Kinematics

I do not have any answer concerning the converting of sound energy into kinetic energy.

But concerning heat energy, the most common and most effective means is through a heat engine. It is a machine for changing heat into motion or kinetic energy.

The most popular of these engines are the internal-combustion engine and the external-combustion engine.

The two factors that determine how much kinetic energy something has are its mass and its velocity. The kinetic energy of an object is directly proportional to both its mass and the square of its velocity.

26 miles per hour = 41.842944 kilometers per hour

89.48 Miles Per Hour

It is equal to 1/2 MV2, M=mass, V=velocity

40 Joules. This would also mean that the ideal included zero mass or elasticity in the "string" of the bow, friction is non-existent, and it is accomplished in a vacuum.

The slope of the static friction vs normal force represents the coefficient of static friction. This coefficient indicates the maximum frictional force that can be exerted between two surfaces before one begins to slide over the other.

2140 kilometers per hour is equivalent to approximately 1330 miles per hour.

Correct and easier way:

Kinetic friction is just a part of magnitude of forces affecting an object, so it can be multiplied by g(9.81) to get the total acceleration essentially.

Coefficient(.3)=F(friction)/F(normal)

So multiply .3 by g(9.81) to get 2.943

-2.943 is the acceleration of the object, as it's slowing down)

So then, simply multiply by time (1.3) to get a Vi of 3.8259

Ffriction = -0.3 * m * g = m * a

a = -0.3 * g

So if we integrate over time:

v(t) = -0.3 * g * t + v(0)

We know that v(t=1.3) = 0. So we can place it in the equation.

v(t=1.3) = 0 = -0.3 * g * 1.3 + v(0)

v(t=0) = 0.3*1.3*g = 0.39 * g = 0.507 meters per second

I am assuming the initial speed is 6.2 m/s

Let upward motion be positive!

Gravity decreases the speed by 9.8 m/s each second

Acceleration due to gravity = -9.8 m/s each second (negative because gravity accelerates objects downward)

Find time to reach the top of the path!

Final velocity at the top = 0 m/s

Initial velocity = 6.2 m/s

Final velocity = Initial velocity + acceleration * time

Time - = (final velocity - initial velocity) ÷ acceleration

Time = (0 - 6.2) ÷ -9.8 = 0.633 seconds (to reach top)

The path is symmetrical.

0.633 seconds to reach top and 0.633 seconds to reach glove again.

Total time = 12.66 seconds

When you increase the speed while keeping mass constant, the kinetic energy increases. Kinetic energy is directly proportional to the square of the velocity, so as speed increases, kinetic energy increases even more rapidly.

E = ½mV² → V = √(2E/m)

The mass of a 1 N weight (on earth) is 1/9.8 kg

Ergo,

V = √(2*1/(1/9.8)) = √19.6 = 4.43 m/s

The dimension that controls time in falling body and projectile motion problems is vertical displacement, usually denoted as "y". Time affects how far an object falls or how far it travels horizontally in projectile motion. The equations of motion used to solve these problems involve time as a variable to calculate the position or velocity of the object at a given time.

The equation is K.E. = ½ * mass * velocity2

Kinetic energy is a measure of an object's energy due to the fact that has mass and is moving.

So as long as the ball has mass and is moving, it has kinetic energy.

Since all tables have friction the marble will slow down as to rolls and lose some KE.

Potential Energy = mass * acceleration due to gravity * height.

However since the ball is on a table (height), it also has potential energy. If one end of the table is a little higher than the other, it will gain potential energy as it rolls up the little hill, of course as it rolls up that little hill, it will lose the same amount of kinetic energy as the potential energy it gained.

This is called "Conservation of Energy".

140 kilometers per hour is approximately equivalent to 87 miles per hour.

is converted to potential energy as it goes higher.

The top speed of a 2006 Can-Am Outlander 800 4x4 is approximately 65-70 mph. Keep in mind that actual top speeds may vary depending on various factors such as terrain, rider weight, and maintenance of the vehicle.

The blocks will accelerate together due to the force applied and the absence of friction. The acceleration of the system will depend on the net force acting on it, which is equal to the applied force minus the tension in the strings. The relationship between the masses and the tension in the strings can be determined using Newton's second law.

The kinetic energy of an object is given by the formula KE = 0.5 * m * v^2, where m is the mass of the object and v is its velocity. Plugging in the values, the kinetic energy of the bicycle can be calculated as KE = 0.5 * 25 * (1.5)^2 = 28.125 J.

120 knots is equivalent to approximately 138 miles per hour or 222 kilometers per hour.

22.73 mph

it varies depending on the wheel size being regular on l meaning large. but its usually between 70-85 mph...85 being a good day