TeX - LaTeX Asked on December 3, 2021
So I have been working on an article about integration and its techniques, and at the ending I decided to add a tabular contains the most frequently functions and its antiderivatives, but the problem is that it looks ugly (lol), so any suggests to make it look fancier?
Here’s the ugly tablar:
begin{tabular}{|c|c|c|}
hline
$mathbb{R}_+^*$ & $x^n $ & $frac{x^{n+1}}{n+1}+c$ \
hline
$mathbb{R}^*$ & $frac{1}{x}$ & $ln vert xvert +c$ \
hline
$mathbb{R}$ & $e^{lambda x}$ & $frac{1}{lambda}e^x+c$ \
hline
$mathbb{R}$ & $a^{lambda x} $ & $frac{a^x}{ln(a)}+c$ \
hline
$mathbb{R}$ & $cos (omega x) $ & $frac{1}{omega}sin(omega x)+c$ \
hline
$mathbb{R}$ & $sin (omega x) $ & $frac{1}{omega} cos(omega x)+c$ \
hline
$]frac{-pi}{2} ,frac{pi}{2}[$ & $tan x$ & $-ln vert cos xvert +c$ \
hline
$]frac{-pi}{2} ,frac{pi}{2}[$ & $1+tan ^2 x text{ou} frac{1}{cos^2 x}$ & $tan x +c$ \
hline
$]0,pi[$ & $frac{1}{sin^2 x}$ & $-frac{1}{tan x}+c$ \
hline
$mathbb{R}$ & $cosh (omega x) $ & $frac{1}{omega} sinh (omega x)+c$ \
hline
$mathbb{R}$ & $sinh (omega x)$ & $frac{1}{omega x} cosh (omega x)+c$ \
hline
$mathbb{R}$ & $tanh (omega x)$ & $lnleft(cosh xright)+c$ \
hline
$mathbb{R}$ & $frac{1}{cosh^2 x} text{ou} 1-tanh^2 x$ & $tanh x+c$ \
hline
$mathbb{R}^*$ & $frac{1}{sinh^2 x}$ & $-frac{1}{tanh x}+c$ \
hline
$mathbb{R}$ & $frac{1}{1+x^2}$ & $arctan x+c$ \
hline
$]-1,1[$ & $frac{1}{sqrt{1-x^2}}$ & $arcsin x +c$ \
hline
$]-1,1[$ & $frac{1}{1-x^2}$ & $tanh^{-1} x+c$ \
hline
$mathbb{R}$ & $frac{1}{sqrt{x^2+1}}$ & $sinh ^{-1} x+c$ \
hline
$[1,+infty [$ & $frac{1}{sqrt{x^2-1}}$ & $cosh^{-1} x+c$ \
hline
end{tabular}
Any edits or suggests to update it? I’ll be thankful!
One more (mine) solution. Because it is based on the (very) old mdwtab
, almost forgotten package mdwtab
I decide to write new answer. It has a features which make it very handy (to my opinion) for such tables as is OP ones:
Ml
, Mc
and Mr
).hlx{...}, where in ˙...
are parameters (in MWE below are used v
and h
, for others see packet documentation} defining vertical space above and below line so that vertical lines aren't interrupted:documentclass{article}
usepackage{amssymb, nccmath}
usepackage{mdwtab}
begin{document}
begin{center}
setlengthtabcolsep{9pt}
begin{tabular}{|Ml|Ml|Ml|} % <---
hlx{hv} % <---
mathbb{R}_+^*
& x^n & mfrac{x^{n+1}}{n+1}+c \
hlx{vhv} % <---
mathbb{R}^* & mfrac{1}{x} & ln vert xvert +c \
hlx{vhv}
mathbb{R} & e^{lambda x} & mfrac{1}{lambda}e^x+c \
hlx{vhv}
mathbb{R} & a^{lambda x} & mfrac{a^x}{ln(a)}+c \
hlx{vhv}
mathbb{R} & cos(omega x) & mfrac{1}{omega}sin(omega x)+c \
hlx{vhv}
mathbb{R} & sin(omega x) & mfrac{1}{omega} cos(omega x)+c \
hlx{vhv}
]mfrac{-pi}{2} ,mfrac{pi}{2}[
& tan x & -ln vert cos xvert +c \
hlx{vhv}
]mfrac{-pi}{2} ,mfrac{pi}{2}[
& 1+tan^2 x text{ou} mfrac{1}{cos^2 x} & tan x +c \
hlx{vhv}
]0,pi[ & mfrac{1}{sin^2 x}
& -mfrac{1}{tan x}+c \
hlx{vhv}
mathbb{R} & cosh (omega x) & mfrac{1}{omega} sinh (omega x)+c \
hlx{vhv}
mathbb{R} & sinh (omega x) & mfrac{1}{omega x} cosh (omega x)+c \
hlx{vhv}
mathbb{R} & tanh (omega x) & lnleft(cosh xright)+c \
hlx{vhv}
mathbb{R} & mfrac{1}{cosh^2 x} text{ou} 1-tanh^2 x & tanh x+c \
hlx{vhv}
mathbb{R}^* & mfrac{1}{sinh^2 x} & -mfrac{1}{tanh x}+c \
hlx{vhv}
mathbb{R} & mfrac{1}{1+x^2} & arctan x+c \
hlx{vhv}
]-1,1[ & mfrac{1}{sqrt{1-x^2}} & arcsin x +c \
hlx{vhv}
]-1,1[ & mfrac{1}{1-x^2} & tanh^{-1} x+c \
hlx{vhv}
mathbb{R} & mfrac{1}{sqrt{x^2+1}} & sinh ^{-1} x+c \
hlx{vhv}
[1,+infty [ & mfrac{1}{sqrt{x^2-1}} & cosh^{-1} x+c \
hlx{vh} % <---
end{tabular}
end{center}
end{document}
Answered by Zarko on December 3, 2021
mfrac
, a medium size fractions defined int the package nccmath
setcellgapes
defined in the makecell
packagetabular
is better touse array
environment inside math environment. By this all $
around math terms should be removed.Edit:
makegapedcells
.makecell[l]{...}
this misalignment can be corrected:documentclass{article}
usepackage{amssymb, nccmath}
usepackage{makecell}
begin{document}
[
setcellgapes{3pt}
makegapedcells
begin{array}{|l|l|l|}
hline
makecell[l]{mathbb{R}_+^*} % <---
& x^n & mfrac{x^{n+1}}{n+1}+c \
hline
mathbb{R}^* & mfrac{1}{x} & ln vert xvert +c \
hline
mathbb{R} & e^{lambda x} & mfrac{1}{lambda}e^x+c \
hline
mathbb{R} & a^{lambda x} & mfrac{a^x}{ln(a)}+c \
hline
mathbb{R} & cos(omega x) & mfrac{1}{omega}sin(omega x)+c \
hline
mathbb{R} & sin(omega x) & mfrac{1}{omega} cos(omega x)+c \
hline
]mfrac{-pi}{2} ,mfrac{pi}{2}[
& tan x & -ln vert cos xvert +c \
hline
]mfrac{-pi}{2} ,mfrac{pi}{2}[
& 1+tan ^2 x text{ou} mfrac{1}{cos^2 x} & tan x +c \
hline
]0,pi[ & mfrac{1}{sin^2 x}
& -mfrac{1}{tan x}+c \
hline
mathbb{R} & cosh (omega x) & mfrac{1}{omega} sinh (omega x)+c \
hline
mathbb{R} & sinh (omega x) & mfrac{1}{omega x} cosh (omega x)+c \
hline
mathbb{R} & tanh (omega x) & lnleft(cosh xright)+c \
hline
mathbb{R} & mfrac{1}{cosh^2 x} text{ou} 1-tanh^2 x & tanh x+c \
hline
mathbb{R}^* & mfrac{1}{sinh^2 x} & -mfrac{1}{tanh x}+c \
hline
mathbb{R} & mfrac{1}{1+x^2} & arctan x+c \
hline
]-1,1[ & mfrac{1}{sqrt{1-x^2}} & arcsin x +c \
hline
]-1,1[ & mfrac{1}{1-x^2} & tanh^{-1} x+c \
hline
mathbb{R} & mfrac{1}{sqrt{x^2+1}} & sinh ^{-1} x+c \
hline
[1,+infty [ & mfrac{1}{sqrt{x^2-1}} & cosh^{-1} x+c \
hline
end{array}
]
endgroup
end{document}
Answered by Zarko on December 3, 2021
I thought of expanding the space of the table cells and aligning the first column on the left so that the real fields are correctly columned.
documentclass[a4paper,12pt]{article}
usepackage{amsmath}
usepackage{amssymb}
begin{document}
If $cin mathbb{R}$:
setlength{tabcolsep}{18pt}
renewcommand{arraystretch}{1.5}
begin{tabular}{|l|c|c|}
hline
$mathbb{R}_+^*$ & $x^n $ & $frac{x^{n+1}}{n+1}+c$ \
hline
$mathbb{R}^*$ & $frac{1}{x}$ & $ln vert xvert +c$ \
hline
$mathbb{R}$ & $e^{lambda x}$ & $frac{1}{lambda}e^x+c$ \
hline
$mathbb{R}$ & $a^{lambda x} $ & $frac{a^x}{ln(a)}+c$ \
hline
$mathbb{R}$ & $cos (omega x) $ & $frac{1}{omega}sin(omega x)+c$ \
hline
$mathbb{R}$ & $sin (omega x) $ & $frac{1}{omega} cos(omega x)+c$ \
hline
$]-frac{pi}{2} ,frac{pi}{2}[$ & $tan x$ & $-ln vert cos xvert +c$ \
hline
$]-frac{pi}{2} ,frac{pi}{2}[$ & $1+tan ^2 x text{ou} frac{1}{cos^2 x}$ & $tan x +c$ \
hline
$]0,pi[$ & $frac{1}{sin^2 x}$ & $-frac{1}{tan x}+c$ \
hline
$mathbb{R}$ & $cosh (omega x) $ & $frac{1}{omega} sinh (omega x)+c$ \
hline
$mathbb{R}$ & $sinh (omega x)$ & $frac{1}{omega x} cosh (omega x)+c$ \
hline
$mathbb{R}$ & $tanh (omega x)$ & $lnleft(cosh xright)+c$ \
hline
$mathbb{R}$ & $frac{1}{cosh^2 x} text{ou} 1-tanh^2 x$ & $tanh x+c$ \
hline
$mathbb{R}^*$ & $frac{1}{sinh^2 x}$ & $-frac{1}{tanh x}+c$ \
hline
$mathbb{R}$ & $frac{1}{1+x^2}$ & $arctan x+c$ \
hline
$]-1,1[$ & $frac{1}{sqrt{1-x^2}}$ & $arcsin x +c$ \
hline
$]-1,1[$ & $frac{1}{1-x^2}$ & $tanh^{-1} x+c$ \
hline
$mathbb{R}$ & $frac{1}{sqrt{x^2+1}}$ & $sinh ^{-1} x+c$ \
hline
$[1,+infty [$ & $frac{1}{sqrt{x^2-1}}$ & $cosh^{-1} x+c$ \
hline
end{tabular}
end{document}
Answered by Sebastiano on December 3, 2021
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