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+\documentclass[11pt]{article}
+\usepackage{xkeyval,array,multirow,amsmath,amssymb}
+\usepackage{fullpage,longtable}
+\usepackage[english]{alterqcm}
+\usepackage[english]{babel}
+
+\begin{document}
+\begin{alterqcm}[lq=90mm,pre=true,long]
+
+\AQquestion{Among the following propositions, which one allows to affirm that the exponential function admits for asymptote the equation line $y = 0$?}
+{{$\displaystyle\lim_{x \to +\infty} \text{e}^x = + \infty$},
+{$\displaystyle\lim_{x \to -\infty} \text{e}^x = 0$},
+{$\displaystyle\lim_{x \to +\infty} \dfrac{\text{e}^x}{x} = + \infty$}}
+
+\AQquestion{Among the following propositions, which is the one that allows to affirm that the inequation $\ln (2x + 1) \geqslant \ln (x + 3)$ admits the interval $\big[2~;~+\infty\big[$ as a set of solution? }
+{{\begin{minipage}{5cm}the ln function is positive on $\big[1~;~+\infty\big[$\end{minipage}},
+{$\displaystyle\lim_{x \to +\infty} \ln x = + \infty$},
+{\begin{minipage}{5cm}the $\ln$ function is increasing on $\big]0~;~+\infty\big[$\end{minipage}}
+}
+
+\AQquestion{Among the following propositions, which one allows us to assert that a primitive of the function $f$ defined on $\mathbb{R}$ by $x \mapsto (x + 1)\text{e}^x$ is the function $g~:~x~ \mapsto~ x~ \text{e}^x$~? }
+{{for all real $x,~f'(x) = g(x)$},
+{for all real $x,~g'(x) = f(x)$},
+{\begin{minipage}{5.5cm} for all real $x,~g(x) = f'(x) + k$, $k$ some kind of real \end{minipage}}}
+
+\AQquestion[pq=2mm]{ The equation $2\text{e}^{2x} - 3\text{e}^x + 1 = $0 admits for set solution}
+{{$\left\{\dfrac{1}{2}~;~1\right\}$},
+{$\left\{0~;~\ln \dfrac{1}{2}\right\}$},
+{$\big\{0~;~\ln 2\big\}$}
+}
+
+\AQquestion[pq=2mm]{For all $n \in \mathbb{N}$ }
+{{$\displaystyle\lim_{x \to +\infty} \frac{\text{e}^x}{x^n} = 1$},
+{$\displaystyle\lim_{x \to +\infty} \frac{\text{e}^x}{x^n} = +\infty$},
+{$\displaystyle\lim_{x \to +\infty} \frac{\text{e}^x}{x^n} = 0$}}
+
+\AQquestion[pq=1pt]{Let $f$ be the function set to $\big]0~;~+\infty\big[$ par $f(x) = 2\ln x - 3x + 4$. In a benchmark, an equation of the tangent to the curve representing $f$ at abscissa point 1 is :}
+{{$y = - x + 2$},
+{$y = x + 2$},
+{$y = - x - 2$}
+}
+
+\AQquestion[pq=2mm]{The mean value over $\big[1; 3\big]$ of the $f$ function defined by : $f(x) = x^2 + 2x$ is:}
+{{$\dfrac{50}{3}$},
+{$\dfrac{25}{3}$},
+{$6$}
+}
+\AQquestion{ exp$(\ln x) = x$ for any $x$ belonging to }
+{{$\mathbb{R}$},
+{$\big]0~;~+ \infty\big[$},
+{$\big[0~;~+\infty\big[$}
+}
+\AQquestion[pq=1pt]{Let $f$ be the function set to $\big]0~;~+\infty\big [$ per $f(x) = 2\ln x - 3x + 4$. In a benchmark, an equation of the tangent to the curve representing $f$ at abscissa point 1 is :}
+{{$y = - x + 2$},
+{$y = x + 2$},
+{$y = - x - 2$}
+}
+
+\AQquestion[pq=2mm]{The mean value over $\big[1; 3\big]$ of the $f$ function defined by : $f(x) = x^2 + 2x$ is:}
+{{$\dfrac{50}{3}$},
+{$\dfrac{25}{3}$},
+{$6$}
+}
+\AQquestion{ exp$(\ln x) = x$ for any $x$ belonging to }
+{{$\mathbb{R}$},
+{$\big]0~;~+ \infty\big[$},
+{$\big[0~;~+\infty\big[$}
+}
+\end{alterqcm}
+\end{document}
+
+% AntillesESjuin2006
+
+% encoding : utf8
+% format : pdflatex
+% engine : pdfetex
+% author : Alain Matthes \ No newline at end of file