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[lectures/latex.git] / computational_physics / cp.tex
1 \documentclass[pdf]{prosper}
2
3 \usepackage{verbatim}
4 \usepackage[german]{babel}
5 \usepackage[latin1]{inputenc}
6 \usepackage[T1]{fontenc}
7 \usepackage{amsmath}
8 \usepackage{ae}
9 \usepackage{aecompl}
10 \usepackage{color}
11 \usepackage{graphicx}
12 \graphicspath{{./}}
13 \usepackage{hyperref}
14
15 \title{introduction to computational physics}
16 \subtitle{basic concepts and approaches}
17 \author{frank zirkelbach}
18 \email{frank.zirkelbach@physik.uni-augsburg.de}
19 \institution{experimantal physics {\footnotesize IV} - university of augsburg}
20
21 \begin{document}
22
23 \maketitle
24
25 \overlays{5}{
26 \begin{slide}{outline}
27 \begin{itemstep}
28   \item motivation
29   \item history of computing hardware/software
30   \item warning
31   \item computational techniques
32   \item summary
33 \end{itemstep}
34 \end{slide}}
35
36 \overlays{4}{
37 \begin{slide}{motivation}
38 \FromSlide{1}{
39   \begin{center}
40   \begin{figure}[h]
41   \includegraphics[width=8cm]{cp_appl_field.eps}
42   \end{figure}
43   \end{center}
44 }
45 \FromSlide{2}{
46 challenge:
47 }
48 \FromSlide{3}{
49 \begin{itemize}
50   \item precise mathematical theory
51   \item often: solving theory's equations ab-initio is not realistic
52   \item only a few models can be solved exactly
53 \end{itemize}}
54 \FromSlide{4}{
55 $\Rightarrow$ study and implementation of numerical algorithms
56 }
57 \end{slide}}
58
59 \overlays{5}{
60 \begin{slide}{history of computing hardware}
61 \begin{tabular}{rc}
62   \begin{minipage}{4cm}
63      \onlySlide*{1}{\includegraphics[width=4cm]{abacus.eps}}
64      \onlySlide*{2}{\includegraphics[width=4cm]{eniac.eps}}
65      \onlySlide*{3}{\includegraphics[width=4cm]{z1.eps}}
66      \FromSlide{4}{\includegraphics[width=4cm]{pdp1.eps}}
67   \end{minipage} &
68   \begin{minipage}{7cm}
69     \begin{itemstep}
70       \item $3000 bc$: abacus\\
71             first calculating device
72       \item $1945$: eniac\\
73             electrical digital computer
74       \item $1938/41$: z1/3\\
75              featuring memory and programmability
76       \item $1960$: transistor based computers
77     \end{itemstep}
78   \end{minipage}
79 \end{tabular}
80 \FromSlide{5}{
81 foo
82 }
83 \end{slide}}
84
85 \begin{slide}{}
86
87 \end{slide}
88
89 \begin{slide}{}
90
91 \end{slide}
92
93 \begin{slide}{}
94
95 \end{slide}
96
97 \begin{slide}{computational techniques}
98 techniques discussed in the talk:
99 \begin{itemize}
100   \item rough discretization
101   \item solution of linear algebraic equations
102   \item interpolation and extrapolation
103   \item integration of functions
104   %\item evaluation of (special) functions
105   \item monte carlo methods
106   \item eigensystems
107   \item spectral applications
108   %\item modeling of data
109   %\item ordinary differential equations
110   %\item two point boundary value problems
111   %\item partial differential equations
112 \end{itemize}
113 \end{slide}
114
115 \begin{slide}{computational techniques}
116 techniques \textcolor{red}{not yet} discussed in the talk:\footnote{if time is available this will be completed. read more at http://www.nr.com}
117 \begin{itemize}
118   %\item rough discretization
119   %\item solution of linear algebraic equations
120   %\item interpolation and extrapolation
121   %\item integration of functions
122   \item evaluation of (special) functions
123   %\item monte carlo methods
124   %\item eigensystems
125   %\item spectral applications
126   \item modeling of data
127   \item ordinary differential equations
128   \item two point boundary value problems
129   \item partial differential equations
130 \end{itemize}
131 \hspace{6cm}
132 \end{slide}
133
134 \end{document}