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Work is done when a force is applied to an object and causes it to move or change its position. In terms of energy, work is done when energy is transferred from one system to another, such as when a force moves an object against a resistance.

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How can you find the initial velocity form the work done on a system?

To find the initial velocity from the work done on a system, you can use the work-energy principle. The work done on the system is equal to the change in kinetic energy of the system. By equating the work done to the change in kinetic energy and solving for the initial velocity, you can find the initial velocity of the system.


How can we use the work-energy theorem to determine the maximum height reached by an object?

The work-energy theorem states that the work done on an object is equal to the change in its kinetic energy. By calculating the work done on an object as it moves against gravity, we can determine the maximum height it reaches by setting the object's kinetic energy to zero at that point.


What happens when you do work on an object?

When work is done on an object, energy is transferred to the object, which can result in a change in the object's state or position. This energy can manifest as kinetic energy (resulting in motion) or potential energy (stored for later use). Work is a measure of the energy transferred to or from an object.


Are mechanical energy and work the same thing?

A1 Mechanical energy is energy produce from raw materials which are burnt, such as oil, work is the use of energy ehich may be mechanical, or physical, which means the use of foods to produce energy which is then used for work, so no, they are not the same thing A2 Energy and work have the same units, ie Joules in the SI system, and the dimensions are Force x Distance, or Newtons x Meters. I always think of work as the use of energy. Thus for example you release energy from a fuel such as gasoline by burning it, and use this energy to do work, ie propelling a car.


What must occur for work to be done on an object?

Formally, energy is required to do work. Work is technically force times distance. Thus, what must occur is a force must be applied to an object and the object must move with some movement being in the direction of the force. The quantity of work done is the "dot" product of the force vector and displacement vector. To carry out work "on an object" or in any fashion requires the same amount of energy be used as the amount of work done. (Of course, friction and other inefficiencies result in the use of more energy than the actual work done, with the excess energy taking some other form, such as heat.)

Related Questions

How do you know work is being done?

work is being done when you use energy


Where you can use energies?

Whenever work is done, energy is used


How can you find the initial velocity form the work done on a system?

To find the initial velocity from the work done on a system, you can use the work-energy principle. The work done on the system is equal to the change in kinetic energy of the system. By equating the work done to the change in kinetic energy and solving for the initial velocity, you can find the initial velocity of the system.


How can we use the work-energy theorem to determine the maximum height reached by an object?

The work-energy theorem states that the work done on an object is equal to the change in its kinetic energy. By calculating the work done on an object as it moves against gravity, we can determine the maximum height it reaches by setting the object's kinetic energy to zero at that point.


What is the measurement of how much work is done in a given?

The measurement of work done is the same measure we use for energy output. This measurement is called the joule and is symbolized simply by the letter j.


What happens when you do work on an object?

When work is done on an object, energy is transferred to the object, which can result in a change in the object's state or position. This energy can manifest as kinetic energy (resulting in motion) or potential energy (stored for later use). Work is a measure of the energy transferred to or from an object.


How does the scientific use of the word efficiency differ from the everyday use of the word?

Energy is scientifically defined as the ability to do work, and power as the rate at which work is done, or the rate at which work is expended.


Why does energy have the ability to do work?

Energy does not have the ability to do work, but we use energy to do work. Work is the application of force over a distance. The amount of energy changes how much work can be done, but energy technically does not do any work.


How much power is used when 600j of work are done in 10seconds?

Use the definition of power as energy / time. Or work / time; it's basically the same thing.


How can you use solar energy for getting mechanical work done?

energies a motor by solar powered batteries to rotate a mechanical wheel.


Are mechanical energy and work the same thing?

A1 Mechanical energy is energy produce from raw materials which are burnt, such as oil, work is the use of energy ehich may be mechanical, or physical, which means the use of foods to produce energy which is then used for work, so no, they are not the same thing A2 Energy and work have the same units, ie Joules in the SI system, and the dimensions are Force x Distance, or Newtons x Meters. I always think of work as the use of energy. Thus for example you release energy from a fuel such as gasoline by burning it, and use this energy to do work, ie propelling a car.


What must occur for work to be done on an object?

Formally, energy is required to do work. Work is technically force times distance. Thus, what must occur is a force must be applied to an object and the object must move with some movement being in the direction of the force. The quantity of work done is the "dot" product of the force vector and displacement vector. To carry out work "on an object" or in any fashion requires the same amount of energy be used as the amount of work done. (Of course, friction and other inefficiencies result in the use of more energy than the actual work done, with the excess energy taking some other form, such as heat.)