From f6b22fd533bd61e9dbcb6374295df321de99b1f2 Mon Sep 17 00:00:00 2001
From: Simon-Kor <52245124+Simon-Kor@users.noreply.github.com>
Date: Mon, 23 Sep 2024 03:05:41 +0200
Subject: Abgabe

---
 library/topology/urysohn2.tex | 18 ++++++++++++++----
 1 file changed, 14 insertions(+), 4 deletions(-)

(limited to 'library/topology/urysohn2.tex')

diff --git a/library/topology/urysohn2.tex b/library/topology/urysohn2.tex
index 08841da..a1a3ba0 100644
--- a/library/topology/urysohn2.tex
+++ b/library/topology/urysohn2.tex
@@ -15,7 +15,7 @@
 \import{topology/real-topological-space.tex}
 \import{set/equinumerosity.tex}
 
-\section{Urysohns Lemma}
+\section{Urysohns Lemma}\label{form_sec_urysohn}
 
 
 
@@ -891,15 +891,25 @@
             \begin{byCase}
                 \caseOf{$x \in (\carrier[X] \setminus \closure{\at{U'}{\max{\dom{U'}}}}{X})$.}
                     Therefore $x \notin \closure{\at{U'}{\max{\dom{U'}}}}{X}$.
-                    Therefore $x \notin \closure{\at{U'}{\min{\dom{U'}}}}{X}$.
+                    We show that $x \notin \closure{\at{U'}{\min{\dom{U'}}}}{X}$.
+                    \begin{subproof}
+                        Omitted.
+                    \end{subproof}
                     Therefore $x \notin  (\closure{\at{U'}{\max{\dom{U'}}}}{X}\setminus \closure{\at{U'}{\min{\dom{U'}}}}{X})$.
-                    Then $g(x) = 1$ .
+                    We show that $g(x) = 1$.
+                    \begin{subproof}
+                        Omitted.
+                    \end{subproof}
                 \caseOf{$x \in \closure{\at{U'}{\max{\dom{U'}}}}{X}$.}
                     \begin{byCase}
                         \caseOf{$x \in \closure{\at{U'}{\min{\dom{U'}}}}{X}$.}
-                            $g(x) = \zero$.
+                            We show that $g(x) = \zero$.
+                            \begin{subproof}
+                                Omitted.
+                            \end{subproof}
                         \caseOf{$x \in  (\closure{\at{U'}{\max{\dom{U'}}}}{X}\setminus \closure{\at{U'}{\min{\dom{U'}}}}{X})$.}
                             Then $g(x)$ is the staircase step value at $x$ of $U'$ in $X$.
+                            Omitted.
                     \end{byCase}
             \end{byCase}
 
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