i have been meaning to post this one, for a looong time, but the time was not right, until now...
distance to geo-sync--
(pounds) (foot-pounds) (feet)
(weight) - (force) = (distance)
2000 - 1900 = 100
interposed distance to geo-sync--
(pounds) (feet) (foot-pounds)
(weight) - (distance) = (force)
2000 - 100 = 1900
distance to geo-sync inverted--
(feet) (foot-pounds) (pounds)
(distance) + (force) = (weight)
100 + 1900 = 2000
distance to geo-sync w/drag--
(pounds) (pounds % sq inches) (foot-pounds) (distance)
(weight) + (weight % sq inches) - (force) = (feet)
2000 + 2000 % 2000 = 1 - 1900 = 99
distance to geo-sync for use within the atmosphere--
some folks may have noticed, that there seems to be a "glitch", in "distance to geo-sync"... if you use different combinations of variables...here is the calc for objects within the atmosphere that are not in geo-sync in space( the lateral forces are a bit different than in space)--
interposed distance to geo-sync--
(pounds) (feet) (foot-pounds)
(weight) - (distance) = (force)
100 - 100 = 0 this is not correct--(if in atmosphere)
atmospheric straight drop distance value principal--
the distance( in atmosphere), of an object dropped straight down, always has the value of 1 foot--
example--
(pounds) (feet) (foot-pounds)
(weight) - (distance) = (force)
100 - 1 = 99
lab experiment to verify interposed distance to geo-sync--
pick-up a tork-wrench( with appropriate cert... from the chaps at "loyds of london"), use tork-wrench on the lug-nut of a vehicle( preferably at NASA), make sure the wrench is 1 foot off the ground...(humor, as all distances from the earth's crust "in atmo", are the value of 1 foot)...then balance two cans of soda( "coca-cola", or other), on the end of the tork-wrench, 1 foot-pound of tork should result--
best wishes, john kruschke--
(cs)
distance to geo-sync--
(pounds) (foot-pounds) (feet)
(weight) - (force) = (distance)
2000 - 1900 = 100
interposed distance to geo-sync--
(pounds) (feet) (foot-pounds)
(weight) - (distance) = (force)
2000 - 100 = 1900
distance to geo-sync inverted--
(feet) (foot-pounds) (pounds)
(distance) + (force) = (weight)
100 + 1900 = 2000
distance to geo-sync w/drag--
(pounds) (pounds % sq inches) (foot-pounds) (distance)
(weight) + (weight % sq inches) - (force) = (feet)
2000 + 2000 % 2000 = 1 - 1900 = 99
distance to geo-sync for use within the atmosphere--
some folks may have noticed, that there seems to be a "glitch", in "distance to geo-sync"... if you use different combinations of variables...here is the calc for objects within the atmosphere that are not in geo-sync in space( the lateral forces are a bit different than in space)--
interposed distance to geo-sync--
(pounds) (feet) (foot-pounds)
(weight) - (distance) = (force)
100 - 100 = 0 this is not correct--(if in atmosphere)
atmospheric straight drop distance value principal--
the distance( in atmosphere), of an object dropped straight down, always has the value of 1 foot--
example--
(pounds) (feet) (foot-pounds)
(weight) - (distance) = (force)
100 - 1 = 99
lab experiment to verify interposed distance to geo-sync--
pick-up a tork-wrench( with appropriate cert... from the chaps at "loyds of london"), use tork-wrench on the lug-nut of a vehicle( preferably at NASA), make sure the wrench is 1 foot off the ground...(humor, as all distances from the earth's crust "in atmo", are the value of 1 foot)...then balance two cans of soda( "coca-cola", or other), on the end of the tork-wrench, 1 foot-pound of tork should result--
best wishes, john kruschke--
(cs)
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