Mueller calculus

E620786

Mueller calculus is a mathematical framework in polarization optics that uses matrix operations to describe how optical elements transform the Stokes parameters of light.

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Statements (47)

Predicate Object
instanceOf mathematical formalism
polarization optics formalism
advantageOverJonesCalculus can handle depolarization
can handle incoherent superposition of states
appliesTo fully polarized light
partially polarized light
unpolarized light
assumes linear response of optical system
basedOn Stokes parameters NERFINISHED
canBeExtendedTo spatially varying Mueller matrices
wavelength-dependent Mueller matrices
canDescribe birefringent materials
dichroic materials
optical rotators
polarizers
retarders
scattering media
wave plates
canModel depolarizing optical systems
nondepolarizing optical systems
classificationOfSystems depolarizing Mueller matrices
nondepolarizing Mueller matrices
describes transformations of Stokes parameters
differsFrom Jones calculus NERFINISHED
dimensionOfMuellerMatrix 4x4
field polarization optics
goal predict polarization state after propagation through optical system
inputQuantity Stokes vector NERFINISHED
mathematicalObject Mueller matrix
namedAfter Hans Mueller NERFINISHED
originatedIn 20th century
outputQuantity Stokes vector NERFINISHED
relatedConcept Poincaré sphere NERFINISHED
coherency matrix
relatedTo Jones calculus NERFINISHED
represents optical elements as 4x4 matrices
supportsOperation concatenation of optical elements via matrix multiplication
transformationLaw S_out = M · S_in
typicalOperation postmultiplication of Stokes vector by Mueller matrix
usedIn biomedical optics
ellipsometry
material characterization
optical metrology
remote sensing
scattering polarimetry
uses matrix operations
usesCoordinateSystem Stokes space NERFINISHED

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Stokes parameters relatedTo Mueller calculus