Ich versuche, eine Tabelle zu erstellen, die bis zur nächsten Seite fortgesetzt wird, sodass in der Mitte des Dokuments keine Leerstellen entstehen.
Wenn ich jedoch die lange Tabellenumgebung verwende, erhalte ich Folgendes:
\documentclass{article}
\usepackage[utf8]{inputenc}
\usepackage{longtable}
\begin{document}
\section{Introduction}
\section{Internal Functioning}
Magnetism is a property of matter that is a result of the orbiting electrons in atoms. The orbiting electrons cause the atoms to have a magnetic moment associated with an intrinsic angular momentum called spin. Spin will be discussed in more detail a little bit further down. It's convenient to imagine the electron spinning on its axis with the up and down orientations. However, in reality the electron is not physically spinning!
The following list gives a detailed description of each of this files.
\subsection{List of Program Components}
\subsubsection{alpha.py}
\textbf{Description:}
sndmbfjherhfiuewhiu
skdjfiejijfiejfiojowejqo
ksnjhewiufhiwef
ksdnfjnaiefhie
ajksdnfiefiuej
\textbf{Modules used:} 123
\textbf{Functional Specifications of the Functions:}\medskip
\begin{longtable}{ | p{3cm} | p{10cm}| }
\hline
\textbf{to} & kur\medskip
xmcnkdskjfakjfjkla;kslfk;lak;dslfklsd;k;alk;fekfoe \medskip
Magnetism is a property of matter that is a result of the orbiting electrons in atoms. The orbiting electrons cause the atoms to have a magnetic moment associated with an intrinsic angular momentum called spin. Spin will be discussed in more detail a little bit further down. It's convenient to imagine the electron spinning on its axis with the up and down orientations. However, in reality the electron is not physically spinning!
The body is largely composed of water molecules. Each water molecule has two hydrogen nuclei or protons. MRI takes advantage of the high prevalence of hydrogen in the body and the magnetic properties of the proton in a hydrogen atom. Hydrogen atoms induce a small magnetic field due to the spin of this atom's proton. When a person goes inside the powerful magnetic field of the scanner, the magnetic moments (the measure of its tendency to align with a magnetic field) of some of these protons changes, and aligns with the direction of the field.
The magnetic field in an magnetic resonance imaging (MRI) scanner is generated by surrounding a coil of wire with super cooling fluids (liquid helium and liquid nitrogen) lowering the temperature to about 10°K (-263°C or -441°F). Electrical current in the coil moves very fast creating the extremely large magnetic field.
kap(Integer, size -1)\medskip
\textbf{output}\par
theta\par
ppp\par
ooo\par
werwr\bigskip
kdkfjkrjeie\par
mdfmkerjoij\par
assad\\
\hline
\end{longtable}
\end{document}
Wie kann ich erreichen, dass die Tabelle auf der ersten Seite beginnt und bis zur zweiten Seite fortgesetzt wird?
Antwort1
Das ist zwar ein bisschen ein Kludge, aber mit Paracol geht es. Beachten Sie das \struts in der ersten und letzten Zeile. Die erste und letzte Spalte dienen nur dazu, vertikale Linien in den entstehenden \columnsepLücken zu erstellen.
\documentclass{article}
\usepackage[utf8]{inputenc}
\usepackage{paracol}
\begin{document}
\section{Introduction}
\section{Internal Functioning}
Magnetism is a property of matter that is a result of the orbiting electrons in atoms. The orbiting electrons cause the atoms to have a magnetic moment associated with an intrinsic angular momentum called spin. Spin will be discussed in more detail a little bit further down. It's convenient to imagine the electron spinning on its axis with the up and down orientations. However, in reality the electron is not physically spinning!
The following list gives a detailed description of each of this files.
\subsection{List of Program Components}
\subsubsection{alpha.py}
\textbf{Description:}
sndmbfjherhfiuewhiu
skdjfiejijfiejfiojowejqo
ksnjhewiufhiwef
ksdnfjnaiefhie
ajksdnfiefiuej
\textbf{Modules used:} 123
\textbf{Functional Specifications of the Functions:}\medskip
\columnseprule=0.4pt
\setcolumnwidth{\dimexpr 0.5\columnseprule-0.5\columnsep,3cm,8cm}
\begin{paracol}{4}
\parindent=0pt
\switchcolumn[1]*[\hrule width\dimexpr11cm+2\columnsep+\columnseprule]
\strut\textbf{to}
\switchcolumn[2]
\strut kur\medskip
xmcnkdskjfakjfjkla;kslfk;lak;dslfklsd;k;alk;fekfoe \medskip
Magnetism is a property of matter that is a result of the orbiting electrons in atoms. The orbiting electrons cause the atoms to have a magnetic moment associated with an intrinsic angular momentum called spin. Spin will be discussed in more detail a little bit further down. It's convenient to imagine the electron spinning on its axis with the up and down orientations. However, in reality the electron is not physically spinning!
The body is largely composed of water molecules. Each water molecule has two hydrogen nuclei or protons. MRI takes advantage of the high prevalence of hydrogen in the body and the magnetic properties of the proton in a hydrogen atom. Hydrogen atoms induce a small magnetic field due to the spin of this atom's proton. When a person goes inside the powerful magnetic field of the scanner, the magnetic moments (the measure of its tendency to align with a magnetic field) of some of these protons changes, and aligns with the direction of the field.
The magnetic field in an magnetic resonance imaging (MRI) scanner is generated by surrounding a coil of wire with super cooling fluids (liquid helium and liquid nitrogen) lowering the temperature to about 10°K (-263°C or -441°F). Electrical current in the coil moves very fast creating the extremely large magnetic field.
kap(Integer, size -1)\medskip
\textbf{output}\par
theta\par
ppp\par
ooo\par
werwr\bigskip
kdkfjkrjeie\par
mdfmkerjoij\par
assad\strut
\switchcolumn[1]*[\hrule width\dimexpr11cm+2\columnsep+\columnseprule]
\end{paracol}
\end{document}
Diese Version erstellt eine Umgebung mytabularzur Vereinfachung der Anwendung. Die Breite der ersten Spalte ist anpassbar und die zweite Spalte füllt den Textbereich.
\documentclass{article}
\usepackage[utf8]{inputenc}
\usepackage{paracol}
\newenvironment{mytabular}[1][3cm]% #1 = width of first column (optonal)
{\columnseprule=0.4pt
\setcolumnwidth{\dimexpr 0.5\columnseprule-0.5\columnsep\relax,
#1,
\dimexpr \textwidth-#1-2\columnsep-2\columnseprule\relax,
\dimexpr 0.5\columnseprule-0.5\columnsep\relax}%
\parindent=0pt
\def\hline{\switchcolumn[1]*[\hrule width\textwidth]}%
\begin{paracol}{4}}%
{\end{paracol}}
\begin{document}
\section{Introduction}
\section{Internal Functioning}
Magnetism is a property of matter that is a result of the orbiting electrons in atoms. The orbiting electrons cause the atoms to have a magnetic moment associated with an intrinsic angular momentum called spin. Spin will be discussed in more detail a little bit further down. It's convenient to imagine the electron spinning on its axis with the up and down orientations. However, in reality the electron is not physically spinning!
The following list gives a detailed description of each of this files.
\subsection{List of Program Components}
\subsubsection{alpha.py}
\textbf{Description:}
sndmbfjherhfiuewhiu
skdjfiejijfiejfiojowejqo
ksnjhewiufhiwef
ksdnfjnaiefhie
ajksdnfiefiuej
\textbf{Modules used:} 123
\textbf{Functional Specifications of the Functions:}\medskip
\begin{mytabular}
\hline
\strut\textbf{to}
\switchcolumn
\strut kur\medskip
xmcnkdskjfakjfjkla;kslfk;lak;dslfklsd;k;alk;fekfoe \medskip
Magnetism is a property of matter that is a result of the orbiting electrons in atoms. The orbiting electrons cause the atoms to have a magnetic moment associated with an intrinsic angular momentum called spin. Spin will be discussed in more detail a little bit further down. It's convenient to imagine the electron spinning on its axis with the up and down orientations. However, in reality the electron is not physically spinning!
The body is largely composed of water molecules. Each water molecule has two hydrogen nuclei or protons. MRI takes advantage of the high prevalence of hydrogen in the body and the magnetic properties of the proton in a hydrogen atom. Hydrogen atoms induce a small magnetic field due to the spin of this atom's proton. When a person goes inside the powerful magnetic field of the scanner, the magnetic moments (the measure of its tendency to align with a magnetic field) of some of these protons changes, and aligns with the direction of the field.
The magnetic field in an magnetic resonance imaging (MRI) scanner is generated by surrounding a coil of wire with super cooling fluids (liquid helium and liquid nitrogen) lowering the temperature to about 10°K (-263°C or -441°F). Electrical current in the coil moves very fast creating the extremely large magnetic field.
kap(Integer, size -1)\medskip
\textbf{output}\par
theta\par
ppp\par
ooo\par
werwr\bigskip
kdkfjkrjeie\par
mdfmkerjoij\par
assad\strut
\hline
\end{mytabular}
\end{document}