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Video Formulary

Video Generally
Video Axle Load Distribution
Video Payload Distribution
Video Braking Distance
Video Driving Force
Video Work/Energy
Video Radian Measure
Video Tension (brake)
Video Brake Force
Video Brake Pedal
Video Brake Force (wheel)
Video De-/Acceleration
Video Braking Distance
Video Braking Period
Video CO2 emission
Video Density
Video Torque
Video Pressure
Video Injection Quatity
Video Electrical Power
Video Riding Speed
Video Centrifugal Force
Video Gas Speed
Video Speed
Video Coaxial Gearbox
Video Lever Ratio
Video Hollow Cylinder
Video Stroke-bore Ratio
Video Displacement
Video Power Output p.l.
Video Hydraulic Ratio
Video Capacity
Video Piston Speed
Video Piston Force
Video Force
Video Crank Mechan. Forces
Video Fuel Consumption 1
Video Fuel Consumption 2
Video Fuel Consumption 3
Video Ciruit Area
Video Circuit Ring
Video Circumference
Video Clutch Pedal
Video Power (mechanical)
Video Power (effective)
Video Power (indicated)
Video Efficiency Weight
Video Wire Resistance
Video Steering Ratio
Video Volumetric Efficiency
Video Air Ratio
Video Venturi
Video Air Resistance
Video Parallel Circuit
Video Planetary Gearbox
Video Percent
Video Rectangle
Video Rectangle Column
Video Friction Force
Video Tyre Calculation
Video Serial Circuit
Video Rolling Resistance
Video Cam Dwell
Video Dwell Period
Video Slip
Video Spread of Gears
Video Climbing Resistance
Video Ratio
Video Circumference speed
Video Conversions
Video Not Coaxial Gearbox
Video Valve Opening Area
Video Valve Opening Angle
Video Valve Opening Period
Video Compression Ratio 1
Video Compression Ratio 2
Video Amount of Heat
Video Resistance
Video Efficiency
Video Cube
Video Ignition Interval
Video Cylinder



          A B C D E F G H I J K L M N O P Q R S T U V W X Y Z

Formulary Injected Fuel Quantity


All the variables to calculate the injectionquantity

Germanversion

If you look at the range of a modern vehicle and relate this to the revolutions of the engine, or even to each individual cylinder, then it is clear that there is an unimaginably small volume injected before each working cycle. The performance of modern technology will be fully apparent, if the quantities differ at various throttle positions by only a fraction of a cubic millimeter.

Four-stroke engine

Pe·be·1000

VE=


·n·z·30*

Pe·be·1000

n=


VE··z·30*

VE··n·z·30*

Pe=


be·1000

VE··n·z·30*

be=


Pe·1000

*In the case of two-stroke engines, replace with '60'!


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2001-2014 Copyright programs, texts, animations, pictures: H. Huppertz - Email
Translator: Don Leslie - Email: lesdon@t-online.de
Here you can check your calculation:
(Only for four-stroke engines!)

Please enter numbers only in five of the six fields!
Pe Effective performance kW
n RPM 1/min
z Numbers of cylinders
be Specific
Fuel consumption
g/kWh
Density of the fuel g/cm³
VE Injection amount mm³
Places behind the comma: 2 3 4 5

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