Plug the following values into that formula to solve for v, terminal velocity. 1  m = mass of the falling object. 2  g = the acceleration due to gravity. On Earth this is approximately 9.8 meters per second per second.  ρ = the density of the fluid the object is falling through.
http://www.wikihow.com/Calculate-Terminal-Velocity
The frictional force of air depends on air pressure and density, shape of the falling body, etc. For example the terminal velocity of a sheet of paper or a balloon is much smaller than the terminal of a BB weighing the same amount. However, you can make an estimate for a human body. It is said, although I've never tried it myself, that the terminal velocity of an ordinary person falling in normal atmosphere at low altitudes is around V0 = 200 kilometers per hour ( ~ 120 mph).
http://van.physics.illinois.edu/qa/listing.php?id=15562
Since the net force on the object is zero, the object has zero acceleration. In fluid dynamics, an object is moving at its terminal velocity if its speed is constant due to the restraining force exerted by the fluid through which it is moving.
https://en.wikipedia.org/wiki/Terminal_velocity
Terminal velocity is the constant maximum velocity reached by a  body falling through the atmosphere under the attraction of  gravity. An object is moving at its terminal ve…locity if its speed  is constant due to the restraining force exerted by the air, water,  or other fluid through which it is moving.
http://www.answers.com/Q/What_is_the_terminal_velocity_of_a_human
Calculate the downward pull of gravity. The force with which the falling object is being pulled down equals the object's mass times acceleration due to gravity, or F = MA. This number, multiplied by two, goes in the top of the terminal velocity formula.
http://www.wikihow.com/Calculate-Terminal-Velocity
It creeps up closer and closer, with the terminal velocity just being the limit. The time it takes to get very close to the terminal velocity VF is a few times VF/g, where g is the gravitational acceleration. Lee discusses that above. The actual form for the time-dependent velocity v(t) is v(t)+VF*tanh(gt/VF). See for more discussion.
http://van.physics.illinois.edu/qa/listing.php?id=15562
Plug the following values into that formula to solve for v, terminal velocity. 1  m = mass of the falling object. 2  g = the acceleration due to gravity. 3  ρ = the density of the fluid the object is falling through. 4  A = the projected area of the object.  C = the drag coefficient.
http://www.wikihow.com/Calculate-Terminal-Velocity
Use the terminal velocity formula, v = the square root of ((2*m*g)/(ρ*A*C)). Plug the following values into that formula to solve for v, terminal velocity. 1  m = mass of the falling object.  g = the acceleration due to gravity. On Earth this is approximately 9.8 meters per second per second.
http://www.wikihow.com/Calculate-Terminal-Velocity
Terminal velocity is when the gravity force upon an object is equal to that of the wind resistance. Roughly 120 mph flat and stable. Head-down is much faster, but is not stable (it takes active control). Terminal velocity is when the gravity force upon an object is equal to that of the wind resistance. Roughly 120 mph flat and stable. Head-down is much faster, but is not stable (it takes active control).
http://www.answers.com/Q/What_is_the_terminal_velocity_of_a_human
Plug the following values into that formula to solve for v, terminal velocity. 1  m = mass of the falling object. 2  g = the acceleration due to gravity. On Earth this is approximately 9.8 meters per second per second. 3  ρ = the density of the fluid the object is falling through.  A = the projected area of the object.
http://www.wikihow.com/Calculate-Terminal-Velocity
what is terminal velocity for humans
The Terminal velocity is equal to 200 Kilometers per hour. The terminal velocity for humans is 120 mph. The terminal velocity for human is 200 kilometers per hour or 120 miles per hour.