Pressure given Constant Solution

STEP 0: Pre-Calculation Summary
Formula Used
Pressure of Compressible Flow = Gas Constant a/Specific Volume
pc = Ra/v
This formula uses 3 Variables
Variables Used
Pressure of Compressible Flow - (Measured in Pascal) - Pressure of Compressible Flow is the force applied perpendicular to the surface of an object per unit area over which that force is distributed.
Gas Constant a - (Measured in Joule per Kilogram K) - Gas Constant a, provides a correction for intermolecular forces and is a characteristic of the individual gas.
Specific Volume - (Measured in Cubic Meter per Kilogram) - Specific Volume of the body is its volume per unit mass.
STEP 1: Convert Input(s) to Base Unit
Gas Constant a: 0.547 Joule per Kilogram K --> 0.547 Joule per Kilogram K No Conversion Required
Specific Volume: 11 Cubic Meter per Kilogram --> 11 Cubic Meter per Kilogram No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
pc = Ra/v --> 0.547/11
Evaluating ... ...
pc = 0.0497272727272727
STEP 3: Convert Result to Output's Unit
0.0497272727272727 Pascal --> No Conversion Required
FINAL ANSWER
0.0497272727272727 0.049727 Pascal <-- Pressure of Compressible Flow
(Calculation completed in 00.004 seconds)

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National Institute of Technology (NIT), Warangal
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18 Basic Relationship of Thermodynamics Calculators

Pressure for External Work Done by Gas in Adiabatic Process Introducing Pressure
​ Go Pressure 2 = -((Work Done*(Heat Capacity Ratio-1))-(Pressure 1*Specific Volume for Point 1))/Specific Volume for Point 2
Specific Volume for External Work Done in Adiabatic Process Introducing Pressure
​ Go Specific Volume for Point 1 = ((Work Done*(Heat Capacity Ratio-1))+(Pressure 2*Specific Volume for Point 2))/Pressure 1
Constant for External Work Done in Adiabatic process Introducing Pressure
​ Go Heat Capacity Ratio = ((1/Work Done)*(Pressure 1*Specific Volume for Point 1-Pressure 2*Specific Volume for Point 2))+1
External Work Done by Gas in Adiabatic Process Introducing Pressure
​ Go Work Done = (1/(Heat Capacity Ratio-1))*(Pressure 1*Specific Volume for Point 1-Pressure 2*Specific Volume for Point 2)
Potential Energy given Total Energy in Compressible Fluids
​ Go Potential Energy = Total Energy in Compressible Fluids-(Kinetic Energy+Pressure Energy+Molecular Energy)
Molecular Energy given Total Energy in Compressible Fluids
​ Go Molecular Energy = Total Energy in Compressible Fluids-(Kinetic Energy+Potential Energy+Pressure Energy)
Pressure Energy given Total Energy in Compressible Fluids
​ Go Pressure Energy = Total Energy in Compressible Fluids-(Kinetic Energy+Potential Energy+Molecular Energy)
Kinetic Energy given Total Energy in Compressible Fluids
​ Go Kinetic Energy = Total Energy in Compressible Fluids-(Potential Energy+Pressure Energy+Molecular Energy)
Total Energy in Compressible Fluids
​ Go Total Energy in Compressible Fluids = Kinetic Energy+Potential Energy+Pressure Energy+Molecular Energy
Absolute Temperature given Absolute Pressure
​ Go Absolute Temperature of Compressible Fluid = Absolute Pressure by Fluid Density/(Mass Density of Gas*Ideal Gas Constant)
Mass Density given Absolute Pressure
​ Go Mass Density of Gas = Absolute Pressure by Fluid Density/(Ideal Gas Constant*Absolute Temperature of Compressible Fluid)
Gas Constant given Absolute Pressure
​ Go Ideal Gas Constant = Absolute Pressure by Fluid Density/(Mass Density of Gas*Absolute Temperature of Compressible Fluid)
Absolute Pressure given Absolute Temperature
​ Go Absolute Pressure by Fluid Density = Mass Density of Gas*Ideal Gas Constant*Absolute Temperature of Compressible Fluid
Continuity Equation for Compressible Fluids
​ Go Constant A1 = Mass Density of Fluid*Cross-Sectional Area of Flow Channel*Average Velocity
Pressure given Constant
​ Go Pressure of Compressible Flow = Gas Constant a/Specific Volume
Change in Internal Energy given Total Heat Supplied to Gas
​ Go Change in Internal Energy = Total Heat-Work Done
External Work Done by Gas given Total Heat Supplied
​ Go Work Done = Total Heat-Change in Internal Energy
Total Heat Supplied to Gas
​ Go Total Heat = Change in Internal Energy+Work Done

Pressure given Constant Formula

Pressure of Compressible Flow = Gas Constant a/Specific Volume
pc = Ra/v

What is Boyles Law?

Boyle's law is a Gas Law which States that the Pressure Exerted by a Gas (of Given Mass at Constant Temperature) is Inversely Proportional to the Volume.

How to Calculate Pressure given Constant?

Pressure given Constant calculator uses Pressure of Compressible Flow = Gas Constant a/Specific Volume to calculate the Pressure of Compressible Flow, Pressure given Constant is defined as physical force exerted on object. force applied is perpendicular to surface of objects per unit area. Pressure of Compressible Flow is denoted by pc symbol.

How to calculate Pressure given Constant using this online calculator? To use this online calculator for Pressure given Constant, enter Gas Constant a (Ra) & Specific Volume (v) and hit the calculate button. Here is how the Pressure given Constant calculation can be explained with given input values -> 0.049727 = 0.547/11.

FAQ

What is Pressure given Constant?
Pressure given Constant is defined as physical force exerted on object. force applied is perpendicular to surface of objects per unit area and is represented as pc = Ra/v or Pressure of Compressible Flow = Gas Constant a/Specific Volume. Gas Constant a, provides a correction for intermolecular forces and is a characteristic of the individual gas & Specific Volume of the body is its volume per unit mass.
How to calculate Pressure given Constant?
Pressure given Constant is defined as physical force exerted on object. force applied is perpendicular to surface of objects per unit area is calculated using Pressure of Compressible Flow = Gas Constant a/Specific Volume. To calculate Pressure given Constant, you need Gas Constant a (Ra) & Specific Volume (v). With our tool, you need to enter the respective value for Gas Constant a & Specific Volume and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.
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