Matter, space & time

There are only three concepts required in "Euclidean Physics": They are
Matter, moving in (Euclidean) Space, during Time. Each requires a
dimension to measure it's quantity:

The dimensions to measure quantities of matter are the mutual physical
thrusts exerted by bodies of matter to cause mutual rates of
displacement (s/t^2) from where they were in Euclidean Space.

The dimensions to measure rates of displacements in Euclidean Space are
displacement (s), and periods of time (t).

The quantity of matter in a given body of it is Inertia; which is the
ratio of the net thrust, or force (f), exerted on, and/or by it,
divided by the rate of displacement (s/t^2) that it causes.

Mathematically, a body's Inertia (I) equals the net force (f), divided
by the rate of displacement (s/t^2) that it causes; which is most
concisely written as I=ft^2/s, and is equal to the body's weight (w),
divided by the rate (g/2) at which it will free fall at the location
where it is weighed; in vacuum.

Don

"Don1" wrote in message
oups.com...

There are only three concepts required in "Euclidean Physics": They are
Matter,

nope, Mass

moving in (Euclidean) Space, during Time. Each requires a
dimension to measure it's quantity:

The dimensions to measure quantities of matter are the mutual physical
thrusts exerted by bodies of matter to cause mutual rates of
displacement (s/t^2) from where they were in Euclidean Space.

no, Mass


The dimensions to measure rates of displacements in Euclidean Space are
displacement (s), and periods of time (t).

you mean velocity rates,


The quantity of matter in a given body of it is Inertia; which is the
ratio of the net thrust, or force (f), exerted on, and/or by it,
divided by the rate of displacement (s/t^2) that it causes.

You mean Mass


Mathematically, a body's Inertia (I) equals the net force (f), divided
by the rate of displacement (s/t^2) that it causes; which is most
concisely written as I=ft^2/s, and is equal to the body's weight (w),
divided by the rate (g/2) at which it will free fall at the location
where it is weighed; in vacuum.

If it is in free fall it has no weight.


Don

Order...., why not? An object is only in free fall within a
gravitational field wherein it has weight.