I would imagine that it is uniform acceleration up until terminal speed. However, wind resistance will be higher 10000 feet up, so acceleration may be less at the start
Increasing.
There were 13880 days, including 10 days in leap years from 1975 to 2012. That makes 1,199,232,000 seconds. However, during this period there were 21 leap seconds, so the correct answer is 1,199,232,021 seconds.
2.6 hours = 2.6*60 minutes = 156 minutes = 156*60 seconds = 9360 seconds.
The amplitude of a pendulum is the distance between its equilibrium point and the farthest point that it reaches during each oscillation.
Around 100. On Tuesdays and Fridays it can take anywhere from 120 to 200, and around double that during a solar eclipse.
A skydiver is increasing their speed during the first three seconds of free fall due to gravity pulling them downwards. As the skydiver falls, their speed will continue to increase until they reach terminal velocity.
is constantly decreasing until it reaches zero when she reaches terminal velocity. At that point, her acceleration is zero and she falls at a constant speed, experiencing air resistance equal in magnitude to her weight.
Increasing.
increase- your speed will increase until terminal velocity is reached. From there it will stay constant.
An updraft can slow a skydiver’s descent by providing lift, which counteracts the force of gravity and delays the attainment of terminal velocity. Conversely, a downdraft increases the downward force, potentially accelerating the skydiver to terminal velocity more quickly. The overall impact of these air currents can create fluctuations in the skydiver's speed and stability during free fall. Ultimately, terminal velocity is reached when the upward and downward forces balance out, regardless of these drafts.
termial velocity has speed direction an acceleration
Speed during free fall can change depending on a skydiver's size and body orientation. In the belly to earth orientation, the speed is about 120 mph. If the skydiver is wearing a wing suit, their vertical speed could be as low as 60 to 70 mph. In a head down orientation, the speed can often be greater than 200 mph.
The drag coefficient of a skydiver can vary depending on their body position during free fall. Generally, the drag coefficient can range from 0.5 to 1.3 for a skydiver in free fall. This coefficient represents the drag force experienced by the skydiver due to the air resistance during descent.
During skydiving, potential energy is transformed into kinetic energy as the person descends towards the ground. As the skydiver falls, gravitational potential energy is gradually converted into motion, increasing their speed until they reach terminal velocity.
A sky diver is falling through a Fluid with a measurable viscosity. The fluid is AIR. Pushing air molecules out of the way, and having them rub along the body of the skydiver's clothing causes friction (heat). This resulting friction on a human sized body results in a terminal velocity of approximately 124 MPH (200 KPH).
During free fall, an object accelerates at a constant rate due to gravity. As the object falls, air resistance increases, causing the acceleration to decrease. Eventually, the object reaches terminal velocity, where the air resistance equals the gravitational force, resulting in a constant velocity.
As a skydiver falls, air resistance causes friction against her body, gradually slowing her down. This friction increases as her speed decreases, ultimately leading to a terminal velocity where the forces of gravity and air resistance balance, resulting in a constant falling speed. This friction also helps stabilize the skydiver's position during free fall.