Merge remote-tracking branch 'github/main'

UNFCCC_GHG_data/UNFCCC_reader/Mongolia/config_MNG_BUR2.py

@@ -0,0 +1,374 @@
+coords_terminologies = {
+    "area": "ISO3",
+    "category": "IPCC2006_PRIMAP",
+    "scenario": "PRIMAP",
+}
+
+inv_conf = {
+    "entity_row": 0,
+    "unit_row": 1,
+    "index_cols": "Greenhouse gas source and sink categories",
+    "header_long": ["orig_cat_name", "entity", "unit", "time", "data"],
+    "cat_code_regexp": r"^(?P<code>[a-zA-Z0-9\.]{1,11})[\s\.].*",
+    "cat_codes_manual": {
+        # remove whitespace at start of line
+        " 2.G.2 -SF6 and PFCs from Other Product Uses": "2.G.2 - SF6 and PFCs from Other Product Uses",
+        " 2.G.3 -N2O from Product Uses": "2.G.3 - N2O from Product Uses",
+        " 1.C.1 -Transport of CO2": "1.C.1 - Transport of CO2",
+        " 3.C.1 -Emissions from biomass burning ": "3.C.1",
+        "Memo Items (5)": "MEMO",
+        "International Bunkers": "M.BK",
+        "1.A.3.a.i - International Aviation (International Bunkers) (1)": "M.BK.A",
+        "1.A.3.d.i - International water-borne navigation (International bunkers) (1)": "M.BK.M",
+        "1.A.5.c - Multilateral Operations (1)(2)": "M.MULTIOP",
+        "Total National Emissions and Removals": "0",
+    },
+    "header": [
+        "Greenhouse gas source and sink categories",
+        "CO2",
+        "CH4",
+        "N2O",
+        "HFCs",
+        "PFCs",
+        "SF6",
+        "other halogenated gases",
+        "Other halogenated gases without CO2 equivalent conversion factors",
+        "NOx",
+        "CO",
+        "NMVOCs",
+        "SO2",
+    ],
+    "unit": [
+        "-",
+        "Gg",
+        "Gg",
+        "Gg",
+        "GgCO2eq",
+        "GgCO2eq",
+        "GgCO2eq",
+        "GgCO2eq",
+        "Gg",
+        "Gg",
+        "Gg",
+        "Gg",
+        "Gg",
+    ],
+}
+
+inv_conf_per_year = {
+    "1990": {
+        "pages_to_read": ["176", "177", "178", "179"],
+        "rows_to_fix": {
+            3: [
+                "1.A.2 - Manufacturing Industries and",
+                "2.B.4 - Caprolactam. Glyoxal and Glyoxylic Acid",
+                "2.B.8 - Petrochemical and Carbon Black",
+                "2.D - Non-Energy Products from Fuels and",
+                "2.F - Product Uses as Substitutes for Ozone",
+                "3.C - Aggregate sources and non-CO2 emissions",
+                "3.C.4 - Direct N2O Emissions from managed",
+                "3.C.5 - Indirect N2O Emissions from managed",
+                "3.C.6 - Indirect N2O Emissions from manure",
+                "5.A - Indirect N2O emissions from the atmospheric",
+                "1.A.3.d.i - International water-borne navigation",
+                "1.A.3.a.i - International Aviation (International",
+            ],
+            -2: ["3.C.1 - Emissions from biomass burning"],
+            2: [" 3.C.1 -Emissions from biomass burning"],
+        },
+        "page_defs": {
+            "176": {
+                "area": ["76,501,763,83"],
+                "cols": ["265,320,360,396,433,471,503,564,624,658,694,741"],
+            },
+            "177": {
+                "area": ["68,542,762,85"],
+                "cols": ["280,329,374,410,449,482,546,604,637,679,725,751"],
+            },
+            "178": {
+                "area": ["71,543,761,81"],
+                "cols": ["265, 320,361,411,447,483,546,604,621,653,719,746"],
+            },
+            "179": {
+                "area": ["70,542,761,346"],
+                "cols": ["287,328,365,410,449,482,540,600,636,675,721,750"],
+            },
+        },
+    },
+    "2020": {
+        "page_defs": {
+            "180": {
+                "area": ["70,436,769,86"],
+                "cols": ["270, 322, 367, 405, 455, 488,550,607,637,669,727,753"],
+            },
+            "181": {
+                "area": ["68,541,768,86"],
+                "cols": ["288,343,379,405,460,490,559,600,650,683,729,755"],
+            },
+            "182": {
+                "area": ["69, 539, 771, 86"],
+                "cols": ["273,331,371,425,462,491,560,615,639,671,729,755"],
+            },
+            "183": {
+                "area": ["69, 540, 769, 373"],
+                "cols": ["288, 328,363,425,459,492,560,619,650,683,731,757"],
+            },
+        },
+        "rows_to_fix": {
+            -2: [
+                "1.C.1 - Transport of CO2",
+                "2.G.2 - SF6 and PFCs from Other Product Uses",
+                "2.G.3 - N2O from Product Uses",
+            ],
+            2: [
+                "2.B.8 - Petrochemical and Carbon Black",
+                "2.D - Non-Energy Products from Fuels and",
+                "2.F - Product Uses as Substitutes for Ozone",
+                "3.C - Aggregate sources and non-CO2 emissions",
+                "3.C.4 - Direct N2O Emissions from managed",
+                "3.C.5 - Indirect N2O Emissions from managed",
+                "3.C.6 - Indirect N2O Emissions from manure",
+                "5.A - Indirect N2O emissions from the atmospheric",
+                "1.A.3.d.i - International water-borne navigation",
+                "1.A.3.a.i - International Aviation (International",
+                "2.B.4 - Caprolactam. Glyoxal and Glyoxylic Acid",
+            ],
+        },
+    },
+}
+
+inv_conf_per_entity = {
+    "CO": {
+        "page_defs": {
+            "39": {
+                "area": ["53,646,550,588"],
+                "cols": ["279,328,364,400,440,478,520"],
+            },
+        },
+        "cat_codes_manual": {"Total National Emissions": "0"},
+        "category_column": "Categories",
+        "columns_to_drop": ["Categories"],
+        "years": ["1990", "1995", "2000", "2005", "2010", "2015", "2020"],
+        "unit": "Gg",
+    },
+    "NOx": {
+        "page_defs": {
+            "38": {
+                "area": ["53,120,538,93"],
+                "cols": ["281,329,365,405,441,477,513"],
+            },
+            "39": {
+                "area": ["51,772,539,740"],
+                "cols": ["285,332,368,404,444,476,514"],
+            },
+        },
+        "cat_codes_manual": {"Total National Emissions": "0"},
+        "category_column": "Categories",
+        "columns_to_drop": ["Categories"],
+        "years": ["1990", "1995", "2000", "2005", "2010", "2015", "2020"],
+        "unit": "Gg",
+    },
+    "HFCs": {
+        "page_defs": {
+            "38": {
+                "area": ["55,469,534,364"],
+                "cols": ["251,302,367,427,486"],
+            },
+        },
+        "cat_codes_manual": {"Total National Emissions (Gg CO2e)": "0"},
+        "category_column": "Categories",
+        "columns_to_drop": ["Share, %", "Categories"],
+        "years": ["2007", "2010", "2015", "2020"],
+        "unit": "Gg CO2e",
+    },
+    "N2O": {
+        "page_defs": {
+            "37": {
+                "area": ["55,106,556,79"],
+                "cols": ["170,258,305,347,394,440,476,512"],
+            },
+            "38": {
+                "area": ["55,773,555,664"],
+                "cols": ["215,264,306,353,395,439,476,513"],
+            },
+        },
+        "rows_to_fix": {
+            3: [
+                "3 - Agriculture, Forestry, and Other",
+                "3.C - Aggregate sources and non-",
+                "4.D - Wastewater Treatment and",
+            ]
+        },
+        "cat_codes_manual": {"Total National Emissions (Gg N2O)": "0"},
+        "category_column": "Categories",
+        "columns_to_drop": ["Share, %", "Categories"],
+        "years": ["1990", "1995", "2000", "2005", "2010", "2015", "2020"],
+        "unit": "Gg",
+    },
+    "CH4": {
+        "page_defs": {
+            "37": {
+                "area": ["55,423,552,216"],
+                "cols": ["186,250,296,326,383,427,467,507"],
+            },
+        },
+        "rows_to_fix": {
+            3: [
+                "1.A - Fuel Combustion",
+                "1.B - Fugitive emissions from",
+                "3 - Agriculture, Forestry, and",
+                "3.C - Aggregate sources and",
+                "4.D - Wastewater Treatment",
+                "Total National Emissions (Gg",
+            ]
+        },
+        "cat_codes_manual": {"Total National Emissions (Gg CH4)": "0"},
+        "category_column": "Categories",
+        "columns_to_drop": ["Share, %", "Categories"],
+        "years": ["1990", "1995", "2000", "2005", "2010", "2015", "2020"],
+        "unit": "Gg",
+    },
+    "CO2": {
+        "page_defs": {
+            "36": {
+                "area": ["53,147,556,79"],
+                "cols": ["150,204,254,306,352,406,459,513"],
+            },
+            "37": {
+                "area": ["51,772,561,515"],
+                "cols": ["151,202,252,305,357,404,463,517"],
+            },
+        },
+        "rows_to_fix": {
+            2: [
+                "Categories",
+                "Emissions and",
+            ],
+            3: [
+                "1.A - Fuel",
+                "1.B - Fugitive",
+                "2 - Industrial Processes",
+                "3 - Agriculture,",
+                "Total National",
+                "Total National",
+            ],
+            5: ["2.D - Non-Energy"],
+            -2: [
+                "Categories ",
+                "Emissions and Removals (Gg CO2)",
+            ],
+        },
+        "rows_to_drop": [
+            "Total National Emissions (Gg CO2)",
+            "Total National Removals (Gg CO2)",
+        ],
+        "columns_to_drop": ["Share, %", " Categories "],
+        "cat_codes_manual": {"Total National Emissions and Removals (Gg CO2)": "0"},
+        "category_column": " Categories ",
+        "years": ["1990", "1995", "2000", "2005", "2010", "2015", "2020"],
+        "unit": "Gg",
+    },
+}
+
+# primap2 format conversion
+coords_cols = {
+    "category": "category",
+    "entity": "entity",
+    "unit": "unit",
+}
+
+coords_defaults = {
+    "source": "MNG-GHG-Inventory",
+    "provenance": "measured",
+    "area": "MNG",
+    "scenario": "BUR2",
+}
+
+coords_terminologies = {
+    "area": "ISO3",
+    "category": "IPCC2006_PRIMAP",
+    "scenario": "PRIMAP",
+}
+
+gwp_to_use = "SARGWP100"
+coords_value_mapping = {
+    "unit": "PRIMAP1",
+    "category": "PRIMAP1",
+    "entity": {
+        "HFCs": f"HFCS ({gwp_to_use})",
+        "PFCs": f"PFCS ({gwp_to_use})",
+        "SF6": f"SF6 ({gwp_to_use})",
+        "other halogenated gases": f"other halogenated gases ({gwp_to_use})",
+        "NMVOCs": "NMVOC",
+    },
+}
+
+filter_remove = {
+    "f_memo": {"category": "MEMO"},
+    "f_empty": {"category": ""},
+    "f2": {
+        "entity": ["Other halogenated gases without CO2 equivalent conversion factors"],
+    },
+}
+
+meta_data = {
+    "references": "https://unfccc.int/documents/633382",
+    "rights": "",  # unknown
+    "contact": "daniel-busch@climate-resource.de",
+    "title": "Mongolia. Biennial update report (BUR). BUR2",
+    "comment": "Read fom pdf by Daniel Busch",
+    "institution": "UNFCCC",
+}
+
+country_processing_step1 = {
+    "tolerance": 0.01,
+    "aggregate_cats": {
+        # TODO: Remove "M.3.C.AG". Just here to see previous aggregation setup.
+        # "M.3.C.AG": {
+        #     "sources": [
+        #         "3.C.1",
+        #         "3.C.2",
+        #         "3.C.3",
+        #         "3.C.4",
+        #         "3.C.5",
+        #         "3.C.6",
+        #         "3.C.7",
+        #         "3.C.8",
+        #     ],
+        #     "name": "Aggregate sources and non-CO2 emissions sources on land "
+        #     "(Agriculture)",
+        # },
+        "M.3.D.AG": {"sources": ["3.D.2"], "name": "Other (Agriculture)"},
+        # TODO: In this case 3.C should be equivalent to M.3.C.AG, but I'm not sure.
+        "M.AG.ELV": {
+            "sources": ["3.C", "M.3.D.AG"],
+            "name": "Agriculture excluding livestock",
+        },
+        "M.AG": {"sources": ["3.A", "M.AG.ELV"], "name": "Agriculture"},
+        "M.3.D.LU": {"sources": ["3.D.1"], "name": "Other (LULUCF)"},
+        "M.LULUCF": {"sources": ["3.B", "M.3.D.LU"], "name": "LULUCF"},
+        "M.0.EL": {
+            "sources": ["1", "2", "M.AG", "4", "5"],
+            "name": "National total emissions excluding LULUCF",
+        },
+        "3": {"sources": ["M.AG", "M.LULUCF"], "name": "AFOLU"},  # consistency check
+        "M.0.EL": {"sources": ["1", "2", "M.AG", "4"]},  # consistency check
+        "0": {"sources": ["1", "2", "3", "4"]},  # consistency check
+    },
+    "basket_copy": {
+        "GWPs_to_add": ["AR4GWP100", "AR5GWP100", "AR6GWP100"],
+        "entities": ["HFCS", "PFCS"],
+        "source_GWP": gwp_to_use,
+    },
+}
+
+gas_baskets = {
+    "FGASES (SARGWP100)": ["HFCS (SARGWP100)", "PFCS (SARGWP100)", "SF6", "NF3"],
+    "FGASES (AR4GWP100)": ["HFCS (AR4GWP100)", "PFCS (AR4GWP100)", "SF6", "NF3"],
+    "FGASES (AR5GWP100)": ["HFCS (AR5GWP100)", "PFCS (AR5GWP100)", "SF6", "NF3"],
+    "FGASES (AR6GWP100)": ["HFCS (AR6GWP100)", "PFCS (AR6GWP100)", "SF6", "NF3"],
+    "KYOTOGHG (SARGWP100)": ["CO2", "CH4", "N2O", "FGASES (SARGWP100)"],
+    "KYOTOGHG (AR4GWP100)": ["CO2", "CH4", "N2O", "FGASES (AR4GWP100)"],
+    "KYOTOGHG (AR5GWP100)": ["CO2", "CH4", "N2O", "FGASES (AR5GWP100)"],
+    "KYOTOGHG (AR6GWP100)": ["CO2", "CH4", "N2O", "FGASES (AR6GWP100)"],
+}

UNFCCC_GHG_data/UNFCCC_reader/Mongolia/read_MNG_BUR2_from_pdf.py

@@ -0,0 +1,335 @@
+import camelot
+import primap2 as pm2
+import pandas as pd
+
+from UNFCCC_GHG_data.helper import (
+    downloaded_data_path,
+    extracted_data_path,
+    fix_rows,
+    process_data_for_country,
+)
+from config_MNG_BUR2 import (
+    inv_conf,
+    inv_conf_per_year,
+    inv_conf_per_entity,
+    coords_cols,
+    coords_defaults,
+    coords_terminologies,
+    coords_value_mapping,
+    filter_remove,
+    meta_data,
+    country_processing_step1,
+    gas_baskets,
+)
+
+# ###
+# configuration
+# ###
+
+input_folder = downloaded_data_path / "UNFCCC" / "Mongolia" / "BUR2"
+output_folder = extracted_data_path / "UNFCCC" / "Mongolia"
+
+if not output_folder.exists():
+    output_folder.mkdir()
+
+pdf_file = "20231112_NIR_MGL.pdf"
+output_filename = "MNG_BUR2_2023_"
+category_column = f"category ({coords_terminologies['category']})"
+compression = dict(zlib=True, complevel=9)
+
+# ###
+# 1. Read in main tables
+# ###
+
+df_main = None
+for year in inv_conf_per_year.keys():
+    print("-" * 60)
+    print(f"Reading year {year}.")
+    print("-" * 60)
+    df_year = None
+    for page in inv_conf_per_year[year]["page_defs"].keys():
+        print(f"Reading table from page {page}.")
+        tables_inventory_original = camelot.read_pdf(
+            str(input_folder / pdf_file),
+            pages=page,
+            table_areas=inv_conf_per_year[year]["page_defs"][page]["area"],
+            columns=inv_conf_per_year[year]["page_defs"][page]["cols"],
+            flavor="stream",
+            split_text=True,
+        )
+        print("Reading complete.")
+
+        df_page = tables_inventory_original[0].df
+
+        if df_year is None:
+            df_year = df_page
+        else:
+            df_year = pd.concat(
+                [df_year, df_page],
+                axis=0,
+                join="outer",
+            ).reset_index(drop=True)
+
+    print(f"Concatenating all tables for {year}.")
+
+    # fix content that spreads across multiple rows
+    if "rows_to_fix" in inv_conf_per_year[year]:
+        for n_rows in inv_conf_per_year[year]["rows_to_fix"].keys():
+            print(f"Merge content for {n_rows=}")
+            df_year = fix_rows(
+                df_year,
+                rows_to_fix=inv_conf_per_year[year]["rows_to_fix"][n_rows],
+                col_to_use=0,
+                n_rows=n_rows,
+            )
+
+    df_header = pd.DataFrame([inv_conf["header"], inv_conf["unit"]])
+
+    skip_rows = 11
+    df_year = pd.concat(
+        [df_header, df_year[skip_rows:]], axis=0, join="outer"
+    ).reset_index(drop=True)
+
+    df_year = pm2.pm2io.nir_add_unit_information(
+        df_year,
+        unit_row=inv_conf["unit_row"],
+        entity_row=inv_conf["entity_row"],
+        regexp_entity=".*",
+        regexp_unit=".*",
+        default_unit="Gg",
+    )
+
+    print("Added unit information.")
+
+    # set index
+    df_year = df_year.set_index(inv_conf["index_cols"])
+
+    # convert to long format
+    df_year_long = pm2.pm2io.nir_convert_df_to_long(
+        df_year, year, inv_conf["header_long"]
+    )
+
+    # extract from tuple
+    df_year_long["orig_cat_name"] = df_year_long["orig_cat_name"].str[0]
+
+    # prep for conversion to PM2 IF and native format
+    # make a copy of the categories row
+    df_year_long["category"] = df_year_long["orig_cat_name"]
+
+    # replace cat names by codes in col "category"
+    # first the manual replacements
+
+    df_year_long["category"] = df_year_long["category"].replace(
+        inv_conf["cat_codes_manual"]
+    )
+
+    df_year_long["category"] = df_year_long["category"].str.replace(".", "")
+
+    # then the regex replacements
+    def repl(m):
+        return m.group("code")
+
+    df_year_long["category"] = df_year_long["category"].str.replace(
+        inv_conf["cat_code_regexp"], repl, regex=True
+    )
+
+    df_year_long = df_year_long.reset_index(drop=True)
+
+    df_year_long["data"] = df_year_long["data"].str.replace(",", "")
+
+    # make sure all col headers are str
+    df_year_long.columns = df_year_long.columns.map(str)
+
+    df_year_long = df_year_long.drop(columns=["orig_cat_name"])
+
+    if df_main is None:
+        df_main = df_year_long
+    else:
+        df_main = pd.concat(
+            [df_main, df_year_long],
+            axis=0,
+            join="outer",
+        ).reset_index(drop=True)
+
+### convert to interchange format ###
+print("Converting to interchange format.")
+df_main_IF = pm2.pm2io.convert_long_dataframe_if(
+    df_main,
+    coords_cols=coords_cols,
+    coords_defaults=coords_defaults,
+    coords_terminologies=coords_terminologies,
+    coords_value_mapping=coords_value_mapping,
+    filter_remove=filter_remove,
+    meta_data=meta_data,
+    convert_str=True,
+    time_format="%Y",
+)
+
+### convert to primap2 format ###
+print("Converting to primap2 format.")
+data_main_pm2 = pm2.pm2io.from_interchange_format(df_main_IF)
+
+# ###
+# 2. Read in trend tables
+# ###
+
+df_trend = None
+for entity in inv_conf_per_entity.keys():
+    print("-" * 60)
+    print(f"Reading entity {entity}.")
+
+    df_entity = None
+
+    for page in inv_conf_per_entity[entity]["page_defs"].keys():
+        print(f"Reading page {page}.")
+
+        tables_inventory_original = camelot.read_pdf(
+            str(input_folder / pdf_file),
+            pages=page,
+            table_areas=inv_conf_per_entity[entity]["page_defs"][page]["area"],
+            columns=inv_conf_per_entity[entity]["page_defs"][page]["cols"],
+            flavor="stream",
+            split_text=True,
+        )
+        df_page = tables_inventory_original[0].df
+
+        if df_entity is None:
+            df_entity = df_page
+        else:
+            df_entity = pd.concat(
+                [df_entity, df_page],
+                axis=0,
+                join="outer",
+            ).reset_index(drop=True)
+        print(f"adding table from page {page}.")
+
+    if "rows_to_fix" in inv_conf_per_entity[entity]:
+        for n_rows in inv_conf_per_entity[entity]["rows_to_fix"].keys():
+            print(f"Merge content for {n_rows=}")
+            df_entity = fix_rows(
+                df_entity,
+                rows_to_fix=inv_conf_per_entity[entity]["rows_to_fix"][n_rows],
+                col_to_use=0,
+                n_rows=n_rows,
+            )
+
+    df_entity.columns = df_entity.iloc[0, :]
+    df_entity = df_entity[1:]
+
+    # unit is always Gg
+    df_entity.loc[:, "unit"] = inv_conf_per_entity[entity]["unit"]
+
+    # only one entity per table
+    df_entity.loc[:, "entity"] = entity
+
+    # TODO: Fix pandas "set value on slice of copy" warning
+    df_entity.loc[:, "category"] = df_entity.loc[
+        :, inv_conf_per_entity[entity]["category_column"]
+    ]
+
+    if "rows_to_drop" in inv_conf_per_entity[entity]:
+        for row in inv_conf_per_entity[entity]["rows_to_drop"]:
+            row_to_delete = df_entity.index[df_entity["category"] == row][0]
+            df_entity = df_entity.drop(index=row_to_delete)
+
+    df_entity.loc[:, "category"] = df_entity.loc[:, "category"].replace(
+        inv_conf_per_entity[entity]["cat_codes_manual"]
+    )
+
+    def repl(m):
+        return m.group("code")
+
+    df_entity.loc[:, "category"] = df_entity["category"].str.replace(
+        inv_conf["cat_code_regexp"], repl, regex=True
+    )
+
+    df_entity = df_entity.drop(columns=inv_conf_per_entity[entity]["columns_to_drop"])
+
+    for year in inv_conf_per_entity[entity]["years"]:
+        df_entity.loc[:, year] = df_entity[year].str.replace(",", "")
+
+    if df_trend is None:
+        df_trend = df_entity
+    else:
+        df_trend = pd.concat(
+            [df_trend, df_entity],
+            axis=0,
+            join="outer",
+        ).reset_index(drop=True)
+
+### convert to interchange format ###
+df_trend_IF = pm2.pm2io.convert_wide_dataframe_if(
+    data_wide=df_trend,
+    coords_cols=coords_cols,
+    coords_defaults=coords_defaults,
+    coords_terminologies=coords_terminologies,
+    coords_value_mapping=coords_value_mapping,
+    # filter_remove=filter_remove,
+    meta_data=meta_data,
+    convert_str=True,
+    time_format="%Y",
+)
+
+### convert to primap2 format ###
+print("Converting to primap2 format.")
+data_trend_pm2 = pm2.pm2io.from_interchange_format(df_trend_IF)
+
+# ###
+# Merge main and trend tables.
+# ###
+
+print("Merging main and trend table.")
+data_pm2 = data_main_pm2.pr.merge(data_trend_pm2, tolerance=1)
+
+# ###
+# Save raw data to IF and native format.
+# ###
+
+data_if = data_pm2.pr.to_interchange_format()
+
+pm2.pm2io.write_interchange_format(
+    output_folder / (output_filename + coords_terminologies["category"] + "_raw"),
+    data_if,
+)
+
+encoding = {var: compression for var in data_pm2.data_vars}
+data_pm2.pr.to_netcdf(
+    output_folder / (output_filename + coords_terminologies["category"] + "_raw.nc"),
+    encoding=encoding,
+)
+
+# ###
+# Processing
+# ###
+
+data_proc_pm2 = process_data_for_country(
+    data_country=data_pm2,
+    entities_to_ignore=[],
+    gas_baskets=gas_baskets,
+    filter_dims=None,
+    cat_terminology_out=None,
+    category_conversion=None,
+    sectors_out=None,
+    processing_info_country=country_processing_step1,
+)
+
+# ###
+# save processed data to IF and native format
+# ###
+
+terminology_proc = coords_terminologies["category"]
+
+data_proc_if = data_proc_pm2.pr.to_interchange_format()
+
+if not output_folder.exists():
+    output_folder.mkdir()
+pm2.pm2io.write_interchange_format(
+    output_folder / (output_filename + terminology_proc), data_proc_if
+)
+
+encoding = {var: compression for var in data_proc_pm2.data_vars}
+data_proc_pm2.pr.to_netcdf(
+    output_folder / (output_filename + terminology_proc + ".nc"), encoding=encoding
+)
+
+print("Saved processed data.")