Jhenrique Messages 676 Reaction score 4 Thread starter Feb 4, 2014 #1 If exist a theorem for the gradiant, other to the curl(green) and other for the divergence. So, exist a theorem for the laplacian too?
If exist a theorem for the gradiant, other to the curl(green) and other for the divergence. So, exist a theorem for the laplacian too?
dextercioby Science Advisor Insights Author Messages 13,419 Reaction score 4,227 Feb 13, 2014 #3 I don't understand what you expect. You can use Gauß-Ostrogradski's formula to generate the so-called Green formulas, which are useful in scalar and vector light diffraction theory (Kirchhoff's formula). Search these items on Wikipedia.
I don't understand what you expect. You can use Gauß-Ostrogradski's formula to generate the so-called Green formulas, which are useful in scalar and vector light diffraction theory (Kirchhoff's formula). Search these items on Wikipedia.
Jhenrique Messages 676 Reaction score 4 Feb 14, 2014 #4 I want says that if exist the gradient theorem: the curl theorem: and the divergence theorem: So, is possible to define a theorem for the laplacian too?
I want says that if exist the gradient theorem: the curl theorem: and the divergence theorem: So, is possible to define a theorem for the laplacian too?
dextercioby Science Advisor Insights Author Messages 13,419 Reaction score 4,227 Feb 15, 2014 #5 Is it so difficult to look on wikipedia ? http://en.wikipedia.org/wiki/Green's_identities
Jhenrique Messages 676 Reaction score 4 Feb 16, 2014 #6 dextercioby said: Is it so difficult to look on wikipedia ? http://en.wikipedia.org/wiki/Green's_identities Guy, I can't understand any of these identities! They're too difficult!
dextercioby said: Is it so difficult to look on wikipedia ? http://en.wikipedia.org/wiki/Green's_identities Guy, I can't understand any of these identities! They're too difficult!