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equations:euler_lagrange_equations [2018/03/27 09:12]
jakobadmin [Concrete]
equations:euler_lagrange_equations [2018/04/08 16:13]
jakobadmin ↷ Links adapted because of a move operation
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-====== Euler-Lagrange Equations: ​$\quad \frac{\partial \mathscr{L}}{\partial \Phi^i} - \partial_\mu \left(\frac{\partial \mathscr{L}}{\partial(\partial_\mu\Phi^i)}\right) = 0 $ ======+<WRAP lag>$ \frac{\partial \mathscr{L}}{\partial \Phi^i} - \partial_\mu \left(\frac{\partial \mathscr{L}}{\partial(\partial_\mu\Phi^i)}\right) = 0 $</​WRAP>​
  
 +====== Euler-Lagrange Equations ======
  
-//see also [[frameworks:​lagrangian_formalism|]]//+ 
 +//see also [[formalisms:​lagrangian_formalism]]//​
  
  
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   ​   ​
 <tabbox Concrete> ​ <tabbox Concrete> ​
-The Euler-Lagrange equation tells us which path is the path with minimal action $S =  \int_{t_i}^{t_f} dt L(q,​\dot{q})$,​ where $L(q,​\dot{q})$ denotes the [[frameworks:​lagrangian_formalism|Lagrangian]]. ​+The Euler-Lagrange equation tells us which path is the path with minimal action $S =  \int_{t_i}^{t_f} dt L(q,​\dot{q})$,​ where $L(q,​\dot{q})$ denotes the [[formalisms:​lagrangian_formalism|Lagrangian]]. ​
  
  
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 <tabbox Why is it interesting?> ​ <tabbox Why is it interesting?> ​
  
-The Euler-Lagrange equations are used in the [[frameworks:​lagrangian_formalism|Lagrange formalism]] to derive from a given Lagrangian the corresponding equations of motion. ​+The Euler-Lagrange equations are used in the [[formalisms:​lagrangian_formalism|Lagrange formalism]] to derive from a given Lagrangian the corresponding equations of motion. ​
  
 </​tabbox>​ </​tabbox>​
  
  
equations/euler_lagrange_equations.txt · Last modified: 2018/04/08 16:13 by jakobadmin