You need to get the Moles of CO2 first. 9.3 g. CO2/44 g CO2= .211 mol
Then just put it into the ideal gas law at STP. PV=nRT
1.0 ATM x P = (.211 mol) (.08206) (273.15 k)---->"Plug and Chug"
P = (.211 mol) (.08206) (273.15 k) / 1.0 ATM
P= 4.7 L ---> 4,700 mL
It depends on temperature and pressure. Assuming 25.0ºC and 1.00 atmospheres then 125 g CO2 occupies 54.7 dm3.
A gas sample is most likely to take the shape of and occupy the total volume of its container because gas particles are highly compressible and move freely within the container to fill all available space. Liquids also take the shape of their container but may not occupy the total volume due to intermolecular forces preventing complete expansion. Solids have a fixed shape and volume, so they do not conform to the shape of their container.
At standard temperature and pressure (STP), 1 mole of any ideal gas occupies approximately 22.4 liters. Therefore, 1 mole of CO2 (carbon dioxide) would also occupy about 22.4 liters under these conditions. However, if the temperature and pressure differ from STP, the volume may vary accordingly.
To calculate the volume of CO2 formed, first determine the moles of CaCO3 using its molar mass. Then, calculate the moles of CO2 produced assuming all the CaCO3 is converted to CO2. Finally, use the ideal gas law (PV = nRT) to find the volume of CO2 at 103 kPa and 25°C. Be sure to convert Celsius to Kelvin (273 + 25).
The volume is 1,1 mL.
It depends on temperature and pressure. Assuming 25.0ºC and 1.00 atmospheres then 125 g CO2 occupies 54.7 dm3.
The mass is 10 727 kg.
This depends on the temperature and the pressure. At standard temperature and pressure 1 mole will occupy 22.4 L, so multiply... 22.4 x 2.22 = 48.728 L at STP.
A gas sample is most likely to take the shape of and occupy the total volume of its container because gas particles are highly compressible and move freely within the container to fill all available space. Liquids also take the shape of their container but may not occupy the total volume due to intermolecular forces preventing complete expansion. Solids have a fixed shape and volume, so they do not conform to the shape of their container.
CO2 floats because its density is less then water. Anything will float if its density is less then water. That is; when a certain volume of CO2 (or anything else) weighs less then the same volume of water.
Using the ideal gas law (PV = nRT), you can calculate the initial and final number of moles of CO2. Given that the temperature remains constant, the ratio of the initial volume to final volume is equal to the ratio of the initial pressure to the final pressure. Applying this ratio to the initial volume of 1.25 liters will give you the final volume.
At standard temperature and pressure (STP), 1 mole of any ideal gas occupies approximately 22.4 liters. Therefore, 1 mole of CO2 (carbon dioxide) would also occupy about 22.4 liters under these conditions. However, if the temperature and pressure differ from STP, the volume may vary accordingly.
gas
To calculate the volume of CO2 formed, first determine the moles of CaCO3 using its molar mass. Then, calculate the moles of CO2 produced assuming all the CaCO3 is converted to CO2. Finally, use the ideal gas law (PV = nRT) to find the volume of CO2 at 103 kPa and 25°C. Be sure to convert Celsius to Kelvin (273 + 25).
To calculate the volume of CO2 at STP (Standard Temperature and Pressure), you can use the ideal gas law equation: PV = nRT. First, find the number of moles of CO2 using the ideal gas law equation. Then, use the molar volume of a gas at STP (22.4 L/mol) to find the volume at STP.
The molar volume of dry carbon dioxide (CO2) at standard temperature and pressure (STP) is approximately 22.4 liters per mole.
The molar volume is 22,414 L at 0 oC (this is a law in chemistry).22,414 x 65 = 1 457 L CO2