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classes:2009:fall:phys4101.001:q_a_0923 [2009/09/23 18:48] ykclasses:2009:fall:phys4101.001:q_a_0923 [2009/09/26 23:37] (current) yk
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 <math>G(x_0)>0</math>, or else <math>G(x)\equiv0</math>, can't be normalized. Then <math>G(x_1)+G(x_2)\ge2G(x_0)>0</math>. <math>G(x_0)>0</math>, or else <math>G(x)\equiv0</math>, can't be normalized. Then <math>G(x_1)+G(x_2)\ge2G(x_0)>0</math>.
 Now let <math>x_1\rightarrow-\infty</math>, <math>x_2\rightarrow+\infty</math>, in order to satisfy the above eqation <math>G(x_1\rightarrow-\infty)</math>,<math>G(x_2\rightarrow+\infty)</math> cannot be 0 at the same time, so the integral <math>\int |\psi(x)|^2\,dx=\int G(x)\,dx</math> will go to infinity, cannot be normalized. Now let <math>x_1\rightarrow-\infty</math>, <math>x_2\rightarrow+\infty</math>, in order to satisfy the above eqation <math>G(x_1\rightarrow-\infty)</math>,<math>G(x_2\rightarrow+\infty)</math> cannot be 0 at the same time, so the integral <math>\int |\psi(x)|^2\,dx=\int G(x)\,dx</math> will go to infinity, cannot be normalized.
-====Andromeda====+====Andromeda 16:50 9/22====
 is there any relation between Hermite polynomial and Legendre polynomial???  is there any relation between Hermite polynomial and Legendre polynomial??? 
  
-==Schrodinger's Dog==+===Schrodinger's Dog 21:11 9/22===
 No, although they both are recursive relations of sorts, they aren't related in any way. But, Hermite Polynomials  are special cases of Laguerre polynomials, if your interested in looking into that.  No, although they both are recursive relations of sorts, they aren't related in any way. But, Hermite Polynomials  are special cases of Laguerre polynomials, if your interested in looking into that. 
 +
 ====Hardy 9/22 19:02==== ====Hardy 9/22 19:02====
 I do not quite understand why the <math>a_-\psi_0(x)</math> should be zero. Can it be some value between zero and <math>\frac{1}{2}\hbar\omega</math>? I do not quite understand why the <math>a_-\psi_0(x)</math> should be zero. Can it be some value between zero and <math>\frac{1}{2}\hbar\omega</math>?
classes/2009/fall/phys4101.001/q_a_0923.1253749733.txt.gz · Last modified: 2009/09/23 18:48 by yk