Fixed typos and migrated to new version.
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@@ -4,6 +4,8 @@
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\begin{document}
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\begin{document}
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Hello this is all my notes.
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\input{./src/cat/index}
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\input{./src/cat/index}
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\input{./src/topology/index}
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\input{./src/topology/index}
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\input{./src/fa/index}
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\input{./src/fa/index}
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@@ -19,4 +19,6 @@ searchLimit = 16
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maxSearchPages = 48
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maxSearchPages = 48
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recentChanges = 0
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recentChanges = 0
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tableOfContentsDepth = 2
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tableOfContentsDepth = 2
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hoverPreview = false
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copyLabelButton = false
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advertiseSpec = true
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advertiseSpec = true
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@@ -77,7 +77,7 @@
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\begin{proof}
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\begin{proof}
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By translation, assume without loss of generality that $0 \in A$. In which case, $A \in \cn^o(0)$ is convex.
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By translation, assume without loss of generality that $0 \in A$. In which case, $A \in \cn^o(0)$ is convex.
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Let $[\cdot]_A: E \to [0, \infty)$ be the \hyperref[gaugeg]{definition:gauge} of $A$, then $[\cdot]_A$ is a sublinear functional on $E$. For any $y, z \in E$ and $t > 0$ with $y, z \in tA$,
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Let $[\cdot]_A: E \to [0, \infty)$ be the \hyperref[gauge]{definition:gauge} of $A$, then $[\cdot]_A$ is a sublinear functional on $E$. For any $y, z \in E$ and $t > 0$ with $y, z \in tA$,
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\[
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\[
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\abs{[y]_A - [z]_A} \le [y - z]_A \le t
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\abs{[y]_A - [z]_A} \le [y - z]_A \le t
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\]
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\]
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@@ -23,7 +23,7 @@
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\begin{proof}
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\begin{proof}
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Let $\td E = E/M$ be the algebraic quotient of $E$ by $M$, and equip it with the quotient topology by $\pi$.
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Let $\td E = E/M$ be the algebraic quotient of $E$ by $M$, and equip it with the quotient topology by $\pi$.
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(1): By \autoref{definition:quotient-topology}, for each $\pi(U) \subset E/M$, $\pi(U)$ is open if and only if $U$ is open. Since the topology on $E$ is translation-invariant, so is the quotient topology on $E/M$. Let
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(1): For each $U \subset E$ open, $\pi^{-1}\pi(U) = U + M$ is open, so $\pi(U)$ is open as well by \autoref{definition:quotient-topology}. Since the topology on $E$ is translation-invariant, so is the quotient topology on $E/M$. Let
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\[
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\[
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\fB = \bracs{\pi(U)| U \in \cn(0) \text{ circled and radial}}
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\fB = \bracs{\pi(U)| U \in \cn(0) \text{ circled and radial}}
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\]
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\]
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