Ideal gas equation:
PV = nRT
Here,
P is pressure
V is volume
n is number of moles
R is gas constant
T is temperature

The air bags in automobiles were once inflated by nitrogen gas generated by the rapid decomposition...
The air bags in automobiles were once inflated by nitrogen gas generated by the rapid decomposition of sodium azide, NaN3. 2 NaNz (s) → 2 Na (s) + 3 N2(g) If an air bag has a volume of 43.8 L and is to be filled with nitrogen gas at a pressure of 1.13 atm at a temperature of 22.4°C, how many moles of NaN3 must decompose? You may assume the Ny behaves as an ideal gas. If Carmen adds zeros...
The air bags in automobiles were once inflated by nitrogen gas generated by the rapid decomposition of sodium azide, NaNz. 2 NaNz (s) → 2 Na (s) + 3 N2 (g) If an air bag has a volume of 42.7 L and is to be filled with nitrogen gas at a pressure of 1.16 atm temperature of 24.9°C, how many moles of NaNg must decompose? You may assume the N2 behaves as an ideal gas. If Carmen adds zeros behind...
O words Question 9 5 pts The air bags in automobiles were once inflated by nitrogen gas generated by the rapid decomposition of sodium azide, NaN3. 2 NaNz (s) + 2 Na (s) + 3 N, (g) If an air bag has a volume of 58.3 L and is to be filled with nitrogen gas at a pressure of 1.06 atm at a temperature of 22.1°C, how many moles of NaN3 must decompose? You may assume the Ny behaves as...
(4) An airbag is inflated by the decomposition of sodium azide into nitrogen gas in a canister: 2 NaN3(s) → 2 Na(s) + 3 N2(g) An average driver's side airbag has a volume of 52L. How many grams of NaNz do you need to decompose to fill the airbag with N2 at room temperature (25°C) and atmospheric pressure (1.00 atm)?
(4) An airbag is inflated by the decomposition of sodium azide into nitrogen gas in a canister: 2 NaN3(s) 2 Na(s) +3 N2(g) An average driver's side airbag has a volume of 52L. How many grams of NaN3 do you need to decompose to fill the airbag with N2 at room temperature (25°C) and atmospheric pressure (1.00 atm)?
The International Space Station is equipped with a Vika Oxygen Generator which uses the following reaction to generate oxygen. LICIO4(s) LICI (s) + 2 02 (g) Determine the mass (in kg) of LICIO, required to fill the 9.8x10 L interior volume of the International Space station with oxygen at a pressure of 0.24 atm and a temperature of 25.7 °C. You may find the following molecular weights useful: LICIO4 - 106.39 g/mol LICI - 42.394 g/mol 02 - 31.9998 g/mol...
QUESTION 3 Automobile airbags use the decomposition of sodium azide, NaN3, to provide gas for rapid inflation 2 NaN3(s) - 2 Na(s) + 3 N2(9) Using stoichiometry and the ideal gas law, calculate the mass (ing) of NaN3 required to provide 42 L of N2(g) at 28.3 °C and 1.00 atm?
10. (10 points) Sodium azide, NaNs, is used to provide gas to inflate automobile air bags. What mass of sodium azide is needed to provide the nitrogen needed to inflate a 70.0 L bag to a pressure of 1.3 atm at 25°C? 2 NaN3 (s) → 2 Na (s) + 3 N2(g)
Automobile air bags inflate during a crash or sudden stop by the
rapid generation of nitrogen gas from sodium azide, according to
the reaction:
2NaN3 (s) 2Na (s) + 3N2 (g)
How many grams of sodium azide are needed to provide sufficient
nitrogen gas to fill a 40.0 × 40.0 × 25.0 cm bag to a pressure of
1.13 atm at 23.0 °C?
Automobile air bags inflate during a crash or sudden stop by the rapid generation of nitrogen gas from sodium azide, according to the reaction: 2NaN3(s) -----2Na(s)+3N2(g) How many grams of sodium azide are needed to provide sufficient nitrogen gas to fill a 30.0 × 30.0 × 25.0 cm bag to a pressure of 1.07 atm at 12.0 °C?