Source code for stk.molecular.functional_groups.functional_groups.alkyne



from .generic_functional_group import GenericFunctionalGroup

[docs]class Alkyne(GenericFunctionalGroup): """ Represents an alkyne functional group. The structure of the functional group is given by the pseudo-SMILES ``[carbon1]([atom1])#[carbon2][atom2]``. """
[docs] def __init__( self, carbon1, atom1, carbon2, atom2, bonders, deleters, placers=None, ): """ Initialize a :class:`.Alkyne` instance. Parameters ---------- carbon1 : :class:`.C` The ``[carbon1]`` atom. atom1 : :class:`.Atom` The ``[atom1]`` atom. carbon2 : :class:`.C` The ``[carbon2]`` atom. atom2 : :class:`.Atom` The ``[atom2]`` atom. bonders : :class:`tuple` of :class:`.Atom` The bonder atoms. deleters : :class:`tuple` of :class:`.Atom` The deleter atoms. placers : :class:`tuple` of :class:`.Atom`, optional The placer atoms. If ``None`` the `bonders` will be used. """ self._carbon1 = carbon1 self._atom1 = atom1 self._carbon2 = carbon2 self._atom2 = atom2 atoms = (carbon1, atom1, carbon2, atom2) super().__init__( atoms=atoms, bonders=bonders, deleters=deleters, placers=bonders if placers is None else placers, )
[docs] def get_atom1(self): """ Get the ``[atom1]`` atom. Returns ------- :class:`.Atom` The ``[atom1]`` atom. """ return self._atom1
[docs] def get_carbon1(self): """ Get the ``[carbon1]`` atom. Returns ------- :class:`.C` The ``[carbon1]`` atom. """ return self._carbon1
[docs] def get_carbon2(self): """ Get the ``[carbon2]`` atom. Returns ------- :class:`.C` The ``[carbon2]`` atom. """ return self._carbon2
[docs] def get_atom2(self): """ Get the ``[atom2]`` atom. Returns ------- :class:`.Atom` The ``[atom2]`` atom. """ return self._atom2
[docs] def clone(self): clone = super().clone() clone._carbon1 = self._carbon1 clone._atom1 = self._atom1 clone._carbon2 = self._carbon2 clone._atom2 = self._atom2 return clone
[docs] def with_atoms(self, atom_map): clone = super().with_atoms(atom_map) clone._carbon1 = atom_map.get( self._carbon1.get_id(), self._carbon1, ) clone._atom1 = atom_map.get( self._atom1.get_id(), self._atom1, ) clone._carbon2 = atom_map.get( self._carbon2.get_id(), self._carbon2, ) clone._atom2 = atom_map.get( self._atom2.get_id(), self._atom2, ) return clone
def __repr__(self): return ( f'{self.__class__.__name__}(' f'{self._carbon1}, {self._atom1}, {self._carbon2}, ' f'{self._atom2}, ' f'bonders={self._bonders}, deleters={self._deleters})' )