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Let m = the MRB constant = = 0.1878596...
Proof that 
To simplify the appearance of our work a little, below an infinite series of is what is symbolized by .
Let m= the sum of the convergent infinite series of  

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(1.1) |

In general we have the following:
Expanding

Collecting the constants we see that 


By Grandi's series we know that 

Collecting the infinite series we see that 

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(1.2) |

Specifically, here where z = 1, by the lema  


by one of the commutative laws the Cesaro sum of the divergent infinite series of  

Since
(-1)^n = and and the Cesaro sum of the divergent infinite series of  


Also since and the Cesaro sum of the divergent infinite series of .

Let t= , and then the infinite series of = infinite series of exp(I*t) = .
Which means that 

Now we have t= , and since n>0
we can expand ln(n) into the series .
Thus the expanded version of t is t= .

Putting the expanded version of t into the formula gives =m.
Distributing the "I" we get 
Since = , we have 
Distributing the 1/n we get 
=
Notice that "I" and the innermost series are both raised to the "k"th power, so we can combine like powers and get 
Obviously -(I^2) =1; so we have 
Moving the innermost series to the left gives us 
Therefore distributing the 1/k! we get 
QED

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