14lb/more revs vs 15lb/less revs?

[Ball99999]

I'm kind of curious what might be the best way to go?

[billf]

Depends. What's the difference in revs? Are you sure you will have a difference? My rev rate stayed the same going from 16 to 15. My speed went up slightly so it was closer to being matched.

[Ball99999]

Just practicing at home I can get more revs on my 14..
Not a huge difference but something

[billf]

Don't get caught up with the rev game. Revs are nice but too much of anything is not a good thing (other than sex). Other than that, try it and see if you like what you end up with.

[bowl1820]

I'm kind of curious what might be the best way to go?

Without knowing what your trying to accomplish there would be no way to answer this question.

Dropping one pound in weight would only give you about a 4% gain in rev's. If the core changes in dynamics, that difference can be exaggerated or reduced.

[Ball99999]

It feels easier to bowl with the 14 lber but I have no problem bowling with a 15 lber.
I'm wondering if 15lbs would be better for ball speed since the heavier something is the faster it'll fall.

[bowl1820]

It feels easier to bowl with the 14 lber but I have no problem bowling with a 15 lber.
I'm wondering if 15lbs would be better for ball speed since the heavier something is the faster it'll fall.

The heavier something is the faster it'll fall?????

[Ball99999]

The heavier something is the faster it'll fall?????

Would it not?

[billf]

When objects fall on Earth, they accelerate at 9.8 meters per second per second -- or 9.81 meters per second squared (m/s2 or ms-2) -- which is known as the acceleration due to gravity. The mass (or weight) of the object does not affect the rate of acceleration; all objects accelerate downward at the same rate. exept for certain objects that have a higher air resistance and lower mass E.g. polystyrene and feathers (unless it is in a vacuum- look below)
The above is true for objects falling in a vacuum, which is rarely the case on Earth, where air resistance works against the object and prevents it from picking up more speed. On the moon, which has no atmosphere and is a virtual vacuum, objects accelerate much more slowly than on Earth -- only 1.6 m/s2 -- but achieve much greater velocities in free-fall because there is no air resistance.
More discussion

The above is explaining the acceleration due to gravity. The model for the time it takes for an object to fall from rest under uniform gravitational field is: SQRT(2h)/a), where h is the height of the object and a is the acceleration due to gravity, wherever you may be in the universe. (On Earth, a = 9.81m/s2).

If there is a changing gravitational field -- that is, if you are really far from a massive object, such a planet or star -- then it involves calculus and integrals.
There is a good explanation of how fast things fall on this web site: www ae911truth org
Littlegeek's explaination:
It probably depends on gravity more than weight because a guy once dropped a lage object and a small object (the large object was heavier). They landed on the ground at the exact same time. "

[bowl1820]

I'll just say this: You can throw a 14 pound ball faster than a 15 pound and leave Newtonian Physics and such to others. Which I see billf has done.