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explorer_helper.py
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explorer_helper.py
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import sys
sys.path.append('.')
import math
import pandas as pd
import numpy as np
import incense
from incense import ExperimentLoader
import matplotlib.pyplot as plt
from src.experiment import settings
# Print helpers
from pygments import highlight
from pygments.lexers import PythonLexer
from pygments.formatters import Terminal256Formatter
from pprint import pformat
from notebook_header import *
def save_table(str_, label):
print(str_)
with open('thesis_tables/{}.tex'.format(label),'w') as tf:
tf.write(str_)
def pprint_color(obj):
print(highlight(pformat(obj), PythonLexer(), Terminal256Formatter()))
import addict
from src.utils import _calc_errors, random_hypercube_samples
def get_name(exp_row):
# Create short hand name for convinience
name = exp_row['model']
if exp_row['bo']:
name = name + " BO"
if exp_row['acq'] is not None:
name = name + " " + exp_row['acq']
name = name + " " + exp_row['f']
return name
def get_model_name(model_config):
if model_config.name == 'TransformerModel':
kwargs = model_config.kwargs
name = "T<{},{}>".format(
get_model_name(model_config.kwargs['transformer']),
get_model_name(model_config.kwargs['prob_model']))
elif model_config.name == 'NormalizerModel':
name = "N<{}>".format(get_model_name(model_config.kwargs.model))
else:
name = model_config.get('name', None)
return name
def prefix_dict(dict_, prefix):
return {"{}{}".format(prefix, k): v for k,v in dict_.items()}
def get_exp_key_col(exp):
"""Convert Experiment to pandas row columns.
"""
config = exp.to_dict()['config']
config = addict.Dict(config)
if isinstance(config.obj_func, str):
print(exp)
# TODO: Remove custom hack to make f unique when taking parameter D.
fD = str(config.obj_func.kwargs.get('D', ''))
name = get_model_name(config.model)
name2 = get_model_name(config.model2)
# TODO: Hack and does not support when DataSet's default size is used.
# DataSet
N = config.obj_func.kwargs.get('subset_size', None)
if N is not None:
N = config.obj_func.kwargs.subset_size
# Samples
elif config.gp_samples:
N = config.gp_samples
# BO
else:
# TODO: BO
pass
exp_row = {
settings.MODEL_HASH: config[settings.MODEL_HASH],
settings.EXP_HASH: config[settings.EXP_HASH],
'model': name,
'model2': name2,
'acq': config.get('acquisition_function', {}).get('name'),
'bo': bool(config.get('bo', None)),
'f': str(config['obj_func']['name']) + fD,
'N': N,
'config': config,
'tag': config['tag'],
'exp': exp,
'id': exp.id,
'status': exp.status,
}
# Create short hand name for convinience
exp_row['name'] = get_name(exp_row)
# Unpack the results as columns
if hasattr(exp, 'result') and exp.result is not None:
exp_row.update(prefix_dict(exp.result, 'result.'))
return exp_row
def get_bo_plots(exp):
return {k: v for k,v in exp.artifacts.items() if k.startswith('bo-plot')}
# ------------- Add entries -----------------
def create_baseline(df):
from src import environments as environments_module
from runner import unpack, hash_subdict
functions = df.drop_duplicates(subset='f').apply(lambda r: [r.f, r.config.obj_func, r.config], axis=1)
baseline_df = pd.DataFrame()
for f_name, func, config in functions:
name, args, kwargs = unpack(func)
f = getattr(environments_module, name)(**kwargs)
if isinstance(f, DataSet):
X_train = f.X_train
Y_train = f.Y_train
X_test = f.X_test
Y_test = f.Y_test
elif isinstance(f, BaseEnvironment):
# Training samples
n_samples = config.gp_samples
X_train = random_hypercube_samples(n_samples, f.bounds)
Y_train = f(X_train)
X_test = random_hypercube_samples(2500, f.bounds)
Y_test = f(X_test)
else:
return None
Y_est = np.mean(Y_train, axis=0)
mean_estimator = lambda X: np.repeat(Y_est[None,:], X.shape[0], axis=0)
pred_mean = mean_estimator(X_test)
pred_var = np.zeros(len(pred_mean))
err = errors(pred_mean, pred_var, Y_test, Y_train.mean())
mean_name = 'mean'
mean_exp_hash = hash_subdict({'model': mean_name, 'f': func}, keys=['model', 'f'])
baseline_df = baseline_df.append([{
'exp_hash': mean_exp_hash,
'model_hash': mean_name,
'model': mean_name,
'config': config,
'f': f_name,
'result.rmse': err['rmse'],
'result.max_err': err['max_err'],
}])
baseline_df = baseline_df.set_index('exp_hash').sort_index()
return baseline_df
def create_SG_df(df, depth=3, refinement_level=10, f_tol=1e-3):
"""Runs SG and A-SG for every unique function in `df`.
Assumes df indexed by exp_hash
"""
# Performance of SG and A-SG
functions = df.drop_duplicates(subset='f').apply(lambda r: [r.f, r.config.obj_func, r.config], axis=1)
# Add SG and A-SG to all f
from src import environments as environments_module
from runner import unpack, hash_subdict
from src.models.ASG import AdaptiveSparseGrid
# Remove multiindex for easy appending
SG_df = pd.DataFrame()
for f_name, func, config in functions:
name, args, kwargs = unpack(func)
f = getattr(environments_module, name)(**kwargs)
print("Fitting SG")
sg = AdaptiveSparseGrid(depth=depth, refinement_level=0)
sg.fit(f)
print("Fitting A-SG")
asg = AdaptiveSparseGrid(depth=1, refinement_level=refinement_level, f_tol=f_tol, point_tol=1000)
asg.fit(f)
sg_rmse, sg_max_err = _calc_errors(sg.evaluate, f, f, rand=True)
asg_rmse, asg_max_err = _calc_errors(asg.evaluate, f, f, rand=True)
# Hack to create unique exp_hash (unique pr. model,f pair)
sg_exp_hash = hash_subdict({'model': 'SG', 'f': func}, keys=['model', 'f'])
asg_exp_hash = hash_subdict({'model': 'A-SG', 'f': func}, keys=['model', 'f'])
SG_df = SG_df.append([{
'exp_hash': sg_exp_hash,
'model_hash': 'SG', # just have to be unique for the model.
'model': 'SG',
'config': config,
'f': f_name,
'result.rmse': sg_rmse,
'result.max_err': sg_max_err,
'N': sg.grid.getNumPoints(),
'depth': sg.total_depth
}])
SG_df = SG_df.append([{
'exp_hash': asg_exp_hash,
'model_hash': 'A-SG',
'model': 'A-SG',
'config': config,
'f': f_name,
'result.rmse': asg_rmse,
'result.max_err': asg_max_err,
'N': asg.grid.getNumPoints(),
'depth': asg.total_depth
}])
#SG_df = SG_df.set_index(['model', 'f']).sort_index()
SG_df = SG_df.set_index('exp_hash').sort_index()
return SG_df
# -------------- Aggregate ------------------
def aggregate_results(df, describe=False):
"""Aggregate all results (i.e. final value of metrics)."""
agg = dict.fromkeys(df, 'first')
result_keys = [k for k in agg.keys() if k.startswith('result.') and k not in ['result.WARNING', 'result.hyperparameters']]
if describe:
for k in result_keys:
agg[k] = 'describe'
else:
for k in result_keys:
agg[k] = lambda x: np.nanmean(x)
df = df.drop('Ntemp', axis=1, errors='ignore')
df['Ntemp'] = df['N'].fillna(-1).astype(int)
return df.reset_index().groupby(['exp_hash', 'Ntemp']).agg(agg)
def aggregate_result_std(exps_rows_df, col='result.rmse', format="{:.2e}"):
"""Show `mean ± 2* std` for a specific columns.
Useful for preparing a table for latex formatting.
"""
temp_df2 = aggregate_results(exps_rows_df, describe=True)
temp_df2[f'{col}.mean'] = temp_df2[(col, 'mean')].map(format.format)
temp_df2[f'{col}.std'] = temp_df2[(col, 'std')].fillna(0.0).map(format.format)
temp_df2 = temp_df2.droplevel(1, axis=1) # Note: leaves some redundent "result.time:..." columns.
temp_df2[f'{col}.describe'] = temp_df2.apply(lambda r: f"{r[f'{col}.mean']} ± {r[f'{col}.std']}" , axis=1)
return temp_df2
# ------------------ View -------------------
def view_df(df, indexes=['model_hash'], cols=['result.rmse'], f_as_col=False):
df = df.reset_index().set_index(indexes + ['f']).sort_index()
df = df[cols]
if f_as_col:
return df.unstack('f')
else:
return df
def view_experiment(exp):
pprint_color(exp.config)
for name, artifact in exp.artifacts.items():
artifact.show()
plt.show()
loss = exp.metrics.get('DKLGPModel.training.loss')
if loss is not None:
loss.plot()
def view_experiment_with_id(df, id):
view_experiment(df[df['id'] == id].iloc[0].exp)
def select_experiment_with_rmse(df, rmse, atol=1e-6):
_ = df[np.isclose(df["result.rmse"], rmse, atol=atol)]
exp = _.iloc[0].exp
view_experiment(exp)
return exp
import datetime as dt
# Load
loader = ExperimentLoader(
mongo_uri=settings.MONGO_DB_URL,
db_name=settings.MONGO_DB_NAME
)
def get_df(**query):
default_query = {
'start_time': {
'$gte': dt.datetime.strptime('2019-05-14T15:24:39.914Z', "%Y-%m-%dT%H:%M:%S.%fZ")}}
#'$lt': dt.datetime.strptime('2019-05-14T15:24:39.914Z', "%Y-%m-%dT%H:%M:%S.%fZ")}}
default_query.update(query)
exps = loader.find(default_query)
#exps = loader.find({'status': 'COMPLETED'})
df = pd.DataFrame([get_exp_key_col(exp) for exp in exps])
df = df.set_index('exp_hash').sort_index()
return df