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Minakami said:I think I have to use the fact that [a+ , a] = 1 but I don't know where to apply this.
The eigenvalue of the Hamiltonian is a numerical value that represents the energy of a quantum system in a specific state. It is found by solving the Schrödinger equation, which is a fundamental equation in quantum mechanics.
The eigenvalue of the Hamiltonian is directly related to the energy of a system. The Hamiltonian operator represents the total energy of a system, and its eigenvalues correspond to the possible energy levels of the system.
A negative eigenvalue of the Hamiltonian indicates that the energy of the system is lower than the energy of the ground state. This is a characteristic of bound states, where the system is confined within a potential well.
The eigenvalue of the Hamiltonian is used to calculate the probability of finding a system in a particular energy state. It is also used to describe the time evolution of a quantum system, as the eigenvalues can change over time due to interactions with other systems.
No, the eigenvalue of the Hamiltonian cannot be measured directly. It is a theoretical concept used in quantum mechanics to describe the energy of a system. However, the effects of the eigenvalue can be observed in experiments, such as the spectral lines in atomic emission spectra.