flux_modules/flux_module.py
def solve(self, it=0):
    """
    Pick the appropriate solver for current problem (eigen/fixed-source) and solve the problem (i.e., update solution
    vector and possibly the eigenvalue
    ).
    """
    self.assemble_algebraic_system()
    self.save_algebraic_system(it)

    if self.eigenproblem:
      self.solve_keff(it)
    else:
      self.solve_fixed_source(it)

    self.up_to_date = {k : False for k in self.up_to_date.iterkeys()}

    Pick the appropriate solver for current problem (eigen/fixed-source) and solve the problem (i.e., update solution
    vector and possibly the eigenvalue
    ).
    
Pick the appropriate solver for current problem (eigen/fixed-source) and solve the problem .
Pick the appropriate solver for current problem ( eigen / fixed - source ) and solve the problem .
def solve(self, it=0):
    self.assemble_algebraic_system()
    self.save_algebraic_system(it)
    if self.eigenproblem:
      self.solve_keff(it)
    else:
      self.solve_fixed_source(it)
    self.up_to_date = {k : False for k in self.up_to_date.iterkeys()}
def solve ( self , it = 0 ) : self . assemble_algebraic_system ( ) self . save_algebraic_system ( it ) if self . eigenproblem : self . solve_keff ( it ) else : self . solve_fixed_source ( it ) self . up_to_date = { k : False for k in self . up_to_date . iterkeys ( ) }
Pick the appropriate solver for current problem (eigen/fixed-source) and solve the problem (i.e., update solution
vector and possibly the eigenvalue
).
Pick the appropriate solver for current problem ( eigen / fixed - source ) and solve the problem ( i . e . update solution vector and possibly the eigenvalue ) .
"""
    Pick the appropriate solver for current problem (eigen/fixed-source) and solve the problem (i.e., update solution
    vector and possibly the eigenvalue
    ).
    """
self
it