ADD lots of current wssc analysis

This commit is contained in:
Nathan Dwarshuis 2023-04-05 21:00:46 -04:00
parent 3f68fbbbe6
commit 0578a0ed89
12 changed files with 654 additions and 40 deletions

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@ -1 +1,2 @@
my_pswid: MD0150005
my_plant_id: "0100000"

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@ -0,0 +1,14 @@
Full Traceback (most recent call last):
File "/home/ndwar/.local/share/conda/envs/moco-water/lib/python3.11/site-packages/snakemake/__init__.py", line 643, in snakemake
workflow.include(
File "/home/ndwar/.local/share/conda/envs/moco-water/lib/python3.11/site-packages/snakemake/workflow.py", line 1238, in include
exec(compile(code, snakefile.get_path_or_uri(), "exec"), self.globals)
File "/mnt/data/Dvl/env/home/water/workflow/Snakefile", line 7, in <module>
configfile: "config/config.yml"
File "/home/ndwar/.local/share/conda/envs/moco-water/lib/python3.11/site-packages/snakemake/workflow.py", line 1311, in configfile
raise WorkflowError(
snakemake.exceptions.WorkflowError: Workflow defines configfile config/config.yml but it is not present or accessible (full checked path: /mnt/data/Dvl/env/home/water/workflow/config/config.yml).
WorkflowError in file /mnt/data/Dvl/env/home/water/workflow/Snakefile, line 7:
Workflow defines configfile config/config.yml but it is not present or accessible (full checked path: /mnt/data/Dvl/env/home/water/workflow/config/config.yml).
File "/mnt/data/Dvl/env/home/water/workflow/Snakefile", line 7, in <module>

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@ -0,0 +1,3 @@
WorkflowError in file /mnt/data/Dvl/env/home/water/workflow/Snakefile, line 7:
Workflow defines configfile config/config.yml but it is not present or accessible (full checked path: /mnt/data/Dvl/env/home/water/workflow/config/config.yml).
File "/mnt/data/Dvl/env/home/water/workflow/Snakefile", line 7, in <module>

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@ -4,26 +4,27 @@ from snakemake.utils import min_version
min_version("7.20")
configfile: "config/config.yml"
ucmr_data = {
1: (
"https://www.epa.gov/sites/default/files/2015-09/ucmr1_list1and2chem.zip",
"ucmr1_list1and2chem_final.xls",
),
2: (
"https://www.epa.gov/sites/default/files/2015-09/ucmr2_occurrencedata_jan12.zip",
"UCMR2_All_OccurrenceData_Jan12.txt",
),
3: (
"https://www.epa.gov/sites/default/files/2017-02/ucmr-3-occurrence-data.zip",
"UCMR3_All.txt",
),
4: (
"https://www.epa.gov/sites/default/files/2020-04/ucmr_4_occurrence_data.zip",
"UCMR4_All.txt",
),
2: "https://www.epa.gov/sites/default/files/2015-09/ucmr2_occurrencedata_jan12.zip",
3: "https://www.epa.gov/sites/default/files/2017-02/ucmr-3-occurrence-data.zip",
4: "https://www.epa.gov/sites/default/files/2020-04/ucmr_4_occurrence_data.zip",
}
water_reports = {
2022: "https://www.wsscwater.com/sites/default/files/2023-03/2022%20POT%20%26%20PAX%20Tap%20Report.pdf",
2021: "https://www.wsscwater.com/sites/default/files/2022-07/2021%20POT%20%26%20PAX%20Tap%20Report.pdf",
2020: "https://www.wsscwater.com/sites/default/files/2021-04/2020%20POT%20%26%20PAX%20Tap%20Report.pdf",
2019: "https://www.wsscwater.com/files/live/sites/wssc/files/tap%20water/2019%20POT%20%26%20PAX%20Tap%20Report.pdf",
2018: "https://www.wsscwater.com/files/live/sites/wssc/files/tap%20water/2018%20POT%20%26%20PAX%20Tap%20Report.pdf",
2017: "https://www.wsscwater.com/files/live/sites/wssc/files/tap%20water/2017%20POT%20%26%20PAX%20Tap_Report.pdf",
2016: "https://www.wsscwater.com/files/live/sites/wssc/files/tap%20water/2016%20PAXPOT%20%20WQR.pdf",
2015: "https://www.wsscwater.com/files/live/sites/wssc/files/tap%20water/2015%20POT%20%26%20PAX%20WQR%20Final%20050516.pdf",
2014: "https://www.wsscwater.com/files/live/sites/wssc/files/tap%20water/2014%20POT%20%20PAX%20WQR%20Draft%20022715%20Corrected%20030915.pdf",
2013: "https://www.wsscwater.com/files/live/sites/wssc/files/PDFs/TapAnalysis2013_27546.pdf",
}
@ -31,16 +32,16 @@ rule download_ucmr:
output:
"resources/ucmr/{ucmr}.zip",
params:
url=lambda w: ucmr_data[int(w.ucmr)][0],
url=lambda w: ucmr_data[int(w.ucmr)],
shell:
"curl -sS -L -o {output} {params.url}"
rule unzip_ucmr_1:
rule unzip_ucmr_2:
input:
expand(rules.download_ucmr.output, ucmr=1),
expand(rules.download_ucmr.output, ucmr=2),
output:
"results/ucmr/ucmr_unzipped_1/ucmr1_list1and2chem_final.xls",
"results/ucmr/ucmr_unzipped_2/UCMR2_All_OccurrenceData_Jan12.txt",
params:
zipdest=lambda _, output: dirname(output[0]),
shell:
@ -51,27 +52,21 @@ rule unzip_ucmr_1:
"""
use rule unzip_ucmr_1 as unzip_ucmr_2 with:
input:
expand(rules.download_ucmr.output, ucmr=2),
output:
"results/ucmr/ucmr_unzipped_2/UCMR2_All_OccurrenceData_Jan12.txt",
use rule unzip_ucmr_1 as unzip_ucmr_3 with:
use rule unzip_ucmr_2 as unzip_ucmr_3 with:
input:
expand(rules.download_ucmr.output, ucmr=3),
output:
"results/ucmr/ucmr_unzipped_3/UCMR3_All.txt",
use rule unzip_ucmr_1 as unzip_ucmr_4 with:
use rule unzip_ucmr_2 as unzip_ucmr_4 with:
input:
expand(rules.download_ucmr.output, ucmr=4),
output:
"results/ucmr/ucmr_unzipped_4/UCMR4_All.txt",
# they used a real micro symbol instead of "u", which makes R choke
rule fix_ucmr4_data_tbl:
input:
rules.unzip_ucmr_4.output,
@ -83,15 +78,38 @@ rule fix_ucmr4_data_tbl:
"""
rule standardize_ucmr_3:
# manually make these data files
# 1) download zip from here: https://www.epa.gov/sites/default/files/2015-09/ucmr1_list1and2chem.zip
# 2) open in localc
# 3) save each of the 'DPCache' tables to tsv files (there should be three)
rule standardize_ucmr_1:
input:
rules.unzip_ucmr_3.output,
expand("resources/ucmr/ucmr1/ucmr1_list1and2chem_final_{i}.tsv", i=[1, 2, 3]),
output:
"results/ucmr_data/all_std_3.txv.gz",
"results/ucmr_data/all_std_1.txv.gz",
conda:
"envs/tidyverse.yml"
script:
"scripts/standardize_ucmr_34.R"
"scripts/standardize_ucmr_1.R"
rule standardize_ucmr_2:
input:
rules.unzip_ucmr_2.output,
output:
"results/ucmr_data/all_std_2.txv.gz",
conda:
"envs/tidyverse.yml"
script:
"scripts/standardize_ucmr_234.R"
use rule standardize_ucmr_2 as standardize_ucmr_3 with:
input:
rules.fix_ucmr4_data_tbl.output,
output:
"results/ucmr_data/all_std_4.txv.gz",
use rule standardize_ucmr_3 as standardize_ucmr_4 with:
input:
@ -100,10 +118,140 @@ use rule standardize_ucmr_3 as standardize_ucmr_4 with:
"results/ucmr_data/all_std_4.txv.gz",
rule concat_ucmr:
input:
rules.standardize_ucmr_1.output,
rules.standardize_ucmr_2.output,
rules.standardize_ucmr_3.output,
rules.standardize_ucmr_4.output,
output:
"results/ucmr_data/all_std.txv.gz",
conda:
"envs/tidyverse.yml"
script:
"scripts/concat_ucmr.R"
rule summarize_ucmr:
input:
rules.concat_ucmr.output,
output:
tap="results/ucmr_plots/tap.pdf",
plant="results/ucmr_plots/plant.pdf",
conda:
"envs/tidyverse.yml"
script:
"scripts/summarize_ucmr.R"
rule download_wqa_results:
output:
"resources/wqa/results.zip",
shell:
"""
curl -Ss -q -X POST --header 'Content-Type: application/json' \
--header 'Accept: application/zip' \
-d '{{"countrycode":["US"],
"statecode":["US:24"],
"countycode":["US:24:031"],
"within":"20",
"lat":"39.109",
"long":"-77.2489",
"dataProfile":"resultPhysChem",
"providers":["NWIS","STEWARDS","STORET"]
}}' \
'https://www.waterqualitydata.us/data/Result/search?mimeType=tsv&zip=yes' \
> {output}
"""
rule download_wqa_station:
output:
"resources/wqa/station.zip",
shell:
"""
curl -Ss -q -X POST --header 'Content-Type: application/json' \
--header 'Accept: application/zip' \
-d '{{"countrycode":["US"],
"statecode":["US:24"],
"countycode":["US:24:031"],
"within":"20",
"lat":"39.109",
"long":"-77.2489",
"providers":["NWIS","STEWARDS","STORET"]
}}' \
'https://www.waterqualitydata.us/data/Station/search?mimeType=tsv&zip=yes' \
> {output}
"""
use rule unzip_ucmr_2 as unzip_wqa_results with:
input:
rules.download_wqa_results.output,
output:
"results/wqa/src/results/resultphyschem.tsv",
use rule unzip_ucmr_2 as unzip_wqa_station with:
input:
rules.download_wqa_station.output,
output:
"results/wqa/src/station/station.tsv",
rule standardize_wqa:
input:
station=rules.unzip_wqa_station.output,
results=rules.unzip_wqa_results.output,
output:
"results/wqa/process/all.tsv.gz",
conda:
"envs/tidyverse.yml"
script:
"scripts/standardize_wqa.R"
rule download_water_report:
output:
"resources/wssc/{year}.pdf",
params:
url=lambda w: water_reports[int(w.year)],
shell:
"curl -sS -L -o {output} {params.url}"
rule parse_water_report:
input:
rules.download_water_report.output,
output:
"results/wssc/{year}.tsv",
script:
"scripts/wssc_to_table.py"
rule cat_reports:
input:
expand(rules.parse_water_report.output, year=water_reports),
output:
"results/wssc/all.tsv",
shell:
"cat {input} > {output}"
rule analyse_reports:
input:
rules.cat_reports.output,
output:
limit="results/wssc/binned_limit.tsv",
nolimit="results/wssc/detected_nolimit.tsv",
conda:
"envs/tidyverse.yml"
script:
"scripts/analyze_wssc.R"
rule all:
input:
rules.standardize_ucmr_3.output,
rules.standardize_ucmr_4.output,
# expand(rules.unzip_ucmr.output, ucmr=[1, 2, 3]),
# rules.fix_ucmr4_data_tbl.output,
rules.summarize_ucmr.output,
rules.standardize_wqa.output,
rules.analyse_reports.output,

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@ -0,0 +1,54 @@
library(tidyverse)
split_df <- function(df, test) {
list(i = filter(df, {{ test }}), o = filter(df, !{{ test }}))
}
path <- snakemake@input[[1]]
df <- readr::read_tsv(
path,
col_types = "iccddddddd",
col_names =
c("year",
"species",
"unit",
"ave_lower",
"ave_upper",
"min_lower",
"min_upper",
"max_lower",
"max_upper",
"limit"
)
) %>%
# there are some TTHM/HHA5 entries in here twice, use the ones with limits
filter(!str_detect(species, "(TTHM|HAA5)") | limit > 0)
has_limit <- df %>%
group_by(species) %>%
summarize(limit = max(limit)) %>%
filter(limit > 0) %>%
pull(species)
limited <- split_df(df, species %in% has_limit)
binned_limit <- limited$i %>%
group_by(species) %>%
summarize(av = max(ave_upper), mx = max(max_upper), limit = max(limit), .groups = "drop") %>%
mutate(bin = case_when(mx == 0 ~ "undetected",
mx > limit ~ "over",
mx > limit / 10 ~ "over10",
mx > limit / 100 ~ "over100",
TRUE ~ "safeIGuess")) %>%
filter(bin != "undetected") %>%
arrange(bin, species) %>%
readr::write_tsv(snakemake@output[["limit"]])
detected_nolimit <- limited$o %>%
group_by(species) %>%
summarize(av = max(ave_upper), mx = max(max_upper)) %>%
mutate(detected = mx > 0) %>%
filter(detected) %>%
arrange(species) %>%
readr::write_tsv(snakemake@output[["nolimit"]])

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@ -0,0 +1,6 @@
library(tidyverse)
snakemake@input %>%
map_dfr(~ readr::read_tsv(.x, col_types = "c")) %>%
replace_na(list(value = 0)) %>%
readr::write_tsv(snakemake@output[[1]])

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@ -0,0 +1,31 @@
library(tidyverse)
read_tsv <- function(path) {
readr::read_tsv(
path,
col_types = cols(
PWSID = "c",
PWSName = "c",
"Facility ID" = "c",
"Sample point ID" = "c",
"Sample point type" = "c",
"Sample collection date" = "c",
Contaminant = "c",
"Unit measure" = "c",
Result = "d",
.default = "-"
))
}
df <- snakemake@input %>%
map_dfr(read_tsv) %>%
rename(sample_point_ID = "Sample point ID",
sample_point_type = "Sample point type",
facility_ID = "Facility ID",
date = "Sample collection date",
species = Contaminant,
unit = "Unit measure",
value = Result) %>%
mutate(date = as.Date(date, format = "%m/%d/%y")) %>%
readr::write_tsv(snakemake@output[[1]])

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@ -5,6 +5,7 @@ snakemake@input[[1]] %>%
col_types = cols(
PWSID = "c",
PWSName = "c",
FacilityID = "c",
FacilityName = "c",
SamplePointID = "c",
SamplePointName = "c",
@ -15,7 +16,15 @@ snakemake@input[[1]] %>%
AnalyticalResultValue = "d",
.default = "-"
)) %>%
mutate(CollectionDate = as.Date(CollectionDate)) %>%
rename(value = "AnalyticalResultValue") %>%
filter(PWSID == snakemake@config[["my_pswid"]]) %>%
rename(
sample_point_ID = SamplePointID,
sample_point_name = SamplePointName,
sample_point_type = SamplePointType,
facility_ID = FacilityID,
facility_Name = FacilityName,
date = CollectionDate,
species = Contaminant,
unit = AnalyticalResultsSign,
value = AnalyticalResultValue) %>%
mutate(date = as.Date(date, format = "%m/%d/%Y")) %>%
readr::write_tsv(snakemake@output[[1]])

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@ -0,0 +1,107 @@
library(tidyverse)
site_df <- readr::read_tsv(
snakemake@input[["station"]],
col_types = cols(
MonitoringLocationIdentifier = "f",
MonitoringLocationTypeName = "f",
MonitoringLocationName = "f",
MonitoringLocationDescriptionText = "c",
LatitudeMeasure = "d",
LongitudeMeasure = "d",
.default = "-")
) %>%
rename(
location = MonitoringLocationIdentifier,
location_type = MonitoringLocationTypeName,
location_name = MonitoringLocationName,
location_desc = MonitoringLocationDescriptionText,
lat = LatitudeMeasure,
long = LongitudeMeasure,
)
# This has a bunch of crap in it that has nothing to do with chemicals in
# water (which might make amphibians gay). Additionally, there are many
# different units that need to be standardized (eventually to be put in
# terms of ug/ml)
result_df <- readr::read_tsv(
snakemake@input[["results"]],
col_types = cols(
ActivityTypeCode = "f",
ActivityStartDate = "D",
ActivityEndDate = "D",
ActivityMediaName = "f",
MonitoringLocationIdentifier = "f",
CharacteristicName = "f",
ResultMeasureValue = "c",
"ResultMeasure/MeasureUnitCode" = "c",
"DetectionQuantitationLimitMeasure/MeasureValue" = "c",
"DetectionQuantitationLimitMeasure/MeasureUnitCode" = "f",
.default = "-",
)
) %>%
rename(activity = ActivityTypeCode,
unit = "ResultMeasure/MeasureUnitCode",
media = ActivityMediaName,
start = ActivityStartDate,
end = ActivityEndDate,
location = MonitoringLocationIdentifier,
value = ResultMeasureValue,
limit = "DetectionQuantitationLimitMeasure/MeasureValue",
limit_unit = "DetectionQuantitationLimitMeasure/MeasureUnitCode",
species = CharacteristicName) %>%
arrange(start) %>%
filter(media == "Water") %>%
select(-media) %>%
# select values that are numbers (some are just descriptive strings) assuming
# blanks are actually zeros (to be filtered out later)
replace_na(list(value = "0")) %>%
filter(str_detect(value, "^-?\\d+\\.?\\d*$")) %>%
mutate(value = as.numeric(value)) %>%
# select units that are mass concentrations or "counts per something"
filter(str_detect(unit, "^.*g/.*(l|L|g)$") |
unit %in% c("%", "ppb", "ppm")) %>%
# remove a bunch of crap with "%" units
filter(! str_detect(species, "SSC|Cloud cover|Sediment|solids|demand")) %>%
filter(! str_detect(species, "Pha?eophytin|Chlorophyll|Alkalinity")) %>%
filter(species != "Sodium, percent total cations" # not sure what this means
& species != "Dissolved oxygen saturation" # whatever
& species != "Water" # ironic...
& species != "Barometric pressure" # not a chemical
& species != "Relative humidity" # not a chemical either
& species != "Extract volume" # ''
& species != "Volume, total" # ''
& species != "Acidity, (H+)" # will change later
& species != "Carbon dioxide" # ditto
& species != "Dissolved oxygen (DO)" # ditto
& species != "Total hardness" # not specific
) %>%
# these seems like a typos
mutate(species = case_when(
species == "Diazinon0" ~ "Diazinon",
species == "Phosphate-phosphorus***retired***use Total Phosphorus, mixed forms" ~ "Total Phosphorus, mixed forms",
species == "Inorganic nitrogen (nitrate and nitrite) ***retired***use Nitrate + Nitrite" ~ "Nitrate + Nitrite",
TRUE ~ species
)) %>%
# collapse units to (f/n/u/m)g/L
mutate(unit = str_replace(unit, "/l", "/L"),
unit = str_replace(unit, "kg", "L"),
unit = case_when(unit == "ppb" ~ "ug/L",
unit == "ppm" ~ "mg/L",
TRUE ~ unit),
# percent will just be in mg/L
value = if_else(unit == "%", value * 10, value),
unit = if_else(unit == "%", "mg/L", unit)) %>%
# standardize all values to ug/L
mutate(std_value = case_when(unit == "g/L" ~ value * 1e6,
unit == "mg/L" ~ value * 1e3,
unit == "ng/L" ~ value / 1e3,
unit == "fg/L" ~ value / 1e6,
TRUE ~ value)) %>%
select(-value, -unit)
result_df %>%
left_join(site_df, by = "location") %>%
select(-location) %>%
readr::write_tsv(snakemake@output[[1]])

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@ -0,0 +1,32 @@
library(tidyverse)
df <- readr::read_tsv(
snakemake@input[[1]],
col_types = cols(date = "D", value = "d", .default = "c")
) %>%
filter(PWSID == snakemake@config[["my_pswid"]]) %>%
select(-PWSID, -PWSName)
# purification plant sample point
df %>%
filter(sample_point_ID == snakemake@config[["my_plant_id"]]) %>%
filter(sample_point_type == "EP") %>%
ggplot(aes(value, fct_rev(species))) +
geom_jitter() +
scale_x_log10() +
labs(x = "level (ug/ml)",
y = "species",
title = "Purification Plant")
ggsave(snakemake@output[["plant"]])
# tap sample points
df %>%
filter(sample_point_type %in% c("DS", "MR")) %>%
ggplot(aes(value, fct_rev(species))) +
geom_jitter() +
scale_x_log10() +
labs(x = "level (ug/ml)",
y = "species",
title = "Purification Plant")
ggsave(snakemake@output[["tap"]])

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@ -0,0 +1,120 @@
library(tidyverse)
split_df <- function(df, flt) {
.in <- df %>%
filter({{ flt }})
.out <- df %>%
filter(! {{ flt }})
list(i = .in,
o = .out)
}
df <- readr::read_tsv(
"../../results/wqa/process/all.tsv.gz",
col_types = cols(
start = "D",
species = "f",
std_value = "d",
lat = "d",
long = "d",
location_name = "c",
.default = "-"
)
) %>%
# get rid of the deuterium distinction on some pharma species
mutate(species = str_replace(species, "-(d|D)\\d", ""))
not_detected <- df %>%
group_by(species) %>%
summarize(total = sum(std_value)) %>%
filter(total == 0) %>%
pull(species)
harmless <- c(
"Sodium",
"Bicarbonate",
"Calcium",
"Magnesium",
"Potassium",
"Carbonate",
"Oxygen",
"Silica"
)
df_detected <- df %>%
filter(! species %in% not_detected) %>%
filter(! species %in% harmless)
df %>%
filter(lubridate::year(start) > 1990) %>%
group_by(species) %>%
summarize(fraction = mean(std_value > 0),
n = n()) %>%
mutate(stderr = sqrt(fraction * (1 - fraction) / n)) %>%
filter(n > 3) %>%
ggplot(aes(fraction, fct_reorder(species, fraction))) +
geom_col() +
geom_errorbarh(aes(xmin = fraction - stderr, xmax = fraction + stderr))
metals <- c(
"Lithium",
"Beryllium",
"Boron",
"Aluminum",
"Vanadium",
"Chromium",
"Manganese",
"Iron",
"Cobalt",
"Nickel",
"Copper",
"Zinc",
"Arsenic",
"Selenium",
"Strontium",
"Molybdenum",
"Silver",
"Cadmium",
"Antimony",
"Barium",
"Mercury",
"Thallium",
"Lead",
"Uranium"
)
halides <- c("Chloride", "Fluoride", "Bromide")
.nitro <- split_df(df_detected, str_detect(species, "(n|N)itr")
| str_detect(species, "Ammon"))
.phospho <- split_df(.nitro$o, str_detect(species, "(P|p)hosph"))
.metal <- split_df(.phospho$o, species %in% metals)
.halides <- split_df(.metal$o, species %in% halides)
.nitro$i %>%
ggplot(aes(start, std_value, color = species, group = species)) +
geom_line()
.halides$i %>%
ggplot(aes(start, std_value)) +
geom_point() +
facet_wrap(scales = "free", c("species"))
.metal$i %>%
ggplot(aes(start, std_value)) +
geom_point() +
facet_wrap(scales = "free", c("species"))
.phospho$i %>%
ggplot(aes(start, std_value)) +
geom_point() +
facet_wrap(scales = "free", c("species"))
.halides$o %>%
filter(std_value > 1) %>%
ggplot(aes(std_value, species)) +
geom_jitter()

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@ -0,0 +1,89 @@
import csv
import sys
import re
import subprocess as sp
from datetime import datetime
from pathlib import Path
from typing import NamedTuple
class CsvRow(NamedTuple):
year: int
species: str
unit: str
average_lower: float
average_upper: float
min_lower: float
min_upper: float
max_lower: float
max_upper: float
limit: float
def fmt_float(x: str) -> float:
if x == "n/d" or x == "n.d":
return 0
else:
# spaces sometimes show up if there is a superscript
return float(x.split(" ")[0])
def fmt_lt(x: str) -> tuple[float, float]:
if "<" == x[0]:
return (0, fmt_float(x.removeprefix("<")))
else:
return (y := fmt_float(x), y)
def parse_chemical(year, line: list[str]) -> CsvRow:
try:
limit = float(re.match("\d+(\.\d+)?", line[5])[0])
except (TypeError, ValueError, IndexError):
limit = -1
a = fmt_lt(line[2])
mx = fmt_lt(line[3])
mi = fmt_lt(line[4])
return CsvRow(
year=year,
species=line[0],
unit=line[1].replace("µ", "u"),
average_lower=a[0],
average_upper=a[1],
min_lower=mi[0],
min_upper=mi[1],
max_lower=mx[0],
max_upper=mx[1],
limit=limit,
)
def parse_pdf(year: int, ipath: Path) -> list[CsvRow]:
res = sp.run(
["pdftotext", "-f", "1", "-l", "4", "-r", "1000", "-layout", ipath, "-"],
capture_output=True,
)
if res.returncode == 0:
lns = [
l.strip()
for l in res.stdout.decode().splitlines()
if "/L" in l and not " of " in l and not " sample" in l
]
chemicals = [
s
for x in lns
if len(s := re.split("\s\s+", x)) > 2 and "Total Organic Carbon" not in s[0]
]
return [parse_chemical(year, c) for c in chemicals]
else:
assert False, res.stderr
def main(year: int, ipath: str, opath: str) -> None:
rows = parse_pdf(year, ipath)
with open(opath, "w") as f:
w = csv.writer(f, delimiter="\t")
for r in rows:
w.writerow(r)
main(snakemake.wildcards["year"], snakemake.input[0], snakemake.output[0])