Asked by SK
                By the argument in the last video, if the  Xi  are i.i.d. with mean  μ  and variance  σ2 , and if  Mn=(X1+⋯+Xn)/n , then we have an inequality of the form
P(|Mn−μ|≥ϵ)≤aσ2n,
 
for a suitable value of a .
a) If ϵ=0.1 , then the value of a is:
unanswered
b) If we change ϵ=0.1 to ϵ=0.1/k , for k≥1 (i.e., if we are interested in k times higher accuracy), how should we change n so that the value of the upper bound does not change from the value calculated in part (a)?
n should
stay the same
increase by a factor of k
increase by a factor of k2
decrease by a factor of k
none of the above
            
        P(|Mn−μ|≥ϵ)≤aσ2n,
for a suitable value of a .
a) If ϵ=0.1 , then the value of a is:
unanswered
b) If we change ϵ=0.1 to ϵ=0.1/k , for k≥1 (i.e., if we are interested in k times higher accuracy), how should we change n so that the value of the upper bound does not change from the value calculated in part (a)?
n should
stay the same
increase by a factor of k
increase by a factor of k2
decrease by a factor of k
none of the above
Answers
                    Answered by
            Writeacher
            
    Video?
    
                    Answered by
            Anonymous
            
    a).  a = 100
b). increase by a factor of k^2
    
b). increase by a factor of k^2
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