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dashboard_deprivation.R
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dashboard_deprivation.R
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#########################################
### GP dashboard deprivation analysis ###
#########################################
library(tidyverse)
library(readxl)
# load IMD data and calculated a re-weighted IMD for 2021 LSOA codes using the 2011-2021 lookup
imd_raw <- read_csv(file="data/File_7_-_All_IoD2019_Scores__Ranks__Deciles_and_Population_Denominators_3.csv", name_repair = make.names)
#colnames(imd_raw)
imd <- imd_raw %>%
rename(
LSOA_CODE = LSOA.code..2011.,
IMD_SCORE = Index.of.Multiple.Deprivation..IMD..Score,
IMD_DECILE = Index.of.Multiple.Deprivation..IMD..Decile..where.1.is.most.deprived.10..of.LSOAs.,
IMD_HEALTH = Health.Deprivation.and.Disability.Score) %>%
mutate(
IMD_QUINTILE = case_when(IMD_DECILE %in% c(1:2) ~ 1,
IMD_DECILE %in% c(3:4) ~ 2,
IMD_DECILE %in% c(5:6) ~ 3,
IMD_DECILE %in% c(7:8) ~ 4,
IMD_DECILE %in% c(9:10) ~ 5),
LSOA_DATE = 2011) %>%
select(LSOA_CODE, IMD_SCORE, IMD_HEALTH, IMD_QUINTILE, LSOA_DATE)
mapping <- read_csv(file = "data/LSOA_2011_to_LSOA_2021_Lookup_E_W.csv", name_repair = make.names)
# convert 2021 LSOA groups if the LSOA CHNGID M (merged in 2021) or X (unclear mapping)
weighted_mapping = mapping %>% left_join(
mapping %>% filter(CHGIND=="M" | CHGIND=="X") %>%
group_by(LSOA21CD) %>%
summarise(WEIGHT=1/n())) %>%
mutate(WEIGHT=if_else(CHGIND %in% c("S","U"),1,WEIGHT))
weighted_imd <- weighted_mapping %>%
left_join(select(imd, LSOA_CODE, IMD_HEALTH, IMD_SCORE), by=c("LSOA11CD" = "LSOA_CODE")) %>%
mutate(
weighted_imd = IMD_SCORE*WEIGHT,
weighted_imd_health = IMD_HEALTH*WEIGHT
) %>%
group_by(LSOA21CD) %>%
summarise(
IMD_SCORE = sum(weighted_imd),
IMD_HEALTH = sum(weighted_imd_health)
) %>%
mutate(IMD_QUINTILE = ntile(-IMD_SCORE,5)) %>%
mutate(LSOA_DATE = 2021) %>%
rename(LSOA_CODE = LSOA21CD)
imd_2011_2021 <- rbind(imd, weighted_imd)
year_list <- c(2017:2023)
load_ons_data <- function(year, sex) {
#print(year)
if(year == 2017) {
object_url = "data/population/SAPE20DT2-mid-2017-lsoa-syoa-estimates-unformatted.xls"
} else if(year == 2018) {
object_url = "data/population/SAPE21DT2-mid-2018-lsoa-syoa-estimates-unformatted.xlsx"
} else if(year == 2019) {
object_url = "data/population/SAPE22DT2-mid-2019-lsoa-syoa-estimates-unformatted.xlsx"
} else if(year == 2020) {
object_url = "data/population/sape23dt2mid2020lsoasyoaestimatesunformatted.xlsx"
} else if(year == 2021) {
object_url = "data/population/sapelsoasyoatablefinal.xlsx"
excel_sheet ="Mid-2021 LSOA 2021"
} else if(year %in% c(2022:2023)) {
object_url = "data/population/sapelsoasyoatablefinal.xlsx"
excel_sheet ="Mid-2022 LSOA 2021"
} # end setting the object url
print(object_url)
if(year == 2017) {
lsoa_date = 2011
data <- read_xls(
path = object_url,
sheet=paste0("Mid-",year," ",sex),
skip = 4,
trim_ws=TRUE,
.name_repair = "universal"
)
# data <- aws.s3::s3read_using(
# FUN = readxl::read_xls,
# object = object_url,
# bucket = s3_bucket,
# sheet=paste0("Mid-",year," ",sex),
# skip = 4,
# trim_ws=TRUE,
# .name_repair = "universal")
} else if(year %in% c(2018:2020)) {
lsoa_date = 2011
data <- read_xlsx(
path = object_url,
sheet = paste0("Mid-",year," ",sex),
skip = 4,
trim_ws=TRUE,
.name_repair = "universal"
)
# data <- aws.s3::s3read_using(
# FUN = readxl::read_xlsx,
# object = object_url,
# bucket = s3_bucket,
# sheet=paste0("Mid-",year," ",sex),
# skip = 4,
# trim_ws=TRUE,
# .name_repair = "universal")
} else if(year %in% c(2021:2023)) {
lsoa_date = 2021
data <- read_xlsx(
path = object_url,
sheet = excel_sheet,
skip = 3,
trim_ws=TRUE,
.name_repair = "universal"
)
# data <- aws.s3::s3read_using(
# FUN = readxl::read_xlsx,
# object = object_url,
# bucket = s3_bucket,
# sheet = "Mid-2021 LSOA 2021",
# skip = 3,
# trim_ws=TRUE,
# .name_repair = "universal")
} # end loading the data
if(year %in% c(2017:2018)) {
data1 <- data %>%
select(-All.Ages) %>%
pivot_longer(cols=!c('Area.Codes', 'Area.Names'), names_to='AGE', values_to='POP') %>%
mutate(AGE = as.numeric(str_remove_all(AGE, '[^[:alnum:]]')),
SEX = sex) %>%
rename(LSOA_CODE = Area.Codes)
} else if(year %in% c(2019:2020)) {
data1 <- data %>%
select(-contains('Boundaries'), -All.Ages) %>%
pivot_longer(cols=!c('LSOA.Code', 'LSOA.Name'), names_to='AGE', values_to='POP') %>%
mutate(AGE = as.numeric(str_remove_all(AGE, '[^[:alnum:]]')),
SEX = sex) %>%
rename(LSOA_CODE = LSOA.Code)
} else if (year %in% c(2021:2023)) {
data1 <- data %>%
select(-c(LAD.2021.Code, LAD.2021.Name, LSOA.2021.Name, Total)) %>%
pivot_longer(!LSOA.2021.Code, names_to="AGE", values_to="POP") %>%
separate(AGE, into = c("SEX", "AGE"), sep = "(?<=[A-Za-z])(?=[0-9])") %>%
mutate(SEX = case_when(SEX == "F" ~ "Females",SEX == "M" ~ "Males")
) %>%
filter(SEX == sex) %>%
rename(LSOA_CODE = LSOA.2021.Code)
} # end cleaning the data by year
# group into age groups once here
data2 <- data1 %>%
mutate(
AGE = as.numeric(AGE),
AGE = case_when(
AGE %in% c(0:4) ~ "0_4",
AGE %in% c(5:14) ~ "5_14",
AGE %in% c(15:44) ~ "15_44",
AGE %in% c(45:64) ~ "45_64",
AGE %in% c(65:74) ~ "65_74",
AGE %in% c(75:84) ~ "75_84",
AGE >85 ~ "85_PLUS")
) %>%
group_by(LSOA_CODE, AGE) %>%
summarise(Total_POP = sum(POP)) %>%
mutate(
YEAR = year,
SEX = sex,
LSOA_DATE = lsoa_date
)
}
ons_data_M <- lapply(year_list, load_ons_data, sex="Males")
ons_data_F <- lapply(year_list, load_ons_data, sex="Females")
ons_both <- c(ons_data_M, ons_data_F)
ons_df <- as.data.frame(do.call(rbind, ons_both))
## calculate weighted LSOA populations using Carr Hill formula values from 'Level or not?'
adj_pop_df <- ons_df %>%
mutate(
SEX = case_when(
SEX == "Males" ~ "MALE",
SEX == "Females" ~ "FEMALE"
),
YEAR = as.numeric(YEAR)
) %>%
pivot_wider(
names_from = c(SEX, AGE),
values_from = Total_POP
) %>%
filter(!str_detect(LSOA_CODE, 'W')) %>%
left_join(imd_2011_2021, by=c("LSOA_CODE"="LSOA_CODE", "LSOA_DATE"="LSOA_DATE")) %>%
group_by(YEAR, LSOA_CODE) %>%
mutate(TOTAL_POP = MALE_0_4 +
MALE_5_14 +
MALE_15_44 +
MALE_45_64 +
MALE_65_74 +
MALE_75_84 +
MALE_85_PLUS +
FEMALE_0_4 +
FEMALE_5_14 +
FEMALE_15_44 +
FEMALE_45_64 +
FEMALE_65_74 +
FEMALE_75_84 +
FEMALE_85_PLUS,
ADJUSTED_POP = (2.354*MALE_0_4 +
1*MALE_5_14 +
0.913*MALE_15_44 +
1.373*MALE_45_64 +
2.531*MALE_65_74 +
3.254*MALE_75_84 +
3.193*MALE_85_PLUS +
2.241*FEMALE_0_4 +
1.030*FEMALE_5_14 +
1.885*FEMALE_15_44 +
2.115*FEMALE_45_64 +
2.820*FEMALE_65_74 +
3.301*FEMALE_75_84 +
3.090*FEMALE_85_PLUS)* 1.054^IMD_HEALTH
)
# normalise the adjusted population
adj_pop_norm = adj_pop_df %>%
group_by(YEAR) %>%
summarise(TOTAL = sum(TOTAL_POP), ADJ=sum(ADJUSTED_POP)) %>%
mutate(AF=TOTAL/ADJ) %>%
select(YEAR,AF) %>%
inner_join(adj_pop_df) %>%
mutate(NORMALISED_ADJ_POP = ADJUSTED_POP*AF) %>%
select(YEAR,LSOA_CODE,NEED_ADJ_POP=NORMALISED_ADJ_POP,TOTAL_POP)
### load the attribution datasets ###
temp = list.files(path = "data/attribution", pattern="\\.csv$", full.names = TRUE)
lsoa_attributions <- lapply(temp, read.csv)
#lsoa_attributions <- bulk_import_csv_files(iau_bucket, attribution_prefix)
for (i in seq_along(lsoa_attributions)) {
names(lsoa_attributions[[i]]) <- c("PUBLICATION","EXTRACT_DATE","PRACTICE_CODE","PRACTICE_NAME","LSOA_CODE","SEX","NUMBER_OF_PATIENTS")
}
lsoa_attributions_df <- as.data.frame(do.call(rbind, lsoa_attributions))
lsoa_prac_pc = lsoa_attributions_df %>%
mutate(YEAR = as.numeric(str_sub(EXTRACT_DATE, start = -4))) %>%
select(YEAR, PRACTICE_CODE, PRACTICE_NAME, LSOA_CODE, NUMBER_OF_PATIENTS) %>%
group_by(PRACTICE_CODE, YEAR) %>%
mutate(total_pat_in_practice = sum(NUMBER_OF_PATIENTS),
pc = NUMBER_OF_PATIENTS / total_pat_in_practice) %>%
select(-NUMBER_OF_PATIENTS, -total_pat_in_practice) %>%
ungroup() %>%
mutate(LSOA_DATE = case_when(YEAR<2021 ~ 2011,
YEAR>2020 ~2021))
# assign IMD at the practice level using the attributions dataset
prac_imd = lsoa_prac_pc %>%
inner_join(imd_2011_2021, by=c("LSOA_CODE", "LSOA_DATE")) %>%
inner_join(adj_pop_norm, by=c("LSOA_CODE", "YEAR")) %>%
group_by(YEAR,PRACTICE_CODE) %>%
summarise(IMD_SCORE_PROP=sum(pc*TOTAL_POP*IMD_SCORE), TOTAL_POP=sum(pc*TOTAL_POP)) %>% #calculates number of people with each IMD score
mutate(IMD_SCORE=IMD_SCORE_PROP/TOTAL_POP) %>% #takes the average IMD score of all the people
ungroup() %>%
select(YEAR,PRACTICE_CODE,IMD_SCORE,TOTAL_POP)
prac_imd = prac_imd %>%
group_by(YEAR) %>%
arrange(-IMD_SCORE) %>%
mutate(CUM_POP = cumsum(TOTAL_POP), PROP = CUM_POP/max(CUM_POP),
#IMD_DECILE=cut(PROP,10,labels=FALSE),
IMD_QUINTILE = ntile(PROP,5)) %>%
select(YEAR,PRACTICE_CODE,IMD_SCORE,IMD_QUINTILE)
### load workforce datasets
temp_workforce = list.files(path = "data/workforce", pattern="\\.csv$", full.names = TRUE)
september_records <- temp_workforce %>% str_subset(pattern = "September")
workforce_datasets <- lapply(
september_records, function(x) {
print(x)
split_path = strsplit(x, " ")
year = split_path[[1]][[6]]
workforce <- read.csv(x)
workkforce_relevant_cols <- workforce %>%
select(PRAC_CODE, PRAC_NAME, TOTAL_GP_FTE, TOTAL_GP_EXTGL_FTE, TOTAL_GP_EXL_FTE, TOTAL_GP_RET_FTE, GP_SOURCE) %>%
mutate(YEAR = as.numeric(year))
}
)
workforce_df <- as.data.frame(do.call(rbind, workforce_datasets))
attribute_gps_to_lsoa <- lsoa_prac_pc %>%
filter(!str_detect(LSOA_CODE, 'W|NO2011')) %>%
inner_join(workforce_df, by=c("PRACTICE_CODE" = "PRAC_CODE", "YEAR" = "YEAR")) %>%
mutate(
YEAR = as.numeric(YEAR),
TOTAL_GP_EXTGL_FTE = as.numeric(TOTAL_GP_EXTGL_FTE),
TOTAL_GP_RET_FTE = as.numeric(TOTAL_GP_RET_FTE),
pc_fte_gps = pc*(TOTAL_GP_EXTGL_FTE-TOTAL_GP_RET_FTE)
) %>%
group_by(LSOA_CODE, YEAR) %>%
summarise(gps_lsoa = sum(pc_fte_gps, na.rm=T)) %>%
left_join(adj_pop_norm, by=c("LSOA_CODE"="LSOA_CODE", "YEAR"="YEAR")) %>%
mutate(LSOA_DATE = case_when(YEAR %in% c(2017:2020) ~ 2011,
YEAR %in% c(2021:2023) ~ 2021)) %>%
left_join(imd_2011_2021, by=c("LSOA_CODE"="LSOA_CODE", "LSOA_DATE"= "LSOA_DATE"))
workforce_imd <- attribute_gps_to_lsoa %>%
group_by(IMD_QUINTILE, YEAR) %>%
summarise(total_gps = sum(gps_lsoa, na.rm=T),
total_population = sum(NEED_ADJ_POP, na.rm=T)) %>%
mutate(gps_per_pop = 100000*total_gps/total_population) %>%
na.omit()
write.csv(workforce_imd, "workforce.csv")
### QOF graphs
temp_qof = list.files(path = "data/qof", pattern="\\.csv$", full.names = TRUE)
# extract only the csv file names into a list
qof_datasets <- lapply(
temp_qof, function(x) {
print(x)
split_path = strsplit(x, "-")
path_year = split_path[[1]][[1]]
year = as.numeric(gsub(".*?([0-9]+).*", "\\1", path_year))
qof_scores <- read.csv(x)
if(year == 2017) {
keep <- qof_scores[, c("Practice.code", "Achievement.score..max..559.")]
keep$Achievement.score..max..559. <- as.numeric(keep$Achievement.score..max..559.)
colnames(keep) <- c("PRACTICE_CODE", "TOTAL_POINTS")
keep$YEAR = as.numeric(year)
} else if(year %in% c(2018:2019)) {
keep <- qof_scores[, c("Practice.code", "Achievement.score..559.max.")]
keep$Achievement.score..559.max. <- as.numeric(keep$Achievement.score..559.max.)
colnames(keep) <- c("PRACTICE_CODE", "TOTAL_POINTS")
keep$YEAR = as.numeric(year)
} else if(year %in% c(2021:2022)) {
keep <- qof_scores[, c("Practice.code", "Achievement.score..635.max.")]
keep$Achievement.score..635.max. <- as.numeric(keep$Achievement.score..635.max.)
colnames(keep) <- c("PRACTICE_CODE", "TOTAL_POINTS")
keep$YEAR = as.numeric(year)
}
return(keep)
}
)
qof_df <- as.data.frame(do.call(rbind, qof_datasets))
qof_imd <- inner_join(qof_df, prac_imd, by=c("PRACTICE_CODE", "YEAR")) %>%
group_by(YEAR, IMD_QUINTILE) %>%
summarise(POINTS=mean(TOTAL_POINTS, na.rm=T)) %>%
mutate(
percentage = case_when(
YEAR %in% c(2017:2020) ~ round((POINTS/559)*100,2),
YEAR %in% c(2021:2023) ~ round((POINTS/635)*100,2)
)
)
write.csv(qof_imd, "qof.csv")
## finance datasets
temp_finance = list.files(path = "data/payments", pattern="\\.csv$", full.names = TRUE)
finance_datasets <- lapply(
temp_finance, function(x) {
print(x)
year <- as.numeric(gsub(".*?([0-9]+).*", "\\1", x))
finances <- read.csv(x)
PRACTICE_CODE <- finances[, "Practice.Code"]
WEIGHTED_PATIENTS <- finances[, grep("number.of.weighted.patients", tolower(names(finances)))]
PAYMENTS <- finances[, grep("Total.NHS.Payments.to.General.Practice.Minus.Deductions", names(finances))]
print(length(PAYMENTS))
if(length(PAYMENTS) < 10) {
PAYMENTS <- finances[, "Total.NHS.Payments.to.General.Practice.Minus.Deductions"]
}
YEAR <- 2000+year
print(YEAR)
keep <- as.data.frame(cbind(PRACTICE_CODE, WEIGHTED_PATIENTS, PAYMENTS))
keep$YEAR <- YEAR
return(keep)
}
)
finances_df <- as.data.frame(do.call(rbind, finance_datasets))
finance_imd <- finances_df %>%
mutate(YEAR = as.numeric(YEAR),
WEIGHTED_PATIENTS = as.numeric(WEIGHTED_PATIENTS),
PAYMENTS = as.numeric(PAYMENTS)) %>%
left_join(prac_imd, by=c("YEAR", "PRACTICE_CODE")) %>%
mutate(IMD_QUINTILE = as.factor(IMD_QUINTILE)) %>%
group_by(IMD_QUINTILE, YEAR) %>%
summarise(TOTAL_PAYMENTS = sum(PAYMENTS, na.rm=T),
TOTAL_WEIGHTED = sum(WEIGHTED_PATIENTS, na.rm=T)) %>%
mutate(PAYMENT_PER_WEIGHTED_PATIENT = TOTAL_PAYMENTS/TOTAL_WEIGHTED) %>%
na.omit()
write.csv(finance_imd, "finance.csv")