you first find the Pa(N/m^s) of 60 degrees C. There should be a table in your book that has it (Saturated Vapor Pressure of Water) or just look it up.
From there 60C is about 1.99*10^4 Pa.
If you look for Pa to Atm ratio, there is about 101325 Pa to 1 Atm.
(1.99*10^4)/(101325)= .196 Atm
Water boils at 100 degrees Celsius at standard atmospheric pressure. To reach 60 degrees, it would need to absorb heat from a source hotter than 60 degrees, such as a stove or microwave. This heat would increase the water's temperature until it reaches the boiling point of 100 degrees, at which point it would begin to boil and transition to steam.
Neon is a gas at room temperature and pressure, so it would still be a gas at 60 degrees Celsius.
Pressure in a hydraulic system should be measured at above 60 degrees to account for the potential thermal expansion of the fluid. At higher temperatures, the fluid can expand and affect the accuracy of pressure readings if not compensated for. This helps ensure that the pressure readings are consistent and reliable regardless of temperature variations.
Its kind of improper to say one is colder b/c temperature measures heat. Cold is the absence of hea.. how ever it a simple math conversion for Celsius to Fahrenheit or vice versa... C x 1.8 + 32 = F so 60 degrees Celsius is 140 degrees Fahrenheit
60 degrees Celsius = 140 degrees Fahrenheit.
Water boils at 100 degrees Celsius at standard atmospheric pressure. To reach 60 degrees, it would need to absorb heat from a source hotter than 60 degrees, such as a stove or microwave. This heat would increase the water's temperature until it reaches the boiling point of 100 degrees, at which point it would begin to boil and transition to steam.
Water boils at 100 Celsius.
Celsius uses 0 as the temperature when water freezes. This would be less than useless on Mars, because water would almost always be frozen on Mars. The boiling point of water would be more effective. Why?Because water boils at different temperatures depending on air pressure, and the air pressure on Mars is completely different to that of Earth's, you would need a thermometer where 100 degrees or maybe 0 degrees would be the boiling point of water there.The lower the atmospheric pressure is, the lower the temperature needs to be for water to boil. So, because on Mars the pressure is close to being a complete vacuum, water would boil at about 0 degrees C.Since it's about -60 degrees C on Mars, if 100 degrees Martian units was your boiling point, than (simple math 100- 60) +60 degrees Martian units might be a reasonable average temperature (using this method avoids always having negative numbers for your temperature).
Water boils at different temperatures depending on pressure. In an enclosed container where pressure can build up water can be made to boil at nearly 1000 degrees F. The reverse is also true, at lower pressures water will boil at a temperature less than 212 F. Where I live water boils at about 208 F. Electric power plants and naval vessels take advantage of this by boiling the water at a higher temperature. This very hot steam has more energy and makes the power plant more efficient.
The boiling point of water depends on the air pressure, the standard 100 C boiling point is at sea level.If you boil water at a high enough altitude, or in a vacuum chamber, it will boil at much lower temperatures.Well the hot water contain latent heat that's why it boils at 6o degree centigrade as well at high altitude and in vacuum it boils at low temp.Pradeep Kumar
Maximum temperature of water is the boil temperature. But the boil temperature depends on atmospheric pressure and on salt content of the water. The more atmospheric pressure the more temperature. Boil temperature in mountain can be 60 centigrade. At normal (not high) land it usually 100 centigrade. But, as I said, temperature also depends on salt content (amount of salt) in the water. The more salt the less boil temperature. This way to take high grade boil when you cooking put the salt in to the water at the last moment of cooking.
Yes, for water at 60 degrees Fahrenheit to boil, it must first absorb sensible heat to reach its boiling point of 212 degrees Fahrenheit. Then it must absorb latent heat to undergo the phase change from liquid to gas. This process of absorbing both sensible and latent heat is necessary for the water to transition from a liquid state to a gaseous state.
The vapor pressure of diesel fuel at 60 degrees Celsius is approximately 2.0-2.5 kPa.
The exact temperature at which honey will boil depends on the type of honey. Generally, the boiling point of honey is about 212 degrees Fahrenheit (100 degrees Celsius. Honey boils at about the same temperature as water.
Neon is a gas at room temperature and pressure, so it would still be a gas at 60 degrees Celsius.
House water pressure should be around 50-60 psi.
Technically 1 BTU equals 1,055.05585 joules This is the amount of energy required to raise 1 pound mass of liquid water at 1 atmosphere pressure by 1 degree Fahrenheit from 60 to 61 degrees. You can say "approximately" 150 BTU provided you have liquid water and the 15 degrees change keeps it liquid. When water gets to 212 degrees it begins to boil and the temperature (of pure water) will stay that way until it is boiled away regardless of how many BTU you add to it. Also if the water is under pressure (ie a pressure cooker) the 1 BTU rule does not apply. Likewise at freezing temperatures this rule won't apply nor in vacuums. When talking about energy used to heat water a curve based on temperature and pressure that looks like a "bell curve" is used. By Selecting a pressure on the curve you can determine the amount of energy needed to change temperature. This internal energy is referred to as enthalpy not to be confused with entropy.