This can happen if there is an external force acting on the object. Then the object is accelerating, and its kinetic energy is increasing. The extra energy comes from the external force. Example: Push a Bowling ball on a long table. It keeps rolling faster, its kinetic energy increases, but its potential energy due to its height doesn't change, until it reaches the edge of the table and starts to fall.
If you know the kinetic and potential energies that act on an object then you can calculate the mechanical energy of the object. States that in an isolated system the mechanic energy is constant.
It makes potential and kinetic energy
energy transformation is ruled by energy conservation. For example, potential energy may transform to kinetic energy but the sum of both remains constant before and after transformation.
work, kinetic energy, potential energy, conservation of engergy
This can easily be understood with conservation of energy. Assuming that no energy is lost, potential energy is continuously converted to kinetic energy, and vice versa. At the mean position, the potential energy is zero, therefore the kinetic energy (and hence the velocity) is at maximum.This can easily be understood with conservation of energy. Assuming that no energy is lost, potential energy is continuously converted to kinetic energy, and vice versa. At the mean position, the potential energy is zero, therefore the kinetic energy (and hence the velocity) is at maximum.This can easily be understood with conservation of energy. Assuming that no energy is lost, potential energy is continuously converted to kinetic energy, and vice versa. At the mean position, the potential energy is zero, therefore the kinetic energy (and hence the velocity) is at maximum.This can easily be understood with conservation of energy. Assuming that no energy is lost, potential energy is continuously converted to kinetic energy, and vice versa. At the mean position, the potential energy is zero, therefore the kinetic energy (and hence the velocity) is at maximum.
Mechanical Energy
For any object, the summation of its potential and kinetic energies is constant.
Increasing the speed will increase the KINETIC energy, not the potential energy. Of course, the potential energy may eventually be converted into kinetic energy, for example if the object moves upwards.
If you know the kinetic and potential energies that act on an object then you can calculate the mechanical energy of the object. States that in an isolated system the mechanic energy is constant.
It makes potential and kinetic energy
The Law of Conservation of Energy states that energy can not be created or destroyed, it can only be transformed. So, kinetic energy is not created, it is transformed from potential energy, and vice versa.
It doesn't. Increasing speed affects the KINETIC energy.
Internal energy at the microscopic level and thermodynamic or mechanical energy at the macroscopic level. According to conservation of energy the sum of kinetic and potential energy is zero.
Conservation of energy means the Total energy is constant. So if an object loses a certain amount of potential energy it will gain an equal amount of kinetic energy ,and vice versa, so E = KE + PE doesn't change.
Temperature is directly proportional to kinetic energy (potential energy).eg. increase the temperature, you increase the kinetic energy of the molecules, hence you're increasing the potential energy of them.
secwet
energy transformation is ruled by energy conservation. For example, potential energy may transform to kinetic energy but the sum of both remains constant before and after transformation.