The potential energy is 147 joules.
When lifting a box from the floor, the energy is transferred from your muscles to the box in the form of mechanical energy. The potential energy of the box increases as it is lifted against gravity. Additionally, some energy is also transferred to the surroundings in the form of heat due to friction and air resistance.
The potential energy of the box is given by the formula PE = mgh, where m is the mass of the box (5 kg), g is the acceleration due to gravity (9.81 m/s^2), and h is the height lifted. If the height is given, you can calculate the potential energy using this formula.
When a box is picked up and placed on a shelf, the main types of energy involved are mechanical energy (kinetic energy when the box is being lifted and potential energy when it is placed on the shelf) and gravitational potential energy (due to its position in the Earth's gravitational field). Heat energy may also be generated due to friction between the box and the person picking it up or the shelf.
The work done is equal to the change in potential energy, which can be calculated as (mass x gravity x height). Plugging in the values: (200 kg x 9.8 m/s^2 x 5 m) = 9800 J. Therefore, 9800 joules of work are done when the box is lifted 5 meters above the floor.
The potential energy of the one-kilogram box of chocolates on the shelf is (19.6,J) when it is 2 meters above the floor. This value is calculated using the formula for gravitational potential energy: (PE = mgh), where (m) is the mass, (g) is the acceleration due to gravity, and (h) is the height.
When lifting a box from the floor, the energy is transferred from your muscles to the box in the form of mechanical energy. The potential energy of the box increases as it is lifted against gravity. Additionally, some energy is also transferred to the surroundings in the form of heat due to friction and air resistance.
The potential energy of the box is given by the formula PE = mgh, where m is the mass of the box (5 kg), g is the acceleration due to gravity (9.81 m/s^2), and h is the height lifted. If the height is given, you can calculate the potential energy using this formula.
When a box is picked up and placed on a shelf, the main types of energy involved are mechanical energy (kinetic energy when the box is being lifted and potential energy when it is placed on the shelf) and gravitational potential energy (due to its position in the Earth's gravitational field). Heat energy may also be generated due to friction between the box and the person picking it up or the shelf.
The work done is equal to the change in potential energy, which can be calculated as (mass x gravity x height). Plugging in the values: (200 kg x 9.8 m/s^2 x 5 m) = 9800 J. Therefore, 9800 joules of work are done when the box is lifted 5 meters above the floor.
4905j
The potential energy of the one-kilogram box of chocolates on the shelf is (19.6,J) when it is 2 meters above the floor. This value is calculated using the formula for gravitational potential energy: (PE = mgh), where (m) is the mass, (g) is the acceleration due to gravity, and (h) is the height.
Nothing really causes potential energy as it is merely just energy in storage. For example, water has energy in its chemical bonds, but the potential energy will only be released when the bonds are broken.
m=1kg g=9.8 h=1m mgh is the formula for potential energy you IDIOT
the box when it is inclined will have greatest potential energy on the top corners only.
Here are two physics problems involving work and gravitational potential energy: Problem 1: A 5 kg box is lifted 2 meters vertically against gravity. Calculate the work done in lifting the box and the change in gravitational potential energy. Problem 2: A 10 kg object is pushed horizontally across a frictionless surface for a distance of 5 meters. Calculate the work done in pushing the object and the change in gravitational potential energy if the object is then lifted 3 meters vertically.
Most of the energy related to lifting something up is related to gravitational potential energy, so you basically use the formula for gravitational potential energy: GPE = mgh (mass x gravity x height)
Are you referring to the biological energy transformations involved in the body of a person actually lifting a box? Or are you referring to the act of imbuing an inanimate object with potential kinetic energy? If it is the latter; You are investing Potential Kinetic Energy in the box when you put it up on a shelf. If your body were 100% efficient, it should have expendeded as much energy in raising the box as the box then possesses. Because the box can fall, it will have the potential to transform its potential kinetic energy into actual kinetic energy, by virtue of its mass and velocity. It could do work, like falling on a lever which propelled a weight up a column and rang a bell on the top. If it is the former... I don't know.