text stringlengths 0 93.6k |
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self.c_table = name |
def make_table(self): |
n_items = len(self.items) |
size = 1 << (ceil(log2(n_items) + 0.5)) |
table = [None] * size |
if self.lower: |
fun = (lambda s: hash32trans(s.lower())) \ |
if self.config.lexicon_hash_bits == 32 \ |
else (lambda s: hash64trans(s.lower())) |
else: |
fun = (lambda s: hash32(1, s.encode('utf-8'))) \ |
if self.config.lexicon_hash_bits == 32 \ |
else (lambda s: hash64(1, s.encode('utf-8'))) |
for key, value in self.items: |
key_hash = fun(key) |
i = key_hash % size |
while not table[i] is None: |
if table[i][0] == key_hash: break |
i = (i + 1) % size |
if table[i] is None: |
table[i] = (key_hash, value+1) |
return table |
def lookup(self, form): |
if 'normalize' in form.get_translations(): |
self.lower = True |
return Lookup(form, self) |
@staticmethod |
def from_file(name, filename, config): |
with open(filename, 'r', encoding='utf-8') as f: |
items = [tuple(line.rstrip('\n').split('\t')) for line in f] |
assert all(len(t) == 2 for t in items) |
return WCLexicon(name, [(key, int(s)) for key, s in items], config) |
def c_emit(self, f): |
table = self.make_table() |
f.write('#define %s 0x%x\n\n' % ( |
self.c_size, len(table))) |
def c_kv(entry): |
if entry is None: return '{ 0, 0 }' |
key_hash, value = entry |
return '{ 0x%x, %d }' % (key_hash, value+1) |
body = '\n'.join( |
' %s%s' % (c_kv(t), '' if i == len(table)-1 else ',') |
for i,t in enumerate(table)) |
f.write('static const hash%d_kv_label %s[%s] = {\n%s\n};\n\n' % ( |
self.config.lexicon_hash_bits, self.c_table, self.c_size, body)) |
f.write(''' |
static inline label %s_get_wc(uint%d_t key) { |
size_t i = key & 0x%x; |
for (;;) { |
if (%s[i].hash == key) return %s[i].value; |
if (%s[i].value == 0) return 0; |
i = (i + 1) & 0x%x; |
} |
} |
''' % (self.name, self.config.lexicon_hash_bits, len(table)-1, |
self.c_table, self.c_table, self.c_table, len(table)-1)) |
def c_lookup(self, c_key): |
return '%s_get_wc(%s)' % (self.name, c_key) |
# <FILESEP> |
from gatgnn.data import * |
from gatgnn.model import * |
from gatgnn.pytorch_early_stopping import * |
from gatgnn.file_setter import use_property |
from gatgnn.utils import * |
# MOST CRUCIAL DATA PARAMETERS |
parser = argparse.ArgumentParser(description='GATGNN') |
parser.add_argument('--property', default='bulk-modulus', |
choices=['absolute-energy','band-gap','bulk-modulus', |
'fermi-energy','formation-energy', |
'poisson-ratio','shear-modulus','new-property'], |
help='material property to train (default: bulk-modulus)') |
parser.add_argument('--data_src', default='CGCNN',choices=['CGCNN','MEGNET','NEW'], |
help='selection of the materials dataset to use (default: CGCNN)') |
# MOST CRUCIAL MODEL PARAMETERS |
parser.add_argument('--num_layers',default=3, type=int, |
help='number of AGAT layers to use in model (default:3)') |
parser.add_argument('--num_neurons',default=64, type=int, |
help='number of neurons to use per AGAT Layer(default:64)') |
parser.add_argument('--num_heads',default=4, type=int, |
help='number of Attention-Heads to use per AGAT Layer (default:4)') |
parser.add_argument('--use_hidden_layers',default=True, type=bool, |
help='option to use hidden layers following global feature summation (default:True)') |
parser.add_argument('--global_attention',default='composition', choices=['composition','cluster'] |
,help='selection of the unpooling method as referenced in paper GI M-1 to GI M-4 (default:composition)') |
parser.add_argument('--cluster_option',default='fixed', choices=['fixed','random','learnable'], |
help='selection of the cluster unpooling strategy referenced in paper GI M-1 to GI M-4 (default: fixed)') |
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