|
|
 |
PyMeepPlasmonics
Free and open-source code package designed to perform PyMEEP FDTD simulations applied to Plasmonics.
CDPDS Coupled dipole method-based photonic dispersion solver
A photonic band dispersion solver based on the coupled dipole method called CDPDS, which aims to provide an analytical computation of bulk and boundary dispersions and topological phases of a one-dimensional and two-dimensional photonic crystal consisting of an array of particles.
IrisFDTD
IrisFDTD-Academic is a Fortran implementation of the Finite-Difference Time-Domain (FDTD) method. IrisFDTD-Academic is a "toy version" of the IrisFDTD program.
Graph-theory-dda
The code can handle N scatterer systems in arbitrary settings, but shines for cyclic polygon settings
Gyptis is a package to solve Maxwell’s equations with the finite element method. It is in early stage and currently being actively developed, so features might come and go.
Rank-one Decomposition accelerated DDA method (RD-DDA)
Link (2 May 2023)
MESTI (Maxwell's Equations Solver with Thousands of Inputs)
MESTI is an open-source software for full-wave electromagnetic simulations in frequency domain using finite-difference discretization on the Yee lattice.
Extended DDA (e-DDA)
Extended discrete dipole approximation, DDA application to bianisotropic media.
Coupled Dipole Approximation (CDA)
Coupled Dipole Approximation with Linux parallel compatibility.
Postdoctoral Position (May 5, 2023)
Soot Absorption Cross Section Measurements
Kansas State University - Physics
A postdoctoral position is now open to perform experiments to measure and understand the absorption cross section of soots formed from detonations. This work will be done in the near infrared (NIR). Methods will involve dispersion of soots as aerosols and as suspensions in liquids with known refractive index. Then transmission of light through the sol will be measured. These measurements will be augmented with both static and dynamic light scattering measurements to characterize the size and morphology of the suspended particles. Corrections for the medium refractive index will be developed. Studies of the effects of source, size and morphology will be performed. There will be strong theoretical support via collaboration with another scientist. Applicants should have strong experimental skills in optics, problem solving, and understanding experimental results. This position could start immediately, and funding is ensured to the end of calendar 2024.
More information can be obtained from C. M. Sorensen at This email address is being protected from spambots. You need JavaScript enabled to view it..
|
|
|
|
