Code covered by the BSD License
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[c,y,E,N]=encJacobi(t,ydemo,E...
Build the approximation y of the target ydemo relying on the Jacobi
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[c,y,E,yy]=encWavelet(t,ydemo...
Build the approximation y of the target ydemo at resolution 2^j
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[pp,y,E,I]=encCubspline(t,yde...
Build the piecewise polynomial approximation (cubic spline) y of the target ydemo
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[w,a,y,E,N]=encNonlinDyn(t,yd...
Build the approximation y of the target ydemo relying on the nonlinear
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runMe
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y=decJacobi(t,ydemo,c)
Build the approximation y of the target ydemo from the expansion coefs c
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y=decJacobi_fi(precision,t,yd...
Build the approximation y of the target ydemo from the expansion coefs c
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y=decWavelet(t,ydemo,wavetype...
Build the approximation y of the target ydemo
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y=decWavelet_fi(precision,t,y...
Build the approximation y of the target ydemo
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View all files
from
Function Approximation
by Ugo Pattacini
Encoding allows to represent any L2 function through a set of coefficients in a proper base.
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| All files for Function Approximation |
/Encoding Functions/decJacobi.m
/Encoding Functions/decJacobi_fi.m
/Encoding Functions/decWavelet.m
/Encoding Functions/decWavelet_fi.m
/Encoding Functions/encCubspline.m
/Encoding Functions/encJacobi.m
/Encoding Functions/encNonlinDyn.m
/Encoding Functions/encWavelet.m
/Encoding Functions/motion_data_01.mat
/Encoding Functions/runMe.m
/license.txt
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