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%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%TITLE PAGE
%\title{{\Huge \sc Thesis}\\ \vspace{2zh}{\bf \Huge Tests of Lorentz Invariance\\ with an Optical Ring Cavity}\\ \vspace{8zh}}
%\author{{\LARGE \bf Yuta Michimura} \\ \\ {\Large \it Department of Physics} \\ {\Large \it University of Tokyo}}
%\date{\vspace{1zh} \Large October 2014}

\title{{\Huge \sc 博士論文}\\ \vspace{2zh}{\bf \Huge Tests of Lorentz Invariance\\ with an Optical Ring Cavity \\ (光リング共振器を用いた\\ ローレンツ不変性の検証)}\\ \vspace{6zh}}
\author{{\LARGE \bf 道村唯太} \\ \\ {\Large 東京大学 大学院理学系研究科 物理学専攻}}
\date{\vspace{1zh} \Large 2014年10月}

%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%MAIN
\begin{document}
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\maketitle

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\chapter*{Abstract} \addcontentsline{toc}{chapter}{Abstract}
\input{abstract_en}
\clearpage

\chapter*{要旨} \addcontentsline{toc}{chapter}{要旨}
\input{abstract_jp}
\clearpage

\chapter*{Acknowledgements} \addcontentsline{toc}{chapter}{Acknowledgements}
\input{acknowledgements}
\clearpage

%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%TABLE OF CONTENTS
\tableofcontents
 \addcontentsline{toc}{chapter}{Contents}

%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%GLOSSARY
\chapter*{Glossary} \addcontentsline{toc}{chapter}{Glossary}
\begin{tabbing}
01\=0123456789\=0123456789\kill
{\Large Symbols}\\
\> $i$ \> imaginary unit $i= \sqrt{-1}$ \\
\> $c$ \> speed of light $c=299792458 \unit{m/s}$ \\
%\> $c_0$ \> speed of light in the preferred frame ($c_0=1$ otherwise noted) \\
\> $h$ \> Planck's constant $h= 6.626 \times 10^{-34} \unit{Js}$ \\
\> $\kB$ \> Boltzmann constant $\kB= 1.381 \times 10^{-23} \unit{J/s}$ \\
\> $e$ \> elementary charge $e= 1.602 \times 10^{-19} \unit{C}$ \\
\> $v$ \> speed with respect to the preferred frame \\
\> $\gamma$ \> Lorentz factor $\gamma = 1/\sqrt{1-v^2}$ \\
\> $\lambda$ \> laser wavelength \\
\> $\nu$ \> laser frequency [{\rm Hz}] ($\nu = c/\lambda$) \\
\> $\omega$ \> laser angular frequency [{\rm rad/sec}] ($\omega = 2 \pi \nu$) \\
\> $\omegarot$ \> angular frequency of the cavity rotation $[{\rm rad/sec}]$ \\
\> $\omegao$ \> angular frequency of the Earth's rotation $[{\rm rad/sec}]$ \\
\> $\delta \nu$ \> cavity resonant frequency difference [{\rm Hz}] \\
\> $f$ \> Fourier frequency [{\rm Hz}] \\
\> $\nSi$ \> refractive index \\
\> $L$ \> cavity round-trip (geometric) length \\
\> $\Lopt$ \> cavity round-trip optical path length \\
\> $\mathcal{F}$ \> cavity finesse \\
\> $\theta$ \> polar angle in the SCCEF \\
\> $\phi$ \> azimuth angle in the SCCEF \\
\> $\chi$ \> colatitude of the laboratory \\
\> $\To$ \> time from the vernal equinox in 2000 \\
\> $\mrot$ \> harmonic order for the cavity rotational frequency \\
\> $\mo$ \> harmonic order for the sidereal frequency \\
\> $\ylm{l}{m}$ \> spherical coefficient \\
\> $\cf$ \> SME camouflage coefficient \\
\> $d$ \> mass dimension of SME Lorentz violating operator \\
\end{tabbing}
%\clearpage
\begin{tabbing}
01\=01234567890\=0123456789\kill
{\Large Acronyms}\\
\> \bf{ADC} \> analog-to-digital converter \\
\> \bf{AR} \> anti-reflective, anti-reflection \\
\> \bf{BS} \> beam splitter \\
\> \bf{CMB} \> cosmic microwave background \\
\> \bf{CMRR} \> common mode rejection ratio \\
\> \bf{CPT} \> charge, parity, and time \\
\> \bf{DC} \> direct current \\
\> \bf{DFB} \> distributed feedback (laser) \\
\> \bf{FP} \> Fabry-Perot (cavity) \\
\> \bf{FSR} \> free spectral range \\
\> \bf{F/V} \> frequency to voltage \\
\> \bf{FWHM} \> full width at half maximum \\
\> \bf{GPS} \> global positioning system \\
\> \bf{HC} \> H\"{a}nsch-Couillaud (method) \\
\> \bf{HR} \> high-reflection \\
\> \bf{HWP} \> half-wave plate \\
\> \bf{LV} \> Lorentz violation \\
\> \bf{mSME} \> minimal Standard Model Extension \\
\> \bf{PBS} \> polarizing beam splitter \\
\> \bf{PC} \> personal computer \\
\> \bf{PD} \> photodetector, photodiode \\
\> \bf{PDH} \> Pound-Drever-Hall (method) \\
\> \bf{PI} \> photo interrupter \\
\> \bf{PZT} \> lead zirconate titanate (piezoelectric transducer) \\
\> \bf{QWP} \> quarter-wave plate \\
\> \bf{RMS} \> root mean square \\
\> \bf{SCCEF} \> Sun centered celestial equatorial frame \\
\> \bf{SME} \> Standard Model Extension \\
\> \bf{UGF} \> unity gain frequency \\
\end{tabbing}

%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%CHAPTER
\chapter{Introduction} \label{SHOU_Introduction}
\pagenumbering{arabic}
\input{introduction}

\chapter{Tests of Lorentz Invariance} \label{SHOU_Tests}
\input{tests_LI}

\chapter{Optical Ring Cavity} \label{SHOU_RingCavity}
\input{experimental_principle}

\chapter{Experimental Setup} \label{SHOU_Setup}
\input{experimental_setup}

\chapter{Data Analysis} \label{SHOU_Analysis}
\input{data_analysis}

\chapter{Conclusion} \label{SHOU_Conclusion}
\input{conclusion}

%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%APPENDIX
\appendix
\chapter{Standard Model Extension} \label{HOI_SME}
\input{SME_analysis}

\chapter{Feedback Control} \label{HOI_Feedback}
\input{feedback_control}

%\chapter{Optical Cavities and Hansch-Couillaud Method} \label{HOI_CavPol}
\chapter{Optical Cavities and Hansch-Couillaud Method} \label{HOI_CavPol}
\input{polarization_analysis}

\chapter{Laser Frequency Actuation Efficiency Measurement} \label{HOI_Freq}
\input{laser_pzt}

\chapter{Photos of the Apparatus} \label{HOI_Photos}
\input{photos_apparatus}

%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%BIBLIOGRAPHY
\begin{thebibliography}{99} \addcontentsline{toc}{chapter}{Bibliography}
\makeatletter
\@newlistfalse
\makeatother

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%%%%%
\bibchap{Experimental Setup}
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\end{thebibliography}

\end{document}