Regeln zur Transformation von Graphen
\(f(x)=\class{mathjax-input mathjax-input-0}{\mspace{3mu}\Rule{2.3em}{0.9em}{0.3em}\mspace{3mu}}\class{mathjax-input mathjax-input-1}{\mspace{3mu}\Rule{4.0em}{0.9em}{0.3em}\mspace{3mu}}e^{\displaystyle\class{mathjax-input mathjax-input-2}{\mspace{3mu}\Rule{2.3em}{0.9em}{0.3em}\mspace{3mu}}x}\)
\(g(x)=\class{mathjax-input mathjax-input-3}{\mspace{3mu}\Rule{2.3em}{0.9em}{0.3em}\mspace{3mu}}\class{mathjax-input mathjax-input-4}{\mspace{3mu}\Rule{4.0em}{0.9em}{0.3em}\mspace{3mu}}e^{\displaystyle\class{mathjax-input mathjax-input-5}{\mspace{3mu}\Rule{2.3em}{0.9em}{0.3em}\mspace{3mu}}x}\)
\(h(x)=\class{mathjax-input mathjax-input-6}{\mspace{3mu}\Rule{2.3em}{0.9em}{0.3em}\mspace{3mu}}\class{mathjax-input mathjax-input-7}{\mspace{3mu}\Rule{4.0em}{0.9em}{0.3em}\mspace{3mu}}e^{\displaystyle\class{mathjax-input mathjax-input-8}{\mspace{3mu}\Rule{2.3em}{0.9em}{0.3em}\mspace{3mu}}x}\)
Wenn f(x) = u(x)⋅v(x) dann ist f ′(x) = u′(x)⋅v(x) + v′(x)⋅u(x)
Wenn f(x) = g( h(x) ), dann ist f ′(x) = g′( h(x) )⋅h′(x)