The coefficient of thermal expansion depends on the temperature and pressure. It a pressure of 1 atmosphere the coefficient of thermal expansion are:at 4 deg C : –0.1321
at 20 deg C : 0.1212
at 50 deg C : 0.4280
at 100 deg C: 0.7454.
It is 0.015625 millilitres.
If there is no number, then a "1" is implied.
No heavy water in the muffler.
The diffusion coefficient of Fluorescein in water is approximately 4.8 x 10^-6 cm^2/s at 25°C.
Heavy water is water with some gases extracted.if you put it in a barrel and put the barrel in water the barrel would sink.Theonly reason Hitler wanted heavy water was because heavy water is used in atomic bombs.the only place he could get the heavy water was Norway. fortunately the Brit's blew up the only cargo ship carrying the heavy water back to Germany...some heavy water is lost in a lake somewhere in norway...lost in time forever.
Freezing water will expand about 3% linearly as it freezes, then it will contract with a positive expansion coefficient as ice and gets colder. It can be measured using methods such as dilatometer or transducer.
Since there is extensive hydrogen bonding in case of water (two -OH per molecule) unlike ethanol (which has one -OH per molecule) so the intermolecular force difference is there between water and ethanol. Thus the coefficient of volumetric expansion will also be different, 'coz intermolecular force is a direct variable effecting this coefficient......
The coefficient of volume expansion for water is important because it helps us understand how water behaves when temperature changes. This coefficient tells us how much the volume of water will change when its temperature changes. A higher coefficient means water expands more when heated and contracts more when cooled. This knowledge is crucial for various applications, such as in engineering and environmental science, where understanding water's behavior under temperature changes is essential.
Oh, dude, you're hitting me with some science jargon there! So, like, the coefficient of volume expansion for freezing force is basically a fancy way of saying how much a substance's volume changes when it freezes. It's like when you put a can of soda in the freezer and it explodes because the liquid expands as it turns to ice. Just remember, freezing force is no joke, man!
Difference in volume = (initial volume) (coefficient of volume expansion of water) (difference in temperature) coefficient of volume expansion of water=0.0002ml/degree celsius (not sure about the value. Better get help from a teacher.)
27000 mL
This can be found from the steam tables. www.x-eng.com gives steam tables. At different temperatures and pressures wolume of water can be found. To find the coefficient of expansion of water, find the volume at 5degree lower and 5 degree higher at same pressure. Take the mean and divide with the volume of water at desired temperature. Cross check the calculation for which you have the answer. I have used the way and works well. The coefficient of expansion of water changes rapidly with temperature at constant pressure.
it is were it turns on the heat to warm it upThe coefficient of expansion per degree per inch causes the metal to expand and contract making the sounds
When water is heated from 0°C to 10°C, it undergoes thermal expansion and its volume will increase. The exact amount of volume increase will depend on the coefficient of volume expansion for water, which is approximately 0.00021 per degree Celsius.
The coefficient for H2O in an equation represents the number of water molecules. In this case, the coefficient for 4H2O would mean there are 4 water molecules present.
For the most part, liquid water expands when heated, and so does pretty much every material. Water's volumetric expansion is a few hundred parts per million per degree Celsius. The interesting thing about water, though, is that if it's below 4°C it expands as it gets colder, i.e. it has a negative volumetric expansion coefficient.
The answer depends on the coefficient of thermal expansion of water, and the increase in pressure would be very small. In fact, between 0 and 4 deg C, water contracts and so the pressure will drop!