Thermal Energy Amplify Test

The temperature of Sample A increased.

The temperature of Sample B increased.

The temperature of Sample A decreased.

The temperature of Sample B decreased.

More heat molecules combine with the molecules in the ground.

The energy of the molecules in the ground decreases.

The energy of the molecules in the ground increases.

The cold energy of the molecules in the ground decreases.

The molecules of the soup in the pot are moving and the molecules of the soup in the freezer are not moving.

The molecules of the soup in the pot are moving faster than the molecules of the soup in the freezer.

There is no difference because all of the soup is made of the same type of molecules.

The molecules of the soup in the freezer are smaller than the molecules of the soup in the pot.

Its energy stays the same while the energy of the plate increases.

Its energy decreases while the energy of the plate increases.

Its energy increases while the energy of the plate increases.

It is impossible to know without data on the number of molecules in each object.

The energy of the molecules in the rice increases.

The cold energy of the molecules in the rice decreases.

The energy of the molecules in the rice decreases.

More heat molecules combine with the molecules in the rice.

There is no difference because both potatoes are made of the same type of molecules.

The molecules of Rico’s potato are smaller than the molecules of Bree’s potato.

The molecules of Bree’s potato are moving and the molecules of Rico’s potato are not moving.

The molecules of Bree’s potato are moving faster than the molecules of Rico’s potato.

the molecules in sample B are brown and have high energy

the molecules in sample A are yellow and have low energy

thermal energy is higher when temperature is lower

there are many more molecules in sample B which make the total energy higher

Before the layers touch, the outer layer is hotter than the inner layer. Once the layers are touching, the outer layer will transfer kinetic energy to the molecules in the cooler inner layer until both layers reach the same temperature, which will be in between their starting temperatures.

Before the layers touch, the outer layer is hotter than the inner layer. Once the layers are touching, the cooler inner layer will gain kinetic energy until the molecules of both layers have an energy of 90, because hotter things increase the temperature of cooler things.

Before the layers touch, the outer layer is cooler than the inner layer. Once the layers are touching, the inner layer will transfer kinetic energy to the molecules in the cooler outer layer until both layers reach the same temperature, which will be in between their starting temperatures.

Before the layers touch, the layers are different temperatures. Once the layers are touching, kinetic energy and cold energy will transfer between the molecules in the two layers until both layers reach the same temperature, which will be in between their starting temperatures.

The smaller bottom pan will be cooler than the larger bottom pan, because less energy has to transfer for the molecules to reach the same temperature as the molecules of the top pan.

The larger bottom pan will be cooler than the smaller bottom pan. It started with more total energy, so less energy had to transfer for both pans to reach the same total energy.

The larger bottom pan will be cooler than the smaller bottom pan, because the energy that transferred to it will have spread out over more molecules.

Both pans will be the same temperature because both of the top pans had the same amount of energy to transfer and the molecules in the bottom pans start with the same energy.

Ralph’s top brick will be cooler than Sheila's top brick, because less energy has to transfer for Ralph’s brick’s molecules to reach the same temperature as the molecules of his bottom brick.

Sheila's top brick will be cooler than Ralph’s top brick, because Sheila’s started with more total energy, so less energy had to transfer for both her bricks to reach the same total energy.

Sheila’s top brick will be cooler than Ralph’s top brick, because the energy that transferred to Sheila’s was spread out over more molecules.

Both will be the same temperature, because both bottom bricks had the same amount of energy to transfer and the molecules in the top bricks started with the same energy.