
\documentclass[12pt]{article}
\usepackage{amssymb,latexsym,epsfig,anysize}

\def\arrow{\to}
\def\cross{\times}
\def\Intersect{\bigcap}

\def\comb#1#2{\left(
              \begin{array}{c}
              #1 \\ #2
              \end{array}\right) }

\def\part#1#2{\left\{
              \begin{array}{c}
              #1 \\ #2
              \end{array}\right\} }

\def\cycle#1#2{\left[
              \begin{array}{c}
              #1 \\ #2
              \end{array}\right] }


\def\rmand{\mbox{ and }}

\pagestyle{empty}

\begin{document}


\begin{flushleft}
          Fall 93\\
          Math 475 \\
          A.Miller
\end{flushleft}

\vspace{.5in}

       Due  Mon Dec 13

\vspace{.5in}

  Chapter 11  p. 482-490

\bigskip

\centerline{ 5 20 21 28 30 41 44 49 53 56}

\vspace{.5in}



 Chapter 12  p. 540-542

\bigskip

\centerline{4 5 19}

\vspace{.5in}

(A) Prove Theorem 11.8.2 page 474.

(B) Suppose $G=(V,E)$ is a graph with the property that
deg$(v)\geq k$ for every $v\in V$.  Prove that $G$ has a path
with at least $k+1$ distinct vertices on it.

(C) Suppose twelve people are at a dinner party in which every
person knows at least six others. Prove that all twelve can be
seated at a circular table in such a way that each person is
acquanted with the persons sitting on either side.

(D) Show that if one edge is removed from the graph $K_5$ the resulting
graph is planar.  Is the same thing true for $K_{3,3}$?


\vspace{.5in}




\begin{center}
{\Large \bf Final Exam:\\
 Monday, Dec 20, 12:25-2:25\\
 434 Education.}
\end{center}

\end{document}
