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94612a69
Commit
94612a69
authored
3 years ago
by
Christophe Geuzaine
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add link to photoniques article
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photonics/index.html
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94612a69
...
...
@@ -36,7 +36,7 @@
ONELAB Photonics is a set of models combining the open source finite
element solver
<a
href=
"https://getdp.info"
>
GetDP
</a>
with the open source pre-
and post-processor
<a
href=
"https://gmsh.info"
>
Gmsh
</a>
to solve photonics
applications.
applications
<a
href=
"#1"
><sup>
1
</sup></a>
.
</p>
</p>
These models can be used as-is for parametric studies or as template models since implementing
...
...
@@ -44,16 +44,16 @@
</p>
</p>
For instance, it is possible to compute direct problems such as the diffraction of a
plane wave by a grating
<a
href=
"#
1
"
><sup>
1-3
</sup></a>
(in 2D and 3D) or the scattering of an arbitrary wave
by a scatterer (T-matrix
<a
href=
"#
4
"
><sup>
4
</sup></a>
, near and far field data...)
plane wave by a grating
<a
href=
"#
2
"
><sup>
2-4
</sup></a>
(in 2D and 3D) or the scattering of an arbitrary wave
by a scatterer (T-matrix
<a
href=
"#
5
"
><sup>
5
</sup></a>
, near and far field data...)
</p>
</p>
A collection of eigenvalue problems is also available, such as
the Quasi-Normal Modes of open structures
<a
href=
"#
5
"
><sup>
5
</sup></a>
,
the Quasi-Normal Modes of open structures
<a
href=
"#
6
"
><sup>
6
</sup></a>
,
the the Bloch band diagram of photonics crystals,
the leaky modes of a microstructured fiber
<a
href=
"#
6
"
><sup>
6
</sup></a>
, or
the leaky modes of a microstructured fiber
<a
href=
"#
7
"
><sup>
7
</sup></a>
, or
the modes resulting from non-linear eigenvalue problems arising when considering
frequency-dispersive permittivities
<a
href=
"#
7
"
><sup>
7-8
</sup></a>
.
frequency-dispersive permittivities
<a
href=
"#
8
"
><sup>
8-9
</sup></a>
.
</p>
<h2>
Quick start
</h2>
...
...
@@ -67,18 +67,18 @@
<h2>
Template models
</h2>
<ul>
<li>
2D and 3D grating models
<a
href=
"#
1
"
><sup>
1-3
</sup></a>
are available
<li>
2D and 3D grating models
<a
href=
"#
2
"
><sup>
2-4
</sup></a>
are available
in
<code><a
href=
"https://gitlab.onelab.info/doc/models/-/wikis/Diffraction-gratings"
>
models/DiffractionGratings
</a></code>
.
<li>
A general 3D scattering model
<a
href=
"#
4
"
><sup>
4
</sup></a>
is available
<li>
A general 3D scattering model
<a
href=
"#
5
"
><sup>
5
</sup></a>
is available
in
<code><a
href=
"https://gitlab.onelab.info/doc/models/-/tree/master/ElectromagneticScattering"
>
models/ElectromagneticScattering
</a></code>
.
<li>
A model for the computation of the Bloch dispersion relation in conical
mounts
<a
href=
"#
6
"
><sup>
6
</sup></a>
is avalable
mounts
<a
href=
"#
7
"
><sup>
7
</sup></a>
is avalable
in
<code><a
href=
"https://gitlab.onelab.info/doc/models/-/wikis/Bloch-modes-in-periodic-waveguides"
>
models/BlochPeriodicWaveguides
</a></code>
.
<li>
A collection of non-Linear eigenvalue
problems
<a
href=
"#
7
"
><sup>
7-8
</sup></a>
(quadratic, polynomial and
problems
<a
href=
"#
8
"
><sup>
8-9
</sup></a>
(quadratic, polynomial and
rational) is avaiable in
<code><a
href=
"https://gitlab.onelab.info/doc/models/-/tree/master/NonLinearEVP"
>
models/NonLinearEVP
</a></code>
.
...
...
@@ -88,33 +88,37 @@
<div
class=
"small"
>
<ol
class=
"small"
>
<li><a
name=
"1"
></a>
G. Demésy, F. Zolla, A. Nicolet, M. Commandré.
<li><a
name=
"1"
></a>
G. Demésy, A. Nicolet, F. Zolla,
C. Geuzaine.
<a
href=
"https://doi.org/10.1051/photon/202010040"
>
Modélisation
par la méthode de éléments finis avec ONELAB
</a>
. Photoniques 100, 40-45,
2020.
<li><a
name=
"2"
></a>
G. Demésy, F. Zolla, A. Nicolet, M. Commandré.
<a
href=
"https://doi.org/10.1364/JOSAA.27.000878"
>
All-purpose finite element formulation for arbitrarily shaped crossed-gratings embedded in a multilayered stack
</a>
.
JOSA A 27.4, 878-889, 2010.
<li><a
name=
"
2
"
></a>
G. Demésy, F. Zolla, A. Nicolet.
<li><a
name=
"
3
"
></a>
G. Demésy, F. Zolla, A. Nicolet.
<a
href=
"https://arxiv.org/abs/1710.11451"
>
A ONELAB model for the parametric study of mono-dimensional diffraction gratings
</a>
.
arXiv:1710.11451.
<li><a
name=
"
3
"
></a>
G. Demésy, S. John.
<li><a
name=
"
4
"
></a>
G. Demésy, S. John.
<a
href=
" https://doi.org/10.1063/1.4752775"
>
Solar energy trapping with modulated silicon nanowire photonic crystals
</a>
.
Journal of Applied Physics 112.7, 074326, 2012.
<li><a
name=
"
4
"
></a>
G. Demésy,J.-C. Auger, B. Stout.
<li><a
name=
"
5
"
></a>
G. Demésy,J.-C. Auger, B. Stout.
<a
href=
"https://arxiv.org/abs/1807.02355"
>
Scattering matrix of arbitrarily shaped objects: combining finite elements and vector partial waves
</a>
.
JOSA A 35.8 1401-1409, 2018.
<li><a
name=
"
5
"
></a>
N. Marsic, H. De Gersem, G. Demésy, A. Nicolet, C. Geuzaine.
<li><a
name=
"
6
"
></a>
N. Marsic, H. De Gersem, G. Demésy, A. Nicolet, C. Geuzaine.
<a
href=
"https://arxiv.org/abs/1807.02355"
>
Modal analysis of the ultrahigh finesse Haroche QED cavity
</a>
.
New Journal of Physics 20.4, 043058, 2018.
<li><a
name=
"
6
"
></a>
F. Zolla, G. Renversez, A. Nicolet.
<li><a
name=
"
7
"
></a>
F. Zolla, G. Renversez, A. Nicolet.
Foundations of photonic crystal fibres. World Scientific, 2005.
<li><a
name=
"
7
"
></a>
G. Demésy, A. Nicolet, B. Gralak, C. Geuzaine, C. Campos, J. E. Roman.
<li><a
name=
"
8
"
></a>
G. Demésy, A. Nicolet, B. Gralak, C. Geuzaine, C. Campos, J. E. Roman.
<a
href=
"https://arxiv.org/abs/1802.02363"
>
Non-linear eigenvalue problems with GetDP and SLEPc: Eigenmode computations of frequency-dispersive photonic open structures
</a>
.
arXiv:1802.02363.
<li><a
name=
"
8
"
></a>
F. Zolla, A. Nicolet, G. Demésy,
<li><a
name=
"
9
"
></a>
F. Zolla, A. Nicolet, G. Demésy,
<a
href=
"https://arxiv.org/abs/1807.02355"
>
Photonics in highly dispersive media: the exact modal expansion
</a>
.
Opt. Lett. 43, 5813, 2018.
...
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