0.5atm
It would contain about that much gas. As much as u put into it.
This problem can be solved with the ideal gas law. The original pressure and volume of the container are proportional the final pressure and volume of the container. The original pressure was 1 atmosphere and the original volume was 1 liter. If the final volume is 1.8 liters, then the final pressure is 0.55 atmospheres.
rams of X2O3 gas makes 2 atm pressure at 273 C in a 8.96 liter container. So, howmany g.mol is the molar mass of the X atom of the X atom (O:16)?
P1*V1 = P2*V13.0 ATM * 5.0 L = 1.0 ATM *V2 V2 = (3.0 ATM / 1.0 ATM) * 5.0 L V2 = 15L
xenon <><><><><> Any element that is a gas will uniformly fill a closed 2.0 liter container at STP, or, actually, at any condition.
If you add pressure to the system, minimise the size of the container that the oxygen is in and you can compress 10l to 1l of oxygen as it is a gas
0
It would contain about that much gas. As much as u put into it.
There is most likely a more efficient way to do this, but this is the best I can do for now.Notation: ( x , y ) where x is the amount of water in the 5-liter container and y is the amount of water in the 7-liter container1. Fill the five-liter container ( 5 , 0 )2. Pour the five-liter container into the seven-liter container ( 0 , 5 )3. Fill the five-liter container ( 5 , 5 )4. Fill the seven-liter container with the five-liter container, leaving 3 liters in the five-liter container ( 3 , 7 )5. Pour out the seven-liter container ( 3 , 0 )6. Pour the five-liter container into the seven-liter container ( 0 , 3 )7. Fill the five-liter container ( 5 , 3 )8. Fill the seven-liter container with the five-liter container, leaving 1 liter in the five-liter container ( 1 , 7 )9. Pour out the seven-liter container ( 1 , 0 )10. Pour the five-liter container into the seven-liter container ( 0 , 1 )11. Fill the five-liter container ( 5 , 1 )12. Pour the five-liter container into the seven-liter container ( 0 , 6 )
One liter of oxygen (O2) gas at standard temperature and pressure (STP) \ill contain 1/22.4 of a mole of molecules. STP is defined as 0 degrees Celsius at 1 atm of pressure.
all of it - the air would expand to fit the entire container.
Hemoglobin in blood carries about 280 ml of oxygen/ liter. That bond is tight enough to carry oxygen and loose enough to give at pressure gradient difference. If erythropoiesis does not occur in body you can carry only 4 ml / liter of oxygen/ liter in body and you will not survive with such a low supply of oxygen.
This problem can be solved with the ideal gas law. The original pressure and volume of the container are proportional the final pressure and volume of the container. The original pressure was 1 atmosphere and the original volume was 1 liter. If the final volume is 1.8 liters, then the final pressure is 0.55 atmospheres.
Gas pressure depends on volume, temperature, AND the amount of gas. You didn't give an amount of gas, so there is no way to answer your question.
10
A liter is a liter. That is a tautology. ----------------------------------------------------------------- If the oxygen is in liquid form, then there is 1 litre in a 1 litre flask.
You have to have something else to build the 4 liters into. Call it The Tub.Fill the 5.Pour the 5 into the 3.That leaves 2 liters in the 5.Pour them into The Tub. You now have 2 liters in The Tub.Empty the 3.Fill the 5.Pour the 5 into the 3.That leaves 2 liters in the 5.Pour them into The Tub. You now have 4 liters in The Tub.QEDYou do not have a TUB, it is not in the problem.Fill the 5 liter containerPour it into the 3 liter container leaving 2 liters in the 5 liter containerEmpty the 3 liter containerPour the 2 liters from the 5 liter container into the 3 liter containerFill the 5 liter containerFill the remainder of the 3 liter container from the 5 liter containerSince the 3 liter container already had 2 liters in it, one liter from the 5 liter container will fill it leaving 4 liters in the 5 liter container.Solved