Recently, we constructed an energy-dependent point interaction (EDPI) in its most general form in one-dimensional quantum mechanics. In this paper, we show that stationary solutions of the Schrodinger equation with the EDPI form a complete set. Then any nonstationary solution of the time-dependent Schrodinger equation can be expressed as a linear combination of stationary solutions. This, however, does not necessarily mean that the EDPI is self-adjoint and the time-development of the nonstationary state is unitary. The EDPI is self-adjoint provided that the stationary solutions are all orthogonal to one another. We illustrate situations in which this orthogonality condition is not satisfied
The quantum measurement axiom dictates that physical observables and in particular the Hamiltonian m...
We consider a new type of point interaction in one-dimensional quantum mechanics. It is characterize...
We construct a family of hermitian potentials in 1D quantum mechanics that converges in the zero-ran...
We present some simple arguments to show that quantum mechanics operators are required to be self-ad...
There are point interactions in one dimension that can be interpreted as self-adjoint extensions (SA...
Schrödinger equations with time-dependent interactions are studied. We investigate how to define the...
Griffiths proposed a pair of boundary conditions that define a point interaction in one dimensional ...
Energy eigenvalues, probability densities, and x2r values (r = 1 to 6) of one-dimensional self-inter...
For quantum systems of zero-range interaction we discuss the mathematical scheme within which modell...
Stemming from the time-dependent Schrödinger equation, it is noted that any Hermitian form represent...
We consider a new type of point interaction in one-dimensional quantum mechanics. It is characterize...
We consider the two dimensional Schrödinger equation with a time dependent point interaction, which ...
In recent works we have used quantum tools in the analysis of the time evolution of several macrosc...
The time-independent Schrodinger equation: En= -1/2m [d/dx dWn/dx] / Wn(x) + V(x) ((1)) matches a c...
There is a four-parameter family of point interactions in one-dimensional quantum mechanics. They re...
The quantum measurement axiom dictates that physical observables and in particular the Hamiltonian m...
We consider a new type of point interaction in one-dimensional quantum mechanics. It is characterize...
We construct a family of hermitian potentials in 1D quantum mechanics that converges in the zero-ran...
We present some simple arguments to show that quantum mechanics operators are required to be self-ad...
There are point interactions in one dimension that can be interpreted as self-adjoint extensions (SA...
Schrödinger equations with time-dependent interactions are studied. We investigate how to define the...
Griffiths proposed a pair of boundary conditions that define a point interaction in one dimensional ...
Energy eigenvalues, probability densities, and x2r values (r = 1 to 6) of one-dimensional self-inter...
For quantum systems of zero-range interaction we discuss the mathematical scheme within which modell...
Stemming from the time-dependent Schrödinger equation, it is noted that any Hermitian form represent...
We consider a new type of point interaction in one-dimensional quantum mechanics. It is characterize...
We consider the two dimensional Schrödinger equation with a time dependent point interaction, which ...
In recent works we have used quantum tools in the analysis of the time evolution of several macrosc...
The time-independent Schrodinger equation: En= -1/2m [d/dx dWn/dx] / Wn(x) + V(x) ((1)) matches a c...
There is a four-parameter family of point interactions in one-dimensional quantum mechanics. They re...
The quantum measurement axiom dictates that physical observables and in particular the Hamiltonian m...
We consider a new type of point interaction in one-dimensional quantum mechanics. It is characterize...
We construct a family of hermitian potentials in 1D quantum mechanics that converges in the zero-ran...