To explain this, you will need to keep in mind a mathematical formula:
Force applied on bungee jumper = mass of bungee jumper x (initial speed - final speed) / time taken for change in momentum
F = m x (vi - vf) / t
Let's say the bungee jumper was falling at an initial speed of vi. If he was to be halted, the final speed, vf = 0. If he was halted very suddenly, i.e. in a short time, the value of Force applied on the bungee jumper would be very large, which would be dangerous.
Now if he was to be halted gradually over a longer period of time, the value of the force applied on him would be smaller, slowly decelerating him until rest.
Gravity, Friction and Mass
Yes, potential energy is an energy something has because of its position in a gravitation field. Thus the jumper standing on the bridge before the jump has gravitational potential energy. When the jumper jumps the gravitational potential energy is converted into kinetic energy (the energy something has because of it motion) an is also stored in the rubber band as elastic strain energy. When the energy stored in the rubber band exceeds the kinetic energy the jumper halts and bounces back and the energy in the rubber is re converted into potential energy. The jumper oscillates on the rubber rope until the energy loss due to friction and wind resistance uses up the potential energy present in the system at the start of the jump and the jumper hangs still from the rope.
It makes the parachute, jumper,and a pendulum to decrease speed.
Yes, objects can accelerate at a rate greater than "g". Most objects, when falling in the absense of air resisitance, accelerate at a uniform rate of -9.81 m/s^2 (this is under ideal conditions on Earth). Air resistance tends to decrease that acceleration. The classic example of greater than "g" acceleration is a bungee jumper.
A parachutist or parachute jumper voluntarily jumps from a plane. A non-voluntary jumper would be a victim of foul play.
Gravity
AJ Jackett
a rubber bandit
Jumper error. 99% of the time the reason the jumper dies or is injured is because they, the jumper caused a equipment failure or a misscalcualtion if it is a self bungee jump.
Gravity, rope, and friction
Gravity, Friction and Mass
Well, it depends on what you mean. If you mean when they bungee jump, then it helps them not fall and it stretches to a distance there it will pull the bungee jumper up or to a certain height.
One should thoroughly research the equipment, safety measures and physical requirements involved before becoming a bungee jumper. Taking classes is recommended to avoid possible tragic consequences of being untrained.
Bungee jumping equipment would cost about one hundred dollars, depending on how intense you want to bungee jump. If you are a casual jumper, then it should cost about one hundred us dollars.
The oldest bungee jumper that I have seen documented, is Mohr Keel, who jumped at age 96, from the Bloukrans Bridge in South Africa. I have seen a claim on a bungee site, saying that the oldest bungee jumper was age 100, but I can only vouch for the 96 year old. You can see his jump at the following link: Best%20U%20Tube%20video%20links/The%20Worlds%20Oldest%20Bungy%20Jumper%20-%20CNN%20iReport.webarchive
smooth rocks create less friction on air.
A little, but not so that it matters. It'd depend on whether you'll want to ignore wind resistance or not. If they were jumping in a vacuum then weight wouldn't matter at all, but if you'd have one thin guy in fluffy clothes and a heavy guy in a skin tight slick suit, then the heavy guy would fall faster. For any combination of reasonable circumstances the difference would be too small to matter. and blah blah blah