\setlength{\parindent}{0pt}
\setlength{\parskip}{1em}

\DeclareMathOperator{\Herm}{Herm}

\newcommand{\GHom}{\glshyperlink[\ensuremath{\Hom}]{GHom_notation}}

\newcommand\isocomp[1]{\glshyperlink[$#1$-isotypic component]{iso_component}}
\newcommand\isocomppl[1]{\glshyperlink[$#1$-isotypic components]{iso_component}}

\newcommand\chichar{\glshyperlink[\ensuremath{\chi}]{char_rep_notation}}

\newcommand\Ginv[1][G]{\glshyperlink[$#1$-invariant]{Ginv}}
\newcommand\Ginvpl[1][G]{\glshyperlink[$#1$-invariants]{Ginv}}

\newcommand\Ginvip[1][G]{\glshyperlink[$#1$-invariant inner product]{Ginv_ip}}

\newcommand\Glin[1][G]{\glshyperlink[$#1$-linear]{Glin}}

\newcommand\repdim[1]{\glshyperlink[$#1$-dimensional]{rep_dim}}

\renewcommand\eslink{http://www.dpmms.cam.ac.uk/study/II/RepresentationTheory/}

\newcommand\indicator[1]{\mathbbm{1}_{#1}}

\def\Gip\langle#1\rangle_G{\glshyperlink[\ensuremath{\langle #1 \rangle_G}]{Gip_class_funcs_notation}}

\newcommand\clsfn{\mathcal{C}}

\newcommand\tensprod{\glshyperlink[\ensuremath{\otimes}]{tensor_product_notation}}
\newcommand\tprod{\tensprod}
\newcommand\tensvecprod{\glshyperlink[\ensuremath{\otimes}]{tensor_product_notation}}
\newcommand\tvprod{\tensvecprod}
\newcommand\tenslinprod{\glshyperlink[\ensuremath{\otimes}]{tens_lin_prod_notation}}
\newcommand\tlprod{\tensvecprod}
\newcommand\tensrepprod{\glshyperlink[\ensuremath{\otimes}]{tens_rep_prod_notation}}
\newcommand\trprod{\tensrepprod}

\newcommand\charring{\glshyperlink[\ensuremath{R}]{char_ring_notation}}

\newcommand\asquare{\Lambda^2}
\newcommand\ssquare{S^2}

\def\tpower#1^#2{\glshyperlink[\ensuremath{#1^{\otimes #2}}]{tpower_notation}}

\newcommand\spow[2]{S^{#1} #2}
\newcommand\apow[2]{\Lambda^{#1} #2}

\newcommand\awedge{\wedge}
\newcommand\anwedge{\wedge}

\newcommand\tensalg{T}
\newcommand\symmalg{S}
\newcommand\altalg{\Lambda}

\DeclareMathOperator{\Irr}{Irr}

\newcommand\FXW{\glshyperlink[\ensuremath{\mathcal{F}}]{FXW_notation}}

\DeclareMathOperator{\Indinternal}{Ind}

\newcommand\Ind{\glshyperlink[\ensuremath{\Indinternal}]{Ind_notation}}

\let\Res\relax
\DeclareMathOperator{\internalRes}{Res}
\newcommand\Res{\glshyperlink[\ensuremath{\internalRes}]{Res_notation}}

\newcommand\indGamma{\glshyperlink[\ensuremath{r}]{gamma_induction_notation}}

\def\leftgrep#1^#2#3{\glshyperlink[\ensuremath{{}^{#2}#3}]{leftgrep_notation}}

\newcommand\simeqto{\stackrel{\sim}{\to}}

\newcommand\convring[2]{\glshyperlink[\ensuremath{#1#2}]{conv_ring_notation}}
\newcommand\convZ{\glshyperlink[\ensuremath{Z}]{conv_center_notation}}
\newcommand\clsum{\glshyperlink[\ensuremath{C}]{clsum_notation}}
\newcommand\algO{\glshyperlink[\ensuremath{\mathcal{O}}]{algO_notation}}

\newcommand\homega{\omega}

\DeclareMathOperator{\Gal}{Gal}

\DeclareMathOperator{\On}{O}
\DeclareMathOperator{\SO}{SO}
\DeclareMathOperator{\U}{U}
\DeclareMathOperator{\SU}{SU}

\def\Gint_#1{\glshyperlink[\ensuremath{\int_{#1}}]{Haar_int_notation}}
\def\vGint_#1{\glshyperlink[\ensuremath{\int_{#1}}]{vHaar_int_notation}}

\newcommand\cts{\glshyperlink[\ensuremath{C}]{cts_func_notation}}
\def\Gipint\langle#1,#2\rangle{\glshyperlink[\ensuremath{\langle
#1, #2\rangle}]{Gip_int_notation}}

\newcommand\simbijto{\stackrel{~}{\leftrightarrow}}

\newcommand\Lp[1][p]{L^{#1}}

\def\suev#1[#2){#1[#2)^{\glshyperlink[\text{ev}]{ev_notation}}}