(New page: E[x-q(x))^2] = Integral from -inf to inf (x-q(x))^2*fx(x)dx =integral from 0 to 1 (x-q(x))^2dx E[g(x)] = integral from -inf to inf g(x)fx(x)dx)
 
 
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E[g(x)] = integral from -inf to inf g(x)fx(x)dx
 
E[g(x)] = integral from -inf to inf g(x)fx(x)dx
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E[x-q(x))^2] = split the integral up at 1/2
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= integral 0 to 1/2 (x-0)^2dx + integral 1/2 to 1 (x-1/2)^2dx

Latest revision as of 07:44, 10 December 2008

E[x-q(x))^2] = Integral from -inf to inf (x-q(x))^2*fx(x)dx =integral from 0 to 1 (x-q(x))^2dx

E[g(x)] = integral from -inf to inf g(x)fx(x)dx

E[x-q(x))^2] = split the integral up at 1/2

= integral 0 to 1/2 (x-0)^2dx + integral 1/2 to 1 (x-1/2)^2dx

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Ph.D. 2007, working on developing cool imaging technologies for digital cameras, camera phones, and video surveillance cameras.

Buyue Zhang