boxesandcolumns.tex 2.7 KB

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  1. \section{boxes and columns}
  2. \frame{\sectionpage}
  3. \begin{frame}{Box}
  4. \begin{center}
  5. \textcolor{yellow}{\fbox{phrase inside box}}
  6. \bigskip
  7. \fbox{\parbox{\textwidth}{A big box\\ \[
  8. \{R^n_{\alpha}(0) \; | \; n \in \mathbb{N}\} = \{n\alpha \; \mathrm{mod}\;1 \; | \; n \in \mathbb{N}\} \]
  9. é denso em \([0,1)\). }}
  10. \end{center}
  11. \end{frame}
  12. \begin{frame}{Two Columns entire page}
  13. \small
  14. \begin{columns}
  15. \begin{column}{0.5\textwidth}
  16. \tiny \pause \textcolor{yellow}{Obs:} \(\alpha \eqdef \log b \in \mathbb{R}\backslash\mathbb{Q}\)
  17. \small \pause
  18. \begin{align*}
  19. R_\alpha \colon [0,1) &\longrightarrow [0,1) \\
  20. x &\longmapsto x + \alpha \; \mathrm{mod}\;1
  21. \end{align*}
  22. \pause
  23. \small
  24. Here we can write some text Here we can write some text Here we can write some text Here we can write some text Here we can write some text Here we can write some text Here we can write some text
  25. \end{column}
  26. \begin{column}{0.5\textwidth} %%<--- here
  27. \pause
  28. \[R^n_\alpha(x) \eqdef R_\alpha \overbrace{\circ \ldots \circ }^{n} R_\alpha(x)\]
  29. \pause
  30. Here we can write some text Here we can write some text Here we can write some text Here we can write some text Here we can write some text Here we can write some text Here we can write some text
  31. \bigskip
  32. \footnotesize
  33. \textcolor{yellow}{\fbox{\parbox{\textwidth}{Question??????????? tell me if you want}}}
  34. \bigskip
  35. the answer is
  36. \pause
  37. \textcolor{green2}{YES!!!!} \textcolor{green2}{because that that and that} or..
  38. \bigskip
  39. The answer is \textcolor{red2}{NO!!!!} \textcolor{red2}{because that that and that}
  40. \end{column}
  41. \end{columns}
  42. \end{frame}
  43. \begin{frame}{Table and minipage}
  44. \begin{center}
  45. \begin{tabular}{|l|l|l|l|l|l|l|l|l|l|l|l|l|}
  46. \hline
  47. \(n\) & 1 & 2 & 3 & 4 & 5 & 6 & 7 & 8 & 9 & 10 & 11 & \ldots \\ \hline
  48. \(2^n\) & \textcolor{yellow}{2} & \textcolor{yellow}{4} & \textcolor{yellow}{8} & \textcolor{yellow}{1}6 & \textcolor{yellow}{3}2 & \textcolor{yellow}{6}4 & \textcolor{yellow}{1}28 & \textcolor{yellow}{2}56 & \textcolor{yellow}{5}12 & \textcolor{yellow}{1}024 & \textcolor{yellow}{2}048 & \ldots \\ \hline
  49. \end{tabular}
  50. \end{center}
  51. \pause
  52. \bigskip
  53. \begin{center}
  54. \textcolor{yellow}{\fbox{o dígito 1 é mais frequente que o dígito 3?}}
  55. \bigskip
  56. \pause \tiny Spoiler: \textcolor{green2}{YES}.
  57. \end{center}
  58. \pause
  59. \bigskip
  60. \small
  61. \
  62. \pause
  63. \begin{minipage}{0.47\textwidth}
  64. Um conjunto de números satisfaz a \emph{\textcolor{yellow}{lei de Benford}} se o primeiro dígito \(d \in \{1,2,3,4,5,6,7,8,9\} \) ocorre com a seguinte proporção
  65. \end{minipage}
  66. \begin{minipage}{0.47\textwidth}
  67. \centering \textcolor{yellow}{\(P(d) = \log\bigg(1+ \frac{1}{d}\bigg) \)}
  68. \end{minipage}
  69. \end{frame}