Fixup some missing files

doc/.gitignore

@@ -4,6 +4,7 @@
 *.log
 *.out
 *.pdf
+!assets/**
 *.bbl
 *.blg
 *.toc

doc/BACKLOG.md

@@ -1,3 +1,13 @@
+Presentation
+====
+Find one clear goal.
+
+Remember crowd-control.
+
+Leave out:
+  lemPropF
+
+
 Talk about structure of library:
 ===
 

doc/abstract.tex

@@ -1,18 +1,18 @@
 \chapter*{Abstract}
 The usual notion of propositional equality in intensional type-theory
-is restrictive. For instance it does not admit functional
-extensionality nor univalence. This poses a severe limitation on both
-what is \emph{provable} and the \emph{re-usability} of proofs. Recent
+is restrictive.  For instance it does not admit functional
+extensionality nor univalence.  This poses a severe limitation on both
+what is \emph{provable} and the \emph{re-usability} of proofs.  Recent
 developments have however resulted in cubical type theory which
-permits a constructive proof of these two important notions. The
+permits a constructive proof of these two important notions.  The
 programming language Agda has been extended with capabilities for
-working in such a cubical setting. This thesis will explore the
+working in such a cubical setting.  This thesis will explore the
 usefulness of this extension in the context of category theory.
 
 The thesis will motivate the need for univalence and explain why
 propositional equality in cubical Agda is more expressive than in
-standard Agda. Alternative approaches to Cubical Agda will be
-presented and their pros and cons will be explained. As an example of
+standard Agda.  Alternative approaches to Cubical Agda will be
+presented and their pros and cons will be explained.  As an example of
 the application of univalence two formulations of monads will be
 presented: Namely monads in the monoidal form and monads in the
 Kleisli form and under the univalent interpretation it will be shown
@@ -20,5 +20,5 @@ how these are equal.
 
 Finally the thesis will explain the challenges that a developer will
 face when working with cubical Agda and give some techniques to
-overcome these difficulties. It will also try to suggest how further
+overcome these difficulties.  It will also try to suggest how further
 work can help alleviate some of these challenges.

doc/acknowledgement.tex

@@ -1 +0,0 @@
-\chapter*{Acknowledgements}

doc/acknowledgements.tex

@@ -7,7 +7,7 @@ can conjure up various proofs.  I also want to recognize the support
 of Knud Højgaards Fond who graciously sponsored me with a 20.000 DKK
 scholarship which helped toward sponsoring the two years I have spent
 studying abroad. I would also like to give a warm thanks to my fellow
-students Pierre Kraft and Nachiappan Villiappan who have made the time
+students Pierre~Kraft and Nachiappan~Valliappan who have made the time
 spent working on the thesis way more enjoyable. Lastly I would like to
-give a special thanks to Valentina Méndez who have been a great moral
+give a special thanks to Valentina~Méndez who have been a great moral
 support throughout the whole process.

doc/chalmerstitle.sty

@@ -80,7 +80,7 @@ Master's thesis in Computer Science
 	
 	\vfill	
 	\centering
-	\includegraphics[width=0.2\pdfpagewidth]{logo_eng.pdf}
+	\includegraphics[width=0.2\pdfpagewidth]{assets/logo_eng.pdf}
   \vspace{5mm}
 	
 	\textsc{Department of Computer Science and Engineering}\\

doc/introduction.tex

@@ -75,8 +75,8 @@ some limitations inherent in ITT and -- by extension -- Agda.
 Consider the functions:
 %
 \begin{align*}%
-\var{zeroLeft}  & \defeq \lambda\; (n \tp \bN) \to (0 + n \tp \bN) \\
-\var{zeroRight} & \defeq \lambda\; (n \tp \bN) \to (n + 0 \tp \bN)
+\var{zeroLeft}  & \defeq λ\; (n \tp \bN) \to (0 + n \tp \bN) \\
+\var{zeroRight} & \defeq λ\; (n \tp \bN) \to (n + 0 \tp \bN)
 \end{align*}%
 %
 The term $n + 0$ is \nomenindex{definitionally} equal to $n$, which we

doc/presentation.tex

@@ -4,8 +4,12 @@
 %% \usecolortheme[named=seagull]{structure}
 
 \input{packages.tex}
+
 \input{macros.tex}
-\title[Univalent Categories]{Univalent Categories\\ \footnotesize A formalization of category theory in Cubical Agda}
+
+\title{Univalent Categories}
+\subtitle{A formalization of category theory in Cubical Agda}
+
 \newcommand{\myname}{Frederik Hangh{\o}j Iversen}
 \author[\myname]{
   \myname\\
@@ -74,14 +78,14 @@
   \framesubtitle{Definition}
   Heterogeneous paths
   \begin{equation*}
-    \Path \tp (P \tp I → \MCU) → P\ 0 → P\ 1 → \MCU
+    \Path \tp (P \tp \I → \MCU) → P\ 0 → P\ 1 → \MCU
   \end{equation*}
   \pause
-  For $P \tp I → \MCU$, $A \tp \MCU$ and $a_0, a_1 \tp A$
+  For $P \tp \I → \MCU$, $A \tp \MCU$ and $a_0, a_1 \tp A$
   inhabitants of $\Path\ P\ a_0\ a_1$ are like functions
   %
   $$
-  p \tp ∏_{i \tp I} P\ i
+  p \tp ∏_{i \tp \I} P\ i
   $$
   %
   Which satisfy $p\ 0 & = a_0$ and $p\ 1 & = a_1$
@@ -255,13 +259,13 @@
   \end{align*}
   where
   $$
-  \phi\ f ≜ \identity
-  ( \lll f ≡ f )
+  \phi\ f ≜
+  ( \identity \lll f ≡ f )
   ×
   ( f \lll \identity ≡ f)
   $$
   \pause
-  Let $\approxeq$ denote ismorphism of objects. We can then construct
+  Let $\approxeq$ denote isomorphism of objects.  We can then construct
   the identity isomorphism in any category:
   $$
   \identity , \identity , \var{isIdentity} \tp A \approxeq A
@@ -326,7 +330,7 @@
   Use $\lemPropF$ for the latter.
   \pause
   %
-  Univalence is indexed by an identity proof. So $A ≜
+  Univalence is indexed by an identity proof.  So $A ≜
   IsIdentity\ identity$ and $B ≜ \var{Univalent}$.
   \pause
   %
@@ -379,7 +383,7 @@
   \end{align*}
   \pause
   %
-  Induction will be based at $A$. Let $\widetilde{B}$ and $\widetilde{p}
+  Induction will be based at $A$.  Let $\widetilde{B}$ and $\widetilde{p}
   \tp A ≡ \widetilde{B}$ be given.
   %
   \pause
@@ -582,7 +586,7 @@
   \end{align*}
   \pause
   %
-  Let $\fmap$ be the map on arrows of $\EndoR$. Likewise
+  Let $\fmap$ be the map on arrows of $\EndoR$.  Likewise
   $\pure$ and $\join$ are the maps of the natural transformations
   $\pureNT$ and $\joinNT$ respectively.
   %
@@ -643,7 +647,7 @@
   \join ≜ \bind\ \identity
   $$
   \pause
-  The laws are logically equivalent. So we get:
+  The laws are logically equivalent.  So we get:
   %
   $$
   \var{Monoidal} ≃ \var{Kleisli}

doc/title.tex

@@ -37,7 +37,7 @@ Master's thesis in Computer Science
 	
 	\vfill	
 	\centering
-	\includegraphics[width=0.2\pdfpagewidth]{logo_eng.pdf}
+	\includegraphics[width=0.2\pdfpagewidth]{assets/logo_eng.pdf}
   \vspace{5mm}
 	
 	\textsc{Department of Computer Science and Engineering}\\