FormulaDen logo
FormulaDen.com
Search
Physics Chemistry Math Chemical Engineering Civil Electrical Electronics Electronics and Instrumentation Materials Science Mechanical Production Engineering Financial Health
Fx Copy
LaTeX Copy
Gas Load on Exhaust Valve is the amount of force acting on the inner side of the exhaust valve due to the back pressure or cylinder pressure when the exhaust valve opens. Check FAQs
Pg=Pe-(P+Psr)
Pg - Gas Load on Exhaust Valve?Pe - Total Force on Rocker Arm of Exhaust Valve?P - Inertia Force on Valve?Psr - Spring Force on Rocker Arm Valve?

Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve Example

With values
With units
Only example

Here is how the Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve equation looks like with Values.

Here is how the Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve equation looks like with Units.

Here is how the Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve equation looks like.

1712.5Edit=1926Edit-(115Edit+98.5Edit)
Solution
Copy
Reset
Share
You are here -

Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve Solution

Follow our step by step solution on how to calculate Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve?

FIRST Step Consider the formula
Pg=Pe-(P+Psr)
Next Step Substitute values of Variables
∴ Pg=1926N-(115N+98.5N)
Next Step Prepare to Evaluate
∴ Pg=1926-(115+98.5)
LAST Step Evaluate
∴Pg=1712.5N

Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve Formula Elements

Variables
Gas Load on Exhaust Valve
Gas Load on Exhaust Valve is the amount of force acting on the inner side of the exhaust valve due to the back pressure or cylinder pressure when the exhaust valve opens.
Symbol: Pg
Measurement: ForceUnit: N
Note: Value should be greater than 0.
Formulas to find Gas Load on Exhaust ValveOpen Variable
Total Force on Rocker Arm of Exhaust Valve
Total Force on Rocker Arm of Exhaust Valve is the total force acting onto the rocker arm of the exhaust valve.
Symbol: Pe
Measurement: ForceUnit: N
Note: Value should be greater than 0.
Formulas to find Total Force on Rocker Arm of Exhaust ValveOpen Variable
Inertia Force on Valve
Inertia Force on Valve is the force acting opposite to the direction of valve motion onto the valve.
Symbol: P
Measurement: ForceUnit: N
Note: Value should be greater than 0.
Formulas to find Inertia Force on ValveOpen Variable
Spring Force on Rocker Arm Valve
Spring Force on Rocker Arm Valve is the force exerted by a compressed or stretched spring upon any object that is attached to it.
Symbol: Psr
Measurement: ForceUnit: N
Note: Value should be greater than 0.
Formulas to find Spring Force on Rocker Arm ValveOpen Variable

Other Formulas to find Gas Load on Exhaust Valve

​Go Gas Load on Exhaust Valve when it Opens
Pg=π⋅Pb⋅dv24

Other formulas in Force on Rocker Arm of Valves category

​Go Back Pressure when Exhaust Valve Opens
Pb=4⋅Pgπ⋅dv2
​Go Downward Inertia Force on Exhaust Valve as it Moves Upwards
P=m⋅av
​Go Initial Spring Force on Exhaust Valve
Psr=π⋅Psmax⋅dv24
​Go Maximum Suction Pressure on Exhaust Valve
Psmax=4⋅Psrπ⋅dv2

How to Evaluate Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve?

Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve evaluator uses Gas Load on Exhaust Valve = Total Force on Rocker Arm of Exhaust Valve-(Inertia Force on Valve+Spring Force on Rocker Arm Valve) to evaluate the Gas Load on Exhaust Valve, The Gas load on exhaust valve given total force on rocker arm of exhaust valve is the amount of force acting on the inner side of the exhaust valve due to the back pressure or cylinder pressure when the exhaust valve opens. Gas Load on Exhaust Valve is denoted by Pg symbol.

How to evaluate Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve using this online evaluator? To use this online evaluator for Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve, enter Total Force on Rocker Arm of Exhaust Valve (Pe), Inertia Force on Valve (P) & Spring Force on Rocker Arm Valve (Psr) and hit the calculate button.

FAQs on Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve

What is the formula to find Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve?
The formula of Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve is expressed as Gas Load on Exhaust Valve = Total Force on Rocker Arm of Exhaust Valve-(Inertia Force on Valve+Spring Force on Rocker Arm Valve). Here is an example- 1712.5 = 1926-(115+98.5).
How to calculate Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve?
With Total Force on Rocker Arm of Exhaust Valve (Pe), Inertia Force on Valve (P) & Spring Force on Rocker Arm Valve (Psr) we can find Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve using the formula - Gas Load on Exhaust Valve = Total Force on Rocker Arm of Exhaust Valve-(Inertia Force on Valve+Spring Force on Rocker Arm Valve).
What are the other ways to Calculate Gas Load on Exhaust Valve?
Here are the different ways to Calculate Gas Load on Exhaust Valve-
  • Gas Load on Exhaust Valve=(pi*Back Pressure on Engine Valve*Diameter of Valve Head^2)/4OpenImg
Can the Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve be negative?
No, the Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve, measured in Force cannot be negative.
Which unit is used to measure Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve?
Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve is usually measured using the Newton[N] for Force. Exanewton[N], Meganewton[N], Kilonewton[N] are the few other units in which Gas Load on Exhaust Valve given Total Force on Rocker Arm of Exhaust Valve can be measured.
About | Contact | Disclaimer | Terms | Privacy Policy
© 2024. Developed & Maintained by softUsvista Inc.
Copied!