✖Flywheel Moment of Inertia is defined as the flywheel's resistance to rotational changes.ⓘ Flywheel Moment of Inertia [J]			+10% -10%
✖Flywheel Angular Velocity is defined as the speed of the flywheel or the number of rotations of the flywheel per second.ⓘ Flywheel Angular Velocity [ω]			+10% -10%

✖Kinetic Energy Stored in the Flywheel is defined as the kinetic energy of the flywheel of an IC engine.ⓘ Kinetic Energy Stored in Flywheel of IC Engine [E]

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Formula

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Kinetic Energy Stored in Flywheel of IC Engine

Formula

`"E" = ("J"*("ω"^2))/2`

Example

`"10J"=("0.2kg·m²"*(("10rad/s")^2))/2`

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Kinetic Energy Stored in Flywheel of IC Engine Solution

STEP 0: Pre-Calculation Summary

Formula Used

Kinetic Energy Stored in the Flywheel = (Flywheel Moment of Inertia*(Flywheel Angular Velocity^2))/2
E = (J*(ω^2))/2
This formula uses 3 Variables

Variables Used

Kinetic Energy Stored in the Flywheel - (Measured in Joule) - Kinetic Energy Stored in the Flywheel is defined as the kinetic energy of the flywheel of an IC engine.
Flywheel Moment of Inertia - (Measured in Kilogram Square Meter) - Flywheel Moment of Inertia is defined as the flywheel's resistance to rotational changes.
Flywheel Angular Velocity - (Measured in Radian per Second) - Flywheel Angular Velocity is defined as the speed of the flywheel or the number of rotations of the flywheel per second.

STEP 1: Convert Input(s) to Base Unit

Flywheel Moment of Inertia: 0.2 Kilogram Square Meter --> 0.2 Kilogram Square Meter No Conversion Required
Flywheel Angular Velocity: 10 Radian per Second --> 10 Radian per Second No Conversion Required

STEP 2: Evaluate Formula

Substituting Input Values in Formula

E = (J*(ω^2))/2 --> (0.2*(10^2))/2

Evaluating ... ...

E = 10

STEP 3: Convert Result to Output's Unit

10 Joule --> No Conversion Required

FINAL ANSWER

10 Joule <-- Kinetic Energy Stored in the Flywheel

(Calculation completed in 00.004 seconds)

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Home » Physics » IC Engine » Engine Performance Parameters » Mechanical » Engine Dynamics » Kinetic Energy Stored in Flywheel of IC Engine

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< 25 Engine Dynamics Calculators

Overall heat transfer coefficient of IC engine

Go Overall Heat Transfer Coefficient = 1/((1/Heat Transfer Coefficient on Gas Side)+(Thickness of Engine Wall/Thermal conductivity of material)+(1/Heat Transfer Coefficient on Coolant Side))

Rate of convection heat transfer between engine wall and coolant

Go Rate of Convection Heat Transfer = Convection Heat Transfer Coefficient*Surface Area of Engine Wall*(Engine Wall Surface Temperature-Temperature of Coolant)

Heat transfer across engine wall given overall heat transfer coefficient

Go Heat Transfer across Engine Wall = Overall Heat Transfer Coefficient*Surface Area of Engine Wall*(Gas side temperature-Coolant Side Temperature)

Inlet-Valve Mach Index

Go Mach Index = ((Cylinder Diameter/Inlet Valve Diameter)^2)*((Mean Piston Speed)/(Flow Coefficient*Sonic Velocity))

Brake Power given Mean Effective Pressure

Go Brake Power = (Brake Mean Effective Pressure*Stroke Length*Area of Cross Section*(Engine Speed))

Beale Number

Go Beale Number = Engine Power/(Average Gas Pressure*Piston Swept Volume*Engine Frequency)

Engine displacement given number of cylinders

Go Engine Displacement = Engine Bore*Engine Bore*Stroke Length*0.7854*Number of Cylinders

Indicated Thermal Efficiency given Indicated Power

Go Indicated Thermal Efficiency = ((Indicated Power)/(Mass of Fuel Supplied per Second*Calorific Value of Fuel))*100

Brake Thermal Efficiency given Brake Power

Go Brake Thermal Efficiency = (Brake Power/(Mass of Fuel Supplied per Second*Calorific Value of Fuel))*100

Rate of cooling of engine

Go Rate of Cooling = Constant for Cooling Rate*(Engine Temperature-Engine Surrounding Temperature)

Time taken for engine to cool

Go Time Required to Cool Engine = (Engine Temperature-Final Engine Temperature)/Rate of Cooling

Engine rpm

Go Engine RPM = (Speed of Vehicle*Gear Ratio of Transmission*336)/Tire Diameter

Kinetic Energy Stored in Flywheel of IC Engine

Go Kinetic Energy Stored in the Flywheel = (Flywheel Moment of Inertia*(Flywheel Angular Velocity^2))/2

Swept Volume

Go Swept Volume = (((pi/4)*Inner Diameter of Cylinder^2)*Stroke Length)

Indicated specific fuel consumption

Go Indicated Specific Fuel Consumption = Fuel Consumption in IC engine/Indicated Power

Indicated Thermal Efficiency given Relative Efficiency

Go Indicated Thermal Efficiency = (Relative Efficiency*Air Standard Efficiency)/100

Relative Efficiency

Go Relative Efficiency = (Indicated Thermal Efficiency/Air Standard Efficiency)*100

Brake specific fuel consumption

Go Brake Specific Fuel Consumption = Fuel Consumption in IC engine/Brake Power

Indicated Power given Mechanical Efficiency

Go Indicated Power = Brake Power/(Mechanical Efficiency/100)

Brake Power given Mechanical Efficiency

Go Brake Power = (Mechanical Efficiency/100)*Indicated Power

Mechanical Efficiency of IC engine

Go Mechanical Efficiency = (Brake Power/Indicated Power)*100

Specific Power Output

Go Specific Power Output = Brake Power/Area of Cross Section

Mean piston speed

Go Mean Piston Speed = 2*Stroke Length*Engine Speed

Friction Power

Go Friction Power = Indicated Power-Brake Power

Peak torque of engine

Go Peak Torque of Engine = Engine Displacement*1.25

< 21 Important Formulas of Engine Dynamics Calculators

Inlet-Valve Mach Index

Go Mach Index = ((Cylinder Diameter/Inlet Valve Diameter)^2)*((Mean Piston Speed)/(Flow Coefficient*Sonic Velocity))

Brake Power given Mean Effective Pressure

Go Brake Power = (Brake Mean Effective Pressure*Stroke Length*Area of Cross Section*(Engine Speed))

Beale Number

Go Beale Number = Engine Power/(Average Gas Pressure*Piston Swept Volume*Engine Frequency)

Engine displacement given number of cylinders

Go Engine Displacement = Engine Bore*Engine Bore*Stroke Length*0.7854*Number of Cylinders

Indicated Thermal Efficiency given Indicated Power

Go Indicated Thermal Efficiency = ((Indicated Power)/(Mass of Fuel Supplied per Second*Calorific Value of Fuel))*100

Brake Thermal Efficiency given Brake Power

Go Brake Thermal Efficiency = (Brake Power/(Mass of Fuel Supplied per Second*Calorific Value of Fuel))*100

Rate of cooling of engine

Go Rate of Cooling = Constant for Cooling Rate*(Engine Temperature-Engine Surrounding Temperature)

Time taken for engine to cool

Go Time Required to Cool Engine = (Engine Temperature-Final Engine Temperature)/Rate of Cooling

Engine rpm

Go Engine RPM = (Speed of Vehicle*Gear Ratio of Transmission*336)/Tire Diameter

Kinetic Energy Stored in Flywheel of IC Engine

Go Kinetic Energy Stored in the Flywheel = (Flywheel Moment of Inertia*(Flywheel Angular Velocity^2))/2

Swept Volume

Go Swept Volume = (((pi/4)*Inner Diameter of Cylinder^2)*Stroke Length)

Indicated specific fuel consumption

Go Indicated Specific Fuel Consumption = Fuel Consumption in IC engine/Indicated Power

Relative Efficiency

Go Relative Efficiency = (Indicated Thermal Efficiency/Air Standard Efficiency)*100

Brake specific fuel consumption

Go Brake Specific Fuel Consumption = Fuel Consumption in IC engine/Brake Power

Equivalence ratio

Go Equivalence Ratio = Actual Air Fuel Ratio/Stoichiometric Air Fuel Ratio

Indicated Power given Mechanical Efficiency

Go Indicated Power = Brake Power/(Mechanical Efficiency/100)

Brake Power given Mechanical Efficiency

Go Brake Power = (Mechanical Efficiency/100)*Indicated Power

Mechanical Efficiency of IC engine

Go Mechanical Efficiency = (Brake Power/Indicated Power)*100

Specific Power Output

Go Specific Power Output = Brake Power/Area of Cross Section

Mean piston speed

Go Mean Piston Speed = 2*Stroke Length*Engine Speed

Friction Power

Go Friction Power = Indicated Power-Brake Power

Kinetic Energy Stored in Flywheel of IC Engine Formula

Kinetic Energy Stored in the Flywheel = (Flywheel Moment of Inertia*(Flywheel Angular Velocity^2))/2
E = (J*(ω^2))/2

What is kinetic energy stored in flywheel of iC engine?

The reduction of the rotational vibrations of the crankshaft can be achieved by using a flywheel. A flywheel is a mechanical component designed to store rotational energy (kinetic energy). Flywheels resist changes in rotational speed due to their moment of inertia. The amount of energy stored in a flywheel is proportional to the square of its rotational speed and its mass.

How to Calculate Kinetic Energy Stored in Flywheel of IC Engine?

Kinetic Energy Stored in Flywheel of IC Engine calculator uses Kinetic Energy Stored in the Flywheel = (Flywheel Moment of Inertia*(Flywheel Angular Velocity^2))/2 to calculate the Kinetic Energy Stored in the Flywheel, The Kinetic Energy Stored in Flywheel of IC Engine formula is defined as the stored rotational energy in the form of kinetic energy stored in the flywheel which resist changes in rotational speed due to its moment of inertia. Kinetic Energy Stored in the Flywheel is denoted by E symbol.

How to calculate Kinetic Energy Stored in Flywheel of IC Engine using this online calculator? To use this online calculator for Kinetic Energy Stored in Flywheel of IC Engine, enter Flywheel Moment of Inertia (J) & Flywheel Angular Velocity (ω) and hit the calculate button. Here is how the Kinetic Energy Stored in Flywheel of IC Engine calculation can be explained with given input values -> 10 = (0.2*(10^2))/2.

FAQ

What is Kinetic Energy Stored in Flywheel of IC Engine?

The Kinetic Energy Stored in Flywheel of IC Engine formula is defined as the stored rotational energy in the form of kinetic energy stored in the flywheel which resist changes in rotational speed due to its moment of inertia and is represented as E = (J*(ω^2))/2 or Kinetic Energy Stored in the Flywheel = (Flywheel Moment of Inertia*(Flywheel Angular Velocity^2))/2. Flywheel Moment of Inertia is defined as the flywheel's resistance to rotational changes & Flywheel Angular Velocity is defined as the speed of the flywheel or the number of rotations of the flywheel per second.

How to calculate Kinetic Energy Stored in Flywheel of IC Engine?

The Kinetic Energy Stored in Flywheel of IC Engine formula is defined as the stored rotational energy in the form of kinetic energy stored in the flywheel which resist changes in rotational speed due to its moment of inertia is calculated using Kinetic Energy Stored in the Flywheel = (Flywheel Moment of Inertia*(Flywheel Angular Velocity^2))/2. To calculate Kinetic Energy Stored in Flywheel of IC Engine, you need Flywheel Moment of Inertia (J) & Flywheel Angular Velocity (ω). With our tool, you need to enter the respective value for Flywheel Moment of Inertia & Flywheel Angular Velocity 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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