Good. You've answered your own question.grizzlyjoker said:I think it isn't conserved because of the transformation of that energy in heat
Mechanical energy in a parachute refers to the combined potential and kinetic energy that is used to slow down and safely land an object or person that is falling from a high altitude.
A parachute converts mechanical energy by utilizing air resistance, also known as drag, to slow down the descent of an object. As the parachute opens, it creates a larger surface area which increases air resistance and reduces the speed of the falling object.
The amount of mechanical energy in a parachute is affected by the weight and surface area of the object, the height from which it is dropped, and the density of the surrounding air. Heavier objects, higher drops, and denser air will result in more mechanical energy being used.
The shape of a parachute plays a significant role in its mechanical energy. A parachute with a larger surface area will experience more air resistance, thus reducing the speed of the falling object and decreasing the amount of mechanical energy used for landing.
Other factors that can affect the mechanical energy in a parachute include the material and design of the parachute, the altitude and wind conditions, and any external forces acting on the falling object. These factors can impact the performance and efficiency of the parachute in converting mechanical energy.