construct base pipeline with "run" function

This commit is contained in:
2026-06-10 16:48:03 +02:00
parent b66d5a4921
commit 5e15c99520
6 changed files with 844 additions and 50 deletions

View File

@@ -51,49 +51,74 @@ data_mis = data_mis.drop("ID", strict=False)
data_psm = data_psm.drop("ID", strict=False) data_psm = data_psm.drop("ID", strict=False)
# %% # %%
data_psm.height # // (0) Load from external database
# %% data_psm = external_code.load_PSM_data(conn)
data_psm.join(data_mis, on=["PA", "PA Pos"], how="semi") data_psm.collect()
# %% # %%
# # // (1) preprocess data
tab_name_psm = "EXTERN_PSM"
tab_name_mis = "EXTERN_MIS"
stmt = f"""
SELECT t1.* FROM "{tab_name_psm}" t1
WHERE EXISTS(
SELECT 1 FROM "{tab_name_mis}" t2
WHERE t1."PA" = t2."PA" AND t1."PA Pos" = t2."PA Pos"
)
"""
# test = external_code.oracle_load_table_as_polars(
# conn, db.extern_prod_order_t_schema, "", None
# ).collect()
test = external_code.oracle_load_table_as_polars(
conn, db.extern_prod_order_t_schema, tab_name_psm, stmt
).collect()
# %%
# data_psm = external_code.load_PSM_data(conn).collect()
# %%
# // preprocess data
# TODO: add check with MIS data if the orders are relevant
tmp = data_psm.clone() tmp = data_psm.clone()
res = external_code.preprocess_psm(tmp.lazy()) res = external_code.preprocess_psm(tmp.lazy())
tmp = res.data tmp = res.data
tmp = tmp.collect() tmp_show = tmp.collect()
tmp tmp_show
# %%
tmp = tmp.rename({"PA_Pos": "PA Pos"})
# %%
tmp.join(data_mis, on=["PA", "PA Pos"], how="semi")
# %% # %%
res.filtered # // (2) process on order level
tmp = external_code.process_order_level(tmp)
tmp.collect()
# %%
# // (3) dump to database (intermediate result)
external_code.dump_order_level_to_internal_database_wipe(tmp)
# %%
# // (4) post-process
# ** aggregation for orders
aggregate_orders = external_code.aggregate_production_orders(tmp)
print(aggregate_orders.collect())
# ** aggregation for suppliers
aggregate_suppliers = external_code.aggregate_suppliers(tmp)
print(aggregate_suppliers.collect())
# %%
# // (5) save to external database
# ** orders
aggregate_orders = external_code.oracle_prepare_KPI_aggregate(aggregate_orders)
print(aggregate_orders.head().collect())
stmts_orders = external_code.oracle_generate_sql_insert(
table_name="KPI_PRODUKTIONSAUFTRAEGE", columns=aggregate_orders.collect_schema().names()
)
print(f"SQL DELETE: {stmts_orders.delete}\nSQL Insert: {stmts_orders.insert}")
# ** suppliers
aggregate_suppliers = external_code.oracle_prepare_KPI_aggregate(
aggregate_suppliers,
sort_by="Konfektionaer",
sort_descending=False,
)
print(aggregate_suppliers.head().collect())
stmts_suppliers = external_code.oracle_generate_sql_insert(
table_name="KPI_KONFEKTIONAERE", columns=aggregate_suppliers.collect_schema().names()
)
print(f"SQL DELETE: {stmts_suppliers.delete}\nSQL Insert: {stmts_suppliers.insert}")
# %%
# ** actual saving procedure
external_code.oracle_save_polars(conn, stmts_orders, aggregate_orders.collect())
external_code.oracle_save_polars(conn, stmts_suppliers, aggregate_suppliers.collect())
# %%
print(f"Shape Aggregate Production Orders: {aggregate_orders.collect().shape}")
print(f"Shape Aggregate Suppliers: {aggregate_suppliers.collect().shape}")
# %%
# // try loading
loaded_orders = external_code.oracle_load_table_as_polars(
conn, db.extern_results_prod_orders_t_schema, table_name="KPI_PRODUKTIONSAUFTRAEGE"
)
loaded_orders.collect()
# %%
loaded_suppliers = external_code.oracle_load_table_as_polars(
conn, db.extern_results_suppliers_t_schema, table_name="KPI_KONFEKTIONAERE"
)
loaded_suppliers.collect()
# %% # %%
tmp = data_psm.clone()
tmp = external_code.aggregate_production_orders(tmp.lazy()).collect()
print(tmp)
tmp = external_code.oracle_prepare_KPI_aggregate(tmp.lazy()).collect()
print(tmp)

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@@ -9,6 +9,7 @@ from typing import TYPE_CHECKING, Any, Final, TypeAlias, cast
import polars as pl import polars as pl
import sqlalchemy as sql import sqlalchemy as sql
from dopt_basics.datastructures import flatten
from wattanalyse import db from wattanalyse import db
@@ -30,7 +31,13 @@ SqlStatement: TypeAlias = str
@dc.dataclass(slots=True, eq=False) @dc.dataclass(slots=True, eq=False)
class PreProcessResult: class PreProcessResult:
data: pl.LazyFrame data: pl.LazyFrame
filtered: pl.DataFrame filtered: pl.LazyFrame
DROP_COLUMNS: Final[list[str]] = cast(
list[str],
list(flatten(((x.lower(), x.upper(), x.capitalize()) for x in ("id", "index", "idx")))),
)
@dc.dataclass(slots=True, kw_only=True) @dc.dataclass(slots=True, kw_only=True)
@@ -51,7 +58,7 @@ PSM_SCORES: dict[QualityPsm, int] = {
QualityPsm.PLAUSIBEL: 2, QualityPsm.PLAUSIBEL: 2,
} }
RENAMING_SCHEME: dict[str, str] = { RENAMING_SCHEME_PSM: dict[str, str] = {
"PA Pos": "PA_Pos", "PA Pos": "PA_Pos",
"PSM gemeldet am": "Meldezeitpunkt_Historie", "PSM gemeldet am": "Meldezeitpunkt_Historie",
"Import Ist": "Import-Ist_Historie", "Import Ist": "Import-Ist_Historie",
@@ -62,6 +69,8 @@ RENAMING_SCHEME: dict[str, str] = {
"Fertigware aus Nähband": "Prod-EP30_Historie", "Fertigware aus Nähband": "Prod-EP30_Historie",
"Teile kontrolliert": "Prod-EP40_Historie", "Teile kontrolliert": "Prod-EP40_Historie",
"Teile verpackt in Karton": "Prod-EP50_Historie", "Teile verpackt in Karton": "Prod-EP50_Historie",
"Konfektionär": "Konfektionaer",
"Lieferantnr.": "Konfektionaer_ID",
} }
PRIM_KEYS: Final[list[str]] = ["PA", "PA_Pos"] PRIM_KEYS: Final[list[str]] = ["PA", "PA_Pos"]
@@ -91,7 +100,8 @@ def load_PSM_data(
def preprocess_psm( def preprocess_psm(
data: pl.LazyFrame, data: pl.LazyFrame,
) -> PreProcessResult: ) -> PreProcessResult:
data = data.rename(RENAMING_SCHEME) data = data.rename(RENAMING_SCHEME_PSM)
data = data.drop(DROP_COLUMNS, strict=False)
REGEX_PATTERN = r"^[\s\-#+/$]+$" REGEX_PATTERN = r"^[\s\-#+/$]+$"
data = data.with_columns( data = data.with_columns(
pl.when(pl.col(pl.String).str.contains(REGEX_PATTERN)) pl.when(pl.col(pl.String).str.contains(REGEX_PATTERN))
@@ -99,7 +109,7 @@ def preprocess_psm(
.otherwise(pl.col(pl.String)) .otherwise(pl.col(pl.String))
.name.keep() .name.keep()
) )
data = data.with_columns(pl.col("Konfektionär").str.strip_chars(" \n\t")) data = data.with_columns(pl.col("Konfektionaer").str.strip_chars(" \n\t"))
filtered_data = pl.LazyFrame(schema=data.collect_schema()) filtered_data = pl.LazyFrame(schema=data.collect_schema())
# drop duplicates # drop duplicates
@@ -161,7 +171,7 @@ def preprocess_psm(
filtered_data = pl.concat([filtered_data, data.filter(pl.any_horizontal(cond))]) filtered_data = pl.concat([filtered_data, data.filter(pl.any_horizontal(cond))])
data = data.filter(~pl.any_horizontal(cond)) data = data.filter(~pl.any_horizontal(cond))
return PreProcessResult(data=data, filtered=filtered_data.collect()) return PreProcessResult(data=data, filtered=filtered_data)
# // (2) process on order level # // (2) process on order level
@@ -169,7 +179,6 @@ def process_order_level(
data: pl.LazyFrame, data: pl.LazyFrame,
) -> pl.LazyFrame: ) -> pl.LazyFrame:
# ** renaming # ** renaming
# data = data.rename(RENAMING_SCHEME) # TODO delete, done in pre-processing
data = data.sort(PRIM_KEYS + ["Meldezeitpunkt_Historie"], descending=False) data = data.sort(PRIM_KEYS + ["Meldezeitpunkt_Historie"], descending=False)
# ** plausibility check of order quantities # ** plausibility check of order quantities
@@ -272,7 +281,7 @@ def process_order_level(
# whole aggregates see DB schema # whole aggregates see DB schema
data = ( data = (
data.sort(PRIM_KEYS + ["Meldezeitpunkt_Historie"], descending=False) data.sort(PRIM_KEYS + ["Meldezeitpunkt_Historie"], descending=False)
.group_by(PRIM_KEYS + ["Konfektionär"]) .group_by(PRIM_KEYS + ["Konfektionaer", "Konfektionaer_ID"])
.agg( .agg(
pl.col("Meldezeitpunkt_Historie"), pl.col("Meldezeitpunkt_Historie"),
pl.col("Liefertermin_Soll").drop_nulls().first(), pl.col("Liefertermin_Soll").drop_nulls().first(),
@@ -508,7 +517,7 @@ def aggregate_production_orders(
def aggregate_suppliers( def aggregate_suppliers(
data: pl.LazyFrame, data: pl.LazyFrame,
) -> pl.LazyFrame: ) -> pl.LazyFrame:
data = data.group_by("Konfektionär").agg( data = data.group_by(["Konfektionaer", "Konfektionaer_ID"]).agg(
( (
( (
~(filter_date_deviation_early | filter_date_deviation_late) ~(filter_date_deviation_early | filter_date_deviation_late)
@@ -573,8 +582,6 @@ def aggregate_suppliers(
# // (5) external database # // (5) external database
def oracle_prepare_KPI_aggregate( def oracle_prepare_KPI_aggregate(
data: pl.LazyFrame, data: pl.LazyFrame,
rename_schema: dict[str, str] | None = None, rename_schema: dict[str, str] | None = None,
@@ -599,6 +606,7 @@ def oracle_prepare_KPI_aggregate(
pl.all().exclude(pl.Boolean), pl.all().exclude(pl.Boolean),
) )
.select(cols_sorted) .select(cols_sorted)
.select(pl.all().name.to_uppercase())
) )
return data return data

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@@ -22,7 +22,8 @@ intern_prod_order_t: Table = Table(
MD_INTERNAL, MD_INTERNAL,
Column("PA", sql.Integer, primary_key=True), Column("PA", sql.Integer, primary_key=True),
Column("PA_Pos", sql.Integer, primary_key=True), Column("PA_Pos", sql.Integer, primary_key=True),
Column("Konfektionär", sql.Text, nullable=True), Column("Konfektionaer", sql.Text, nullable=True),
Column("Konfektionaer_ID", sql.Integer, nullable=True),
Column("Meldezeitpunkt_Historie", sql.Text, nullable=False), Column("Meldezeitpunkt_Historie", sql.Text, nullable=False),
Column("Liefertermin_Soll", sql.Date, nullable=True), Column("Liefertermin_Soll", sql.Date, nullable=True),
Column("Bestaetigter-Import_Historie", sql.Text, nullable=False), Column("Bestaetigter-Import_Historie", sql.Text, nullable=False),
@@ -51,7 +52,8 @@ intern_prod_order_t: Table = Table(
intern_prod_order_t_schema: dict[str, type[pl.DataType]] = { intern_prod_order_t_schema: dict[str, type[pl.DataType]] = {
"PA": pl.UInt64, "PA": pl.UInt64,
"PA_Pos": pl.UInt32, "PA_Pos": pl.UInt32,
"Konfektionär": pl.String, "Konfektionaer": pl.String,
"Konfektionaer_ID": pl.UInt64,
"Meldezeitpunkt_Historie": pl.String, "Meldezeitpunkt_Historie": pl.String,
"Liefertermin_Soll": pl.Date, "Liefertermin_Soll": pl.Date,
"Bestaetigter-Import_Historie": pl.String, "Bestaetigter-Import_Historie": pl.String,
@@ -139,6 +141,17 @@ extern_results_prod_orders_t: Table = Table(
Column("MITTLERE_DURCHLAUFZEIT_ANZAHL_TAGE", sql.Integer, nullable=True), Column("MITTLERE_DURCHLAUFZEIT_ANZAHL_TAGE", sql.Integer, nullable=True),
) )
extern_results_prod_orders_t_schema: dict[str, type[pl.DataType]] = {
"ID": pl.UInt32,
"AKTUALISIERT_AM": pl.Datetime,
"MITTLERE_ANZAHL_TAGE_LIEFERTERMINUNTERSCHREITUNG": pl.Int64,
"MITTLERE_ANZAHL_TAGE_LIEFERTERMINUEBERSCHREITUNG": pl.Int64,
"STANDARDABWEICHUNG_TAGE_LIEFERTERMINABWEICHUNG": pl.Float64,
"MITTLERE_ANZAHL_ANPASSUNGEN_LIEFERTERMIN": pl.Int64,
"MITTLERE_ABSTAENDE_ZWISCHEN_MELDUNGEN": pl.Int64,
"MITTLERE_DURCHLAUFZEIT_ANZAHL_TAGE": pl.Int64,
}
extern_results_suppliers_t: Table = Table( extern_results_suppliers_t: Table = Table(
"KPI_KONFEKTIONAERE", "KPI_KONFEKTIONAERE",
MD_EXTERNAL, MD_EXTERNAL,
@@ -160,3 +173,22 @@ extern_results_suppliers_t: Table = Table(
Column("MITTLERE_DURCHLAUFZEIT_ANZAHL_TAGE", sql.Integer, nullable=True), Column("MITTLERE_DURCHLAUFZEIT_ANZAHL_TAGE", sql.Integer, nullable=True),
Column("MITTLERER_QUALITAETSSCORE_PSM", sql.Numeric(5, 4), nullable=True), Column("MITTLERER_QUALITAETSSCORE_PSM", sql.Numeric(5, 4), nullable=True),
) )
extern_results_suppliers_t_schema: dict[str, type[pl.DataType]] = {
"ID": pl.UInt32,
"AKTUALISIERT_AM": pl.Datetime,
"KONFEKTIONAER": pl.String,
"KONFEKTIONAER_ID": pl.UInt64,
"QUOTE_ERSTBESTAETIGUNG": pl.Float64,
"PROZENT_LIEFERTREUE": pl.Float64,
"ANTEIL_PROZENT_LIEFERTERMINUNTERSCHREITUNG": pl.Float64,
"ANTEIL_PROZENT_LIEFERTERMINUEBERSCHREITUNG": pl.Float64,
"MITTLERE_ANZAHL_TAGE_LIEFERTERMINUNTERSCHREITUNG": pl.Int64,
"MITTLERE_ANZAHL_TAGE_LIEFERTERMINUEBERSCHREITUNG": pl.Int64,
"STANDARDABWEICHUNG_TAGE_LIEFERTERMINABWEICHUNG": pl.Float64,
"MITTLERE_ANZAHL_ANPASSUNGEN_LIEFERTERMIN": pl.Int64,
"MITTLERE_ABSTAENDE_ZWISCHEN_MELDUNGEN": pl.Int64,
"MITTLERE_DURCHLAUFZEIT_ANZAHL_TAGE": pl.Int64,
"MITTLERER_QUALITAETSSCORE_PSM": pl.Float64,
}

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@@ -28,3 +28,6 @@ logger_base = BASE_LOGGER.getChild("wattana")
logger_database = logger_base.getChild("database") logger_database = logger_base.getChild("database")
logger_database.setLevel(logging.DEBUG) logger_database.setLevel(logging.DEBUG)
logger_pipeline = logger_base.getChild("pipeline")
logger_pipeline.setLevel(logging.DEBUG)

723
src/wattanalyse/pipeline.py Normal file
View File

@@ -0,0 +1,723 @@
from __future__ import annotations
import dataclasses as dc
import datetime
import enum
import json
import warnings
from typing import TYPE_CHECKING, Any, Final, cast
import polars as pl
import sqlalchemy as sql
from dopt_basics.datastructures import flatten
from dopt_basics.result_pattern import wrap_result
from wattanalyse import db
from wattanalyse.logging import logger_pipeline as logger
from wattanalyse.types import SqlStatement
if TYPE_CHECKING:
from oracledb import Connection as OracleConnection
from polars._typing import SchemaDict
@dc.dataclass(slots=True, eq=False)
class PreProcessResult:
data: pl.LazyFrame
filtered: pl.LazyFrame
DROP_COLUMNS: Final[list[str]] = cast(
list[str],
list(flatten(((x.lower(), x.upper(), x.capitalize()) for x in ("id", "index", "idx")))), # type: ignore
)
@dc.dataclass(slots=True, kw_only=True)
class SqlInsertStmts:
delete: str
insert: str
class QualityPsm(enum.StrEnum):
FEHLEND = enum.auto()
UNPLAUSIBEL = enum.auto()
PLAUSIBEL = enum.auto()
PSM_SCORES: dict[QualityPsm, int] = {
QualityPsm.FEHLEND: 1,
QualityPsm.UNPLAUSIBEL: 0,
QualityPsm.PLAUSIBEL: 2,
}
RENAMING_SCHEME_PSM: dict[str, str] = {
"PA Pos": "PA_Pos",
"PSM gemeldet am": "Meldezeitpunkt_Historie",
"Import Ist": "Import-Ist_Historie",
"1.bestät. Import Konfektionär": "Bestaetigter-Import_Historie",
"Zuschnitt am": "Prod-Start_Historie",
"Teile in Zuschnitt": "Prod-EP10_Historie",
"Teile im Nähband": "Prod-EP20_Historie",
"Fertigware aus Nähband": "Prod-EP30_Historie",
"Teile kontrolliert": "Prod-EP40_Historie",
"Teile verpackt in Karton": "Prod-EP50_Historie",
"Konfektionär": "Konfektionaer",
"Lieferantnr.": "Konfektionaer_ID",
}
PRIM_KEYS: Final[list[str]] = ["PA", "PA_Pos"]
LOWER_BOUND_DATE_DEVIATION: Final[int] = 0
UPPER_BOUND_DATE_DEVIATION: Final[int] = 0
NUMBER_YEARS_UPPER_BOUND_DATES: Final[int] = 4
TAB_NAME_PSM: Final[str] = "EXTERN_PSM"
TAB_NAME_MIS: Final[str] = "EXTERN_MIS"
# // (0) load data
def load_PSM_data(
conn: OracleConnection,
) -> pl.LazyFrame:
stmt = f"""
SELECT t1.* FROM "{TAB_NAME_PSM}" t1
WHERE EXISTS(
SELECT 1 FROM "{TAB_NAME_MIS}" t2
WHERE t1."PA" = t2."PA" AND t1."PA Pos" = t2."PA Pos"
)
"""
return oracle_load_table_as_polars(conn, db.extern_prod_order_t_schema, None, stmt)
# // (1) preprocess
def preprocess_psm(
data: pl.LazyFrame,
) -> PreProcessResult:
data = data.rename(RENAMING_SCHEME_PSM)
data = data.drop(DROP_COLUMNS, strict=False)
REGEX_PATTERN = r"^[\s\-#+/$]+$"
data = data.with_columns(
pl.when(pl.col(pl.String).str.contains(REGEX_PATTERN))
.then(None)
.otherwise(pl.col(pl.String))
.name.keep()
)
data = data.with_columns(pl.col("Konfektionaer").str.strip_chars(" \n\t"))
filtered_data = pl.LazyFrame(schema=data.collect_schema())
# drop duplicates
# use null count as information measure, least amount of nulls should be contained
data = data.with_columns(pl.sum_horizontal(pl.all().is_null()).alias("null_count"))
data = data.sort(PRIM_KEYS + ["Meldezeitpunkt_Historie", "null_count"], descending=False)
filtered_data = pl.concat(
[
filtered_data,
data.filter(
~pl.struct(PRIM_KEYS + ["Meldezeitpunkt_Historie"]).is_first_distinct()
).drop("null_count"),
]
)
data = data.filter(pl.struct(PRIM_KEYS + ["Meldezeitpunkt_Historie"]).is_first_distinct())
data = data.drop("null_count")
# any NULL values in critical columns
NOT_NULL_COLS = ("PA", "PA_Pos", "Meldezeitpunkt_Historie")
conds = [pl.col(col).is_null() for col in NOT_NULL_COLS]
filtered_data = pl.concat([filtered_data, data.filter(pl.any_horizontal(*conds))])
data = data.filter(~pl.any_horizontal(*conds))
# implausible dates
# dates not allowed to be in the future
current_datetime = datetime.datetime.now()
current_date = current_datetime.date()
NOT_IN_FUTURE_COLS_DATETIME = ("Meldezeitpunkt_Historie",)
NOT_IN_FUTURE_COLS_DATE = ("Wareneingang am", "Prod-Start_Historie")
conds = [
(pl.col(col) > current_datetime).fill_null(False)
for col in NOT_IN_FUTURE_COLS_DATETIME
]
conds.extend(
[(pl.col(col) > current_date).fill_null(False) for col in NOT_IN_FUTURE_COLS_DATE]
)
filtered_data = pl.concat([filtered_data, data.filter(pl.any_horizontal(*conds))])
data = data.filter(~pl.any_horizontal(*conds))
# too much in the future or the past
# dates
future_limit = current_date + datetime.timedelta(
days=(365 * NUMBER_YEARS_UPPER_BOUND_DATES)
)
past_limit = datetime.date(1990, 1, 1)
cond = (pl.col(pl.Date) > future_limit).fill_null(False) | (
pl.col(pl.Date) < past_limit
).fill_null(False)
filtered_data = pl.concat([filtered_data, data.filter(pl.any_horizontal(cond))])
data = data.filter(~pl.any_horizontal(cond))
# datetimes
future_limit = current_datetime + datetime.timedelta(
days=(365 * NUMBER_YEARS_UPPER_BOUND_DATES)
)
past_limit = datetime.datetime(1990, 1, 1)
cond = (pl.col(pl.Datetime) > future_limit).fill_null(False) | (
pl.col(pl.Datetime) < past_limit
).fill_null(False)
filtered_data = pl.concat([filtered_data, data.filter(pl.any_horizontal(cond))])
data = data.filter(~pl.any_horizontal(cond))
return PreProcessResult(data=data, filtered=filtered_data)
# // (2) process on order level
def process_order_level(
data: pl.LazyFrame,
) -> pl.LazyFrame:
# ** renaming
data = data.sort(PRIM_KEYS + ["Meldezeitpunkt_Historie"], descending=False)
# ** plausibility check of order quantities
PLAUSI_FEATURES: list[str] = [
"Prod-EP10_Historie",
"Prod-EP20_Historie",
"Prod-EP30_Historie",
"Prod-EP40_Historie",
"Prod-EP50_Historie",
]
data = data.with_columns(
pl.all_horizontal(
pl.col(PLAUSI_FEATURES).is_null() | (pl.col(PLAUSI_FEATURES) == 0)
).alias("is_empty")
)
conditions = [
pl.col(PLAUSI_FEATURES[i]) >= pl.col(PLAUSI_FEATURES[i + 1])
for i in range(len(PLAUSI_FEATURES) - 1)
]
data = data.with_columns(
pl.when(pl.all_horizontal(conditions) | pl.col("is_empty"))
.then(pl.lit(True))
.otherwise(pl.lit(False))
.alias("Prod-Qty_is_valid")
).with_columns(
pl.when(pl.col("is_empty"))
.then(pl.lit(PSM_SCORES[QualityPsm.FEHLEND]))
.when(pl.col("Prod-Qty_is_valid"))
.then(pl.lit(PSM_SCORES[QualityPsm.PLAUSIBEL]))
.otherwise(pl.lit(PSM_SCORES[QualityPsm.UNPLAUSIBEL]))
.alias("Prod-Qualitaet_Historie")
)
# aggregate hint for "Prod-Qualitaet_Durchschnitt": use "drop_nulls" "last"
# aggregate "Prod-Qualitaet_Historie" and use "mean"
# need additional "alias" on "Prod-Qualitaet_Historie"
# ** planned or target delivery date
current_date = datetime.datetime.now().date()
print(f"{current_date=}")
data = data.with_columns(
pl.coalesce(["Bestaetigter-Import_Historie", "Import-Ist_Historie"]).alias(
"Liefertermin_Soll"
)
)
# aggregate hint for "Liefertermin_Soll": use "drop_nulls" "first"
# first filled field for "Liefertermin Soll" is the relevant target date
# should be first confirmed date, but if this field is not filled we use the first
# filled import by the supplier
# ** actual delivery date
# logic of Wattana: set date is before current date --> becomes actual value
data = data.with_columns(
pl.when(pl.col("Import-Ist_Historie") < current_date)
.then(pl.col("Import-Ist_Historie"))
.otherwise(None)
.alias("Liefertermin_Ist")
)
# aggregate hint for "Liefertermin_Ist": use "drop_nulls" "last"
# keep last because that is the latest value set by the supplier
# if all values are NULL then NULL is returned (no actual date available)
# ** duration since last report in days
data = data.sort(PRIM_KEYS + ["Meldezeitpunkt_Historie"], descending=False).with_columns(
(
pl.col("Meldezeitpunkt_Historie")
- pl.col("Meldezeitpunkt_Historie").shift(1).over(PRIM_KEYS)
)
.dt.total_days()
.alias("Tage_zu_letzter_PSM_Historie")
)
# aggregate hint for "Tage_zu_letzter_PSM_Durchschnitt"
# aggregate "Tage_zu_letzter_PSM_Historie" and use "mean" (NULL is ignored automatically)
# need additional "alias" on "Tage_zu_letzter_PSM_Historie"
data = data.sort(PRIM_KEYS + ["Meldezeitpunkt_Historie"], descending=False).with_columns(
# Prüfen: Ist das aktuelle Datum ungleich dem vorherigen Datum derselben Position?
(
pl.col("Import-Ist_Historie")
!= pl.col("Import-Ist_Historie").shift(1).over(PRIM_KEYS)
)
.fill_null(False) # Der allererste Eintrag hat keinen Vorgänger -> Ist keine Änderung
.alias("Import-Ist_geaendert")
)
# aggregate hint for "Import-Ist_geaendert"
# aggregate "Import-Ist_geaendert" and use "last"
# aggregate hint for "Import-Ist_letzter_Wert"
# aggregate "Import-Ist_Historie" and use "drop_nulls" "last"
# need additional "alias" on "Import-Ist_Historie"
# aggregate hint for "Import-Ist_Anzahl_Aenderungen"
# aggregate "Import-Ist_geaendert" and use "sum"
# need additional "alias" on "Import-Ist_geaendert"
# aggregate hint for "Prod-Start"
# aggregate "Prod-Start_Historie" and use "drop_nulls" "first"
# first entry should be treated as the truth value, changing later does not make sense
# need additional "alias" on "Prod-Start_Historie"
# whole aggregates see DB schema
data = (
data.sort(PRIM_KEYS + ["Meldezeitpunkt_Historie"], descending=False)
.group_by(PRIM_KEYS + ["Konfektionaer", "Konfektionaer_ID"])
.agg(
pl.col("Meldezeitpunkt_Historie"),
pl.col("Liefertermin_Soll").drop_nulls().first(),
pl.col("Bestaetigter-Import_Historie"),
pl.col("Liefertermin_Ist").drop_nulls().last(),
pl.col("Import-Ist_Historie"),
pl.col("Import-Ist_Historie")
.drop_nulls()
.last()
.alias("Import-Ist_letzter_Wert"),
pl.col("Import-Ist_geaendert").last(),
pl.col("Import-Ist_geaendert").sum().alias("Import-Ist_Anzahl_Aenderungen"),
pl.col("Tage_zu_letzter_PSM_Historie"),
pl.col("Tage_zu_letzter_PSM_Historie")
.mean()
.alias("Tage_zu_letzter_PSM_Durchschnitt"),
pl.col("Prod-EP10_Historie"),
pl.col("Prod-EP20_Historie"),
pl.col("Prod-EP30_Historie"),
pl.col("Prod-EP40_Historie"),
pl.col("Prod-EP50_Historie"),
pl.col("Prod-Qualitaet_Historie"),
pl.col("Prod-Qualitaet_Historie").mean().alias("Prod-Qualitaet_Durchschnitt"),
pl.col("Prod-Start_Historie"),
pl.col("Prod-Start_Historie").drop_nulls().first().alias("Prod-Start"),
)
)
# ** order specific aggregates
data = (
data.with_columns(
(pl.col("Liefertermin_Ist") - pl.col("Liefertermin_Soll"))
.dt.total_days()
.alias("Terminabweichung_Anzahl_Tage")
)
.with_columns(
(pl.col("Terminabweichung_Anzahl_Tage") < LOWER_BOUND_DATE_DEVIATION).alias(
"Terminunterschreitung"
),
(pl.col("Terminabweichung_Anzahl_Tage") > UPPER_BOUND_DATE_DEVIATION).alias(
"Terminüberschreitung"
),
(pl.col("Liefertermin_Ist") - pl.col("Prod-Start"))
.dt.total_days()
.alias("Durchlaufzeit_Anzahl_Tage"),
)
.with_columns(
pl.when(pl.col("Durchlaufzeit_Anzahl_Tage") < 0)
.then(None)
.otherwise(pl.col("Durchlaufzeit_Anzahl_Tage"))
.alias("Durchlaufzeit_Anzahl_Tage")
)
)
return data
# // (3) dump order level to internal database
def _json_default(
value: Any,
) -> str:
if isinstance(value, (datetime.date, datetime.datetime)):
return value.isoformat()
raise TypeError
def _parse_to_json(
x: pl.Series | None,
) -> str | None:
if x is None:
return None
return json.dumps(x.to_list(), default=_json_default)
def dump_order_level_to_internal_database_staging(
data: pl.LazyFrame,
) -> None:
staging_data = data.with_columns(
pl.col(pl.List)
.map_elements(
_parse_to_json,
return_dtype=pl.String,
)
.name.keep()
)
staging_data = staging_data.collect()
rows_inserted = staging_data.write_database(
"Produktionsauftrag-Einzelsicht_Staging",
connection=db.DB_URI,
engine="adbc",
if_table_exists="replace",
)
if rows_inserted != staging_data.height:
raise RuntimeError("Number of inserted rows and length of staging data do not match.")
all_columns = staging_data.columns
update_columns = [col for col in all_columns if col not in PRIM_KEYS]
sql_column_list_str = ", ".join([f'"{c}"' for c in all_columns])
sql_pk_list_str = ", ".join([f'"{c}"' for c in PRIM_KEYS])
sql_update_rules_str = ", ".join([f'"{c}" = EXCLUDED."{c}"' for c in update_columns])
upsert_sql = f"""
INSERT INTO "Produktionsauftrag-Einzelsicht" ({sql_column_list_str})
SELECT {sql_column_list_str} FROM "Produktionsauftrag-Einzelsicht_Staging" WHERE 1=1
ON CONFLICT({sql_pk_list_str}) DO UPDATE SET
{sql_update_rules_str};
"""
with db.ENGINE_INTERNAL.begin() as conn:
conn.execute(sql.text(upsert_sql))
conn.execute(
sql.text('DROP TABLE IF EXISTS "Produktionsauftrag-Einzelsicht_Staging";')
)
def dump_order_level_to_internal_database_wipe(
data: pl.LazyFrame,
) -> None:
staging_data = data.with_columns(
pl.col(pl.List)
.map_elements(
_parse_to_json,
return_dtype=pl.String,
)
.name.keep()
)
# empty table
with db.ENGINE_INTERNAL.begin() as conn:
conn.execute(sql.text('DELETE FROM "Produktionsauftrag-Einzelsicht";'))
staging_data = staging_data.collect()
rows_inserted = staging_data.write_database(
"Produktionsauftrag-Einzelsicht",
connection=db.DB_URI,
engine="adbc",
if_table_exists="append",
)
if rows_inserted != staging_data.height:
raise RuntimeError("Number of inserted rows and length of staging data do not match.")
# ** load order level data from internal database
def load_order_level_from_internal_database() -> pl.DataFrame:
data = pl.read_database_uri(
'SELECT * FROM "Produktionsauftrag-Einzelsicht"',
uri=db.DB_URI,
engine="adbc",
schema_overrides=db.intern_prod_order_t_schema,
)
list_cols_to_type: dict[str, type[pl.DataType]] = {
"Meldezeitpunkt_Historie": pl.Datetime,
"Bestaetigter-Import_Historie": pl.Date,
"Import-Ist_Historie": pl.Date,
"Tage_zu_letzter_PSM_Historie": pl.Int64,
"Prod-EP10_Historie": pl.UInt64,
"Prod-EP20_Historie": pl.UInt64,
"Prod-EP30_Historie": pl.UInt64,
"Prod-EP40_Historie": pl.UInt64,
"Prod-EP50_Historie": pl.UInt64,
"Prod-Qualitaet_Historie": pl.Int32,
"Prod-Start_Historie": pl.Date,
}
list_col_parse_conds = {
col: pl.col(col).str.json_decode(pl.List(list_type))
for col, list_type in list_cols_to_type.items()
}
return data.with_columns(**list_col_parse_conds)
# // (4) post-process results
USE_BOUNDARIES: Final[bool] = False
filter_date_deviation_early: pl.Expr
filter_date_deviation_late: pl.Expr
if USE_BOUNDARIES:
filter_date_deviation_early = pl.col("Terminunterschreitung")
filter_date_deviation_late = pl.col("Terminüberschreitung")
else:
filter_date_deviation_early = pl.col("Terminabweichung_Anzahl_Tage") < 0
filter_date_deviation_late = pl.col("Terminabweichung_Anzahl_Tage") > 0
def aggregate_production_orders(
data: pl.LazyFrame,
) -> pl.LazyFrame:
data = data.select(
pl.col("Terminabweichung_Anzahl_Tage")
.filter(filter_date_deviation_early)
.mean()
.abs()
.round(mode="half_away_from_zero")
.cast(pl.Int64)
.alias("MITTLERE_ANZAHL_TAGE_LIEFERTERMINUNTERSCHREITUNG"),
pl.col("Terminabweichung_Anzahl_Tage")
.filter(filter_date_deviation_late)
.mean()
.abs()
.round(mode="half_away_from_zero")
.cast(pl.Int64)
.alias("MITTLERE_ANZAHL_TAGE_LIEFERTERMINUEBERSCHREITUNG"),
pl.col("Terminabweichung_Anzahl_Tage")
.std(ddof=1)
.alias("STANDARDABWEICHUNG_TAGE_LIEFERTERMINABWEICHUNG"),
pl.col("Import-Ist_Anzahl_Aenderungen")
.mean()
.abs()
.round(mode="half_away_from_zero")
.cast(pl.Int64)
.alias("MITTLERE_ANZAHL_ANPASSUNGEN_LIEFERTERMIN"),
pl.col("Tage_zu_letzter_PSM_Historie")
.list.explode()
.mean()
.abs()
.round(mode="half_away_from_zero")
.cast(pl.Int64)
.alias("MITTLERE_ABSTAENDE_ZWISCHEN_MELDUNGEN"),
pl.col("Durchlaufzeit_Anzahl_Tage")
.mean()
.round(mode="half_away_from_zero")
.cast(pl.Int64)
.alias("MITTLERE_DURCHLAUFZEIT_ANZAHL_TAGE"),
)
return data
def aggregate_suppliers(
data: pl.LazyFrame,
) -> pl.LazyFrame:
data = data.group_by(["Konfektionaer", "Konfektionaer_ID"]).agg(
(
(
~(filter_date_deviation_early | filter_date_deviation_late)
& (pl.col("Import-Ist_Anzahl_Aenderungen") == 0)
).mean()
* 100
)
.round(4, mode="half_away_from_zero")
.alias("QUOTE_ERSTBESTAETIGUNG"),
((~(filter_date_deviation_early | filter_date_deviation_late)).mean() * 100)
.round(4, mode="half_away_from_zero")
.alias("PROZENT_LIEFERTREUE"),
(filter_date_deviation_early.mean() * 100)
.round(4, mode="half_away_from_zero")
.alias("ANTEIL_PROZENT_LIEFERTERMINUNTERSCHREITUNG"),
(filter_date_deviation_late.mean() * 100)
.round(4, mode="half_away_from_zero")
.alias("ANTEIL_PROZENT_LIEFERTERMINUEBERSCHREITUNG"),
pl.col("Terminabweichung_Anzahl_Tage")
.filter(filter_date_deviation_early)
.mean()
.abs()
.round(mode="half_away_from_zero")
.cast(pl.Int64)
.alias("MITTLERE_ANZAHL_TAGE_LIEFERTERMINUNTERSCHREITUNG"),
pl.col("Terminabweichung_Anzahl_Tage")
.filter(filter_date_deviation_late)
.mean()
.abs()
.round(mode="half_away_from_zero")
.cast(pl.Int64)
.alias("MITTLERE_ANZAHL_TAGE_LIEFERTERMINUEBERSCHREITUNG"),
pl.col("Terminabweichung_Anzahl_Tage")
.std(ddof=1)
.alias("STANDARDABWEICHUNG_TAGE_LIEFERTERMINABWEICHUNG"),
pl.col("Import-Ist_Anzahl_Aenderungen")
.mean()
.abs()
.round(mode="half_away_from_zero")
.cast(pl.Int64)
.alias("MITTLERE_ANZAHL_ANPASSUNGEN_LIEFERTERMIN"),
pl.col("Tage_zu_letzter_PSM_Historie")
.list.explode()
.mean()
.abs()
.round(mode="half_away_from_zero")
.cast(pl.Int64)
.alias("MITTLERE_ABSTAENDE_ZWISCHEN_MELDUNGEN"),
pl.col("Durchlaufzeit_Anzahl_Tage")
.mean()
.round(mode="half_away_from_zero")
.cast(pl.Int64)
.alias("MITTLERE_DURCHLAUFZEIT_ANZAHL_TAGE"),
pl.col("Prod-Qualitaet_Historie")
.list.explode()
.mean()
.round(4, mode="half_away_from_zero")
.alias("MITTLERER_QUALITAETSSCORE_PSM"),
)
return data
# // (5) external database
def oracle_prepare_KPI_aggregate(
data: pl.LazyFrame,
rename_schema: dict[str, str] | None = None,
sort_by: str = "",
sort_descending: bool = False,
) -> pl.LazyFrame:
if rename_schema is not None:
data = data.rename(rename_schema)
cols_sorted = ["ID", "AKTUALISIERT_AM"] + [c for c in data.collect_schema().names()]
if sort_by:
data = data.sort(sort_by, descending=sort_descending)
data = data.with_row_index("ID", 1)
data = (
data.with_columns(
pl.lit(datetime.datetime.now()).alias("AKTUALISIERT_AM"),
)
.select(
pl.col(pl.Boolean).cast(pl.Int8),
pl.all().exclude(pl.Boolean),
)
.select(cols_sorted)
.select(pl.all().name.to_uppercase())
)
return data
def oracle_generate_sql_insert(
table_name: str,
columns: list,
) -> SqlInsertStmts:
spalten_str = ", ".join([f'"{c}"' for c in columns])
platzhalter_str = ", ".join([f":{i}" for i in range(1, len(columns) + 1)])
sql_delete = f'DELETE FROM "{table_name}"'
sql_insert = f'INSERT INTO "{table_name}" ({spalten_str}) VALUES ({platzhalter_str})'
return SqlInsertStmts(delete=sql_delete, insert=sql_insert)
def oracle_load_table_as_polars(
conn: OracleConnection,
schema: SchemaDict | None,
table_name: str | None = None,
stmt: SqlStatement | None = None,
) -> pl.LazyFrame:
if not any((table_name, stmt)):
raise ValueError("Table name or SQL statement must be provided")
if all((table_name, stmt)):
warnings.warn(
"Table name and SQL statement provided. In this case, the statement is used."
)
if not stmt:
stmt = f"SELECT * FROM {table_name}"
odf = conn.fetch_df_all(statement=stmt)
df = cast(pl.DataFrame, pl.from_arrow(odf, schema_overrides=schema))
return df.lazy()
def oracle_save_polars(
conn: OracleConnection,
stmts: SqlInsertStmts,
data: pl.DataFrame,
) -> None:
with conn.cursor() as cursor:
cursor.execute(stmts.delete)
cursor.executemany(stmts.insert, data)
conn.commit()
# TODO wrap this in a metadata tracking call
@wrap_result(code_on_error=1, logger=logger)
def run(
conn: OracleConnection,
) -> None:
# // (0) Load from external database
logger.info("Load data from database >load_PSM_data<...")
data = load_PSM_data(conn)
logger.info("Successfully loaded data from database")
# // (1) preprocess data
logger.info("Preprocess data (cleansing) >preprocess_psm<...")
res = preprocess_psm(data)
data = res.data
logger.info("Successfully preprocessed data")
# // (2) process on order level
logger.info("Process data on order level >process_order_level<...")
data = process_order_level(data)
logger.info("Successfully processed data on order level")
# // (3) dump to database (intermediate result)
logger.info("Save order level data in internal database...")
dump_order_level_to_internal_database_wipe(data)
logger.info("Successfully saved order level data in internal DB")
# // (4) post-process
# ** aggregation for orders
logger.info("Aggregate data with KPI calculation...")
logger.info("...production orders...")
orders_aggregated = aggregate_production_orders(data)
# ** aggregation for suppliers
logger.info("...suppliers...")
suppliers_aggregated = aggregate_suppliers(data)
logger.info("Successfully aggregated and calculated KPIs")
# // (5) save to external database
logger.info("Prepare saving data to external database...")
logger.info("Prepare production order KPI table for Oracle export...")
orders_aggregated = oracle_prepare_KPI_aggregate(orders_aggregated)
stmts_orders = oracle_generate_sql_insert(
table_name="KPI_PRODUKTIONSAUFTRAEGE",
columns=orders_aggregated.collect_schema().names(),
)
logger.info(
"SQL Statemens:\n--- DELETE: %s\n---INSERT: %s",
stmts_orders.delete,
stmts_orders.insert,
)
# ** suppliers
logger.info("Prepare supplier KPI table for Oracle export...")
suppliers_aggregated = oracle_prepare_KPI_aggregate(
suppliers_aggregated,
sort_by="Konfektionaer",
sort_descending=False,
)
stmts_suppliers = oracle_generate_sql_insert(
table_name="KPI_KONFEKTIONAERE", columns=suppliers_aggregated.collect_schema().names()
)
logger.info(
"SQL Statemens:\n--- DELETE: %s\n---INSERT: %s",
stmts_suppliers.delete,
stmts_suppliers.insert,
)
# ** actual saving procedure
logger.info("Saving data to external database...")
oracle_save_polars(conn, stmts_orders, orders_aggregated.collect())
oracle_save_polars(conn, stmts_suppliers, suppliers_aggregated.collect())
logger.info("Successfully saved KPI tables to external database")

View File

@@ -1,6 +1,9 @@
from __future__ import annotations from __future__ import annotations
import dataclasses as dc import dataclasses as dc
from typing import TypeAlias
SqlStatement: TypeAlias = str
@dc.dataclass(kw_only=True, slots=True) @dc.dataclass(kw_only=True, slots=True)