Recently,
f-oscillators in its various forms have been recognised as extremely important tools in many branches of physics. This paper is dedicated to find the wavefunctions for the most general
f-deformed oscillators. In the process, the homodyne quadrature operator and its eigenfunctions for the
f-deformed case is obtained. Then the wavefunctions for deformed oscillators are obtained for different types of deformations and for each deformation the wavefunctions are obtained for different values of deformation. We have compared the deformed oscillator wavefunctions with the non-deformed oscillator.
We model an anharmonic diatomic molecule using deformed creation and annihilation operators such that the energy spectrum generated by a Hamiltonian of the harmonic oscillator's form written in terms of deformed operators is similar to that of a Morse potential. We construct an approximate time evolution operator and evaluate transition probabilities which are compared with those obtained by an expansion in a basis of Morse eigenfunctions. The algebraic results compare favorably with the numerical results.