def _read_optimized_geometry(self):
"""
Parses optimized XYZ coordinates. If not present, parses optimized Z-matrix.
"""
header_pattern = r"\*+\s+OPTIMIZATION\s+CONVERGED\s+\*+\s+\*+\s+Coordinates \(Angstroms\)\s+ATOM\s+X\s+Y\s+Z"
table_pattern = r"\s+\d+\s+\w+\s+([\d\-\.]+)\s+([\d\-\.]+)\s+([\d\-\.]+)"
footer_pattern = r"\s+Z-matrix Print:"
parsed_optimized_geometry = read_table_pattern(
self.text, header_pattern, table_pattern, footer_pattern)
if parsed_optimized_geometry == [] or None:
self.data["optimized_geometry"] = []
header_pattern = r"^\s+\*+\s+OPTIMIZATION CONVERGED\s+\*+\s+\*+\s+Z-matrix\s+Print:\s+\$molecule\s+[\d\-]+\s+[\d\-]+\n"
table_pattern = r"\s*(\w+)(?:\s+(\d+)\s+([\d\-\.]+)(?:\s+(\d+)\s+([\d\-\.]+)(?:\s+(\d+)\s+([\d\-\.]+))*)*)*(?:\s+0)*"
footer_pattern = r"^\$end\n"
self.data["optimized_zmat"] = read_table_pattern(
self.text, header_pattern, table_pattern, footer_pattern)
else:
self.data["optimized_geometry"] = process_parsed_coords(
parsed_optimized_geometry[0])
if self.data.get('charge') != None:
self.data["molecule_from_optimized_geometry"] = Molecule(
species=self.data.get('species'),
coords=self.data.get('optimized_geometry'),
charge=self.data.get('charge'),
spin_multiplicity=self.data.get('multiplicity'))
def _parse_node_opt_trajectory(self):
self.data["opt_trajectory_energies"] = dict()
self.data["opt_trajectory_gradrms"] = dict()
header_pattern = r"\s*converged\n\s*opt-summary [0-9]+"
body_pattern = r"\s*Node: ([0-9]+) Opt step: [0-9]+ E: ([\.\-0-9]+) predE: [\.\-0-9]+ ratio: [\.\-0-9]+ gradrms: ([\.0-9]+) ss: [\-\.0-9]+ DMAX: ([\.0-9]+)"
footer_pattern = r""
temp_opt_trajectories = read_table_pattern(
self.text,
header_pattern=header_pattern,
row_pattern=body_pattern,
footer_pattern=footer_pattern)
for table in temp_opt_trajectories:
energies = list()
grads = list()
node_num = int(table[0][0])
if node_num not in self.data["opt_trajectory_energies"]:
self.data["opt_trajectory_energies"][node_num] = list()
if node_num not in self.data["opt_trajectory_gradrms"]:
self.data["opt_trajectory_gradrms"][node_num] = list()
for row in table:
energies.append(float(row[1]))
grads.append(float(row[2]))
self.data["opt_trajectory_energies"][node_num].append(energies)
self.data["opt_trajectory_gradrms"][node_num].append(grads)
def read_molecule(string):
charge = None
spin_mult = None
patterns = {
"read": r"^\s*\$molecule\n\s*(read)",
"charge": r"^\s*\$molecule\n\s*(\d+)\s+\d",
"spin_mult": r"^\s*\$molecule\n\s*\d+\s*(\d)"
}
matches = read_pattern(string, patterns)
if "read" in matches.keys():
return "read"
if "charge" in matches.keys():
charge = float(matches["charge"][0][0])
if "spin_mult" in matches.keys():
spin_mult = int(matches["spin_mult"][0][0])
header = r"^\s*\$molecule\n\s*\d\s*\d"
row = r"\s*((?i)[a-z]+)\s+([\d\-\.]+)\s+([\d\-\.]+)\s+([\d\-\.]+)"
footer = r"^\$end"
mol_table = read_table_pattern(string,
header_pattern=header,
row_pattern=row,
footer_pattern=footer)
species = [val[0] for val in mol_table[0]]
coords = [[float(val[1]), float(val[2]),
float(val[3])] for val in mol_table[0]]
mol = Molecule(species=species,
coords=coords,
charge=charge,
spin_multiplicity=spin_mult)
return mol
def _read_mulliken(self):
"""
Parses Mulliken charges. Also parses spins given an unrestricted SCF.
"""
if self.data.get('unrestricted', []):
header_pattern = r"\-+\s+Ground-State Mulliken Net Atomic Charges\s+Atom\s+Charge \(a\.u\.\)\s+Spin\s\(a\.u\.\)\s+\-+"
table_pattern = r"\s+\d+\s\w+\s+([\d\-\.]+)\s+([\d\-\.]+)"
footer_pattern = r"\s\s\-+\s+Sum of atomic charges"
else:
header_pattern = r"\-+\s+Ground-State Mulliken Net Atomic Charges\s+Atom\s+Charge \(a\.u\.\)\s+\-+"
table_pattern = r"\s+\d+\s\w+\s+([\d\-\.]+)"
footer_pattern = r"\s\s\-+\s+Sum of atomic charges"
temp_mulliken = read_table_pattern(self.text, header_pattern,
table_pattern, footer_pattern)
real_mulliken = []
for one_mulliken in temp_mulliken:
if self.data.get('unrestricted', []):
temp = np.zeros(shape=(len(one_mulliken), 2))
for ii, entry in enumerate(one_mulliken):
temp[ii, 0] = float(entry[0])
temp[ii, 1] = float(entry[1])
else:
temp = np.zeros(len(one_mulliken))
for ii, entry in enumerate(one_mulliken):
temp[ii] = float(entry[0])
real_mulliken += [temp]
self.data["Mulliken"] = real_mulliken
def _read_SCF(self):
"""
Parses both old and new SCFs.
"""
if self.data.get('using_GEN_SCFMAN', []):
if "SCF_failed_to_converge" in self.data.get("errors"):
footer_pattern = r"^\s*gen_scfman_exception: SCF failed to converge"
else:
footer_pattern = r"^\s*\-+\n"
header_pattern = r"^\s*\-+\s+Cycle\s+Energy\s+(?:(?:DIIS)*\s+[Ee]rror)*(?:RMS Gradient)*\s+\-+(?:\s*\-+\s+OpenMP\s+Integral\s+computing\s+Module\s+(?:Release:\s+version\s+[\d\-\.]+\,\s+\w+\s+[\d\-\.]+\, Q-Chem Inc\. Pittsburgh\s+)*\-+)*\n"
table_pattern = r"(?:\s*Nonlocal correlation = [\d\-\.]+e[\d\-]+)*(?:\s*Inaccurate integrated density:\n\s+Number of electrons\s+=\s+[\d\-\.]+\n\s+Numerical integral\s+=\s+[\d\-\.]+\n\s+Relative error\s+=\s+[\d\-\.]+\s+\%\n)*\s*\d+\s+([\d\-\.]+)\s+([\d\-\.]+)e([\d\-\.\+]+)(?:\s+Convergence criterion met)*(?:\s+Preconditoned Steepest Descent)*(?:\s+Roothaan Step)*(?:\s+(?:Normal\s+)*BFGS [Ss]tep)*(?:\s+LineSearch Step)*(?:\s+Line search: overstep)*(?:\s+Descent step)*"
else:
if "SCF_failed_to_converge" in self.data.get("errors"):
footer_pattern = r"^\s*\d+\s*[\d\-\.]+\s+[\d\-\.]+E[\d\-\.]+\s+Convergence\s+failure\n"
else:
footer_pattern = r"^\s*\-+\n"
header_pattern = r"^\s*\-+\s+Cycle\s+Energy\s+DIIS Error\s+\-+\n"
table_pattern = r"(?:\s*Inaccurate integrated density:\n\s+Number of electrons\s+=\s+[\d\-\.]+\n\s+Numerical integral\s+=\s+[\d\-\.]+\n\s+Relative error\s+=\s+[\d\-\.]+\s+\%\n)*\s*\d+\s*([\d\-\.]+)\s+([\d\-\.]+)E([\d\-\.\+]+)(?:\s*\n\s*cpu\s+[\d\-\.]+\swall\s+[\d\-\.]+)*(?:\nin dftxc\.C, eleTot sum is:[\d\-\.]+, tauTot is\:[\d\-\.]+)*(?:\s+Convergence criterion met)*(?:\s+Done RCA\. Switching to DIIS)*(?:\n\s*Warning: not using a symmetric Q)*(?:\nRecomputing EXC\s*[\d\-\.]+\s*[\d\-\.]+\s*[\d\-\.]+(?:\s*\nRecomputing EXC\s*[\d\-\.]+\s*[\d\-\.]+\s*[\d\-\.]+)*)*"
temp_scf = read_table_pattern(self.text, header_pattern, table_pattern,
footer_pattern)
real_scf = []
for one_scf in temp_scf:
temp = np.zeros(shape=(len(one_scf), 2))
for ii, entry in enumerate(one_scf):
temp[ii, 0] = float(entry[0])
temp[ii, 1] = float(entry[1]) * 10**float(entry[2])
real_scf += [temp]
self.data["SCF"] = real_scf
def _read_species_and_inital_geometry(self):
"""
Parses species and initial geometry.
"""
header_pattern = r"Standard Nuclear Orientation \(Angstroms\)\s+I\s+Atom\s+X\s+Y\s+Z\s+-+"
table_pattern = r"\s*\d+\s+([a-zA-Z]+)\s*([\d\-\.]+)\s*([\d\-\.]+)\s*([\d\-\.]+)\s*"
footer_pattern = r"\s*-+"
temp_geom = read_table_pattern(self.text, header_pattern,
table_pattern, footer_pattern)
if temp_geom == None or len(temp_geom) == 0:
self.data["species"] = None
self.data["initial_geometry"] = None
self.data["initial_molecule"] = None
else:
temp_geom = temp_geom[0]
species = []
geometry = np.zeros(shape=(len(temp_geom), 3), dtype=float)
for ii, entry in enumerate(temp_geom):
species += [entry[0]]
for jj in range(3):
geometry[ii, jj] = float(entry[jj + 1])
self.data["species"] = species
self.data["initial_geometry"] = geometry
self.data["initial_molecule"] = Molecule(
species=species,
coords=geometry,
charge=self.data.get('charge'),
spin_multiplicity=self.data.get('multiplicity'))
def read_opt(string):
patterns = {
"CONSTRAINT": r"^\s*CONSTRAINT",
"FIXED": r"^\s*FIXED",
"DUMMY": r"^\s*DUMMY",
"CONNECT": r"^\s*CONNECT"
}
opt_matches = read_pattern(string, patterns)
opt_sections = [key for key in opt_matches.keys()]
opt = {}
if "CONSTRAINT" in opt_sections:
c_header = r"^\s*CONSTRAINT\n"
c_row = r"(\w.*)\n"
c_footer = r"^\s*ENDCONSTRAINT\n"
c_table = read_table_pattern(string,
header_pattern=c_header,
row_pattern=c_row,
footer_pattern=c_footer)
opt["CONSTRAINT"] = [val[0] for val in c_table[0]]
if "FIXED" in opt_sections:
f_header = r"^\s*FIXED\n"
f_row = r"(\w.*)\n"
f_footer = r"^\s*ENDFIXED\n"
f_table = read_table_pattern(string,
header_pattern=f_header,
row_pattern=f_row,
footer_pattern=f_footer)
opt["FIXED"] = [val[0] for val in f_table[0]]
if "DUMMY" in opt_sections:
d_header = r"^\s*DUMMY\n"
d_row = r"(\w.*)\n"
d_footer = r"^\s*ENDDUMMY\n"
d_table = read_table_pattern(string,
header_pattern=d_header,
row_pattern=d_row,
footer_pattern=d_footer)
opt["DUMMY"] = [val[0] for val in d_table[0]]
if "CONNECT" in opt_sections:
cc_header = r"^\s*CONNECT\n"
cc_row = r"(\w.*)\n"
cc_footer = r"^\s*ENDCONNECT\n"
cc_table = read_table_pattern(string,
header_pattern=cc_header,
row_pattern=cc_row,
footer_pattern=cc_footer)
opt["CONNECT"] = [val[0] for val in cc_table[0]]
return opt
def _parse_input_values(self):
header_pattern = r"#=+#\n#\|.+\[92m\s+Parsed GSM Keys : Values.+\[0m\s+\|#\n#=+#"
table_pattern = r"(?P<key>[A-Za-z_]+)\s+(?P<value>[A-Za-z0-9\[\]_\.\-]+)\s*\n"
footer_pattern = r"\-+"
temp_inputs = read_table_pattern(self.text, header_pattern,
table_pattern, footer_pattern)
if temp_inputs is None or len(temp_inputs) == 0:
self.data["inputs"] = dict()
else:
self.data["inputs"] = dict()
temp_inputs = temp_inputs[0]
for row in temp_inputs:
key = row["key"]
value = row["value"]
if value == "True": # Deal with bools
self.data["inputs"][key] = True
elif value == "False":
self.data["inputs"][key] = False
elif value.startswith("[") and value.endswith(
"]"): # Deal with lists
val = value[1:-1].split(", ")
try: # ints
val = [int(v) for v in val]
self.data["inputs"][key] = val
except ValueError:
self.data["inputs"][key] = val
else:
# int
is_int = True
is_float = True
val = value
try:
val = int(value)
except ValueError:
is_int = False
if is_int:
self.data["inputs"][key] = val
continue
else:
try:
val = float(value)
except ValueError:
is_float = False
if is_float:
self.data["inputs"][key] = val
continue
else:
self.data["inputs"][key] = value
if "charge" not in self.data["inputs"]:
self.data["inputs"]["charge"] = 0
def read_rem(string):
header = r"^\s*\$rem"
row = r"\s*([a-zA-Z\_]+)\s*=?\s*(\S+)"
footer = r"^\s*\$end"
rem_table = read_table_pattern(string,
header_pattern=header,
row_pattern=row,
footer_pattern=footer)
rem = {key: val for key, val in rem_table[0]}
return rem
def _read_frequency_data(self):
"""
Parses frequencies, enthalpy, entropy, and mode vectors.
"""
temp_dict = read_pattern(
self.text, {
"frequencies":
r"\s*Frequency:\s+([\d\-\.]+)(?:\s+([\d\-\.]+)(?:\s+([\d\-\.]+))*)*",
"enthalpy":
r"\s*Total Enthalpy:\s+([\d\-\.]+)\s+kcal/mol",
"entropy":
r"\s*Total Entropy:\s+([\d\-\.]+)\s+cal/mol\.K"
})
if temp_dict.get('enthalpy') == None:
self.data['enthalpy'] = []
else:
self.data['enthalpy'] = float(temp_dict.get('enthalpy')[0][0])
if temp_dict.get('entropy') == None:
self.data['entropy'] = None
else:
self.data['entropy'] = float(temp_dict.get('entropy')[0][0])
if temp_dict.get('frequencies') == None:
self.data['frequencies'] = None
else:
temp_freqs = [
value for entry in temp_dict.get('frequencies')
for value in entry
]
freqs = np.zeros(len(temp_freqs) - temp_freqs.count('None'))
for ii, entry in enumerate(temp_freqs):
if entry != 'None':
freqs[ii] = float(entry)
self.data['frequencies'] = freqs
header_pattern = r"\s*Raman Active:\s+[YESNO]+\s+(?:[YESNO]+\s+)*X\s+Y\s+Z\s+(?:X\s+Y\s+Z\s+)*"
table_pattern = r"\s*[a-zA-Z][a-zA-Z\s]\s*([\d\-\.]+)\s*([\d\-\.]+)\s*([\d\-\.]+)\s*(?:([\d\-\.]+)\s*([\d\-\.]+)\s*([\d\-\.]+)\s*(?:([\d\-\.]+)\s*([\d\-\.]+)\s*([\d\-\.]+))*)*"
footer_pattern = r"TransDip\s+[\d\-\.]+\s*[\d\-\.]+\s*[\d\-\.]+\s*(?:[\d\-\.]+\s*[\d\-\.]+\s*[\d\-\.]+\s*)*"
temp_freq_mode_vecs = read_table_pattern(
self.text, header_pattern, table_pattern, footer_pattern)
freq_mode_vecs = np.zeros(
shape=(len(freqs), len(temp_freq_mode_vecs[0]), 3))
for ii, triple_FMV in enumerate(temp_freq_mode_vecs):
for jj, line in enumerate(triple_FMV):
for kk, entry in enumerate(line):
if entry != 'None':
freq_mode_vecs[int(ii * 3 + math.floor(kk / 3)),
jj, kk % 3] = float(entry)
self.data["frequency_mode_vectors"] = freq_mode_vecs
def read_smx(string):
header = r"^\s*\$smx"
row = r"\s*([a-zA-Z\_]+)\s+(\S+)"
footer = r"^\s*\$end"
smx_table = read_table_pattern(string,
header_pattern=header,
row_pattern=row,
footer_pattern=footer)
if smx_table == []:
print(
"No valid smx inputs found. Note that there should be no '=' chracters in smx input lines."
)
return {}
else:
smx = {key: val for key, val in smx_table[0]}
return smx
def read_pcm(string):
header = r"^\s*\$pcm"
row = r"\s*([a-zA-Z\_]+)\s+(\S+)"
footer = r"^\s*\$end"
pcm_table = read_table_pattern(string,
header_pattern=header,
row_pattern=row,
footer_pattern=footer)
if pcm_table == []:
print(
"No valid PCM inputs found. Note that there should be no '=' chracters in PCM input lines."
)
return {}
else:
pcm = {key: val for key, val in pcm_table[0]}
return pcm
def _read_last_geometry(self):
"""
Parses the last geometry from an optimization trajectory for use in a new input file.
"""
header_pattern = r"\s+Optimization\sCycle:\s+" + \
str(len(self.data.get("energy_trajectory"))) + \
"\s+Coordinates \(Angstroms\)\s+ATOM\s+X\s+Y\s+Z"
table_pattern = r"\s+\d+\s+\w+\s+([\d\-\.]+)\s+([\d\-\.]+)\s+([\d\-\.]+)"
footer_pattern = r"\s+Point Group\:\s+[\d\w]+\s+Number of degrees of freedom\:\s+\d+"
parsed_last_geometry = read_table_pattern(
self.text, header_pattern, table_pattern, footer_pattern)
if parsed_last_geometry == [] or None:
self.data["last_geometry"] = []
else:
self.data["last_geometry"] = process_parsed_coords(
parsed_last_geometry[0])
if self.data.get('charge') != None:
self.data["molecule_from_last_geometry"] = Molecule(
species=self.data.get('species'),
coords=self.data.get('last_geometry'),
charge=self.data.get('charge'),
spin_multiplicity=self.data.get('multiplicity'))
def _parse_calculation_summary(self):
header_struct_energies = (
r"\s*=+\n\s+Structure Energies \(Hartree\)\s+\n\s*=+\n\s+Structure\s+Total\s+"
+ r"Separated\s+Gibbs \(298.15K\)\s*\n\s*=+")
table_struct_energies = r"\s*([A-Za-z0-9_]+)\s+([\-\.0-9]+)\s+([\-\.0-9]+)\s+([\-\.0-9]+)"
footer_struct_energies = r"\s*=+"
temp_struct_energies = read_table_pattern(self.text,
header_struct_energies,
table_struct_energies,
footer_struct_energies)
if temp_struct_energies is None or len(temp_struct_energies) == 0:
self.data["output"]["struct_energies"] = None
else:
self.data["output"]["struct_energies"] = dict()
for row in temp_struct_energies[0]:
struct_name = row[0]
total_energy = float(row[1])
separated_energy = float(row[2])
gibbs = float(row[3])
self.data["output"]["struct_energies"][struct_name] = {
"total": total_energy,
"separated": separated_energy,
"gibbs": gibbs
}
header_complex_energy = (
r"\s+Complex Energy \(kcal/mol\)\s+\n\s*\-+\n\s*Rxn\s+Er\s+Ep\s+Ets\s+Rxn E\s+Act E"
+ r"\s+frequency\s+Status of IRC\?\s+Path number\s+Approx TS")
table_complex_energy = (
r"\s*([0-9]+)\s+([\-\.0-9]+)\s+([\-\.0-9]+)\s+([\-\.0-9]+)\s+([\-\.0-9]+)\s+"
+
r"([\-\.0-9]+)\s+([\-\.0-9]+)\s+(Failed|Passed)\s+([0-9]+)\s+(True|False)\s*"
)
footer_complex_energy = r"\s*\-+"
temp_complex_energies = read_table_pattern(self.text,
header_complex_energy,
table_complex_energy,
footer_complex_energy)
if temp_complex_energies is None or len(temp_complex_energies) == 0:
self.data["output"]["complex_energies"] = None
else:
self.data["output"]["complex_energies"] = list()
for row in temp_complex_energies[0]:
if row[7] == "Failed":
irc = False
else:
irc = True
if row[9] == "False":
approx_ts = False
else:
approx_ts = True
self.data["output"]["complex_energies"].append({
"reactant":
float(row[1]),
"product":
float(row[2]),
"transition_state":
float(row[3]),
"rxn":
float(row[4]),
"activation":
float(row[5]),
"freq_mode":
float(row[6]),
"irc_succeeded":
irc,
"path_number":
int(row[8]),
"approx_ts":
approx_ts
})
header_sep_energy = (
r"\s+Inf\. Separated Energy \(kcal/mol\)\s+\n\s*\-+\n\s*Rxn\s+Er\s+Ep\s+Ets\s+Rxn E\s+"
+ r"Act E\s+frequency\s+Status of IRC\?\s+Path number\s+Approx TS")
table_sep_energy = (
r"\s*([0-9]+)\s+([\-\.0-9]+)\s+([\-\.0-9]+)\s+([\-\.0-9]+)\s+([\-\.0-9]+)\s+"
+
r"([\-\.0-9]+)\s+([\-\.0-9]+)\s+(Failed|Passed)\s+([0-9]+)\s+(True|False)\s*"
)
footer_sep_energy = r"\s*\-+"
temp_sep_energies = read_table_pattern(self.text, header_sep_energy,
table_sep_energy,
footer_sep_energy)
if temp_sep_energies is None or len(temp_sep_energies) == 0:
self.data["output"]["separated_energies"] = None
else:
self.data["output"]["separated_energies"] = list()
for row in temp_sep_energies[0]:
if row[7] == "Failed":
irc = False
else:
irc = True
if row[9] == "False":
approx_ts = False
else:
approx_ts = True
self.data["output"]["separated_energies"].append({
"reactant":
float(row[1]),
"product":
float(row[2]),
"transition_state":
float(row[3]),
"rxn":
float(row[4]),
"activation":
float(row[5]),
"freq_mode":
float(row[6]),
"irc_succeeded":
irc,
"path_number":
int(row[8]),
"approx_ts":
approx_ts
})
header_gibbs_energy = (
r"\s+Gibbs Free Energy at 298\.15K and concentration of 1 mol/liter \(kcal/mol\)\s+\n"
+ r"\s*\-+\n\s*Rxn\s+Gr\s+Gp\s+Gts\s+Rxn G\s+Act G" +
r"\s+frequency\s+Status of IRC\?\s+Path number\s+Approx TS")
table_gibbs_energy = (
r"\s*([0-9]+)\s+([\-\.0-9]+)\s+([\-\.0-9]+)\s+([\-\.0-9]+)\s+([\-\.0-9]+)\s+"
+
r"([\-\.0-9]+)\s+([\-\.0-9]+)\s+(Failed|Passed)\s+([0-9]+)\s+(True|False)\s*"
)
footer_gibbs_energy = r"\s*\-+"
temp_gibbs_energies = read_table_pattern(self.text,
header_gibbs_energy,
table_gibbs_energy,
footer_gibbs_energy)
if temp_gibbs_energies is None or len(temp_gibbs_energies) == 0:
self.data["output"]["gibbs_energies"] = None
else:
self.data["output"]["gibbs_energies"] = list()
for row in temp_gibbs_energies[0]:
if row[7] == "Failed":
irc = False
else:
irc = True
if row[9] == "False":
approx_ts = False
else:
approx_ts = True
self.data["output"]["gibbs_energies"].append({
"reactant":
float(row[1]),
"product":
float(row[2]),
"transition_state":
float(row[3]),
"rxn":
float(row[4]),
"activation":
float(row[5]),
"freq_mode":
float(row[6]),
"irc_succeeded":
irc,
"path_number":
int(row[8]),
"approx_ts":
approx_ts
})
header_temp_dep = (
r"\(Celsius\)\s+\(kcal/mol\)\s+\(kcal/mol\)\s+\(s\^\-1.*\)\s+\(s\^\-1.*\)\s+\(unitless\)"
+ r"\s+at t1/2 \(%\)\s+half life\s+\n\-+")
table_temp_dep = (
r"\s*([0-9\.\-]+)\s+([0-9\+\-eE\.]+)\s+([0-9\+\-eE\.]+)\s+([0-9\+\-eE\.]+)\s+"
+
r"([0-9\+\-eE\.]+)\s+([0-9\+\-eE\.]+)\s+([0-9\+\-eE\.]+)\s+([A-Za-z0-9\.\-\+ ]+)"
)
footer_temp_dep = r""
temp_temp_dep = read_table_pattern(self.text, header_temp_dep,
table_temp_dep, footer_temp_dep)
if temp_temp_dep is None or len(temp_temp_dep) == 0:
self.data["output"]["temperature_dependence"] = None
else:
self.data["output"]["temperature_dependence"] = dict()
for row in temp_temp_dep[0]:
temp = float(row[0])
self.data["output"]["temperature_dependence"][temp] = {
"gibbs_activation": float(row[1]),
"gibbs_reaction": float(row[2]),
"k_forwards": float(row[3]),
"k_reverse": float(row[4]),
"log10_keq": float(row[5]),
"rct_remaining_t_half": float(row[6]),
"half_life": row[7]
}
header_diagnostic = r"\s+AutoTS diagnostic report\s+\n\-+\n\s+property\s+value\s+diagnostic passes\n\-+"
table_diagnostic = r"\s*((?:[A-za-z]+ ?)+)\s*([A-Za-z0-9\-,/ ]+)\s+(Yes|No)"
footer_diagnostic = r""
temp_diagnostic = read_table_pattern(self.text, header_diagnostic,
table_diagnostic,
footer_diagnostic)
if temp_diagnostic is None or len(temp_diagnostic) == 0:
self.data["diagnostic"] = None
else:
self.data["diagnostic"] = dict()
for row in temp_diagnostic[0]:
if "Level of theory" in row[0]:
continue
if row[2].strip() == "Yes":
passed = True
else:
passed = False
self.data["diagnostic"][row[0].strip()] = {
"value": row[1].strip(),
"passed": passed
}
