M. next
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if ψ(o)=(1 0)[itex]^{T}[/itex] at time t=0.
According to some Hamiltonian, it was found that the corresponding eigenstates are |ø[itex]_{1}[/itex]> = 1/√2(1 i)[itex]^{T}[/itex] and |ø[itex]_{2}[/itex]> = 1/√2(1 -i)[itex]^{T}<br /> <br /> so then we wanted to expand ψ(0) in terms of |ø[itex]_{1}[/itex]> and |ø[itex]_{2}[/itex]>:<br /> <br /> the author got: 1/√2|ø[itex]_{1}[/itex]> + 1/√2 |ø[itex]_{2}[/itex]><br /> <br /> My question is that where did he get the coefficients of |ø[itex]_{1}[/itex]> and |ø[itex]_{2}[/itex]>?? Is there a certain rule to this?<br /> <br /> Note: this is an easy example, I can give a more detailed one if needed.[/itex]
According to some Hamiltonian, it was found that the corresponding eigenstates are |ø[itex]_{1}[/itex]> = 1/√2(1 i)[itex]^{T}[/itex] and |ø[itex]_{2}[/itex]> = 1/√2(1 -i)[itex]^{T}<br /> <br /> so then we wanted to expand ψ(0) in terms of |ø[itex]_{1}[/itex]> and |ø[itex]_{2}[/itex]>:<br /> <br /> the author got: 1/√2|ø[itex]_{1}[/itex]> + 1/√2 |ø[itex]_{2}[/itex]><br /> <br /> My question is that where did he get the coefficients of |ø[itex]_{1}[/itex]> and |ø[itex]_{2}[/itex]>?? Is there a certain rule to this?<br /> <br /> Note: this is an easy example, I can give a more detailed one if needed.[/itex]