Downward Inertia Force on Exhaust Valve as it Moves Upwards Solution

STEP 0: Pre-Calculation Summary
Formula Used
Inertia Force on Valve = Mass of Valve*Acceleration of Valve
Pavalve = m*av
This formula uses 3 Variables
Variables Used
Inertia Force on Valve - (Measured in Newton) - Inertia Force on Valve is the force acting opposite to the direction of valve motion onto the valve.
Mass of Valve - (Measured in Kilogram) - Mass of Valve is the mass (a measure of the amount of matter in valve) of the valve.
Acceleration of Valve - (Measured in Meter per Square Second) - Acceleration of Valve is the acceleration with which the valve opens or closes.
STEP 1: Convert Input(s) to Base Unit
Mass of Valve: 0.45 Kilogram --> 0.45 Kilogram No Conversion Required
Acceleration of Valve: 140 Meter per Square Second --> 140 Meter per Square Second No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
Pavalve = m*av --> 0.45*140
Evaluating ... ...
Pavalve = 63
STEP 3: Convert Result to Output's Unit
63 Newton --> No Conversion Required
FINAL ANSWER
63 Newton <-- Inertia Force on Valve
(Calculation completed in 00.004 seconds)

Credits

Created by Saurabh Patil
Shri Govindram Seksaria Institute of Technology and Science (SGSITS ), Indore
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16 Force on Rocker Arm of Valves Calculators

Total Force on Rocker Arm of Exhaust Valve given Suction Pressure
Go Total Force on Rocker Arm of Exhaust Valve = (pi*Back Pressure on Engine Valve*Diameter of Valve Head^2)/4+Mass of Valve*Acceleration of Valve+(pi*Maximum Suction Pressure*Diameter of Valve Head^2)/4
Total Force on Rocker Arm of Inlet Valve given Suction Pressure
Go Total Force on Rocker Arm of Inlet Valve = Mass of Valve*Acceleration of Valve+(pi*Maximum Suction Pressure*Diameter of Valve Head^2)/4
Total Force on Rocker Arm of Exhaust Valve given Bending Moment near Boss of Rocker Arm
Go Total Force on Rocker Arm of Exhaust Valve = Bending Moment in Rocker Arm/(Length of Rocker Arm on Exhaust Valve Side-Diameter of Fulcrum Pin)
Downward Inertia Force on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve
Go Inertia Force on Valve = Total Force on Rocker Arm of Exhaust Valve-(Spring Force on Rocker Arm Valve+Gas Load on Exhaust Valve)
Initial Spring Force on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve
Go Spring Force on Rocker Arm Valve = Total Force on Rocker Arm of Exhaust Valve-(Inertia Force on Valve+Gas Load on Exhaust Valve)
Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve
Go Gas Load on Exhaust Valve = Total Force on Rocker Arm of Exhaust Valve-(Inertia Force on Valve+Spring Force on Rocker Arm Valve)
Total Force on Rocker Arm of Exhaust Valve
Go Total Force on Rocker Arm of Exhaust Valve = Gas Load on Exhaust Valve+Inertia Force on Valve+Spring Force on Rocker Arm Valve
Maximum Suction Pressure on Exhaust Valve
Go Maximum Suction Pressure = (4*Spring Force on Rocker Arm Valve)/(pi*Diameter of Valve Head^2)
Back Pressure when Exhaust Valve Opens
Go Back Pressure on Engine Valve = (4*Gas Load on Exhaust Valve)/(pi*Diameter of Valve Head^2)
Initial Spring Force on Exhaust Valve
Go Spring Force on Rocker Arm Valve = (pi*Maximum Suction Pressure*Diameter of Valve Head^2)/4
Gas Load on Exhaust Valve when it Opens
Go Gas Load on Exhaust Valve = (pi*Back Pressure on Engine Valve*Diameter of Valve Head^2)/4
Downward Inertia Force on Valve given Total Force on Rocker Arm of Inlet Valve
Go Inertia Force on Valve = Total Force on Rocker Arm of Inlet Valve-Spring Force on Rocker Arm Valve
Initial Spring Force on Valve given Total Force on Rocker Arm of Inlet Valve
Go Spring Force on Rocker Arm Valve = Total Force on Rocker Arm of Inlet Valve-Inertia Force on Valve
Total Force on Rocker Arm of Inlet Valve
Go Total Force on Rocker Arm of Inlet Valve = Inertia Force on Valve+Spring Force on Rocker Arm Valve
Bending Stress in Rocker Arm near Boss of Rocker Arm given Bending Moment
Go Bending Stress in Rocker Arm = Bending Moment in Rocker Arm/(37*Thickness of Rocker Arm Web^3)
Downward Inertia Force on Exhaust Valve as it Moves Upwards
Go Inertia Force on Valve = Mass of Valve*Acceleration of Valve

Downward Inertia Force on Exhaust Valve as it Moves Upwards Formula

Inertia Force on Valve = Mass of Valve*Acceleration of Valve
Pavalve = m*av

Engine Valve Materials

The inlet valve is subjected to comparatively less temperature than the exhaust valve. Therefore, inlet valves are made of nickel-chromium steel. The exhaust valves are made of heat-resistant silicon–chromium steel. For heavy-duty engines, valves are made of chromium-vanadium steel. The valves are heat treated and surface hardness for inlet and exhaust valves is in the range of 250 to 300 HB.

How to Calculate Downward Inertia Force on Exhaust Valve as it Moves Upwards?

Downward Inertia Force on Exhaust Valve as it Moves Upwards calculator uses Inertia Force on Valve = Mass of Valve*Acceleration of Valve to calculate the Inertia Force on Valve, Downward inertia force on exhaust valve as it moves upwards is the pseudo force acting onto the exhaust valve opposite to its direction of travel when it opens. Inertia Force on Valve is denoted by Pavalve symbol.

How to calculate Downward Inertia Force on Exhaust Valve as it Moves Upwards using this online calculator? To use this online calculator for Downward Inertia Force on Exhaust Valve as it Moves Upwards, enter Mass of Valve (m) & Acceleration of Valve (av) and hit the calculate button. Here is how the Downward Inertia Force on Exhaust Valve as it Moves Upwards calculation can be explained with given input values -> 63 = 0.45*140.

FAQ

What is Downward Inertia Force on Exhaust Valve as it Moves Upwards?
Downward inertia force on exhaust valve as it moves upwards is the pseudo force acting onto the exhaust valve opposite to its direction of travel when it opens and is represented as Pavalve = m*av or Inertia Force on Valve = Mass of Valve*Acceleration of Valve. Mass of Valve is the mass (a measure of the amount of matter in valve) of the valve & Acceleration of Valve is the acceleration with which the valve opens or closes.
How to calculate Downward Inertia Force on Exhaust Valve as it Moves Upwards?
Downward inertia force on exhaust valve as it moves upwards is the pseudo force acting onto the exhaust valve opposite to its direction of travel when it opens is calculated using Inertia Force on Valve = Mass of Valve*Acceleration of Valve. To calculate Downward Inertia Force on Exhaust Valve as it Moves Upwards, you need Mass of Valve (m) & Acceleration of Valve (av). With our tool, you need to enter the respective value for Mass of Valve & Acceleration of Valve 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 Inertia Force on Valve?
In this formula, Inertia Force on Valve uses Mass of Valve & Acceleration of Valve. We can use 2 other way(s) to calculate the same, which is/are as follows -
  • Inertia Force on Valve = Total Force on Rocker Arm of Exhaust Valve-(Spring Force on Rocker Arm Valve+Gas Load on Exhaust Valve)
  • Inertia Force on Valve = Total Force on Rocker Arm of Inlet Valve-Spring Force on Rocker Arm Valve
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