00:04
In this question, given that the mass of carbon monoxide is 1 .139 multiplied by 10 raised to power minus 26 kg.
00:16
The value of kco is given as 1860 n per m and the value of mass of nitrogen is given as 1 .163 multiplied by m.
00:33
10 range to power minus 26 kg and the value of k and do is given as 2287 n per m in the part a we have to calculate the value of w in the part b we have to calculate the value of delta e in the part c we have to calculate the value of angular frequency of nitrogen in the part d and e we have to calculate the value of x so solving for the part a so here the expression for mu is 1 divided by 2 pi multiply by under root of k divided by mu.
01:48
Now here, 2 pi mu is equal to w.
01:56
Now where w is the angular velocity, mu is the frequency, k is the constant, and m is the reduced, mass.
02:34
Now we can write here, therefore the expression will be w is equal to under root of k divided by mu.
02:49
So here we put the values.
02:51
So under root of 1860 n per m divided by 1 .139, multiply by 10 raised to power minus 26 kg.
03:11
And from here we can write w is equal to under root of 1633 .01 multiply by 10 raised to power 26 kg m per s square per m divided by kg.
03:43
So, here we can say that this value is equal to under root of s minus raised to power minus 2.
04:02
Or we can say that s raised to power minus 1.
04:07
So, therefore, w is equal to 40 .41 multiplied by 10 raised to power 13 .13.
04:22
S raised to power minus 1 or we can say that 40 .41 multiply by 10 raised to power 13 hertz so this is the value of the angular velocity now the part b here the expression we will write as e n is equal to n plus 1 divided by 2 multiply by h w so here the delta e, which is energy separation, is equal to e1 minus e 0.
05:10
So here the e 0 is equal to 1 divided by 2, hw for n is equal to 0.
05:22
And e1 is equal to 3 divided by 2, hw for n is equal to 1.
05:33
So here we will write as delta e is equal to 3 divided by 2, hw minus 1 divided by 2, hw.
05:48
So that will be equal to hw...