How to tex such a image? math and text is OK, but the lines horizotanl and verticle really troubles me












0















image



How to tex such a image? math and text is OK, but the lines horizotanl and verticle really troubles me










share|improve this question




















  • 1





    Could you give us a compilable code? I think with TikZ this is quite possible.

    – JouleV
    1 hour ago











  • @JouleV I do not knwo how to do.

    – xldd
    1 hour ago






  • 1





    Any code is helpful. Your equation, your text, etc.

    – JouleV
    1 hour ago
















0















image



How to tex such a image? math and text is OK, but the lines horizotanl and verticle really troubles me










share|improve this question




















  • 1





    Could you give us a compilable code? I think with TikZ this is quite possible.

    – JouleV
    1 hour ago











  • @JouleV I do not knwo how to do.

    – xldd
    1 hour ago






  • 1





    Any code is helpful. Your equation, your text, etc.

    – JouleV
    1 hour ago














0












0








0








image



How to tex such a image? math and text is OK, but the lines horizotanl and verticle really troubles me










share|improve this question
















image



How to tex such a image? math and text is OK, but the lines horizotanl and verticle really troubles me







graphics






share|improve this question















share|improve this question













share|improve this question




share|improve this question








edited 1 hour ago









JouleV

8,91222155




8,91222155










asked 1 hour ago









xlddxldd

1035




1035








  • 1





    Could you give us a compilable code? I think with TikZ this is quite possible.

    – JouleV
    1 hour ago











  • @JouleV I do not knwo how to do.

    – xldd
    1 hour ago






  • 1





    Any code is helpful. Your equation, your text, etc.

    – JouleV
    1 hour ago














  • 1





    Could you give us a compilable code? I think with TikZ this is quite possible.

    – JouleV
    1 hour ago











  • @JouleV I do not knwo how to do.

    – xldd
    1 hour ago






  • 1





    Any code is helpful. Your equation, your text, etc.

    – JouleV
    1 hour ago








1




1





Could you give us a compilable code? I think with TikZ this is quite possible.

– JouleV
1 hour ago





Could you give us a compilable code? I think with TikZ this is quite possible.

– JouleV
1 hour ago













@JouleV I do not knwo how to do.

– xldd
1 hour ago





@JouleV I do not knwo how to do.

– xldd
1 hour ago




1




1





Any code is helpful. Your equation, your text, etc.

– JouleV
1 hour ago





Any code is helpful. Your equation, your text, etc.

– JouleV
1 hour ago










2 Answers
2






active

oldest

votes


















0














With great help of remember picture:



documentclass{article}
usepackage{tikz}
usetikzlibrary{calc,positioning}
begin{document}
[tikz[baseline,remember picture]node[inner xsep=0pt,minimum height=.6cm,anchor=base] (f) {$f(x)$};;tikz[baseline,remember picture]node[inner xsep=0pt,minimum height=.6cm,anchor=base] (e) {$=$vphantom{$f(x)$}};;a_0+sum_{n=1}^infty a_ncos(nx)+b_nsin(nx)]

begin{tikzpicture}[overlay,remember picture]
draw (f.south west)|-($(f.south east)+(0,-.1)$)--(f.south east);
draw ($(f.south)+(0,-.1)$)--++(0,-.3)-|++(-1,-.3) node[below,align=left] {bounded\integrable\continuous\differentiable\$f'$ continuous};
draw (e.south west)|-($(e.south east)+(0,-.1)$)--(e.south east);
draw ($(e.south)+(0,-.1)$)--++(0,-.3)-|++(1,-.3) node[below right=0pt and -5ex,align=left] {pointwise convergence\uniform convergence\$L^2$ convergence\Cesaro mean convergence};
end{tikzpicture}
end{document}


enter image description here






share|improve this answer































    0














    I'd recommend tikzmark for that. You have to run it three times.



    documentclass[fleqn]{article}
    usepackage{amsmath}
    usepackage{tikz}
    usetikzlibrary{tikzmark}
    begin{document}
    [ qquadqquadtikzmarknode[inner sep=1pt]{f}{f(x)}~tikzmarknode[inner sep=1pt]{eq}{=}~a_0
    +sumlimits_{n=1}^infty left(a_n cos(n,x)+b_n cos(n,x)right)]
    medskip
    begin{tabular}{p{2.5cm}l}
    tikzmarknode[inner sep=1pt]{b}{bounded} & tikzmarknode[inner sep=1pt]{p}{pointwise convergence}\
    integrable & uniform convergence\
    dots & dots \
    end{tabular}
    begin{tikzpicture}[overlay,remember picture]
    draw ([yshift=0.5ex]f.south west) |- (f.south east) coordinate[pos=0.75] (f1)
    -- ++ (0,0.5ex);
    draw ([yshift=0.5ex]eq.south west) |- (eq.south east) coordinate[pos=0.75] (eq1)
    -- ++ (0,0.5ex);
    draw ([yshift=-0.5ex]b.north west) |- (b.north east) coordinate[pos=0.75] (b1)
    -- ++ (0,-0.5ex);
    draw ([yshift=-0.5ex]p.north west) |- (p.north east) coordinate[pos=0.75] (p1)
    -- ++ (0,-0.5ex);
    draw (f1) -- ++ (0,-1ex) |- ([yshift=1ex]b1) -- (b1);
    draw (eq1) -- ++ (0,-1ex) |- ([yshift=1ex]p1) -- (p1);
    end{tikzpicture}
    end{document}


    enter image description here



    Or



    documentclass[fleqn]{article}
    usepackage{amsmath}
    usepackage{tikz}
    usetikzlibrary{tikzmark}
    begin{document}
    [ qquadqquadtikzmarknode[inner sep=1pt]{f}{f(x)}~tikzmarknode[inner sep=1pt]{eq}{=}~a_0
    +sumlimits_{n=1}^infty left(a_n cos(n,x)+b_n cos(n,x)right)]
    medskip
    begin{tabular}{p{2.5cm}l}
    tikzmarknode[inner sep=1pt]{b}{bounded} & tikzmarknode[inner sep=1pt]{p}{pointwise convergence}\
    integrable & uniform convergence\
    dots & dots \
    end{tabular}
    begin{tikzpicture}[overlay,remember picture,semithick]
    draw ([yshift=0.5ex]f.south west) |- (f.south east) coordinate[pos=0.75] (f1)
    -- ++ (0,0.5ex);
    draw ([yshift=0.5ex]f.south-|eq.west) |- (f.south-|eq.east) coordinate[pos=0.75] (eq1)
    -- ++ (0,0.5ex);
    draw ([yshift=-0.5ex]b.north west) |- (b.north east) coordinate[pos=0.75] (b1)
    -- ++ (0,-0.5ex);
    draw ([yshift=-0.5ex]p.north west) |- (p.north east) coordinate[pos=0.75] (p1)
    -- ++ (0,-0.5ex);
    draw (f1) -- ++ (0,-1ex) |- ([yshift=1ex]b1) -- (b1);
    draw (eq1) -- ++ (0,-1ex) |- ([yshift=1ex]p1) -- (p1);
    end{tikzpicture}
    end{document}


    enter image description here






    share|improve this answer


























      Your Answer








      StackExchange.ready(function() {
      var channelOptions = {
      tags: "".split(" "),
      id: "85"
      };
      initTagRenderer("".split(" "), "".split(" "), channelOptions);

      StackExchange.using("externalEditor", function() {
      // Have to fire editor after snippets, if snippets enabled
      if (StackExchange.settings.snippets.snippetsEnabled) {
      StackExchange.using("snippets", function() {
      createEditor();
      });
      }
      else {
      createEditor();
      }
      });

      function createEditor() {
      StackExchange.prepareEditor({
      heartbeatType: 'answer',
      autoActivateHeartbeat: false,
      convertImagesToLinks: false,
      noModals: true,
      showLowRepImageUploadWarning: true,
      reputationToPostImages: null,
      bindNavPrevention: true,
      postfix: "",
      imageUploader: {
      brandingHtml: "Powered by u003ca class="icon-imgur-white" href="https://imgur.com/"u003eu003c/au003e",
      contentPolicyHtml: "User contributions licensed under u003ca href="https://creativecommons.org/licenses/by-sa/3.0/"u003ecc by-sa 3.0 with attribution requiredu003c/au003e u003ca href="https://stackoverflow.com/legal/content-policy"u003e(content policy)u003c/au003e",
      allowUrls: true
      },
      onDemand: true,
      discardSelector: ".discard-answer"
      ,immediatelyShowMarkdownHelp:true
      });


      }
      });














      draft saved

      draft discarded


















      StackExchange.ready(
      function () {
      StackExchange.openid.initPostLogin('.new-post-login', 'https%3a%2f%2ftex.stackexchange.com%2fquestions%2f482205%2fhow-to-tex-such-a-image-math-and-text-is-ok-but-the-lines-horizotanl-and-verti%23new-answer', 'question_page');
      }
      );

      Post as a guest















      Required, but never shown

























      2 Answers
      2






      active

      oldest

      votes








      2 Answers
      2






      active

      oldest

      votes









      active

      oldest

      votes






      active

      oldest

      votes









      0














      With great help of remember picture:



      documentclass{article}
      usepackage{tikz}
      usetikzlibrary{calc,positioning}
      begin{document}
      [tikz[baseline,remember picture]node[inner xsep=0pt,minimum height=.6cm,anchor=base] (f) {$f(x)$};;tikz[baseline,remember picture]node[inner xsep=0pt,minimum height=.6cm,anchor=base] (e) {$=$vphantom{$f(x)$}};;a_0+sum_{n=1}^infty a_ncos(nx)+b_nsin(nx)]

      begin{tikzpicture}[overlay,remember picture]
      draw (f.south west)|-($(f.south east)+(0,-.1)$)--(f.south east);
      draw ($(f.south)+(0,-.1)$)--++(0,-.3)-|++(-1,-.3) node[below,align=left] {bounded\integrable\continuous\differentiable\$f'$ continuous};
      draw (e.south west)|-($(e.south east)+(0,-.1)$)--(e.south east);
      draw ($(e.south)+(0,-.1)$)--++(0,-.3)-|++(1,-.3) node[below right=0pt and -5ex,align=left] {pointwise convergence\uniform convergence\$L^2$ convergence\Cesaro mean convergence};
      end{tikzpicture}
      end{document}


      enter image description here






      share|improve this answer




























        0














        With great help of remember picture:



        documentclass{article}
        usepackage{tikz}
        usetikzlibrary{calc,positioning}
        begin{document}
        [tikz[baseline,remember picture]node[inner xsep=0pt,minimum height=.6cm,anchor=base] (f) {$f(x)$};;tikz[baseline,remember picture]node[inner xsep=0pt,minimum height=.6cm,anchor=base] (e) {$=$vphantom{$f(x)$}};;a_0+sum_{n=1}^infty a_ncos(nx)+b_nsin(nx)]

        begin{tikzpicture}[overlay,remember picture]
        draw (f.south west)|-($(f.south east)+(0,-.1)$)--(f.south east);
        draw ($(f.south)+(0,-.1)$)--++(0,-.3)-|++(-1,-.3) node[below,align=left] {bounded\integrable\continuous\differentiable\$f'$ continuous};
        draw (e.south west)|-($(e.south east)+(0,-.1)$)--(e.south east);
        draw ($(e.south)+(0,-.1)$)--++(0,-.3)-|++(1,-.3) node[below right=0pt and -5ex,align=left] {pointwise convergence\uniform convergence\$L^2$ convergence\Cesaro mean convergence};
        end{tikzpicture}
        end{document}


        enter image description here






        share|improve this answer


























          0












          0








          0







          With great help of remember picture:



          documentclass{article}
          usepackage{tikz}
          usetikzlibrary{calc,positioning}
          begin{document}
          [tikz[baseline,remember picture]node[inner xsep=0pt,minimum height=.6cm,anchor=base] (f) {$f(x)$};;tikz[baseline,remember picture]node[inner xsep=0pt,minimum height=.6cm,anchor=base] (e) {$=$vphantom{$f(x)$}};;a_0+sum_{n=1}^infty a_ncos(nx)+b_nsin(nx)]

          begin{tikzpicture}[overlay,remember picture]
          draw (f.south west)|-($(f.south east)+(0,-.1)$)--(f.south east);
          draw ($(f.south)+(0,-.1)$)--++(0,-.3)-|++(-1,-.3) node[below,align=left] {bounded\integrable\continuous\differentiable\$f'$ continuous};
          draw (e.south west)|-($(e.south east)+(0,-.1)$)--(e.south east);
          draw ($(e.south)+(0,-.1)$)--++(0,-.3)-|++(1,-.3) node[below right=0pt and -5ex,align=left] {pointwise convergence\uniform convergence\$L^2$ convergence\Cesaro mean convergence};
          end{tikzpicture}
          end{document}


          enter image description here






          share|improve this answer













          With great help of remember picture:



          documentclass{article}
          usepackage{tikz}
          usetikzlibrary{calc,positioning}
          begin{document}
          [tikz[baseline,remember picture]node[inner xsep=0pt,minimum height=.6cm,anchor=base] (f) {$f(x)$};;tikz[baseline,remember picture]node[inner xsep=0pt,minimum height=.6cm,anchor=base] (e) {$=$vphantom{$f(x)$}};;a_0+sum_{n=1}^infty a_ncos(nx)+b_nsin(nx)]

          begin{tikzpicture}[overlay,remember picture]
          draw (f.south west)|-($(f.south east)+(0,-.1)$)--(f.south east);
          draw ($(f.south)+(0,-.1)$)--++(0,-.3)-|++(-1,-.3) node[below,align=left] {bounded\integrable\continuous\differentiable\$f'$ continuous};
          draw (e.south west)|-($(e.south east)+(0,-.1)$)--(e.south east);
          draw ($(e.south)+(0,-.1)$)--++(0,-.3)-|++(1,-.3) node[below right=0pt and -5ex,align=left] {pointwise convergence\uniform convergence\$L^2$ convergence\Cesaro mean convergence};
          end{tikzpicture}
          end{document}


          enter image description here







          share|improve this answer












          share|improve this answer



          share|improve this answer










          answered 47 mins ago









          JouleVJouleV

          8,91222155




          8,91222155























              0














              I'd recommend tikzmark for that. You have to run it three times.



              documentclass[fleqn]{article}
              usepackage{amsmath}
              usepackage{tikz}
              usetikzlibrary{tikzmark}
              begin{document}
              [ qquadqquadtikzmarknode[inner sep=1pt]{f}{f(x)}~tikzmarknode[inner sep=1pt]{eq}{=}~a_0
              +sumlimits_{n=1}^infty left(a_n cos(n,x)+b_n cos(n,x)right)]
              medskip
              begin{tabular}{p{2.5cm}l}
              tikzmarknode[inner sep=1pt]{b}{bounded} & tikzmarknode[inner sep=1pt]{p}{pointwise convergence}\
              integrable & uniform convergence\
              dots & dots \
              end{tabular}
              begin{tikzpicture}[overlay,remember picture]
              draw ([yshift=0.5ex]f.south west) |- (f.south east) coordinate[pos=0.75] (f1)
              -- ++ (0,0.5ex);
              draw ([yshift=0.5ex]eq.south west) |- (eq.south east) coordinate[pos=0.75] (eq1)
              -- ++ (0,0.5ex);
              draw ([yshift=-0.5ex]b.north west) |- (b.north east) coordinate[pos=0.75] (b1)
              -- ++ (0,-0.5ex);
              draw ([yshift=-0.5ex]p.north west) |- (p.north east) coordinate[pos=0.75] (p1)
              -- ++ (0,-0.5ex);
              draw (f1) -- ++ (0,-1ex) |- ([yshift=1ex]b1) -- (b1);
              draw (eq1) -- ++ (0,-1ex) |- ([yshift=1ex]p1) -- (p1);
              end{tikzpicture}
              end{document}


              enter image description here



              Or



              documentclass[fleqn]{article}
              usepackage{amsmath}
              usepackage{tikz}
              usetikzlibrary{tikzmark}
              begin{document}
              [ qquadqquadtikzmarknode[inner sep=1pt]{f}{f(x)}~tikzmarknode[inner sep=1pt]{eq}{=}~a_0
              +sumlimits_{n=1}^infty left(a_n cos(n,x)+b_n cos(n,x)right)]
              medskip
              begin{tabular}{p{2.5cm}l}
              tikzmarknode[inner sep=1pt]{b}{bounded} & tikzmarknode[inner sep=1pt]{p}{pointwise convergence}\
              integrable & uniform convergence\
              dots & dots \
              end{tabular}
              begin{tikzpicture}[overlay,remember picture,semithick]
              draw ([yshift=0.5ex]f.south west) |- (f.south east) coordinate[pos=0.75] (f1)
              -- ++ (0,0.5ex);
              draw ([yshift=0.5ex]f.south-|eq.west) |- (f.south-|eq.east) coordinate[pos=0.75] (eq1)
              -- ++ (0,0.5ex);
              draw ([yshift=-0.5ex]b.north west) |- (b.north east) coordinate[pos=0.75] (b1)
              -- ++ (0,-0.5ex);
              draw ([yshift=-0.5ex]p.north west) |- (p.north east) coordinate[pos=0.75] (p1)
              -- ++ (0,-0.5ex);
              draw (f1) -- ++ (0,-1ex) |- ([yshift=1ex]b1) -- (b1);
              draw (eq1) -- ++ (0,-1ex) |- ([yshift=1ex]p1) -- (p1);
              end{tikzpicture}
              end{document}


              enter image description here






              share|improve this answer






























                0














                I'd recommend tikzmark for that. You have to run it three times.



                documentclass[fleqn]{article}
                usepackage{amsmath}
                usepackage{tikz}
                usetikzlibrary{tikzmark}
                begin{document}
                [ qquadqquadtikzmarknode[inner sep=1pt]{f}{f(x)}~tikzmarknode[inner sep=1pt]{eq}{=}~a_0
                +sumlimits_{n=1}^infty left(a_n cos(n,x)+b_n cos(n,x)right)]
                medskip
                begin{tabular}{p{2.5cm}l}
                tikzmarknode[inner sep=1pt]{b}{bounded} & tikzmarknode[inner sep=1pt]{p}{pointwise convergence}\
                integrable & uniform convergence\
                dots & dots \
                end{tabular}
                begin{tikzpicture}[overlay,remember picture]
                draw ([yshift=0.5ex]f.south west) |- (f.south east) coordinate[pos=0.75] (f1)
                -- ++ (0,0.5ex);
                draw ([yshift=0.5ex]eq.south west) |- (eq.south east) coordinate[pos=0.75] (eq1)
                -- ++ (0,0.5ex);
                draw ([yshift=-0.5ex]b.north west) |- (b.north east) coordinate[pos=0.75] (b1)
                -- ++ (0,-0.5ex);
                draw ([yshift=-0.5ex]p.north west) |- (p.north east) coordinate[pos=0.75] (p1)
                -- ++ (0,-0.5ex);
                draw (f1) -- ++ (0,-1ex) |- ([yshift=1ex]b1) -- (b1);
                draw (eq1) -- ++ (0,-1ex) |- ([yshift=1ex]p1) -- (p1);
                end{tikzpicture}
                end{document}


                enter image description here



                Or



                documentclass[fleqn]{article}
                usepackage{amsmath}
                usepackage{tikz}
                usetikzlibrary{tikzmark}
                begin{document}
                [ qquadqquadtikzmarknode[inner sep=1pt]{f}{f(x)}~tikzmarknode[inner sep=1pt]{eq}{=}~a_0
                +sumlimits_{n=1}^infty left(a_n cos(n,x)+b_n cos(n,x)right)]
                medskip
                begin{tabular}{p{2.5cm}l}
                tikzmarknode[inner sep=1pt]{b}{bounded} & tikzmarknode[inner sep=1pt]{p}{pointwise convergence}\
                integrable & uniform convergence\
                dots & dots \
                end{tabular}
                begin{tikzpicture}[overlay,remember picture,semithick]
                draw ([yshift=0.5ex]f.south west) |- (f.south east) coordinate[pos=0.75] (f1)
                -- ++ (0,0.5ex);
                draw ([yshift=0.5ex]f.south-|eq.west) |- (f.south-|eq.east) coordinate[pos=0.75] (eq1)
                -- ++ (0,0.5ex);
                draw ([yshift=-0.5ex]b.north west) |- (b.north east) coordinate[pos=0.75] (b1)
                -- ++ (0,-0.5ex);
                draw ([yshift=-0.5ex]p.north west) |- (p.north east) coordinate[pos=0.75] (p1)
                -- ++ (0,-0.5ex);
                draw (f1) -- ++ (0,-1ex) |- ([yshift=1ex]b1) -- (b1);
                draw (eq1) -- ++ (0,-1ex) |- ([yshift=1ex]p1) -- (p1);
                end{tikzpicture}
                end{document}


                enter image description here






                share|improve this answer




























                  0












                  0








                  0







                  I'd recommend tikzmark for that. You have to run it three times.



                  documentclass[fleqn]{article}
                  usepackage{amsmath}
                  usepackage{tikz}
                  usetikzlibrary{tikzmark}
                  begin{document}
                  [ qquadqquadtikzmarknode[inner sep=1pt]{f}{f(x)}~tikzmarknode[inner sep=1pt]{eq}{=}~a_0
                  +sumlimits_{n=1}^infty left(a_n cos(n,x)+b_n cos(n,x)right)]
                  medskip
                  begin{tabular}{p{2.5cm}l}
                  tikzmarknode[inner sep=1pt]{b}{bounded} & tikzmarknode[inner sep=1pt]{p}{pointwise convergence}\
                  integrable & uniform convergence\
                  dots & dots \
                  end{tabular}
                  begin{tikzpicture}[overlay,remember picture]
                  draw ([yshift=0.5ex]f.south west) |- (f.south east) coordinate[pos=0.75] (f1)
                  -- ++ (0,0.5ex);
                  draw ([yshift=0.5ex]eq.south west) |- (eq.south east) coordinate[pos=0.75] (eq1)
                  -- ++ (0,0.5ex);
                  draw ([yshift=-0.5ex]b.north west) |- (b.north east) coordinate[pos=0.75] (b1)
                  -- ++ (0,-0.5ex);
                  draw ([yshift=-0.5ex]p.north west) |- (p.north east) coordinate[pos=0.75] (p1)
                  -- ++ (0,-0.5ex);
                  draw (f1) -- ++ (0,-1ex) |- ([yshift=1ex]b1) -- (b1);
                  draw (eq1) -- ++ (0,-1ex) |- ([yshift=1ex]p1) -- (p1);
                  end{tikzpicture}
                  end{document}


                  enter image description here



                  Or



                  documentclass[fleqn]{article}
                  usepackage{amsmath}
                  usepackage{tikz}
                  usetikzlibrary{tikzmark}
                  begin{document}
                  [ qquadqquadtikzmarknode[inner sep=1pt]{f}{f(x)}~tikzmarknode[inner sep=1pt]{eq}{=}~a_0
                  +sumlimits_{n=1}^infty left(a_n cos(n,x)+b_n cos(n,x)right)]
                  medskip
                  begin{tabular}{p{2.5cm}l}
                  tikzmarknode[inner sep=1pt]{b}{bounded} & tikzmarknode[inner sep=1pt]{p}{pointwise convergence}\
                  integrable & uniform convergence\
                  dots & dots \
                  end{tabular}
                  begin{tikzpicture}[overlay,remember picture,semithick]
                  draw ([yshift=0.5ex]f.south west) |- (f.south east) coordinate[pos=0.75] (f1)
                  -- ++ (0,0.5ex);
                  draw ([yshift=0.5ex]f.south-|eq.west) |- (f.south-|eq.east) coordinate[pos=0.75] (eq1)
                  -- ++ (0,0.5ex);
                  draw ([yshift=-0.5ex]b.north west) |- (b.north east) coordinate[pos=0.75] (b1)
                  -- ++ (0,-0.5ex);
                  draw ([yshift=-0.5ex]p.north west) |- (p.north east) coordinate[pos=0.75] (p1)
                  -- ++ (0,-0.5ex);
                  draw (f1) -- ++ (0,-1ex) |- ([yshift=1ex]b1) -- (b1);
                  draw (eq1) -- ++ (0,-1ex) |- ([yshift=1ex]p1) -- (p1);
                  end{tikzpicture}
                  end{document}


                  enter image description here






                  share|improve this answer















                  I'd recommend tikzmark for that. You have to run it three times.



                  documentclass[fleqn]{article}
                  usepackage{amsmath}
                  usepackage{tikz}
                  usetikzlibrary{tikzmark}
                  begin{document}
                  [ qquadqquadtikzmarknode[inner sep=1pt]{f}{f(x)}~tikzmarknode[inner sep=1pt]{eq}{=}~a_0
                  +sumlimits_{n=1}^infty left(a_n cos(n,x)+b_n cos(n,x)right)]
                  medskip
                  begin{tabular}{p{2.5cm}l}
                  tikzmarknode[inner sep=1pt]{b}{bounded} & tikzmarknode[inner sep=1pt]{p}{pointwise convergence}\
                  integrable & uniform convergence\
                  dots & dots \
                  end{tabular}
                  begin{tikzpicture}[overlay,remember picture]
                  draw ([yshift=0.5ex]f.south west) |- (f.south east) coordinate[pos=0.75] (f1)
                  -- ++ (0,0.5ex);
                  draw ([yshift=0.5ex]eq.south west) |- (eq.south east) coordinate[pos=0.75] (eq1)
                  -- ++ (0,0.5ex);
                  draw ([yshift=-0.5ex]b.north west) |- (b.north east) coordinate[pos=0.75] (b1)
                  -- ++ (0,-0.5ex);
                  draw ([yshift=-0.5ex]p.north west) |- (p.north east) coordinate[pos=0.75] (p1)
                  -- ++ (0,-0.5ex);
                  draw (f1) -- ++ (0,-1ex) |- ([yshift=1ex]b1) -- (b1);
                  draw (eq1) -- ++ (0,-1ex) |- ([yshift=1ex]p1) -- (p1);
                  end{tikzpicture}
                  end{document}


                  enter image description here



                  Or



                  documentclass[fleqn]{article}
                  usepackage{amsmath}
                  usepackage{tikz}
                  usetikzlibrary{tikzmark}
                  begin{document}
                  [ qquadqquadtikzmarknode[inner sep=1pt]{f}{f(x)}~tikzmarknode[inner sep=1pt]{eq}{=}~a_0
                  +sumlimits_{n=1}^infty left(a_n cos(n,x)+b_n cos(n,x)right)]
                  medskip
                  begin{tabular}{p{2.5cm}l}
                  tikzmarknode[inner sep=1pt]{b}{bounded} & tikzmarknode[inner sep=1pt]{p}{pointwise convergence}\
                  integrable & uniform convergence\
                  dots & dots \
                  end{tabular}
                  begin{tikzpicture}[overlay,remember picture,semithick]
                  draw ([yshift=0.5ex]f.south west) |- (f.south east) coordinate[pos=0.75] (f1)
                  -- ++ (0,0.5ex);
                  draw ([yshift=0.5ex]f.south-|eq.west) |- (f.south-|eq.east) coordinate[pos=0.75] (eq1)
                  -- ++ (0,0.5ex);
                  draw ([yshift=-0.5ex]b.north west) |- (b.north east) coordinate[pos=0.75] (b1)
                  -- ++ (0,-0.5ex);
                  draw ([yshift=-0.5ex]p.north west) |- (p.north east) coordinate[pos=0.75] (p1)
                  -- ++ (0,-0.5ex);
                  draw (f1) -- ++ (0,-1ex) |- ([yshift=1ex]b1) -- (b1);
                  draw (eq1) -- ++ (0,-1ex) |- ([yshift=1ex]p1) -- (p1);
                  end{tikzpicture}
                  end{document}


                  enter image description here







                  share|improve this answer














                  share|improve this answer



                  share|improve this answer








                  edited 35 mins ago

























                  answered 48 mins ago









                  marmotmarmot

                  113k5144273




                  113k5144273






























                      draft saved

                      draft discarded




















































                      Thanks for contributing an answer to TeX - LaTeX Stack Exchange!


                      • Please be sure to answer the question. Provide details and share your research!

                      But avoid



                      • Asking for help, clarification, or responding to other answers.

                      • Making statements based on opinion; back them up with references or personal experience.


                      To learn more, see our tips on writing great answers.




                      draft saved


                      draft discarded














                      StackExchange.ready(
                      function () {
                      StackExchange.openid.initPostLogin('.new-post-login', 'https%3a%2f%2ftex.stackexchange.com%2fquestions%2f482205%2fhow-to-tex-such-a-image-math-and-text-is-ok-but-the-lines-horizotanl-and-verti%23new-answer', 'question_page');
                      }
                      );

                      Post as a guest















                      Required, but never shown





















































                      Required, but never shown














                      Required, but never shown












                      Required, but never shown







                      Required, but never shown

































                      Required, but never shown














                      Required, but never shown












                      Required, but never shown







                      Required, but never shown







                      Popular posts from this blog

                      Contact image not getting when fetch all contact list from iPhone by CNContact

                      count number of partitions of a set with n elements into k subsets

                      A CLEAN and SIMPLE way to add appendices to Table of Contents and bookmarks