Just convert all the temperatures to Kelvin (add 273 to the Celsius temperature). The volume is directly proportional to the absolute (Kelvin) temperature.
Volume will increase. Think of it this way. If you heat a gas, it gets hotter. When a gas gets hotter, the atoms/molecules are "more active" and the pressure and/or the volume will go up. If your experiment with heating this gas sample must have a constant pressure, then volume will have to increase to give all those "more active" atoms/molecules more play room to prevent the pressure from going up.
To calculate the volume of the gas, you would need the ideal gas law equation: PV = nRT. First, convert grams of argon to moles using the molar mass of argon. Then, plug the values of pressure (P), temperature (T), and gas constant (R) into the equation with the calculated number of moles (n) to solve for volume (V).
Using the ideal gas law equation PV = nRT, where P is pressure, V is volume, n is number of moles, R is the ideal gas constant, and T is temperature, we can calculate the volume of gas. First, calculate the number of moles of argon using the given mass and molar mass of argon. Then, plug in the values into the equation to solve for volume. The volume of 10.7g of argon gas at 1.1 ATM and 448K is approximately 2.7 L.
It is possible to explain this mathematically in terms of the Ideal Gas Laws, however, it should also be intuitively obvious that this is what would happen; when you press on a flexible substance, it compresses. This is equivalent to asking, why is it that when you push on a spring, you can make it shorter. Force moves things. How do you put pressure on a gas? You put it in a cylinder (such as the cylinder in an internal combustion engine) with a movable piston, and then you push the piston downward. Obviously, squeezing the gas will decrease its volume in the cylinder. The point about the constant temperature is that if you do this but the gas heats up, then the gas is going to push back. Again, this is what we see in an internal combustion engine. You compress the gas, but then there is fuel burned inside the cylinder, the gas gets very hot, and the piston is forced upward with considerable strength. So the engine runs.
The reduction in volume of a substance due to pressure is described by Boyle's Law, which states that the volume of a gas decreases as pressure increases, assuming temperature remains constant. In other words, as pressure on a gas increases, the gas molecules are forced closer together, reducing the volume occupied by the gas.
A fixed quantity of gas at a constant pressure exhibits a temperature of 27 degrees Celsius and occupies a volume of 10.0 L. Use Charles's law to calculate: the temperature of the gas in degrees Celsius in atmospheres if the volume is increased to 16.0 L
To calculate the dissociation constant (Kd) from a binding curve, you can determine the concentration of ligand at which half of the binding sites are occupied. This concentration is equal to the Kd value.
decreases
You can calculate the cost per occupied room by evaluating all of the costs of each occupied room such as the cost of cleaning, maintenance or repairs. The addition of all of these costs together will give you the cost per occupied room in your building.
Volume will increase. Think of it this way. If you heat a gas, it gets hotter. When a gas gets hotter, the atoms/molecules are "more active" and the pressure and/or the volume will go up. If your experiment with heating this gas sample must have a constant pressure, then volume will have to increase to give all those "more active" atoms/molecules more play room to prevent the pressure from going up.
Volume occupied divided by weight
To calculate the dissociation constant (KD) from a binding curve, you can use the equation KD C50, where C50 is the concentration of the ligand at which half of the binding sites are occupied. This value can be determined by plotting the binding data and finding the point where half of the maximum binding is achieved.
To calculate the volume of the gas, you would need the ideal gas law equation: PV = nRT. First, convert grams of argon to moles using the molar mass of argon. Then, plug the values of pressure (P), temperature (T), and gas constant (R) into the equation with the calculated number of moles (n) to solve for volume (V).
To calculate the volume of a gas, you can use the ideal gas law: (V = \frac{nRT}{P}), where (n) is the number of moles of the gas, (R) is the ideal gas constant, (T) is the temperature in Kelvin, and (P) is the pressure. First, calculate the number of moles of argon using its molar mass. Then, plug the values into the ideal gas law to find the volume.
Malta was never occupied by German or Italian troops, though it was under constant attscks from 1940 to 1943.
Number of rooms occupied divided by total rooms in hotel times 100 For example if there are 50 rooms occupied and 200 rooms in the hotel, then 50/200 x 100 = 25% occupied
Room revnue divided by total no. Of room occupied