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Program FILM

Program FILM models multilayer thin film stacks on a substrate. All input and output is via text on screen or files on disk. It calculates many optical properties including reflectance, transmittance, electric and magnetic fields, the Poynting vector, and optical rotation and ellipticity. Materials are characterized by their refractive index or dielectric tensor, so optically active and birefringent materials can be modeled. There is a small library of the wavelength-dependent optical properties of various materials and the user can easily add more. The program is described in detail in the accompanying 41 page manual.

$100

Currently shipping only within U.S.

Modeling Examples:*

Single dielectric thin film
R & T of thin film stack

Polarized reflectance and transmittance as a function of polar angle of incidence for a simple, one layer thin film.

Polarized reflectance and transmittance as a function of polar angle of incidence for a surface plasmon mode on a thin gold film.

Plasmonic gold film stack
Plasmon resonance
Birefringent thin film stack
R for birefringent film stack vs. polar angle

Polarized reflectance and transmittance as a function of polar angle of incidence for a simple, birefringent material at several different azimuthal angles.

Magneto-optics and Poynting vector of thin film stack.

Magneto-optic thin film stack
MO rotation & ellipticity
Poynting vector through film stack
Quarter-wave reflector film stack
R & T for reflector film stack

Reflectance and transmittance at normal incidence for a quarter-wave reflecting film stack.

Reflectance and transmittance at normal incidence for a quarter-wave reflecting film stack with a center defect.

Quarter-wave reflector thin film stack with defect
Reflectance with defect state
Nematic liquid crystal film stack on gold substrate
Reflectance with plasmon & waveguide resonances

Polarized reflectance as a function of polar angle for a nematic liquid crystal on a plasmonic silver film.

Spectral reflectance calculated for 187±18 nm blue chitin scale lamina and 120±15 nm gold scale lamina of the Junonia butterfly. After R. C. Thayer et al., eLife 9:e52187 (April 7, 2020).

butterfly.JPG

*Note: all plots are generated using commercial graphics software from the text data output of the program.

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