At 3000 rpm (revolutions per minute), each intake valve would open and close 1500 times in one minute. This is because the intake valve opens once for every two revolutions of the engine, so at 3000 rpm, each valve would open 1500 times.
To convert 3000 revolutions per minute (rpm) into gravitational force (g), you can use the formula for centripetal acceleration: ( a = \frac{(2\pi \times \text{rpm})^2 \times r}{60^2} ). Here, ( r ) is the radius in meters. To express acceleration in terms of g, divide the result by the acceleration due to gravity (approximately 9.81 m/s²). The final result will give you the acceleration in g's.
3000 = (100*3000) % = 300,000%
13% of 3000= 13% * 3000= 0.13 * 3000= 390
26% of 3000 = 26% * 3000 = 0.26 * 3000 = 780
Anyone?
To convert RPM to RCF you need to know the rotational radius of the item that is spinning. Then you can use the following calculation: RCF = 0.00001118 * r * RPM2 (where r = rotational radius in cm) or I have found a neat little calculator that does it for you. http://www.djblabcare.co.uk/djb/info/6/User_Tools Brads
3000 rpm is red line. Red line is about 3000 rpm,
RCF
RPM stands for Revolutions-Per-Minute, and is counted at the crankshaft. At 3000 RPM the engine is spinning twice as fast as at 1500 RPM.
3000 rpm or lower
An engine that vibrates at 3000 RPM has an issue with balance. The harmonic balancer or the crankshaft can become out of alignment.
3000 RPM
54 at 3000 rpm
G-force (acceleration due to gravity) is a measure of the force applied to particles in a centrifuge, while RPM (revolutions per minute) is a measure of how fast the rotor of the centrifuge is spinning. The relationship between g and RPM depends on the rotor size and radius. RPM alone doesn't provide information on the actual force being applied to the particles, which is why g-force is often used as a more reliable measure in centrifugation.
Torque 425 @ 2000 RPM; Horsepower 215 @ 3000 RPM
210 HP @ 5000 RPM and 214 TQ @ 3000 RPM