The equilibrium constant K and the forward rate constant
k1 and backward rate constant k2 has the following relation:
K = k1 / k2
So from the equation, we can say that yes it is possible
to have large K even if k1 is small given that k2 is very small compared to k1:
(k2 very less than 1)
<span>k2 << k1</span>
Answer:
Explanation: the module will end up working out when you mix NO2CI and CI
Explanation:
Objects or substances with their density greater than that of water will sink in it whiles those less than water will float on it.
From the question the object has a density of 3.4 g/mL.
Since it's density is greater than that of water the object will sink.
Hope this helps you
Answer:
0.1077 grams
Explanation:
First we will employ the ideal gas law to determine the number of moles of nitrogen gas.
PV=nRT
P=2 atm
V=20L
R=0.08206*L*atm*mol^-1*K^-1
T=323.15 K
Thus, 2atm*20L=n*0.08206*L*atm*mol^-1*K^-1*323.15K
K, atm, and L cancels out. Thus n=2*20mol/0.08206*323.15=1.5 moles
Lastly, we must convert the number of moles to grams. This can be done by dividing the number of moles by the molar mass of nitrogen gas, which is 14 grams.
1.5/14=0.1077 grams
