Answer:
Explanation:
From the given information:
The density of O₂ gas = 
here:
P = pressure of the O₂ gas = 310 bar
= 
= 305.97 atm
The temperature T = 415 K
The rate R = 0.0821 L.atm/mol.K
molar mass of O₂ gas = 32 g/mol
∴

= 287.37 g/L
To find the density using the Van der Waal equation
Recall that:
the Van der Waal constant for O₂ is:
a = 1.382 bar. L²/mol² &
b = 0.0319 L/mol
The initial step is to determine the volume = Vm
The Van der Waal equation can be represented as:

where;
R = gas constant (in bar) = 8.314 × 10⁻² L.bar/ K.mol
Replacing our values into the above equation, we have:



After solving;
V = 0.1152 L
∴

= 277.77 g/L
We say that the repulsive part of the interaction potential dominates because the results showcase that the density of the Van der Waals is lesser than the density of ideal gas.
Answer:
Distance (in meters) and time (in seconds) both have an effect on Velocity
Explanation:
Answer:
16875 J
Explanation:
KINETIC ENERGY EQUATION = <em> </em><em>1/2 m v^2</em>
= 1/2 times mass times velocity of metres per second^2 (speed)
= 1/2 times 150 times by 15^2
= 16875 J (joules)
Explanation:
Structure of Carbon dioxide is in the attachment.
Here,
Hybridization of Carbon is sp
Bond angle 180°
Structure = linear
- Single bond consists of sigma bond.
- Double bond consists of one sigma and one pie bonds.
- Triple bond consists of one sigma and two pie bonds.