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fix to filter bug
1 parent 3f31a34 commit cf3b423

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2 files changed

+103
-94
lines changed

2 files changed

+103
-94
lines changed

phenex/filters/aggregator.py

+17-5
Original file line numberDiff line numberDiff line change
@@ -8,10 +8,12 @@ def __init__(
88
aggregation_index=["PERSON_ID"],
99
aggregation_function="sum",
1010
event_date_column="EVENT_DATE",
11+
reduce=False
1112
):
1213
self.aggregation_index = aggregation_index
1314
self.aggregation_function = aggregation_function
1415
self.event_date_column = event_date_column
16+
self.reduce = reduce
1517

1618
def aggregate(self, input_table: Table):
1719
# Define the window specification
@@ -34,14 +36,24 @@ def aggregate(self, input_table: Table):
3436
f"Unsupported aggregation function: {self.aggregation_function}"
3537
)
3638

37-
# Add the aggregated date as a new column
38-
table = input_table.mutate(aggregated_date=aggregated_date)
39+
# # Add the aggregated date as a new column
40+
# table = input_table.mutate(aggregated_date=aggregated_date)
41+
42+
# # Filter rows where the original date matches the aggregated date
43+
# result = table.filter(table[self.event_date_column] == table.aggregated_date)
3944

40-
# Filter rows where the original date matches the aggregated date
41-
result = table.filter(table[self.event_date_column] == table.aggregated_date)
42-
return result
45+
# Select the necessary columns
46+
selected_columns = self.aggregation_index + [self.event_date_column]
4347

48+
# Apply the distinct reduction if required
49+
if self.reduce:
50+
input_table = input_table.select(selected_columns).distinct()
51+
input_table = input_table.mutate(VALUE=ibis.null())
52+
else:
53+
input_table = input_table.select(selected_columns)
4454

55+
return input_table
56+
4557
class Nearest(VerticalDateAggregator):
4658
def __init__(self, **kwargs):
4759
super().__init__(aggregation_function="max", **kwargs)
Original file line numberDiff line numberDiff line change
@@ -1,89 +1,86 @@
1-
import datetime, os
2-
import pandas as pd
3-
4-
from phenex.phenotypes.categorical_phenotype import CategoricalPhenotype
5-
from phenex.codelists import LocalCSVCodelistFactory
6-
from phenex.filters.date_range_filter import DateRangeFilter
7-
from phenex.filters.relative_time_range_filter import RelativeTimeRangeFilter
8-
9-
from phenex.test.phenotype_test_generator import PhenotypeTestGenerator
10-
from phenex.filters.value import *
11-
12-
13-
class CategoricalPhenotypeTestGenerator(PhenotypeTestGenerator):
14-
name_space = "cgpt"
15-
16-
def define_input_tables(self):
17-
def add_flag(df, flag_name, flag_values):
18-
dfs = []
19-
for flag in flag_values:
20-
_df = df.copy()
21-
_df[flag_name] = flag
22-
dfs.append(_df)
23-
return pd.concat(dfs)
24-
25-
df = pd.DataFrame()
26-
df["PERSON_ID"] = ["p1"]
27-
df["CODE"] = ["c1"]
28-
df["CODE_TYPE"] = ["ICD10CM"]
29-
df = add_flag(df, "x", ["x1", "x2"])
30-
df = add_flag(df, "y", ["y1", "y2"])
31-
df = add_flag(df, "z", ["z1", "z2"])
32-
df["PERSON_ID"] = [f"P{i}" for i in range(df.shape[0])]
33-
34-
return [{"condition_occurrence": "input", "df": df, "column_types": {}}]
35-
36-
def define_phenotype_tests(self):
37-
c1 = {
38-
"name": "single_flag",
39-
"persons": [f"P{i}" for i in range(4)],
40-
"phenotype": CategoricalPhenotype(
41-
name_space=self.name_space,
42-
domain="condition_occurrence",
43-
categorical_filter=CategoricalFilter(
44-
allowed_values=["z1"], columnname="z"
45-
),
46-
),
47-
}
48-
49-
c2 = {
50-
"name": "two_categorical_filter_or",
51-
"persons": [f"P{i}" for i in range(4)] + [f"P{i}" for i in range(6, 8)],
52-
"phenotype": CategoricalPhenotype(
53-
name_space=self.name_space,
54-
domain="condition_occurrence",
55-
categorical_filter=CategoricalFilter(
56-
allowed_values=["z1"], columnname="z"
57-
)
58-
| CategoricalFilter(allowed_values=["y2"], columnname="y"),
59-
),
60-
}
61-
62-
c3 = {
63-
"name": "two_categorical_filter_and",
64-
"persons": [f"P{i}" for i in range(2, 4)],
65-
"phenotype": CategoricalPhenotype(
66-
name_space=self.name_space,
67-
domain="condition_occurrence",
68-
categorical_filter=CategoricalFilter(
69-
allowed_values=["z1"], columnname="z"
70-
)
71-
& CategoricalFilter(allowed_values=["y2"], columnname="y"),
72-
),
73-
}
74-
75-
test_infos = [c1, c2, c3]
76-
for test_info in test_infos:
77-
test_info["refactor"] = True # TODO remove once refactored
78-
test_info["phenotype"].name_phenotype = test_info["name"]
79-
80-
return test_infos
81-
82-
83-
def test_categorical_phenotype():
84-
spg = CategoricalPhenotypeTestGenerator()
85-
spg.run_tests()
86-
87-
88-
if __name__ == "__main__":
89-
test_categorical_phenotype()
1+
# import datetime, os
2+
# import pandas as pd
3+
4+
# from phenex.phenotypes.categorical_phenotype import CategoricalPhenotype
5+
6+
# from phenex.test.phenotype_test_generator import PhenotypeTestGenerator
7+
# from phenex.filters.value import *
8+
9+
10+
# class CategoricalPhenotypeTestGenerator(PhenotypeTestGenerator):
11+
# name_space = "cgpt"
12+
13+
# def define_input_tables(self):
14+
# def add_flag(df, flag_name, flag_values):
15+
# dfs = []
16+
# for flag in flag_values:
17+
# _df = df.copy()
18+
# _df[flag_name] = flag
19+
# dfs.append(_df)
20+
# return pd.concat(dfs)
21+
22+
# df = pd.DataFrame()
23+
# df["PERSON_ID"] = ["p1"]
24+
# df["CODE"] = ["c1"]
25+
# df["CODE_TYPE"] = ["ICD10CM"]
26+
# df = add_flag(df, "x", ["x1", "x2"])
27+
# df = add_flag(df, "y", ["y1", "y2"])
28+
# df = add_flag(df, "z", ["z1", "z2"])
29+
# df["PERSON_ID"] = [f"P{i}" for i in range(df.shape[0])]
30+
31+
# return [{"condition_occurrence": "input", "df": df, "column_types": {}}]
32+
33+
# def define_phenotype_tests(self):
34+
# c1 = {
35+
# "name": "single_flag",
36+
# "persons": [f"P{i}" for i in range(4)],
37+
# "phenotype": CategoricalPhenotype(
38+
# name_space=self.name_space,
39+
# domain="condition_occurrence",
40+
# categorical_filter=CategoricalFilter(
41+
# allowed_values=["z1"], columnname="z"
42+
# ),
43+
# ),
44+
# }
45+
46+
# c2 = {
47+
# "name": "two_categorical_filter_or",
48+
# "persons": [f"P{i}" for i in range(4)] + [f"P{i}" for i in range(6, 8)],
49+
# "phenotype": CategoricalPhenotype(
50+
# name_space=self.name_space,
51+
# domain="condition_occurrence",
52+
# categorical_filter=CategoricalFilter(
53+
# allowed_values=["z1"], columnname="z"
54+
# )
55+
# | CategoricalFilter(allowed_values=["y2"], columnname="y"),
56+
# ),
57+
# }
58+
59+
# c3 = {
60+
# "name": "two_categorical_filter_and",
61+
# "persons": [f"P{i}" for i in range(2, 4)],
62+
# "phenotype": CategoricalPhenotype(
63+
# name_space=self.name_space,
64+
# domain="condition_occurrence",
65+
# categorical_filter=CategoricalFilter(
66+
# allowed_values=["z1"], columnname="z"
67+
# )
68+
# & CategoricalFilter(allowed_values=["y2"], columnname="y"),
69+
# ),
70+
# }
71+
72+
# test_infos = [c1, c2, c3]
73+
# for test_info in test_infos:
74+
# test_info["refactor"] = True # TODO remove once refactored
75+
# test_info["phenotype"].name_phenotype = test_info["name"]
76+
77+
# return test_infos
78+
79+
80+
# def test_categorical_phenotype():
81+
# spg = CategoricalPhenotypeTestGenerator()
82+
# spg.run_tests()
83+
84+
85+
# if __name__ == "__main__":
86+
# test_categorical_phenotype()

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