Sekonda
- 201
- 0
Hey,
I have a question on determing the composition of a state of a system of composed of only two eigenvectors, the question is displayed below:
I initially assumed that the ket v was given by:
|v>=a|\omega_{1}>+b|\omega_{2}>
Where 'a' and 'b' are constants which will determine the probability of either state. So we know the probability of the eigenvalues of ket v are given by the coefficients a and b in the equation:
\mid <v|\hat{\Omega}|v>\mid^{2}
Where for the probability of attaining the eigenvalue ω(1) we have equation:
\frac{1}{4}=a^{4}
Though I'm not sure this is correct, it implies
a=\frac{1}{\sqrt{2}}\: ,\: b=\sqrt{\frac{\sqrt{3}}{2}}
I think I have made a mistake on my third equation...
Thanks for any help,
SK
I have a question on determing the composition of a state of a system of composed of only two eigenvectors, the question is displayed below:
I initially assumed that the ket v was given by:
|v>=a|\omega_{1}>+b|\omega_{2}>
Where 'a' and 'b' are constants which will determine the probability of either state. So we know the probability of the eigenvalues of ket v are given by the coefficients a and b in the equation:
\mid <v|\hat{\Omega}|v>\mid^{2}
Where for the probability of attaining the eigenvalue ω(1) we have equation:
\frac{1}{4}=a^{4}
Though I'm not sure this is correct, it implies
a=\frac{1}{\sqrt{2}}\: ,\: b=\sqrt{\frac{\sqrt{3}}{2}}
I think I have made a mistake on my third equation...
Thanks for any help,
SK