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fix comments

Konstantin Ladutenko 8 years ago
parent
commit
9feaaea918
1 changed files with 61 additions and 58 deletions
  1. 61 58
      main.tex

+ 61 - 58
main.tex

@@ -26,10 +26,12 @@
 \usepackage[usenames,dvipsnames]{xcolor}
 \usepackage[usenames,dvipsnames]{xcolor}
 \usepackage{setspace}
 \usepackage{setspace}
 \usepackage[compact]{titlesec}
 \usepackage[compact]{titlesec}
-%%%Please don't disable any packages in the preamble, as this may cause the template to display incorrectly.%%%
+%%% Please don't disable any packages in the preamble, as this may
+%%% cause the template to display incorrectly.%%%
 \usepackage{amsmath}
 \usepackage{amsmath}
 
 
-\usepackage{epstopdf}%This line makes .eps figures into .pdf - please comment out if not required.
+\usepackage{epstopdf}%This line makes .eps figures into .pdf - please
+                     %comment out if not required.
 
 
 \definecolor{cream}{RGB}{222,217,201}
 \definecolor{cream}{RGB}{222,217,201}
 
 
@@ -47,7 +49,8 @@
 }
 }
 %%%END OF HEADER%%%
 %%%END OF HEADER%%%
 
 
-%%%PAGE SETUP - Please do not change any commands within this section%%%
+%%%PAGE SETUP - Please do not change any commands within this
+%%% section%%%
 \makeFNbottom
 \makeFNbottom
 \makeatletter
 \makeatletter
 \renewcommand\LARGE{\@setfontsize\LARGE{15pt}{17}}
 \renewcommand\LARGE{\@setfontsize\LARGE{15pt}{17}}
@@ -93,7 +96,8 @@
 \setlength\bibsep{1pt}
 \setlength\bibsep{1pt}
 %%%END OF FOOTER%%%
 %%%END OF FOOTER%%%
 
 
-%%%FIGURE SETUP - please do not change any commands within this section%%%
+%%%FIGURE SETUP - please do not change any commands within this
+%%% section%%%
 \makeatletter 
 \makeatletter 
 \newlength{\figrulesep} 
 \newlength{\figrulesep} 
 \setlength{\figrulesep}{0.5\textfloatsep} 
 \setlength{\figrulesep}{0.5\textfloatsep} 
@@ -116,10 +120,8 @@
 \vspace{3cm}
 \vspace{3cm}
 \sffamily
 \sffamily
 \begin{tabular}{m{4.5cm} p{13.5cm} }
 \begin{tabular}{m{4.5cm} p{13.5cm} }
-
   \includegraphics{head_foot/DOI} & \noindent\LARGE{\textbf{ Plasma-Induced Symmetry Breaking in a Spherical Silicon Nanoparticle}} \\%Article title goes here instead of the text "This is the title"
   \includegraphics{head_foot/DOI} & \noindent\LARGE{\textbf{ Plasma-Induced Symmetry Breaking in a Spherical Silicon Nanoparticle}} \\%Article title goes here instead of the text "This is the title"
   \vspace{0.3cm} & \vspace{0.3cm} \\
   \vspace{0.3cm} & \vspace{0.3cm} \\
-
                                   & \noindent\large{Anton Rudenko,$^{\ast}$\textit{$^{a}$} Tatiana E. Itina,\textit{$^{a\ddag}$} Konstantin Ladutenko,\textit{$^{b}$} and Sergey Makarov\textit{$^{b}$}
                                   & \noindent\large{Anton Rudenko,$^{\ast}$\textit{$^{a}$} Tatiana E. Itina,\textit{$^{a\ddag}$} Konstantin Ladutenko,\textit{$^{b}$} and Sergey Makarov\textit{$^{b}$}
  
  
                                     \textit{$^{a}$~Laboratoire Hubert Curien, UMR CNRS 5516, University of Lyon/UJM, 42000, Saint-Etienne, France }
                                     \textit{$^{a}$~Laboratoire Hubert Curien, UMR CNRS 5516, University of Lyon/UJM, 42000, Saint-Etienne, France }
@@ -128,7 +130,7 @@
                                     } \\%Author names go here instead of "Full name", etc.
                                     } \\%Author names go here instead of "Full name", etc.
  
  
  
  
-  \includegraphics{head_foot/dates} & \noindent\normalsize{The concept
+  \includegraphics{head_foot/dates} & \noindent\normalsize {The concept
 of nonlinear all-dielectric nanophotonics based on high refractive
 of nonlinear all-dielectric nanophotonics based on high refractive
 index (e.g., silicon) nanoparticles supporting magnetic optical
 index (e.g., silicon) nanoparticles supporting magnetic optical
 response has recently emerged as a powerful tool for ultrafast
 response has recently emerged as a powerful tool for ultrafast
@@ -145,7 +147,7 @@ allows us to propose a novel concept of deeply subwavelength
 symmetrical silicon nanoparticle. More importantly, we reveal strong
 symmetrical silicon nanoparticle. More importantly, we reveal strong
 symmetry breaking in the initially symmetrical nanoparticle during
 symmetry breaking in the initially symmetrical nanoparticle during
 ultrafast photoexcitation near the magnetic dipole resonance. The
 ultrafast photoexcitation near the magnetic dipole resonance. The
-ultrafast manipulation by nanoparticle inherent structure and symmetry
+ultrafast manipulation by nanoparticle inherent structure and symmetry 
 paves the way to novel principles for nonlinear optical nanodevices.}
 paves the way to novel principles for nonlinear optical nanodevices.}
 
 
 \end{tabular}
 \end{tabular}
@@ -166,21 +168,22 @@ F-42000, Saint-Etienne, France}} \footnotetext{\textit{$^{b}$~ITMO
 University, Kronverksiy pr. 49, St. Petersburg, Russia}}
 University, Kronverksiy pr. 49, St. Petersburg, Russia}}
 
 
 
 
-%Please use \dag to cite the ESI in the main text of the article.  %If
+% Please use \dag to cite the ESI in the main text of the article.
-you article does not have ESI please remove the the \dag symbol from
-the title and the footnotetext below.  \footnotetext{\dag~Electronic
-Supplementary Information (ESI) available: [details of any
-supplementary information available should be included here]. See DOI:
-10.1039/b000000x/} %additional addresses can be cited as above using
-the lower-case letters, c, d, e... If all authors are from the same
-address, no letter is required
 
 
-\footnotetext{\ddag~Additional footnotes to the title and authors can
+% If you article does not have ESI please remove the the \dag symbol
-be included \emph{e.g.}\ `Present address:' or `These authors
+% from the title and the footnotetext below.
-contributed equally to this work' as above using the symbols: \ddag,
+% \footnotetext{\dag~Electronic Supplementary Information (ESI)
-\textsection, and \P. Please place the appropriate symbol next to the
+% available: [details of any supplementary information available
-author's name and include a \texttt{\textbackslash footnotetext} entry
+% should be included here]. See DOI:10.1039/b000000x/} %additional
-in the the correct place in the list.}
+% addresses can be cited as above using the lower-case letters, c, d,
+% e... If all authors are from the same address, no letter is required
+
+% \footnotetext{\ddag~Additional footnotes to the title and authors can
+% be included \emph{e.g.}\ `Present address:' or `These authors
+% contributed equally to this work' as above using the symbols: \ddag,
+% \textsection, and \P. Please place the appropriate symbol next to the
+% author's name and include a \texttt{\textbackslash footnotetext} entry
+% in the the correct place in the list.}
 
 
 
 
 %%%END OF FOOTNOTES%%%
 %%%END OF FOOTNOTES%%%
@@ -248,29 +251,27 @@ optical nanoantennas.
 %\begin{itemize}
 %\begin{itemize}
 %\item Fig.1: Beautiful conceptual picture
 %\item Fig.1: Beautiful conceptual picture
 %\item Fig.2: Temporal evolution of EHP in NP with different diameters
 %\item Fig.2: Temporal evolution of EHP in NP with different diameters
-at fixed intensity, in order to show that we have the highest
+%at fixed intensity, in order to show that we have the highest
-asymmetry around magnetic dipole (MD) resonance. This would be really
+%asymmetry around magnetic dipole (MD) resonance. This would be really
-nice!
+%nice!
 %\item Fig.3: Temporal evolution of EHP in NP with fixed diameter (at
 %\item Fig.3: Temporal evolution of EHP in NP with fixed diameter (at
-MD) at different intensities, in order to show possible regimes of
+%MD) at different intensities, in order to show possible regimes of
-plasma-patterning of NP volume. It would be nice, if we will show
+%plasma-patterning of NP volume. It would be nice, if we will show
-power patterns decencies on intensity for side probe pulse to show
+%power patterns decencies on intensity for side probe pulse to show beam steering due to symmetry breaking.
-beam steering due to symmetry breaking.
 %\item Fig.4: (a) Dependence on pulse duration is also interesting. We
 %\item Fig.4: (a) Dependence on pulse duration is also interesting. We
-have to show at which duration the asymmetry factor is saturated. (b)
+%have to show at which duration the asymmetry factor is saturated. (b)
-2D map of asymmetry factor in false colors, where x-axis and y-axis
+%2D map of asymmetry factor in false colors, where x-axis and y-axis correspond to intensity and NP diameter.
-correspond to intensity and NP diameter.
 %\end{itemize} %Additionally, if you will manage to calculate
 %\end{itemize} %Additionally, if you will manage to calculate
-evolution of scattering power pattern and show considerable effect of
+%evolution of scattering power pattern and show considerable effect of
-beam steering, we can try Nanoscale or LPR, because the novelty will
+% beam steering, we can try Nanoscale or LPR, because the novelty will
-be very high.
+% be very high.
 
 
 
 
- \section{Modeling details}
+\section{Modeling details}
  
  
- %TEI for Anton: please describe what you model first (what physical
+% TEI for Anton: please describe what you model first (what physical
-processes). Then, we speak about "pulse", but never "laser". Should we
+% processes). Then, we speak about "pulse", but never "laser". Should
-provide more details concerning irradiation source?
+% we provide more details concerning irradiation source?
 
 
 We focus out attention on silicon because this material is promising
 We focus out attention on silicon because this material is promising
 for the implementation of nonlinear photonic devices thanks to a broad
 for the implementation of nonlinear photonic devices thanks to a broad
@@ -308,24 +309,24 @@ permittivity of non-excited silicon at $800$ nm wavelength [green1995]
 includes the contribution due to heating of the conduction band,
 includes the contribution due to heating of the conduction band,
 described by the differential equation derived from the Drude model
 described by the differential equation derived from the Drude model
 \begin{equation} \label{Drude}
 \begin{equation} \label{Drude}
-\displaystyle{\frac{\partial{\vec{J}}}{\partial{t}} = - \nu_e\vec{J} +
+  \displaystyle{\frac{\partial{\vec{J}}}{\partial{t}} = - \nu_e\vec{J}
-\frac{e^2n_e(t)}{m_e^*}\vec{E}}, \end{equation} where $e$ is the
+    + \frac{e^2n_e(t)}{m_e^*}\vec{E}}, \end{equation} where $e$ is the
 elementary charge, $m_e^* = 0.18m_e$ is the reduced electron-hole mass
 elementary charge, $m_e^* = 0.18m_e$ is the reduced electron-hole mass
 [sokolowski2000]\cite{Sokolowski2000}, $n_e(t)$ is the time-dependent
 [sokolowski2000]\cite{Sokolowski2000}, $n_e(t)$ is the time-dependent
 free carrier density and $\nu_e = 10^{15} s^{-1}$ is the electron
 free carrier density and $\nu_e = 10^{15} s^{-1}$ is the electron
 collision frequency [sokolowski2000]\cite{Sokolowski2000}. Silicon
 collision frequency [sokolowski2000]\cite{Sokolowski2000}. Silicon
 nanoparticle is surrounded by air, where the light propagation is
 nanoparticle is surrounded by air, where the light propagation is
-calculated by Maxwell's equations with $\vec{J} = 0$ and $\epsilon =
+calculated by Maxwell's equations with $\vec{J} = 0$ and
-1$. The system of Maxwell's equations coupled with electron density
+$\epsilon = 1$. The system of Maxwell's equations coupled with
-equations is solved by the finite-difference numerical method
+electron density equations is solved by the finite-difference
-[rudenko2016]%\cite{Rudenko2016} , based on the finite-difference
+numerical method [rudenko2016]\cite{Rudenko2016} , based on the
-time-domain (FDTD) method [yee1966] \cite{Yee1966} and
+finite-difference time-domain (FDTD) method [yee1966] \cite{Yee1966}
-auxiliary-differential method for disperse media
+and auxiliary-differential method for disperse media
 [taflove1995]\cite{Taflove1995}. At the edges of the grid, we apply
 [taflove1995]\cite{Taflove1995}. At the edges of the grid, we apply
 absorbing boundary conditions related to convolutional perfect matched
 absorbing boundary conditions related to convolutional perfect matched
-layers (CPML) to avoid nonphysical reflections [roden2000]%
+layers (CPML) to avoid nonphysical reflections
-\cite{Roden2000} . Initial electric field is introduced as a Gaussian
+[roden2000]\cite{Roden2000} . Initial electric field is introduced as
-focused beam source as follows
+a Gaussian focused beam source as follows
 \begin{align}
 \begin{align}
 \begin{aligned}
 \begin{aligned}
 \label{Gaussian} {E_x}(t, r, z) =
 \label{Gaussian} {E_x}(t, r, z) =
@@ -532,8 +533,8 @@ with electron plasma inside.}
 %\begin{figure} %\centering
 %\begin{figure} %\centering
 % \includegraphics[height=0.7\linewidth]{Si-flow-R140-XYZ-Eabs}
 % \includegraphics[height=0.7\linewidth]{Si-flow-R140-XYZ-Eabs}
 % \caption{EHP distributions for nonres., MD, ED, and MQ nanoparticles
 % \caption{EHP distributions for nonres., MD, ED, and MQ nanoparticles
-at moderate photoexcitation. The aim is to show different possible EHP
+% at moderate photoexcitation. The aim is to show different possible
-patterns and how strong could be symmetry breaking.
+% EHP patterns and how strong could be symmetry breaking.
 % \label{fgr:example}
 % \label{fgr:example}
 %\end{figure}
 %\end{figure}
 
 
@@ -593,19 +594,21 @@ have found describing experiments and previous calculations
 
 
 
 
 %The \balance command can be used to balance the columns on the final
 %The \balance command can be used to balance the columns on the final
-page if desired. It should be placed anywhere within the first column
+%page if desired. It should be placed anywhere within the first column
-of the last page.
+%of the last page.
 
 
 %\balance
 %\balance
 
 
 %If notes are included in your references you can change the title
 %If notes are included in your references you can change the title
-from 'References' to 'Notes and references' using the following
+% from 'References' to 'Notes and references' using the following
-command: %\renewcommand\refname{Notes and references}
+% command:
+
+% \renewcommand\refname{Notes and references}
 
 
 %%%REFERENCES%%%
 %%%REFERENCES%%%
 
 
 \bibliography{References.bib} %You need to replace "rsc" on this line
 \bibliography{References.bib} %You need to replace "rsc" on this line
-with the name of your .bib file \bibliographystyle{rsc} %the RSC's
+                              %with the name of your .bib file
-.bst file
+\bibliographystyle{rsc} %the RSC's .bst file
 
 
 \end{document}
 \end{document}