No. It depends on the 'heat capacity' of the substance involved. That's why we use a hot "water" bottle to keep our feet warm in bed, and not a hot "alcohol" bottle, a hot "jello" bottle etc. Water is capable of holding a lot of heat. When you put 'X' amount of heat into water, its temperature doesn't go up as much as MOST other substances would with the same amount of added heat, so water is a very effective way of storing heat and carrying heat around from place to place.
If they are in close contact, the hot object transfers heat to the cold object until both objects are equal in temperature. After which the temperature loss is reduced at the same rate until both objects have cooled to ambient temperature (the temperature of the surrounding air). If they are not in close contact, then most of the heat is dispersed into the air.
No. You must take into account the mass of the objects AND the specific heat of the objects.
Thermal Equilibrium is achieved when two objects reach the same temperature and exchange energy through heat. Eventually the temperature between the two objects will be equal and will stop exchanging heat. At this point, They are in a state of Thermal Equilibrium.
The temperature of the object will rise because of the heat.
Heat is the amount of energy transferred between objects where a difference in temperature is present. So in that sense, heat is related to temperature differences, but is not the same. The temperature difference is caused by the difference in the avg. speed of particles between the two objects.
No. The quantity of heat that flows out of one is equal to the quantity that flows into the other one, but the changes in temperature don't have to be equal. By the same analogous token, if you were to dip a glass of water out of an Olympic swimming pool, the level of water in the glass might rise 8 inches, but the level in the pool would not drop by too much.
No.
If they are in close contact, the hot object transfers heat to the cold object until both objects are equal in temperature. After which the temperature loss is reduced at the same rate until both objects have cooled to ambient temperature (the temperature of the surrounding air). If they are not in close contact, then most of the heat is dispersed into the air.
No. You must take into account the mass of the objects AND the specific heat of the objects.
No. You must take into account the mass of the objects AND the specific heat of the objects.
Thermal Equilibrium is achieved when two objects reach the same temperature and exchange energy through heat. Eventually the temperature between the two objects will be equal and will stop exchanging heat. At this point, They are in a state of Thermal Equilibrium.
The temperature of the object will rise because of the heat.
Temperature is a scalar quantity. It has magnitude but not direction.
Heat is the amount of energy transferred between objects where a difference in temperature is present. So in that sense, heat is related to temperature differences, but is not the same. The temperature difference is caused by the difference in the avg. speed of particles between the two objects.
An objects temperature and the number of particles
When their temperature is greater than the temperature of the adjacent zones.
The amount of heat a substance can hold.