# Prepare data for R package
# accession numbers ---------------------------
library(blantyreESBL)
library(tidyverse)
library(devtools)
# load virulence determinents
vf <- read_csv(here("data-raw/all_dassim_esco_vf_ariba.csv"))
vf %>%
mutate(name = gsub("\\./", "", name),
name = gsub("/report.tsv", "", name)) %>%
pivot_longer(-name,
names_to = c( "cluster", ".value"),
names_sep = "\\.") %>%
filter(match == "yes") %>%
select(name, ref_seq) ->
dassimEcoli_BTEcoli.virulence
use_data(dassimEcoli_BTEcoli.virulence, overwrite = TRUE)
btESBL_sequence_sample_metadata %>%
filter(lane %in% btESBL_coregene_tree_esco$tip.label) %>%
left_join(
rbind(read_tsv(#"~/Documents/PhD/Thesis/bookdown/chapter_7/
# checkm_quast/D1/transposed_report.tsv"
here(
"data-raw/QUAST_report1.tsv"
)) ,
read_tsv(#"~/Documents/PhD/Thesis/bookdown/chapter_7/
#checkm_quast/D220190318/transposed_report.tsv"
here(
"data-raw/QUAST_report2.tsv"
)),
read_tsv(# "~/Documents/PhD/Thesis/bookdown/chapter_7/
# checkm_quast/D220190503/transposed_report.tsv"
here(
"data-raw/QUAST_report3.tsv"
))) %>%
transmute(
lane = gsub("\\.contigs_spades", "", Assembly),
number_of_contigs = `# contigs`,
N50 = N50
),
by = "lane"
) %>%
rename(date_of_collection = data_date) %>%
select(accession,
lane,
supplier_name,
pid,
date_of_collection,
number_of_contigs,
N50) %>%
# add in phylogroups
left_join(# rownames(df_hclusts) <- df_hclusts$Taxon
left_join(read_csv(#"~/Documents/PhD/Thesis/bookdown/chapter_7/
#phylogroup_and_mlst/mlst.csv"
here(
"data-raw/mlst.csv"
)),
read_csv(#"~/Documents/PhD/Thesis/bookdown/chapter_7/
#phylogroup_and_mlst/phylogroups.csv"
here(
"data-raw/phylogroups.csv"
)),
by = c("lane" = "Lane")) %>%
mutate(ST = case_when(
lane %in% c(
# update those that were novel but now not
"28099_1_144",
"28099_1_18",
"28099_1_159",
"28099_1_249",
"28099_1_23",
"28099_1_249",
"28099_1_330",
"26141_1_141"
) ~ "9847",
TRUE ~ ST
)),
by = "lane") %>%
# add in pathotypes
left_join(
dassimEcoli_BTEcoli.virulence %>%
filter(grepl("stx|ltcA|sta|eae|aatA|aggR|aaiC|ipaH|ipaD", ref_seq)) %>%
mutate(ref_seq = gsub("_[0-9|A-Z|a-z]*$","", ref_seq)) %>%
mutate(Pathotype = case_when(
grepl("stx", ref_seq) & grepl("eae", ref_seq) ~ "EHEC",
grepl("stx", ref_seq) ~ "STEC",
grepl("eae", ref_seq) ~ "aEPEC/EPEC",
grepl("aatA|aggR|aaiC", ref_seq) ~ "EAEC",
grepl("ltcA|sta", ref_seq) ~ "ETEC",
grepl("ipaH|ipaD", ref_seq) ~ "EIEC",
TRUE ~ NA_character_ )) %>%
select(name, Pathotype) %>%
unique() %>%
#pivot_wider(id_cols = name, values_from = pathotype, names_from = pathotype,
# values_fn = length, values_fill = NA_integer_) %>%
mutate(name = gsub("#", "_", name)),
by = c("lane" = "name")
) %>%
left_join(
# add in popPUNK clusters from global collection comparison
read_csv(here("data-raw/popPUNK_clusters.csv")) %>%
mutate(
Taxon = gsub("#","_",
gsub("\\..*$","", Taxon))),
by = c("lane" = "Taxon")
) ->
dassimEcoli_BTEcoli.accession
use_data(dassimEcoli_BTEcoli.accession, overwrite = TRUE)
# add QRDR snps --------------------------
read_tsv(
here("data-raw/QRDR_ariba_output.tsv")
) %>%
rename(sample = "26141_1#222") %>%
filter(ref_name != "ref_name") %>%
mutate(sample = gsub("#", "_", sample)) %>%
filter(sample %in% dassimEcoli_BTEcoli.accession$lane) %>%
mutate(
codon_posn = str_extract(ref_ctg_change, "[0-9]+"),
codon_posn = as.numeric(codon_posn)
) %>%
filter(ref_ctg_effect == "NONSYN") %>%
filter(
(ref_name == "GyrA" &
codon_posn >= 67 & codon_posn <= 106) |
(ref_name == "GyrB" &
codon_posn >= 426 & codon_posn <= 464) |
(ref_name == "ParC" &
codon_posn >= 56 & codon_posn <= 108) |
(ref_name == "ParE" &
codon_posn >= 365 & codon_posn <= 525)
) %>%
mutate(ref_name = gsub("(^.{1})", '\\L\\1',
ref_name,
perl = TRUE)) %>%
transmute(gene = ref_name,
variant = ref_ctg_change,
sample = sample) ->
dassimEcoli_BTEcoli.QRDRmuts
dassimEcoli_CARD.QRDRmuts <-
read_csv(here("data-raw/2021-09-06_CARD-QRDR-mutations.csv"))
use_data(dassimEcoli_BTEcoli.QRDRmuts, overwrite = TRUE)
use_data(dassimEcoli_CARD.QRDRmuts, overwrite = TRUE)
# beta lactamase data
# downloaded 6 sept 2021
dassimEcoli_NCBI.betalactamases <-
read_tsv("https://ftp.ncbi.nlm.nih.gov/pathogen/betalactamases/Allele.tab") %>%
rename_with( ~ tolower(gsub(" ", "_", .x))) %>%
rename_with( ~ gsub("#", "", .x)) %>%
mutate(
allele_name = gsub("-", "_", allele_name),
class = case_when(
grepl("carbapenem-hydrolyzing",
curated_gene_product_name) ~ "Carbapenemase",
grepl("metallo-beta-lactamase",
curated_gene_product_name) ~ "Carbapenemase",
grepl(
"extended-spectrum beta-lactamase",
curated_gene_product_name
) ~ "ESBL",
grepl("class C",
curated_gene_product_name) ~ "AmpC",
grepl("beta-lactamase",
curated_gene_product_name) ~ "Penicillinase"
)
)
use_data(dassimEcoli_NCBI.betalactamases, overwrite = TRUE)
# global metadata table --------------------
read_csv("data-raw/F1_genome_metadata.csv") ->
dassimEcoli_Horesh.metadata
use_data(dassimEcoli_Horesh.metadata, overwrite = TRUE)
# TODO - merge in accessions
read_csv(here("data-raw/musicha_Ecoli_MetaData.csv")) %>%
mutate(Lane = gsub("#", "_", Lane)) %>%
left_join(
left_join(read_csv(here( "data-raw/musicha_mlst.csv" )),
read_csv( here( "data-raw/musicha_pgroup.csv" )),
by = c("lane" = "V1")) %>%
select(lane, ST, phylogroup) %>%
left_join(
read_csv(here( "data-raw/popPUNK_clusters.csv" )) %>%
mutate(Taxon = gsub(
"#", "_",
gsub("\\..*$", "", Taxon))),
by = c("lane" = "Taxon")),
by = c("Lane" = "lane")
) %>%
left_join(
read_csv("data-raw/musicha_accession.csv") %>%
transmute(Accession = `Lane accession`,
Lane = gsub("#","_", `Lane name`)),
by = "Lane") -> dassimEcoli_Musicha.metadata
use_data(dassimEcoli_Musicha.metadata, overwrite = TRUE)
# global tree -----------------------
ape::read.tree(here("data-raw/IQTREE_globaltree.treefile")) ->
dassimEcoli_globaltree
phytools::midpoint.root(dassimEcoli_globaltree) -> dassimEcoli_globaltree
use_data(dassimEcoli_globaltree, overwrite = TRUE)
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