The STANDARD force, and/or weight

"Don1" <[Only registered users see links. ]> wrote in message
news:1114711384.263894.109810@g14g2000cwa.googlegr oups.com...

isnt all you're saying though don is that mass is invariant?

"Don1" <[Only registered users see links. ]> wrote in message
news:1114735255.990248.96120@o13g2000cwo.googlegro ups.com...

Take your own advice and stop posting foolishness on here every day.
Really. You're done. Stick a fork in you. Physics don't give a rat's ass
about your condition.

Go away, and do something useful, like being landfill.

"Jeremy Watts" <[Only registered users see links. ]> wrote in message
news:J1kce.11335$[Only registered users see links. ].net...

<snip>


All that sHead *ever* says is whatever he thinks will get people fired up
enough to respond to him, preferably taking him seriously.

I laugh at him - he doesn't seem to like that.


Tom Davidson
Richmond, VA

Morituri-|-Max wrote:
foolishness.
rat's ass

Bu-who; considereng the source, I'm completely crushed

Don

tadchem wrote:
fired up
Why should I like that any more than I liked it 40 years ago, when that
darn camel at Benson's Animal Farm spit in my face from a good 15'. It
taught me something about camels(:^)

Don

"tadchem" <[Only registered users see links. ]> wrote in message
news:[Only registered users see links. ]...

Ha Ha Ha! Ha Ha Ha! They're coming to take him away ha ha! They're coming
to take him away ho ho! To a funny farm! Next chorus please!

Morituri-|-Max wrote:
fired up
coming

OH, how I detest your senses of humor(;^[

Don

Jeremy Watts wrote:
and/or
of
are
a
in
system,
want
mass,
"inertial
its
But do you know _why_ Jeremy? Do you know that it's because the ratio
of any given body's weight (w) divided the acceleration of free fall at
the location where it is weighed is a Constant; invariant? Which is
equal to the net force (f) exerted on and/or by it, divided by the
acceleration (a), or deceleration that it causes; so that (m=w/g=f/a).

Don

Don1 wrote:
this
(g)
as
because
consistent
its
the
m/sec/sec,
net
anywhere;
at
(m=w/g=f/a).

We can make quite a play on words here as to how force, and weight are
related to mass:

We can say that weight is the force that a given mass of matter exerts
on Earth's surface; or we can say that force is the thrust that
accelerates a mass of matter; or that a force of one pound will
accelerae a given mass of matter at a certain acceleration; or that a
weight of one pound will accelerate a certain mass at a certain rate...

Don

"Don1" <[Only registered users see links. ]> wrote in message
news:1114996164.771468.131330@o13g2000cwo.googlegr oups.com...

and?