Once again, consider a hyper-ball ∑ i = 1 n x i 2 ≤ 2 5 and a concentric hyper-cube [ − 4 , 4 ] n in R 4 . Given our answers to Part I and V , can we calculate the probability of finding the hyper-bug only in the hyper-spherical part of the ornament, given that it is stuck in the ornament? Provide your answer in percentage, rounded to the nearest integer. Write 1 0 1 if there is not enough information to find this probability.
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Thank you, Otto. Indeed, just like 2018.
cap 4 ( r , h ) = 1 2 1 π ( − 4 − h 7 ( h − 2 r ) − 2 r ( r − h ( h − 2 r ) ( h + 3 r ) − 6 − h 5 ( h − 2 r ) ) + 6 r 4 tan − 1 ( − h ( h − 2 r ) h − r ) + 3 π r 4 )
Because this is 4 dimensional, there are 8 caps, 8 cap 4 ( 5 , 1 ) = 3 2 π ( 1 8 7 5 π − 2 2 3 2 − 3 7 5 0 tan − 1 ( 3 4 ) ) ≈ 3 7 9 . 3 5 6 0 2 1 3 6 3 .
3 ( 4 0 9 6 + 3 2 π ( 1 8 7 5 π − 2 2 3 2 − 3 7 5 0 tan − 1 ( 3 4 ) ) ) 2 π ( 1 8 7 5 π − 2 2 3 2 − 3 7 5 0 tan − 1 ( 3 4 ) ) ≈ 0 . 0 8 4 7 6 5 6
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Since this one is very similar to Part V, I will submit a very similar solution, Comrade ;)
At this point, it is all just a matter of "crunching the numbers". Let's summarize what we found in problem I, at the beginning of the saga. If B is the volume of the ball and C is the volume of the cube, then C = 8 4 = 4 0 9 6 , B ≈ 3 0 8 4 , B C = 8 V c a p s ≈ 3 7 9 , B ∩ C ≈ 2 7 0 5 , C B = 1 3 9 1 , B ∪ C = 4 4 7 5 The probability we seek is B ∪ C B C ≈ 8 %
The Hyper-intriguing Ornaments have been fun (for a crowd of three,essentially), but every good thing must come to an end. Thank you, Comrade!