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electrical_engineering_and_electronics_1:block20 [2026/01/10 10:12] – mexleadminelectrical_engineering_and_electronics_1:block20 [2026/01/20 15:39] (aktuell) – [20.3 Exercises] mexleadmin
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 The proportionality factor is also called **Self-inductance**  $L$ (or often simply called inductance). The proportionality factor is also called **Self-inductance**  $L$ (or often simply called inductance).
  
-===== 20.1.2 Inductance =====+==== 20.1.2 Inductance ====
  
 The inductance is another passive basic component of the electric circuit.  The inductance is another passive basic component of the electric circuit. 
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 <callout icon="fa fa-exclamation" color="red" title="Notice:"> The inductor behaves in the parallel and series circuit similar to the resistor. </callout> <callout icon="fa fa-exclamation" color="red" title="Notice:"> The inductor behaves in the parallel and series circuit similar to the resistor. </callout>
  
 +==== 20.1.5 Energy of the magnetic Field ====
  
- +not covered  
- +===== 20.2 Common pitfalls =====
-===== 22.2 Common pitfalls =====+
   * ...   * ...
  
-===== 22.3 Exercises =====+===== 20.3 Exercises =====
  
  
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 \begin{align*}  \begin{align*} 
 L_1 &= \mu_0 \mu_{\rm r} \cdot N^2 \cdot {{A }\over {l}} \\ L_1 &= \mu_0 \mu_{\rm r} \cdot N^2 \cdot {{A }\over {l}} \\
-    &= 4\pi \cdot 10^{-7} {\rm {{H}\over{m}}} \cdot 1 \cdot (390)^2 \cdot {{\pi \cdot (0.03~\rm m)^2 }\over {0.18 ~\rm m}}+    &= 4\pi \cdot 10^{-7} {\rm {{H}\over{m}}} \cdot 1 \cdot (390)^2 \cdot {{\pi \cdot ({{0.03~\rm m}\over{2}})^2 }\over {0.18 ~\rm m}}
 \end{align*} \end{align*}
  
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 #@HiddenBegin_HTML~4511R,Result~@# #@HiddenBegin_HTML~4511R,Result~@#
 \begin{align*}  \begin{align*} 
-L_1 &= 3.0 ~\rm mH+L_1 &= 0.75 ~\rm mH
 \end{align*} \end{align*}
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 \begin{align*}  \begin{align*} 
-L_1 &= 12 ~\rm mH+L_1 &= 4 ~\rm mH
 \end{align*} \end{align*}
 #@HiddenEnd_HTML~4512R,Result~@# #@HiddenEnd_HTML~4512R,Result~@#
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 #@HiddenBegin_HTML~4513R,Result~@# #@HiddenBegin_HTML~4513R,Result~@#
 \begin{align*}  \begin{align*} 
-L_1 &= 6.0 ~\rm mH+L_1 &= 1.5 ~\rm mH
 \end{align*} \end{align*}
 #@HiddenEnd_HTML~4513R,Result~@# #@HiddenEnd_HTML~4513R,Result~@#
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 \begin{align*}  \begin{align*} 
-L_4 &= 3.0 ~\rm H+L_4 &= 0.75 ~\rm H
 \end{align*} \end{align*}
 #@HiddenEnd_HTML~4514R,Result~@# #@HiddenEnd_HTML~4514R,Result~@#
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 <panel type="info" title="Exercise 4.5.2 Self Induction II"> <WRAP group><WRAP column 2%>{{fa>pencil?32}}</WRAP><WRAP column 92%> <panel type="info" title="Exercise 4.5.2 Self Induction II"> <WRAP group><WRAP column 2%>{{fa>pencil?32}}</WRAP><WRAP column 92%>
  
-A cylindrical air coil (length $l=40 ~\rm cm$, diameter $d=5.0 ~\rm cm$, and a number of windings $N=300$) passes a current of $30 ~\rm A$. The current shall be reduced linearly in $2.0 ~\rm ms$ down to $0.0 ~\rm A$.+A cylindrical air coil (length $l=40 ~\rm cm$, radius $r=5.0 ~\rm cm$, and a number of windings $N=300$) passes a current of $30 ~\rm A$. The current shall be reduced linearly in $2.0 ~\rm ms$ down to $0.0 ~\rm A$.
  
 What is the amount of the induced voltage $u_{\rm ind}$?  What is the amount of the induced voltage $u_{\rm ind}$?