lking226 said:I'm not sure what to do with the 30.0 degree angle?
You meant to say W_nc= delta KE + delta PE = 0, which is what you ended up with. When the ball reaches its max height, what is v_fy and what is v_fx?lking226 said:Homework Statement
A ball is ikicked off a 100.0 m canyon at an angle of 30.0 degrees above the horizontal with a velocity of 24.0 m/s. What maximum height does it reach above the canyon floor?
Homework Equations
WNC = KE + PE
The Attempt at a Solution
WNC = 1/2mvf^2 - 1/2mvi^2 + mghf - mghi
1/2mvi^2 + mghi = 1/2mvf^2 + mghf
I'm not sure what to do with the 30.0 degree angle?
lking226 said:so i put that into the conservation of energy formula and solve for final height! thanks!
The conservation of energy is a fundamental principle in physics that states that energy cannot be created or destroyed, but it can be converted from one form to another. This means that the total amount of energy in a closed system remains constant.
When a ball is kicked into a canyon, it gains kinetic energy from the force of the kick. As it travels through the air, it also gains potential energy due to its position above the ground. When it reaches the bottom of the canyon, the ball has converted all of its kinetic and potential energy into thermal energy and sound energy, due to the force of impact and friction with the ground. This is an example of the conservation of energy in action.
The conservation of energy in this scenario is affected by various factors such as the initial force of the kick, the mass and velocity of the ball, the height of the canyon, and the properties of the ground at the bottom of the canyon.
While the conservation of energy is a fundamental principle, it may not always be true in real-life situations due to external factors such as friction, air resistance, and other forms of energy loss. However, the conservation of energy is still a useful concept in understanding and predicting the behavior of physical systems.
The conservation of energy is closely related to other laws of physics, such as the law of conservation of momentum and the law of thermodynamics. These laws all describe the behavior of energy and matter in different contexts, but they all stem from the fundamental principle of the conservation of energy.