Lightning can heat the surrounding air to temperatures exceeding 30,000 degrees Fahrenheit (about 16,500 degrees Celsius). This intense heat causes the air to rapidly expand, creating a shockwave that we perceive as thunder. The rapid expansion and contraction of air, combined with the high temperature, contributes to the phenomenon of thunder accompanying lightning strikes.
Sunlight heats the air by first warming the Earth's surface. The warm ground then heats the air directly above it through conduction. This warm air rises, creating pockets of warmer air that ultimately heat up the surrounding atmosphere.
Yes, if the flame is turned off, the air inside the balloon will gradually cool down. As the balloon rises, the surrounding air temperature decreases, and without the heat from the flame, the warmer air inside the balloon will lose heat to its cooler surroundings. This cooling effect will cause the balloon to become less buoyant over time.
Yes, if the flame is turned off, the air inside the balloon will eventually cool down. As the balloon rises, the surrounding air temperature typically decreases, and without the heat source from the flame, the warmer air inside the balloon will lose heat to the cooler external environment. Over time, this will cause the air inside the balloon to cool, potentially leading to a decrease in buoyancy and causing the balloon to descend.
The fuel used in a hot air balloon is propane gas. It is ignited to heat the air inside the balloon envelope, making it less dense than the surrounding air and causing the balloon to rise.
A hot air balloon is powered by burning propane in the burner, which heats the air inside the balloon envelope. As the air inside the balloon heats up, it becomes less dense than the surrounding air, causing the balloon to rise. The pilot can control the altitude by adjusting the burner intensity to heat the air more or less.
Lightning can heat the surrounding air to over 30,000 degrees Fahrenheit (about 16,600 degrees Celsius). This intense heat causes the air to expand rapidly, resulting in the sound wave we hear as thunder. The rapid expansion and contraction of air create a shockwave, which is why thunder can be heard miles away from the lightning strike.
Lightning can heat the surrounding air to over 30,000 degrees Fahrenheit (about 16,600 degrees Celsius) in a fraction of a second. This intense heat causes the air to rapidly expand, creating a shock wave that results in the sound of thunder. The extreme temperature difference between the lightning bolt and the surrounding air leads to this rapid expansion and contraction, contributing to the characteristic sound and effects of a lightning strike.
a flash can heat the air around it to temperatures five times hotter than the sun's surface. This heat causes surrounding air to rapidly expand and vibrate, which creates the pealing thunder we hear a short time after seeing a lightning flash
when water evaporates it absorbs heat energy and cools the surrounding air
Lightning can heat the surrounding air to temperatures exceeding 30,000 degrees Fahrenheit (about 16,650 degrees Celsius). This intense heat causes the air to expand rapidly, creating a shock wave that we hear as thunder. The extreme temperatures and rapid expansion are responsible for the dramatic effects of lightning strikes.
It loses heat to the surrounding air.
because its really hot it uses its heat
It creates a shield of air to keep the heat in and surrounding cool air out.
Heat energy is transferred from hot water to surrounding air through convection, as the hot water molecules gain kinetic energy and move faster, causing them to rise and transfer heat to the air molecules. This process continues until there is thermal equilibrium between the hot water and the surrounding air.
The water loses heat to the surrounding air.
when air is compressed it heats up because the uncompressed air contains heat. Heat is a form of energy that's all around us even in the coldest winter. Cold is void of heat, cold is caused by the lack of heat energy. That being said, when you compress air containing heat, the heat is also compressed. This causes the tire and the air inside to be warmer that the surrounding area till the heat is dissipated to the surrounding area. The tire and it's air inside becomes the same temperature as the surrounding space. Just remember, heat is a form of energy.
Water can influence air temperature through the process of evaporation and condensation. When water evaporates, it absorbs heat from the surrounding air, cooling it down. Conversely, when water condenses, it releases heat into the air, warming it up. This interaction helps regulate the temperature of the surrounding air.