Glass
The temperature of a substance with a large amount of thermal energy will be higher compared to a substance with lower thermal energy. Thermal energy is directly related to temperature, so as the amount of thermal energy increases, the average kinetic energy of the particles in the substance increases, leading to a higher temperature.
Yes, the more substance you have, the slower the temperature change.
Substances with a large amount of thermal energy have higher average speeds of particle motion. This is because thermal energy increases the kinetic energy of particles, causing them to move faster. The average speed of particle motion can be quantified using temperature, where higher temperatures correspond to higher average speeds of particles.
If you have a small amount of thermal energy in a small area then the area will heat up faster. If you have the amount of thermal energy in a large area then you are hopeless. The same amount of thermal energy will be transferred to the air. But in a larger room there are always many more particles. Each particle only gets a tiny share of the extra energy. The average energy of the particles increases, but only a tiny bit. The temperature rises, but not very much. Science Focus 7 textbook
The top 10 feet of the ocean contains a large amount of thermal energy due to its high heat capacity. This thermal energy is comparable to the total amount of thermal energy present in the entire atmosphere, highlighting the significance of the oceans in regulating Earth's climate system.
The temperature of a substance with a large amount of thermal energy will be higher compared to a substance with lower thermal energy. Thermal energy is directly related to temperature, so as the amount of thermal energy increases, the average kinetic energy of the particles in the substance increases, leading to a higher temperature.
Yes, the more substance you have, the slower the temperature change.
yes.
Substances with a large amount of thermal energy have higher average speeds of particle motion. This is because thermal energy increases the kinetic energy of particles, causing them to move faster. The average speed of particle motion can be quantified using temperature, where higher temperatures correspond to higher average speeds of particles.
If you have a small amount of thermal energy in a small area then the area will heat up faster. If you have the amount of thermal energy in a large area then you are hopeless. The same amount of thermal energy will be transferred to the air. But in a larger room there are always many more particles. Each particle only gets a tiny share of the extra energy. The average energy of the particles increases, but only a tiny bit. The temperature rises, but not very much. Science Focus 7 textbook
The top 10 feet of the ocean contains a large amount of thermal energy due to its high heat capacity. This thermal energy is comparable to the total amount of thermal energy present in the entire atmosphere, highlighting the significance of the oceans in regulating Earth's climate system.
Even though the lava may be flowing slowly down the volcano, its particles are moving quickly. Because the particles have a large amount of kinetic energy, the lava has a large amount of thermal energy.
Basically, the fission or splitting of the nucleus of Uranium 235 or Plutonium 239, which releases a large amount of thermal energy
Water has a high heat capacity, which can be described as "thermal inertia". That means that water can absorb a large amount of heat energy.
they have a very large amount of air present in them, plastic is a bad conductor
No.Thermal energy refers to the amount of heat energy a mass holds.Temperature refers to how hot a mass is.* They are related but they are not the same. If the temperature of a mass is increased, the thermal energy of that mass will also increase.AnswerThe term, 'thermal energy', is obsolete, having been replaced with the term, 'internal energy'. Internal energy and temperature are linked in the sense that the higher a body's internal energy, the higher its temperature. However, internal energy also depends on the state of a body. For example, water and ice can coexist at zero degrees Celsius, but the water will always have a higher internal energy than the ice at that temperature.These days, 'heat' is defined as energy in transit between a hotter body and a cooler body. It's NOT the same thing as internal energy.
The energy produced when 1kg of a substance is fully converted into energy is given by Einstein's famous equation E=mc^2, where E is the energy produced, m is the mass of the substance (1kg in this case), and c is the speed of light. This equation shows that a large amount of energy can be generated from a small amount of mass.