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Jordan Pierson
Space-Time Friction
1/5/2
015
Space-time is a flexible fabric of the
cosmos which is an arena in which
planets, stars, comets, dark matter,
Higgs Field, and other things of that
nature all sit in. All the matter that
sits in space-time warps it giving a
gravitational attraction. However
space-time also has friction that
holds galaxies, orbiting planets,
moons and other things of that nature
together.
The
Earth has a gravitational force of
9.80665meters per second squared.
If you drop a baseball ignoring air
resistance that is how fast it will fall.
If you were to throw the baseball fast
enough to escape Earth’s gravity and
orbit the planet, you would have to
throw the baseball 11,176meters per
second with no air resistance and
nothing in the way to block the ball’s
travels. This baseball would be
orbiting the earth never to hit the
ground again. The amount of mass
wouldn’t matter but the speed would.
This baseball would be falling toward
the earth but never actually hitting it.
But
is that actually true? Is the baseball
actually falling? I believe it is just
following the path of warped space-
time with friction that keeps the
baseball from falling toward earth at
9.80665meters per second squared
and/or away from earth. The faster
an object is thrown the slower it falls
toward earth. The baseball would
have to be thrown at
1,139.63484meters per second for
every one meter per second squared
it fell slower toward earth.
If you
were to throw the ball one meter per
second it would fall
0.00087747meters per second
squared slower toward earth.
Meaning for every one meter per
second you subtract 0.00087747
from the gravitational force so the
thrown baseball falls at
9.80577253meters per second.
While the baseball being dropped
falls at 9.80665meters per second.
Of course theoretically speaking
everything would have to be perfectly
accurate with the ground perfectly
level and in a vacuum. Calculating
the measurements with just one
meter per second is extremely hard
to do, but increasing the speed would
make it easier to calculate.
So how do you calculate space-
time friction, and how does it
behave? Well space-time friction in
case you are wondering does not
heat up an object at all, but like the
friction we are familiar with, it does
resist an outside force. Space-time
friction does not push but resists a
push. No space-time friction does
NOT resist an object in motion
weather its moving or falling. It only
affects the gravitational pull on an
object when its in motion.
So how do you measure
space-time friction?
By using the Equation.
.
G
STf=1,139.63484m/s-------------
.
1m/s2Fr
In
this equation STf stands for space-
time friction, the speed in meter per
second after the equal sign is the
speed needed to have a one meter
per second squared resistance force.
The G stands for the gravitational
force, and Fr stands for the friction
resistance. It doesn’t matter what the
gravitational force is, the friction
resistance will be the same according
to the speed in which the object
moves.
So
what would it be like if there was no
space-time friction? The baseball
being theoretically thrown at
11,176meters per second with no
wind resistance or objects in the way
would fall toward earth at
9.80665meters per second squared.
Any faster than that and the object
would simply cover more distance
until it hit the ground but it will always
fall at free fall speed. Now lets say
you throw the baseball
200,000,000meters per second on
earth with no space-time friction or air
friction. The baseball would still fall
at 9.80665meters per second
squared but in one second it would
be past the satellites, and in three
seconds past the moon. At that point
the baseball would be traveling
through space-time freely at its fixed
speed however its direction would
have change from when it was
thrown because of the gravitational
influence.
Without space-time friction
there would be no such thing as orbit
planets and moons.
With no space-
time friction, the moon would spiral
down toward earth. The spiral would
be like that of a nail shell. The
reason being is because every
second the moon would fall faster
toward earth while moving forward.
All the planets would spiral into their
stars and all the stars would spiral in
toward the center of the galaxies,
causing galaxies to collapse in under
their own weight. With space-time
friction, life as we know it would not
exist.
My
Gmail jpierson96@gmail.com
Gmail jpierson96@gmail.com

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Space time friction

  • 1. Jordan Pierson Space-Time Friction 1/5/2 015 Space-time is a flexible fabric of the cosmos which is an arena in which planets, stars, comets, dark matter, Higgs Field, and other things of that nature all sit in. All the matter that sits in space-time warps it giving a gravitational attraction. However space-time also has friction that holds galaxies, orbiting planets, moons and other things of that nature together. The Earth has a gravitational force of 9.80665meters per second squared.
  • 2. If you drop a baseball ignoring air resistance that is how fast it will fall. If you were to throw the baseball fast enough to escape Earth’s gravity and orbit the planet, you would have to throw the baseball 11,176meters per second with no air resistance and nothing in the way to block the ball’s travels. This baseball would be orbiting the earth never to hit the ground again. The amount of mass wouldn’t matter but the speed would. This baseball would be falling toward the earth but never actually hitting it. But is that actually true? Is the baseball actually falling? I believe it is just following the path of warped space- time with friction that keeps the
  • 3. baseball from falling toward earth at 9.80665meters per second squared and/or away from earth. The faster an object is thrown the slower it falls toward earth. The baseball would have to be thrown at 1,139.63484meters per second for every one meter per second squared it fell slower toward earth. If you were to throw the ball one meter per second it would fall 0.00087747meters per second squared slower toward earth. Meaning for every one meter per second you subtract 0.00087747 from the gravitational force so the thrown baseball falls at 9.80577253meters per second. While the baseball being dropped
  • 4. falls at 9.80665meters per second. Of course theoretically speaking everything would have to be perfectly accurate with the ground perfectly level and in a vacuum. Calculating the measurements with just one meter per second is extremely hard to do, but increasing the speed would make it easier to calculate. So how do you calculate space- time friction, and how does it behave? Well space-time friction in case you are wondering does not heat up an object at all, but like the friction we are familiar with, it does resist an outside force. Space-time friction does not push but resists a push. No space-time friction does NOT resist an object in motion
  • 5. weather its moving or falling. It only affects the gravitational pull on an object when its in motion. So how do you measure space-time friction? By using the Equation. . G STf=1,139.63484m/s------------- . 1m/s2Fr In this equation STf stands for space- time friction, the speed in meter per
  • 6. second after the equal sign is the speed needed to have a one meter per second squared resistance force. The G stands for the gravitational force, and Fr stands for the friction resistance. It doesn’t matter what the gravitational force is, the friction resistance will be the same according to the speed in which the object moves. So what would it be like if there was no space-time friction? The baseball being theoretically thrown at 11,176meters per second with no wind resistance or objects in the way would fall toward earth at 9.80665meters per second squared. Any faster than that and the object
  • 7. would simply cover more distance until it hit the ground but it will always fall at free fall speed. Now lets say you throw the baseball 200,000,000meters per second on earth with no space-time friction or air friction. The baseball would still fall at 9.80665meters per second squared but in one second it would be past the satellites, and in three seconds past the moon. At that point the baseball would be traveling through space-time freely at its fixed speed however its direction would have change from when it was thrown because of the gravitational influence. Without space-time friction
  • 8. there would be no such thing as orbit planets and moons. With no space- time friction, the moon would spiral down toward earth. The spiral would be like that of a nail shell. The reason being is because every second the moon would fall faster toward earth while moving forward. All the planets would spiral into their stars and all the stars would spiral in toward the center of the galaxies, causing galaxies to collapse in under their own weight. With space-time friction, life as we know it would not exist. My