), Circumferential strain (e1), Young's Modulus Cylinder (E) & Poisson's Ratio (π›Ž). With our tool, you need to enter the respective value for Circumferential stress due to fluid pressure, Circumferential strain, Young's Modulus Cylinder & Poisson's Ratio 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 Longitudinal Stress?
In this formula, Longitudinal Stress uses Circumferential stress due to fluid pressure, Circumferential strain, Young's Modulus Cylinder & Poisson's Ratio. We can use 1 other way(s) to calculate the same, which is/are as follows -
  • Longitudinal Stress = ((Internal Pressure*Diameter of Cylinder)/(4*Thickness Of Wire))
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