def getMolecule(self, molInd):
molecules = []
if molInd == len(self.molIndex) - 1:
lastLine = -1
else:
lastLine = self.molIndex[molInd + 1]
# lines fotr that molecule
lines = self.allLines[self.molIndex[molInd]:lastLine]
lineIndex = 0
atomsSeen = {} # dict of atom types and number of atoms seen
# parser header
molName = lines[lineIndex].strip()
lineIndex += 3
# create molecule
mol = Protein(name=molName)
mol.info = lines[lineIndex + 1]
mol.comment = lines[lineIndex + 1]
#self.mol.parser = self
chain = Chain(id='1', parent=mol, top=mol)
res = Residue(type='UNK', number='1', parent=chain, top=mol)
mol.levels = [Protein, Chain, Residue, Atom]
# parse count line
line = lines[lineIndex]
assert line[
33:
39] == " V2000", "Format error: only V2000 is suported, got %s" % line[
33:39]
nba = int(line[0:3]) # number of atoms
nbb = int(line[3:6]) # number of bonds
nbal = int(line[6:9]) # number of atom lists
ccc = int(line[12:15]) # chiral flag: 0=not chiral, 1=chiral
sss = int(line[15:18]) # number of stext entries
lineIndex += 1
# parse atoms
for anum in range(nba):
line = lines[lineIndex]
element = line[31:34].strip()
if element in atomsSeen:
atomsSeen[element] += 1
else:
atomsSeen[element] = 1
atom = Atom(name='%s_%s' % (element, atomsSeen[element]),
parent=res,
chemicalElement=element,
top=mol)
atom._coords = [[
float(line[0:10]),
float(line[10:20]),
float(line[20:30])
]]
atom._charges['sdf'] = int(line[35:38])
atom.chargeSet = 'sdf'
mol.allAtoms.append(atom)
atom.massDiff = int(line[34:36])
atom.stereo = int(line[38:41])
atom.hcount = line[41:44]
atom.valence = int(line[47:50])
atom.hetatm = 1
atom.occupancy = 0.0
atom.temperatureFactor = 0.0
lineIndex += 1
# parse bonds
for bnum in range(nba):
line = lines[lineIndex]
at1 = mol.allAtoms[int(line[0:3]) - 1]
at2 = mol.allAtoms[int(line[3:6]) - 1]
if at1.isBonded(at2): continue
bond = Bond(at1, at2, check=0)
bond.bondOrder = int(line[6:9])
#1 = Single, 2 = Double,
#3 = Triple, 4 = Aromatic,
#5 = Single or Double,
#6 = Single or Aromatic,
#7 = Double or Aromatic, 8 = Any
bond.stereo = int(line[9:12])
#Single bonds: 0 = not stereo,
#1 = Up, 4 = Either,
#6 = Down, Double bonds: 0 = Use x-, y-, z-coords
#from atom block to determine cis or trans,
#3 = Cis or trans (either) double bond
bond.topo = int(line[15:18])
# 0 = Either, 1 = Ring, 2 = Chain
try:
bond.ReactionCenter = int(line[18:21])
except ValueError:
bond.ReactionCenter = 0
#0 = unmarked, 1 = a center, -1 = not a center,
#Additional: 2 = no change,
#4 = bond made/broken,
#8 = bond order changes
#12 = 4+8 (both made/broken and changes);
#5 = (4 + 1), 9 = (8 + 1), and 13 = (12 + 1)
# "M END" and properties are not parsed at this point
self.mol = mol
mname = mol.name
strRpr = mname + ':::'
mol.allAtoms.setStringRepr(strRpr)
strRpr = mname + ':'
mol.chains.setStringRepr(strRpr)
for c in mol.chains:
cname = c.id
strRpr = mname + ':' + cname + ':'
c.residues.setStringRepr(strRpr)
for r in c.residues:
rname = r.name
strRpr = mname + ':' + cname + ':' + rname + ':'
r.atoms.setStringRepr(strRpr)
molList = mol.setClass()
molList.append(mol)
mol.parser = self
for n in molList.name:
name = n + ','
name = name[:-1]
molList.setStringRepr(name)
strRpr = name + ':::'
molList.allAtoms.setStringRepr(strRpr)
return molList
def parse( self, objClass=Protein ):
if self.allLines is None and self.filename:
self.readFile()
if self.allLines is None or len(self.allLines)==0:
return
mol = Protein()
self.mol = mol
molList = mol.setClass()
molList.append( mol )
current_residue_number = None
current_chain = None
current_residue = None
number_of_atoms = int(self.allLines[1][:5])
self.configureProgressBar( init=1, mode='increment',
authtext='parse atoms', max=number_of_atoms )
current_chain = Chain( id='GRO',)
#FIX this: The existence of allAtoms attribute (and the fact that it is an empty set rather than all atoms in the chain) causes getNodesByMolecule() to return wrong values
if hasattr(current_chain, "allAtoms"):
del(current_chain.allAtoms)
#current_chain = Chain( id='GRO',parent = mol)
mol.adopt( current_chain, setChildrenTop=1 )
for index in range( 2,number_of_atoms+2 ):
residue_number = int(self.allLines[index][:5])
if residue_number!=current_residue_number:#
#current_chain should adopt the current residue if there is one
#create new residue
res_type = self.allLines[index][5:10]
residue_type = res_type.split(' ')[0]
current_residue = Residue( type=residue_type, number=residue_number )
current_residue_number = residue_number
if current_residue is not None: #REMEMBER TO ADOPT THE LAST ONE!!!
current_chain.adopt( current_residue, setChildrenTop=1 )
n = self.allLines[index][10:15]
name = n.split(' ')[-1]
element = name
if element in babel_elements.keys():
element = element
else:
if residue_type == "System" or residue_type == "SOL":
#if element[1] == 'W':
# element = 'H'
# group is treated as one particle
#else:
element = element[0]
elif element[:2] == 'Me':
element = 'C'
else:
element = element[0]
#if len(element)>1:
# if type(element[1]) == types.StringType:
#
# if element[1] == element[1].lower():
# element =element
# else:
# element = element[0]
#
# else:
# element = element[0]
atom = Atom( name, current_residue, element, top=mol )
c = self.allLines[index][15:20]
cx = self.allLines[index][20:28]
cy = self.allLines[index][28:36]
cz = self.allLines[index][36:44]
x = float(cx)*10
y = float(cy)*10
z = float(cz)*10
atom._coords = [[x, y, z]]
atom._charges = []
atom.segID = mol.name
atom.normalname = name
atom.number = int(self.allLines[index][15:20])
atom.elementType = name[0]
mol.atmNum[atom.number] = atom
atom.altname = None
atom.hetatm = 0
mol.name = os.path.split(os.path.splitext(self.filename)[0])[-1]
mol.allAtoms = mol.chains.residues.atoms
mol.parser = self
mol.levels = [Protein, Chain, Residue, Atom]
name = ''
for n in molList.name:
name = n + ','
name = name[:-1]
molList.setStringRepr( name )
strRpr = name + ':::'
molList.allAtoms.setStringRepr( strRpr )
for m in molList:
mname = m.name
strRpr = mname + ':::'
m.allAtoms.setStringRepr( strRpr )
strRpr = mname + ':'
m.chains.setStringRepr( strRpr )
for c in m.chains:
cname = c.id
strRpr = mname + ':' + cname + ':'
c.residues.setStringRepr( strRpr )
for r in c.residues:
rname = r.name
strRpr = mname + ':' + cname + ':' + rname + ':'
r.atoms.setStringRepr( strRpr )
return molList
def parse(self, objClass=Protein):
"""Parses mmCIF dictionary (self.mmCIF_dict) into MolKit object"""
if self.allLines is None and self.filename:
self.readFile()
if self.allLines is None or len(self.allLines) == 0:
return
self.mmCIF2Dict()
type_symbol = None
B_iso_or_equiv = None
mmCIF_dict = self.mmCIF_dict
fileName, fileExtension = os.path.splitext(self.filename)
molName = os.path.basename(fileName)
if mmCIF_dict.has_key('_entry.id'):
molName = mmCIF_dict['_entry.id']
if mmCIF_dict.has_key('_atom_site.id'):
#The description of the data names can be found in the following link
#http://mmcif.pdb.org/dictionaries/mmcif_pdbx.dic/Items
ids = mmCIF_dict['_atom_site.id'] #1 number
group_PDB = mmCIF_dict['_atom_site.group_PDB'] #2 atom/hetatm
atom_id = mmCIF_dict['_atom_site.label_atom_id'] #3 name
comp_id = mmCIF_dict['_atom_site.label_comp_id'] #4 residue type
label_asym_id = mmCIF_dict['_atom_site.label_asym_id'] #5 chain
#Note: chain ID from mmCIF file might be different from PDB file
seq_id = mmCIF_dict['_atom_site.label_seq_id'] #6 residue number
x_coords = mmCIF_dict['_atom_site.Cartn_x'] #7 xcoord
y_coords = mmCIF_dict['_atom_site.Cartn_y'] #8 ycoord
z_coords = mmCIF_dict['_atom_site.Cartn_z'] #9 zcoord
occupancy = mmCIF_dict['_atom_site.occupancy'] #10
B_iso_or_equiv = mmCIF_dict['_atom_site.B_iso_or_equiv'] #11
type_symbol = mmCIF_dict['_atom_site.type_symbol']
elif mmCIF_dict.has_key('_atom_site_label'):
#ftp://ftp.iucr.org/pub/cif_core.dic
atom_id = mmCIF_dict['_atom_site_label']
len_atoms = len(atom_id)
ids = range(len_atoms)
group_PDB = len_atoms * ['HETATM']
comp_id = len_atoms * ["CIF"]
label_asym_id = len_atoms * ['1']
seq_id = len_atoms * [1]
from mglutil.math.crystal import Crystal
a = mmCIF_dict['_cell.length_a'] = float(
mmCIF_dict['_cell_length_a'].split('(')[0])
b = mmCIF_dict['_cell.length_b'] = float(
mmCIF_dict['_cell_length_b'].split('(')[0])
c = mmCIF_dict['_cell.length_c'] = float(
mmCIF_dict['_cell_length_c'].split('(')[0])
alpha = mmCIF_dict['_cell.angle_alpha'] = float(
mmCIF_dict['_cell_angle_alpha'].split('(')[0])
beta = mmCIF_dict['_cell.angle_beta'] = float(
mmCIF_dict['_cell_angle_beta'].split('(')[0])
gamma = mmCIF_dict['_cell.angle_gamma'] = float(
mmCIF_dict['_cell_angle_gamma'].split('(')[0])
cryst = Crystal((a, b, c), (alpha, beta, gamma))
x = []
for item in mmCIF_dict['_atom_site_fract_x']:
x.append(float(item.split('(')[0]))
y = []
for item in mmCIF_dict['_atom_site_fract_y']:
y.append(float(item.split('(')[0]))
z = []
for item in mmCIF_dict['_atom_site_fract_z']:
z.append(float(item.split('(')[0]))
x_coords = []
y_coords = []
z_coords = []
B_iso_or_equiv = []
for i in ids:
trans = cryst.toCartesian([x[i], y[i], z[i]])
x_coords.append(trans[0])
y_coords.append(trans[1])
z_coords.append(trans[2])
if mmCIF_dict.has_key('_atom_site_U_iso_or_equiv'):
B_iso_or_equiv.append(
mmCIF_dict['_atom_site_U_iso_or_equiv'][i].split(
'(')[0])
if mmCIF_dict.has_key('_atom_site_type_symbol'):
type_symbol = mmCIF_dict['_atom_site_type_symbol']
if mmCIF_dict.has_key('_atom_site_occupancy'):
occupancy = mmCIF_dict['_atom_site_occupancy']
if mmCIF_dict.has_key('_chemical_name_common'):
molName = mmCIF_dict['_chemical_name_common']
elif mmCIF_dict.has_key('_chemical_name_mineral'):
molName = mmCIF_dict['_chemical_name_mineral']
if mmCIF_dict.has_key('_symmetry_space_group_name_H-M'):
mmCIF_dict['_symmetry.space_group_name_H-M'] = mmCIF_dict[
'_symmetry_space_group_name_H-M']
else:
print 'No _atom_site.id or _atom_site_label record is available in %s' % self.filename
return None
mol = Protein()
self.mol = mol
self.mol.allAtoms = AtomSet([])
molList = mol.setClass()
molList.append(mol)
current_chain_id = None
current_residue_number = None
current_chain = None
current_residue = None
number_of_atoms = len(ids)
self.configureProgressBar(init=1,
mode='increment',
authtext='parse atoms',
max=number_of_atoms)
for index in range(number_of_atoms):
#make a new atom for the current index
chain_id = label_asym_id[index]
if chain_id != current_chain_id: #make a new chain
#molecule should adopt the current chain if there is one
current_chain = Chain(id=chain_id)
# FIXME: current_chain should not have allAtoms attribute
delattr(current_chain, "allAtoms")
current_chain_id = chain_id
if current_chain is not None: #REMEMBER TO ADOPT THE LAST ONE!!!
mol.adopt(current_chain, setChildrenTop=1)
residue_number = seq_id[index]
if residue_number != current_residue_number or chain_id != label_asym_id[
index - 1]: #make a new chain:
#current_chain should adopt the current residue if there is one
#create new residue
residue_type = comp_id[index]
current_residue = Residue(type=residue_type,
number=residue_number)
current_residue_number = residue_number
if current_residue is not None: #REMEMBER TO ADOPT THE LAST ONE!!!
current_chain.adopt(current_residue, setChildrenTop=1)
name = atom_id[index]
if type_symbol:
element = type_symbol[index]
else:
element = None
atom = Atom(name, current_residue, element, top=mol)
atom._coords = [[
float(x_coords[index]),
float(y_coords[index]),
float(z_coords[index])
]]
atom._charges = {}
atom.segID = mol.name
atom.normalname = name
atom.number = int(ids[index])
mol.atmNum[atom.number] = atom
atom.occupancy = float(occupancy[index])
if B_iso_or_equiv:
atom.temperatureFactor = float(B_iso_or_equiv[index])
atom.altname = None
atom.hetatm = 0
if group_PDB[index] == 'HETATM':
atom.hetatm = 1
self.updateProgressBar()
self.parse_MMCIF_CELL()
try:
self.parse_MMCIF_HYDBND()
except:
print >> sys.stderr, "Parsing Hydrogen Bond Record Failed in", self.filename
mol.name = molName
mol.allAtoms = mol.chains.residues.atoms
mol.parser = self
mol.levels = [Protein, Chain, Residue, Atom]
name = ''
for n in molList.name:
name = n + ','
name = name[:-1]
molList.setStringRepr(name)
strRpr = name + ':::'
molList.allAtoms.setStringRepr(strRpr)
for m in molList:
mname = m.name
strRpr = mname + ':::'
m.allAtoms.setStringRepr(strRpr)
strRpr = mname + ':'
m.chains.setStringRepr(strRpr)
for c in m.chains:
cname = c.id
strRpr = mname + ':' + cname + ':'
c.residues.setStringRepr(strRpr)
for r in c.residues:
rname = r.name
strRpr = mname + ':' + cname + ':' + rname + ':'
r.atoms.setStringRepr(strRpr)
self.buildBonds()
return molList
def parse(self, objClass=Protein):
"""Parses mmCIF dictionary (self.mmCIF_dict) into MolKit object"""
if self.allLines is None and self.filename:
self.readFile()
if self.allLines is None or len(self.allLines)==0:
return
self.mmCIF2Dict()
type_symbol = None
B_iso_or_equiv = None
mmCIF_dict = self.mmCIF_dict
fileName, fileExtension = os.path.splitext(self.filename)
molName = os.path.basename(fileName)
if mmCIF_dict.has_key('_entry.id'):
molName = mmCIF_dict['_entry.id']
if mmCIF_dict.has_key('_atom_site.id'):
#The description of the data names can be found in the following link
#http://mmcif.pdb.org/dictionaries/mmcif_pdbx.dic/Items
ids = mmCIF_dict['_atom_site.id'] #1 number
group_PDB = mmCIF_dict['_atom_site.group_PDB'] #2 atom/hetatm
atom_id = mmCIF_dict['_atom_site.label_atom_id'] #3 name
comp_id = mmCIF_dict['_atom_site.label_comp_id'] #4 residue type
label_asym_id = mmCIF_dict['_atom_site.label_asym_id'] #5 chain
#Note: chain ID from mmCIF file might be different from PDB file
seq_id = mmCIF_dict['_atom_site.label_seq_id'] #6 residue number
x_coords = mmCIF_dict['_atom_site.Cartn_x'] #7 xcoord
y_coords = mmCIF_dict['_atom_site.Cartn_y'] #8 ycoord
z_coords = mmCIF_dict['_atom_site.Cartn_z'] #9 zcoord
occupancy = mmCIF_dict['_atom_site.occupancy'] #10
B_iso_or_equiv = mmCIF_dict['_atom_site.B_iso_or_equiv']#11
type_symbol = mmCIF_dict['_atom_site.type_symbol']
elif mmCIF_dict.has_key('_atom_site_label'):
#ftp://ftp.iucr.org/pub/cif_core.dic
atom_id = mmCIF_dict['_atom_site_label']
len_atoms = len(atom_id)
ids = range(len_atoms)
group_PDB = len_atoms*['HETATM']
comp_id = len_atoms*["CIF"]
label_asym_id = len_atoms*['1']
seq_id = len_atoms*[1]
from mglutil.math.crystal import Crystal
a = mmCIF_dict['_cell.length_a'] = float(mmCIF_dict['_cell_length_a'].split('(')[0])
b = mmCIF_dict['_cell.length_b'] = float(mmCIF_dict['_cell_length_b'].split('(')[0])
c = mmCIF_dict['_cell.length_c'] = float(mmCIF_dict['_cell_length_c'].split('(')[0])
alpha = mmCIF_dict['_cell.angle_alpha'] = float(mmCIF_dict['_cell_angle_alpha'].split('(')[0])
beta = mmCIF_dict['_cell.angle_beta'] = float(mmCIF_dict['_cell_angle_beta'].split('(')[0])
gamma = mmCIF_dict['_cell.angle_gamma'] = float(mmCIF_dict['_cell_angle_gamma'].split('(')[0])
cryst = Crystal((a, b, c), (alpha, beta, gamma))
x = []
for item in mmCIF_dict['_atom_site_fract_x']:
x.append(float(item.split('(')[0]))
y = []
for item in mmCIF_dict['_atom_site_fract_y']:
y.append(float(item.split('(')[0]))
z = []
for item in mmCIF_dict['_atom_site_fract_z']:
z.append(float(item.split('(')[0]))
x_coords = []
y_coords = []
z_coords = []
B_iso_or_equiv = []
for i in ids:
trans = cryst.toCartesian([x[i], y[i], z[i]])
x_coords.append(trans[0])
y_coords.append(trans[1])
z_coords.append(trans[2])
if mmCIF_dict.has_key('_atom_site_U_iso_or_equiv'):
B_iso_or_equiv.append(mmCIF_dict['_atom_site_U_iso_or_equiv'][i].split('(')[0])
if mmCIF_dict.has_key('_atom_site_type_symbol'):
type_symbol = mmCIF_dict['_atom_site_type_symbol']
if mmCIF_dict.has_key('_atom_site_occupancy'):
occupancy = mmCIF_dict['_atom_site_occupancy']
if mmCIF_dict.has_key('_chemical_name_common'):
molName = mmCIF_dict['_chemical_name_common']
elif mmCIF_dict.has_key('_chemical_name_mineral'):
molName = mmCIF_dict['_chemical_name_mineral']
if mmCIF_dict.has_key('_symmetry_space_group_name_H-M'):
mmCIF_dict['_symmetry.space_group_name_H-M'] = mmCIF_dict['_symmetry_space_group_name_H-M']
else:
print 'No _atom_site.id or _atom_site_label record is available in %s' % self.filename
return None
mol = Protein()
self.mol = mol
self.mol.allAtoms = AtomSet([])
molList = mol.setClass()
molList.append( mol )
current_chain_id = None
current_residue_number = None
current_chain = None
current_residue = None
number_of_atoms = len(ids)
self.configureProgressBar(init=1, mode='increment',
authtext='parse atoms', max=number_of_atoms)
for index in range(number_of_atoms):
#make a new atom for the current index
chain_id = label_asym_id[index]
if chain_id != current_chain_id: #make a new chain
#molecule should adopt the current chain if there is one
current_chain = Chain(id=chain_id)
# FIXME: current_chain should not have allAtoms attribute
delattr(current_chain, "allAtoms")
current_chain_id = chain_id
if current_chain is not None: #REMEMBER TO ADOPT THE LAST ONE!!!
mol.adopt(current_chain, setChildrenTop=1)
residue_number = seq_id[index]
if residue_number != current_residue_number or chain_id != label_asym_id[index-1]: #make a new chain:
#current_chain should adopt the current residue if there is one
#create new residue
residue_type = comp_id[index]
current_residue = Residue(type=residue_type, number=residue_number)
current_residue_number = residue_number
if current_residue is not None: #REMEMBER TO ADOPT THE LAST ONE!!!
current_chain.adopt(current_residue, setChildrenTop=1)
name = atom_id[index]
if type_symbol:
element = type_symbol[index]
else:
element = None
atom = Atom( name, current_residue, element, top=mol )
atom._coords = [[float(x_coords[index]), float(y_coords[index]), float(z_coords[index])]]
atom._charges = {}
atom.segID = mol.name
atom.normalname = name
atom.number = int(ids[index])
mol.atmNum[atom.number] = atom
atom.occupancy = float(occupancy[index])
if B_iso_or_equiv:
atom.temperatureFactor = float(B_iso_or_equiv[index])
atom.altname = None
atom.hetatm = 0
if group_PDB[index]=='HETATM':
atom.hetatm = 1
self.updateProgressBar()
self.parse_MMCIF_CELL()
try:
self.parse_MMCIF_HYDBND()
except:
print >>sys.stderr,"Parsing Hydrogen Bond Record Failed in",self.filename
mol.name = molName
mol.allAtoms = mol.chains.residues.atoms
mol.parser = self
mol.levels = [Protein, Chain, Residue, Atom]
name = ''
for n in molList.name:
name = n + ','
name = name[:-1]
molList.setStringRepr(name)
strRpr = name + ':::'
molList.allAtoms.setStringRepr(strRpr)
for m in molList:
mname = m.name
strRpr = mname + ':::'
m.allAtoms.setStringRepr(strRpr)
strRpr = mname + ':'
m.chains.setStringRepr(strRpr)
for c in m.chains:
cname = c.id
strRpr = mname + ':' + cname + ':'
c.residues.setStringRepr(strRpr)
for r in c.residues:
rname = r.name
strRpr = mname + ':' + cname + ':' + rname + ':'
r.atoms.setStringRepr(strRpr)
self.buildBonds()
return molList
def parse(self, objClass=Protein):
if self.allLines is None and self.filename:
self.readFile()
if self.allLines is None or len(self.allLines) == 0:
return
mol = Protein()
self.mol = mol
molList = mol.setClass()
molList.append(mol)
current_residue_number = None
current_chain = None
current_residue = None
number_of_atoms = int(self.allLines[1][:5])
self.configureProgressBar(init=1,
mode='increment',
authtext='parse atoms',
max=number_of_atoms)
current_chain = Chain(id='GRO', )
# FIX this: The existence of allAtoms attribute (and the fact that it is an empty set rather than all atoms in
# the chain) causes getNodesByMolecule() to return wrong values
if hasattr(current_chain, "allAtoms"):
del current_chain.allAtoms
# current_chain = Chain( id='GRO',parent = mol)
mol.adopt(current_chain, setChildrenTop=1)
for index in range(2, number_of_atoms + 2):
residue_number = int(self.allLines[index][:5])
if residue_number != current_residue_number: #
# current_chain should adopt the current residue if there is one
# create new residue
res_type = self.allLines[index][5:10]
residue_type = res_type.split(' ')[0]
current_residue = Residue(type=residue_type,
number=residue_number)
current_residue_number = residue_number
if current_residue is not None: # REMEMBER TO ADOPT THE LAST ONE!!!
current_chain.adopt(current_residue, setChildrenTop=1)
n = self.allLines[index][10:15]
name = n.split(' ')[-1]
element = name
if element in list(babel_elements.keys()):
element = element
else:
if residue_type == "System" or residue_type == "SOL":
# if element[1] == 'W':
# element = 'H'
# group is treated as one particle
# else:
element = element[0]
elif element[:2] == 'Me':
element = 'C'
else:
element = element[0]
# if len(element)>1:
# if type(element[1]) == types.StringType:
#
# if element[1] == element[1].lower():
# element =element
# else:
# element = element[0]
#
# else:
# element = element[0]
atom = Atom(name, current_residue, element, top=mol)
c = self.allLines[index][15:20]
cx = self.allLines[index][20:28]
cy = self.allLines[index][28:36]
cz = self.allLines[index][36:44]
x = float(cx) * 10
y = float(cy) * 10
z = float(cz) * 10
atom._coords = [[x, y, z]]
atom._charges = []
atom.segID = mol.name
atom.normalname = name
atom.number = int(self.allLines[index][15:20])
atom.elementType = name[0]
mol.atmNum[atom.number] = atom
atom.altname = None
atom.hetatm = 0
mol.name = os.path.split(os.path.splitext(self.filename)[0])[-1]
mol.allAtoms = mol.chains.residues.atoms
mol.parser = self
mol.levels = [Protein, Chain, Residue, Atom]
name = ''
for n in molList.name:
name = n + ','
name = name[:-1]
molList.setStringRepr(name)
strRpr = name + ':::'
molList.allAtoms.setStringRepr(strRpr)
for m in molList:
mname = m.name
strRpr = mname + ':::'
m.allAtoms.setStringRepr(strRpr)
strRpr = mname + ':'
m.chains.setStringRepr(strRpr)
for c in m.chains:
cname = c.id
strRpr = mname + ':' + cname + ':'
c.residues.setStringRepr(strRpr)
for r in c.residues:
rname = r.name
strRpr = mname + ':' + cname + ':' + rname + ':'
r.atoms.setStringRepr(strRpr)
return molList
