No, at standard pressure.
The critical temperature of octane is approximately 568 degrees Celsius (1054 degrees Fahrenheit). It is the temperature above which the liquid phase cannot exist regardless of pressure.
At 20 degrees Celsius krypton is a gas. You would have to bring the temperature way down to just below -153.22 (yes, negative!) degrees Celsius for krypton to become a liquid, and just below -157.36 degrees Celsius to make it a solid!
Water at 50 degrees Celsius is in the liquid state. At this temperature, water is above its freezing point (0 degrees Celsius) and below its boiling point (100 degrees Celsius), allowing it to exist as a liquid.
At 1000 degrees Celsius, mercury is a gas. Mercury has a boiling point of 356.9 degrees Celsius, so at 1000 degrees Celsius it would be well above its boiling point and exist as a gaseous state.
Yes, like all elements boron can exist as a solid, liquid, or gas.
all three: 0 degrees Kelvin -273 degrees Celsius -460 degrees Fahrenheit I only know that the Lowest Temperature possible is 170 billionths of a degree above absolute ZERO.
The critical temperature of octane is approximately 568 degrees Celsius (1054 degrees Fahrenheit). It is the temperature above which the liquid phase cannot exist regardless of pressure.
This question is about the element not the planet. The answer, which I just found, is 1477 degrees Celsius.
The asthenosphere is the lower portion of the Earth's mantle. Its temperature ranges from 1000 degrees Celsius to 2500 degrees Celsius.
The lowest possible temperature in the universe is absolute zero, which is 0 Kelvin or -273.15 degrees Celsius. At this temperature, molecular motion stops completely. Achieving absolute zero is currently theoretically impossible.
At 20 degrees Celsius krypton is a gas. You would have to bring the temperature way down to just below -153.22 (yes, negative!) degrees Celsius for krypton to become a liquid, and just below -157.36 degrees Celsius to make it a solid!
Liquid water can exist at (and above) 100 degrees Celsius if the pressure is increased above one atmosphere (about 100 000 Pascals). The high pressure squeezes the molecules together, and does not allow them to separate into a gas. This forces it to remain as a liquid, despite the high temperature. Of course, water vapour (steam) can certainly exist above 100 degrees Celsius.If you're interested in how the two phases exist together, if you heat water to 374 degrees Celsius and increase the pressure to 218 atmospheres, the properties of the liquid and the vapour merge together to form only one "supercritical fluid" phase.
At this temperature sodium is a liquid.
Water at 50 degrees Celsius is in the liquid state. At this temperature, water is above its freezing point (0 degrees Celsius) and below its boiling point (100 degrees Celsius), allowing it to exist as a liquid.
It is solid at this temperature at is likely frozen. Keep in mind that negative 150 degrees Celsius is equal to negative 238?ædegrees Fahrenheit.?æ
Yes, it is possible to have water vapor at -10 degrees Celsius, as water vapor can exist in the air at various temperatures. The presence of water vapor depends on the air's humidity and saturation point, which can vary with temperature. However, at -10 degrees Celsius, water vapor may condense into ice or frost if the air reaches saturation. This means that while water vapor can exist at this temperature, it is more likely to be found in solid form under certain conditions.
Because every object has mass but the metric unit of measure is grams