3D stationary Schrodinger - numerical solution

In summary: Your Name]In summary, there are several methods available for numerically solving the 3-dimensional Schrodinger equation for discrete spectrum. These include the finite element method, variational method, shooting method, and relaxation method. Each method involves different techniques for solving the equation and has been successfully applied to various 3-dimensional potentials. Best of luck in your research!
  • #1
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Hi!

My problem is connected with solving 3-dimentional Schrodinger equation for descrete spectrum.
I need to consider arbitrary 3D-potential and find characteristics of boundary levels, produced by this potential (energy levels, quantum numbers...)

All I found over the internet were algorithms only for a one-dimentional (cartesian or spherical) problem.

If anyone knows anything about methods for numerical solving 3D stationary Schrodinger for arbitrary potential, I will be most obliged!

Thanks in advance!
Ivan
 
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  • #2


Hi Ivan,

Thank you for reaching out with your question. Solving the 3-dimensional Schrodinger equation for discrete spectrum can be a complex task, but there are several methods that can be used to tackle this problem. One approach is to use the finite element method, which involves discretizing the problem into small elements and using numerical techniques to solve for the wavefunction and energy levels at each element. This method is commonly used in computational quantum mechanics and has been successfully applied to various 3-dimensional potentials.

Another method is the variational method, where the wavefunction is approximated by a trial function and the energy is minimized with respect to this function. This method has been used to solve for the energy levels of many 3-dimensional potentials, including the hydrogen atom.

Additionally, there are also numerical methods such as the shooting method and the relaxation method that can be used to solve for the energy levels of 3-dimensional potentials. These methods involve solving the Schrodinger equation iteratively and adjusting the parameters until the desired energy level is reached.

I hope these suggestions will be helpful in your research. Best of luck in your studies!


 

Related to 3D stationary Schrodinger - numerical solution

1. What is the 3D stationary Schrodinger equation?

The 3D stationary Schrodinger equation is a mathematical equation that describes the behavior of quantum particles in three-dimensional space. It is derived from the more general Schrodinger equation and is used to determine the energy and wave function of a particle in a three-dimensional potential field.

2. What is the significance of finding a numerical solution to the 3D stationary Schrodinger equation?

Finding a numerical solution to the 3D stationary Schrodinger equation allows us to accurately model and predict the behavior of quantum particles in complex systems. This is important in various fields such as materials science, chemistry, and physics, where understanding the behavior of particles is crucial.

3. How is the numerical solution to the 3D stationary Schrodinger equation obtained?

The numerical solution to the 3D stationary Schrodinger equation is obtained through various computational methods, such as the finite element method or the finite difference method. These methods involve discretizing the equation into a set of equations that can be solved using computers.

4. What are some challenges in obtaining a numerical solution to the 3D stationary Schrodinger equation?

One of the main challenges in obtaining a numerical solution to the 3D stationary Schrodinger equation is the high computational cost. This is because the equations involved are complex and require a large number of calculations. Additionally, accurately representing the potential field and boundary conditions can also be challenging.

5. How accurate are the results obtained from a numerical solution to the 3D stationary Schrodinger equation?

The accuracy of the results obtained from a numerical solution to the 3D stationary Schrodinger equation depends on various factors, such as the chosen computational method, the resolution of the discretization, and the accuracy of the potential field representation. With careful consideration and fine-tuning of these factors, highly accurate results can be obtained.

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