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%%
%% This is file `formula.sty',
%% generated with the docstrip utility.
%%
%% The original source files were:
%%
%% formula.dtx (with options: `formula')
%%
%% Copyleft 1997 Andreas Tille
%%
%% Usage without any waranty
%%
\csname @ifundefined\endcsname{formuladef}{}{\endinput}
\NeedsTeXFormat{LaTeX2e}[1997/12/01]
\ProvidesPackage{formula}
\RequirePackage{amsfonts}
\RequirePackage{amstext}
\RequirePackage{textcomp}[1998/03/05 v1.9n]
\RequirePackage{xspace}
\def\formuladef#1 #2 #3 #4{%
\globaldefs=1%
\expandafter\newcommand\expandafter{\csname#1\endcsname}
{\relax\ensuremath{#2}\xspace}%
\expandafter\newcommand\expandafter{\csname#1doc\endcsname}
{\csname#1\endcsname & #3\\}%
\expandafter\newcommand\expandafter{\csname#1art\endcsname}
{#4\xspace}% der Artikel
\expandafter\newcommand\expandafter{\csname#1txt\endcsname}
{#3\xspace}% der beschreibende Text
\expandafter\newcommand\expandafter{\csname#1my\endcsname}
{{\tt\char92#1} & \csname#1doc\endcsname}
\globaldefs=0}%
\def\formulaarg#1 #2 #3 #4 #5{%
\globaldefs=1%
\expandafter\newcommand\expandafter{\csname#1\endcsname}[1]%
{\relax\ensuremath{#2{##1}}\xspace}%
\expandafter\newcommand\expandafter{\csname#1doc\endcsname}%
{\csname#1\endcsname{#5} & #3\\}%
\expandafter\newcommand\expandafter{\csname#1art\endcsname}%
{#4}% der Artikel
\expandafter\newcommand\expandafter{\csname#1txt\endcsname}%
{#3}% der beschreibende Text
\expandafter\newcommand\expandafter{\csname#1my\endcsname}%
{{\tt\char92#1\{}{\em #5}{\tt \}} & \csname#1doc\endcsname}
\globaldefs=0}%
\def\formulamit#1 #2 #3 #4 #5 #6{%
\globaldefs=1%
\expandafter\newcommand\expandafter{\csname#1\endcsname}[1]%
{\relax\ensuremath{#2{##1}#3}\xspace}%
\expandafter\newcommand\expandafter{\csname#1doc\endcsname}
{\csname#1\endcsname{#6} & #4\\}%
\expandafter\newcommand\expandafter{\csname#1art\endcsname}
{#5}% der Artikel
\expandafter\newcommand\expandafter{\csname#1txt\endcsname}
{#4}% der beschreibende Text
\expandafter\newcommand\expandafter{\csname#1my\endcsname}%
{{\tt\char92#1\{}{\em #6}{\tt \}} & \csname#1doc\endcsname}
\globaldefs=0}%
\def\formuladiff#1 #2 #3 #4 #5 #6{%
\globaldefs=1%
\expandafter\newcommand\expandafter{\csname#1\endcsname}[1]%
{\relax\ensuremath{\frac{#2^{##1}#3}{#2#4^{##1}}}\xspace}%
\expandafter\newcommand\expandafter{\csname#1doc\endcsname}%
{\csname#1\endcsname{n} & #5\\}%
\expandafter\newcommand\expandafter{\csname#1art\endcsname}%
{#6}% der Artikel
\expandafter\newcommand\expandafter{\csname#1txt\endcsname}%
{#5}% der beschreibende Text
\expandafter\newcommand\expandafter{\csname#1my\endcsname}%
{{\tt\char92#1\{}{\em n}{\tt \}} & \csname#1doc\endcsname}
\globaldefs=0}%
\newcommand{\eorg}[2]{%
\expandafter\ifx\csname l@german\endcsname\relax #1%
\else \ifnum\csname l@german\endcsname=\language #2%
\else #1\fi\fi}
\newif\ifpredefinition
\predefinitiontrue
\newcommand{\NoPreDefinition}{\predefinitionfalse}
\DeclareOption{nopredefinition}{\NoPreDefinition}
\ProcessOptions
\ifpredefinition
\formuladef MA {\text{\bf A}}
{\eorg{m}{M}atrix A} {\eorg{the}{die}}
\formuladef Cmess {\text{C}_m}
{\eorg{linear capacitor for measurement}
{linearer Me\ss{}kondensator}} {}
\formuladef Cnl {C_{nl}}
{\eorg{nonlinear capacity of the sample}
{nichtlineare Kapazit\"at der Probe}} {\eorg{the}{die}}
\formulaarg Cr {\mathbb{C}^}
{\eorg{set of r times continuous differentiable functions}
{Menge der r-mal stetig differenzierbaren Funktionen}}
{} {r}
\formuladef dPR {d}
{\eorg{d}{D}imension \eorg{of phase space}{des Phasenraums}} {die}
\formuladef DV {D}
{dielektrische Verschiebung} {die}
\formuladef Det {\text{det}}
{Determinante einer Matrix} {die}
\formuladef Dx {\text{\bf D}_x}
{Jakobimatrix} {die}
\formuladef EF {E}
{elektrische Feldst\"arke} {die}
\formuladef EC {E_C}
{Koerzitivfeldst\"arke} {die}
\formuladef ECnl {E_{\Cnl}}
{elektrische Feldst\"arke \"uber der Probe} {die}
\formuladef dynSys {\vec{f}(\vec{x},\vp)}
{beliebiges dynamisches System} {ein}
\formulamit Effi {f_} {(\cdot,\cdot)}
{} {} {i}
\formuladef falles {\Effi{1}, \Effi{2}, \cdots}
{Komponenten des beliebigen dynamischen Systems} {}
\formuladef F {\text{F}}
{Probenfl\"ache} {die}
\formuladef Fouri {\mathcal{F}}
{Fouriertransformation} {die}
\formuladef Fourin {\text{F}_{i,n}}
{$n$-te Fourierkomponente von \Effi{i}} {die}
\formuladef FOp {\Fouri_{n}}
{Operator f\"ur die $n$-te Fourierkomponente} {der}
\formuladef FB {\text{f}}
{Brennweite} {die}
\formuladef freq {f}
{Frequenz} {die}
\formuladef vf {\vec{f}}
{Vektorfeld} {ein}
\formuladef fa {\freq_a}
{Abtastfrequenz} {die}
\formuladef fgrund {\freq_{ext}}
{Anregungsfrequenz der Schwingung} {die}
\formuladef fstrob {\freq_s}
{Blitzfrequenz des Stroboskops} {die}
\formuladef fvirt {\freq_v}
{virtuelle Frequenz} {die}
\formuladef vfO {\vf(\vO)}
{Vektorfeld f im Ursprung} {}
\formuladef FE {G}
{freie Enthalpie} {die}
\formuladef FEO {\FE_0}
{temperaturunabh\"angiger Anteil der freien Energie} {}
\formuladef h {\text{h}}
{Probendicke} {die}
\formuladef Hrel {H_r}
{relative Helligkeit eines Videobildes} {die}
\formuladef IH {I}
{elektrische Stromst\"arke} {die}
\formuladef Itot {\IH_{tot}}
{Gesamtstromst\"arke} {die}
\formuladef ICnl {\IH_{\Cnl}}
{Strom durch die nichtlineare Kapazit\"at} {der}
\formuladef IRp {\IH_{\Rp}}
{Strom durch den Parallelverlustwiderstand \Rp} {der}
\formuladef je {j}
{Stromdichte} {die}
\formuladef Lx {\text{L}}
{Induktivit\"at der linearen Spule} {die}
\formuladef vO {\vec{o}}
{Nullvektor} {der}
\formuladef Par {p}
{} {}
\formuladef vp {\vec{\Par}}
{Modellparameter} {die}
\formulaarg Para {\Par_}
{} {} {i}
\formuladef Parai {\Para{1}, \Para{2}, \cdots}
{Komponenten der Modellparameter} {die}
\formuladef Pol {P}
{Polarisation} {die}
\formuladef Poinc {\mathfrak{P}}
{Poincar\'e-Ebene} {die}
\formuladef Pols {\Pol_s}
{spontane Polarisation} {die}
\formuladef Lad {Q}
{elektrische Ladung} {die}
\formuladef Rz {\mathbb{R}}
{reeller Raum} {}
\formuladef Rx {\text{R}}
{Widerstand} {}
\formuladef RCnl {\Rx_{\Cnl}}
{linearer Widerstand in der Ersatzschaltung der Probe} {}
\formuladef RL {\Rx_{\Lx}}
{Verlustwiderstand der Spule} {der}
\formuladef Rlin {\Rx_{lin}}
{linearer Verlustwiderstand; \Rlin = \RL + \Rmess} {}
\formuladef Rmess {\Rx_m}
{linearer Me\ss{}widerstand} {}
\formulaarg Rn {\Rz^}
{n-dimensionaler reeller Raum} {} {n}
\formuladef Rp {\Rx_p}
{Parallelverlustwiderstand der nichtlinearen Kapazit\"at} {der}
\formuladef Rs {\Rx_s}
{Serienverlustwiderstand der nichtlinearen Kapazit\"at} {der}
\formuladef Spur {\text{Spur}}
{Spur einer Matrix} {die}
\formuladef tx {t}
{Zeit} {die}
\formuladef T {T}
{Periodendauer} {die}
\formuladef Te {\text{T}}
{Temperatur} {die}
\formuladef ta {\tx_a}
{Abtastzeit} {die}
\formuladef te {\tx_e}
{Delay-Zeit} {die}
\formuladef Tgrund {\T_0}
{Periodendauer der Anregung} {die}
\formuladef TC {\Te_C}
{absolute Curie-Temperatur} {die}
\formuladef TCrit {\Te_{crit}}
{kritische absolute Temperatur} {die}
\formuladef Ux {U}
{Spannung} {die}
\formuladef Umg {\mathbb{U}}
{Umgebung} {}
\formuladef Ueff {\Ux_{ef\kern-1pt{f}}}
{Effektivwert der Anregungsspannung} {der}
\formuladef Uext {\Ux_{ext}}
{externe Spannung} {die}
\formuladef UCnl {\Ux_{\Cnl}}
{Spannung \"uber \Cnl} {die}
\formuladef URL {\Ux_{\RL}}
{Spannung \"uber \RL} {die}
\formuladef URs {\Ux_{\Rs}}
{Spannung \"uber \Rs} {die}
\formuladef Vnl {V_{nl}}
{nichtlineares Potential} {}
\formuladef x {x}
{beliebige skalare physikalische Gr\"o\ss{}e} {}
\formuladef dxdt {\dot x}
{Ableitung von x nach der Zeit} {}
\formuladef vx {\vec{x}}
{beliebige vektorielle physikalische Gr\"o\ss{}e} {}
\formuladef vX {\vec{X}}
{Fouriertransformierte der vektoriellen Gr\"o\ss{}e \vx} {}
\formuladef xO {x_0}
{} {}
\formuladef vxO {\vec{\xO}}
{} {}
\formulaarg PotK {\alpha_}
{} {} {i}
\formuladef PotKo {\PotK{2}, \PotK{4}}
{Koeffizienten des nichtlinearen Potentials \Vnl} {die}
\formulaarg LanK {\tilde{\alpha}_}
{} {} {i}
\formuladef LanKo {\LanK{1}, \LanK{2}, \cdots}
{Entwicklungskoeffizienten der Landau-Entwicklung} {die}
\formuladef Feige {\delta}
{Feigenbaum-Konstante} {die}
\formuladef Abli {\partial_i}
{Ableitungsoperator nach der $i$-ten Koordinate} {der}
\formuladef eps {\varepsilon}
{Dielektrizit\"atskonstante} {die}
\formuladef epsO {\eps_0}
{Influenzkonstante $\epsO = 8.84\cdot 10^{-12}\AsVm$} {die}
\formuladef epsr {\eps_r}
{relative Dielektrizit\"atskonstante} {die}
\formuladef OP {\eta}
{Ordnungsparameter} {der}
\formuladef Ev {\eta}
{mit Index: Komponente des Eigenvektors} {der}
\formuladef vEv {\vec{\Ev}}
{Eigenvektor} {der}
\formuladef GOP {\OP^{*}}
{Gleichgewichtswert des Ordnungsparameters} {der}
\formuladef Ewl {\lambda}
{Eigenwert} {der}
\formuladef phistrob {\varphi_s}
{Phasenwinkel des Stroboskops} {der}
\formuladef TGrdC {\vartheta}
{Temperatur in Celsius} {die}
\formuladef ThC {\TGrdC_C}
{Curie-Temperatur} {die}
\formuladef ThCrit {\TGrdC_{crit}}
{kritische Temperatur} {die}
\formuladef oC {\omega}
{Kreisfrequenz $\oC = 2\pi\freq$} {die}
\formuladef oO {\oC_0}
{Grundfrequenz} {die}
\formuladef siehe {\rightarrow}
{siehe} {}
\formuladef drf {\Rightarrow}
{daraus folgt} {}
\fi% end of predefinition
\def\formulaunit#1 #2 #3 #4 #5{%
\globaldefs=1%
\expandafter\newcommand\expandafter{\csname#1\endcsname}%
{\relax\ensuremath{\text{\,#2}#3\text{#4}}\xspace}%
\expandafter\newcommand\expandafter{\csname#1doc\endcsname}
{{\em x}\csname#1\endcsname & #5\\}%
\expandafter\newcommand\expandafter{\csname#1txt\endcsname}
{#5}% description of units in words
\expandafter\newcommand\expandafter{\csname#1my\endcsname}%
{{\em x\tt\char92#1} & \csname#1doc\endcsname}
\globaldefs=0}%
\ifpredefinition
\formulaunit mn {} {} min {\eorg{minute}{Minute}}
\formulaunit sek {} {} s {\eorg{second}{Sekunde}}
\formulaunit msek {m} {} s {Millisekunde}
\formulaunit musek {} {\text{\textmu}} s {Mikrosekunde}
\formulaunit m {} {} m {Meter}
\formulaunit cm {c} {} m {Zentimeter}
\formulaunit mm {m} {} m {Millimeter}
\formulaunit mum {} {\text{\textmu}} m {Mikrometer}
\formulaunit nm {n} {} m {Nanometer}
\formulaunit li {} {} l {Liter}
\formulaunit ml {m} {} l {Milliliter}
\formulaunit g {} {} g {Gramm}
\formulaunit kg {k} {} g {Kilogramm}
\formulaunit Hz {} {} Hz {Hertz}
\formulaunit kHz {k} {} Hz {Kilohertz}
\formulaunit MHz {M} {} Hz {Megahertz}
\formulaunit MV {M} {} V {Megavolt}
\formulaunit kV {k} {} V {Kilovolt}
\formulaunit Vo {} {} V {Volt}
\formulaunit mV {m} {} V {Millivolt}
\formulaunit Ohm {} {\text{\textohm}} {} {Ohm}
\formulaunit kOhm {k} {\text{\textohm}} {} {Kiloohm}
\formulaunit MOhm {M} {\text{\textohm}} {} {Megaohm}
\formulaunit muF {} {\text{\textmu}} F {Mikrofarad}
\formulaunit nF {n} {} F {Nanofarad}
\formulaunit pF {p} {} F {Picofarad}
\formulaunit He {} {} H {Henry}
\formulaunit mH {m} {} H {Millihenry}
\formulaunit K {} {} K {Kelvin}
\formulaunit grd {} {\text{\textdegree}} {} {Grad}
\formulaunit grdC {} {\text{\textcelsius}} {} {Grad Celsius}
\formulaunit J {} {} {J} {Joule}
\formulaunit muJ {} {\text{\textmu}} {J} {Mikrojoule}
\formulaunit mW {m} {} {W} {Milliwatt}
\formulaunit W {} {} {W} {Watt}
\formulaunit Bit {} {} Bit {Bit}
\formulaunit Byte {} {} HByte {Byte}
\formulaunit kByte {k} {} Byte {Kilobyte}
\formulaunit MByte {M} {} Byte {Megabyte}
\formulaunit Bilderprosek {} {} {\eorg{images}{Bilder}/s} {\eorg{Bilder pro Sekunde}{images per second}}
\formulaunit Bilder {} {} {\eorg{images}{Bilder}} {\eorg{images}{Bilder}}
\formulaunit dpi {} {} {dpi} {\eorg{dots per inch}{Punkte pro Zoll}}
\formulaunit Prozent {} {} {\%} {\eorg{per cent}{Prozent}}
\formulaunit Upromin {} {} {U/min} {Umdrehungen pro Minute}
\formulaunit AsVm {} {} {\ensuremath{\frac{\text{As}}{\text{Vm}}}}
{Amperesekunden pro Voltmeter}
\formulaunit DM {} {} {DM} {DM}
\formulaunit TDM {T} {} {DM} {tausend DM}
\fi% end predefinition
\newcommand{\Odif}[2]{\frac{\partial #1}{\partial #2}}
\newcommand{\odif}[2]{\relax\ensuremath{\Odif{#1}{#2}}}
\newcommand{\Pdif}[2]{\left( \odif{#1}{#2} \right)}
\newcommand{\pdif}[2]{\relax\ensuremath{\Pdif{#1}{#2}}}
\newcommand{\OSdif}[2]{\frac{\partial^2 #1}{\partial #2^2}}
\newcommand{\osdif}[2]{\relax\ensuremath{\OSdif{#1}{#2}}}
\newcommand{\OOdif}[3]{\frac{\partial^2 #1}{\partial #2 \partial #3}}
\newcommand{\oodif}[3]{\relax\ensuremath{\OOdif{#1}{#2}{#3}}}
\newcommand{\PPdif}[3]{\left( \oodif{#1}{#2}{#3} \right)}
\newcommand{\ppdif}[3]{\relax\ensuremath{\PPdif{#1}{#2}{#3}}}
\newcommand{\OOOdif}[4]{\frac{\partial^3 #1}{\partial #2 \partial #3 \partial #4}}
\newcommand{\ooodif}[4]{\relax\ensuremath{\OOOdif{#1}{#2}{#3}{#4}}}
\newcommand{\PPPdif}[4]{\left( \ooodif{#1}{#2}{#3}{#4} \right)}
\newcommand{\pppdif}[4]{\relax\ensuremath{\PPPdif{#1}{#2}{#3}{#4}}}
\newcommand{\OOSdif}[3]{\frac{\partial^3 #1}{\partial #2^2\partial #3}}
\newcommand{\oosdif}[3]{\relax\ensuremath{\OOSdif{#1}{#2}{#3}}}
\newcommand{\beq}{\begin{equation}}
\newcommand{\eeq}{\end{equation}}
\newcommand{\bea}{\begin{eqnarray}}
\newcommand{\eea}{\end{eqnarray}}
\def\be*{\begin{eqnarray*}}
\def\ee*{\end{eqnarray*}}
\def\buildrul#1\over #2{\mathrel {\mathop {#1}\limits_{#2}}}
\endinput
%%
%% End of file `formula.sty'.
|