Remove old data
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library(BVAR)
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library(tidyverse)
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source("Scripts/Functions.r")
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#source("Scripts/Load_Wyoming_Web_Data.r")
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DATA_TO_GATHER <- list()
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c("WYPOP","WY_POP",TRUE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c("WYNQGSP","WY_GDP",TRUE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c("MEHOINUSWYA646N","WY_MED_INCOME",TRUE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c("BUSAPPWNSAWY","WY_BUISNESS_APPLICATIONS",FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('ACTLISCOUWY','WY_HOUSES_FOR_SALE',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYRVAC','WY_RENTAL_VACANCY_RATE',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYBPPRIVSA','WY_PRIVATE_HOUSING',FALSE)
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#New Private Housing Units Authorized by Building Permits for Wyoming
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('B03002006E056023','LN_FIVE_YEAR_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('GDPALL56023','LN_GDP',TRUE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYLINC3POP','LN_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('LAUCN560230000000005','LN_EMPLOYMENT',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('BPPRIV056023','LN_PRIVE_HOUSING',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('ENU5602320510','LN_NUM_ESTABLISHMENTS',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('GDPALL56041','UINTA_GDP',TRUE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYUINT1POP','UINTA_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYSUBL5POP','SUBLETTE_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYSWEE7POP','SWEETWATER_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYTETO9POP','TETON_POP',FALSE)
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##Idaho Counties
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('IDBEAR7POP','BEAR_LAKE_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('IDCARI9POP','CARIBOU_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('IDBONN0POP','BONNEVILLE_POP',FALSE)
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###US Population
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('POPTOTUSA647NWDB','US_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('CE16OV','US_EMP',FALSE)
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for(x in 1:length(DATA_TO_GATHER)){
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CURRENT <- DATA_TO_GATHER[[x]]
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if(CURRENT[3]){C_DATA <- CPI_ADJUST(FRED_GET(CURRENT[1],CURRENT[2]))}else{C_DATA <- FRED_GET(CURRENT[1],CURRENT[2])}
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if(x==1){RES <- C_DATA}else{RES <- RES %>% full_join(C_DATA)}
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rm(CURRENT,C_DATA)
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}
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DATA <- RES %>% mutate(US_POP=US_POP-WY_POP,WY_POP=WY_POP-LN_POP-UINTA_POP-SUBLETTE_POP-SWEETWATER_POP-TETON_POP)
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colnames(DATA)
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TS_DATA_ORIG <- DATA %>% select(YEAR,LN_POP,LN_EMPLOYMENT,US_EMP,US_POP,WY_POP,UINTA_POP,SUBLETTE_POP,SWEETWATER_POP,TETON_POP,BEAR_LAKE_POP,CARIBOU_POP,BONNEVILLE_POP) %>%
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filter(!is.na(LN_POP),!is.na(LN_EMPLOYMENT)) %>%
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arrange(YEAR) %>% select(-YEAR)
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TS_DATA <- log(ts(TS_DATA_ORIG,start=c(1970),end=c(2024),frequency=1))
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MOD <- bvar(TS_DATA,lags=2, n_draw=15000)
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opt_irf <- bv_irf(horizon = 25, identification = TRUE)
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plot(irf(MOD,opt_irf,conf_bands = c(0.05, 0.1,0.15)),area=TRUE,vars_impulse = c("LN_EMP"),vars_response = c("WY_POP","LN_POP","UINTA_POP","SUBLETTE_POP","SWEETWATER_POP"))
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plot(irf(MOD,opt_irf,conf_bands = c(0.05, 0.1,0.15)),area=TRUE,vars_impulse = c("LN_EMP"),vars_response = c("TETON_POP","BEAR_LAKE_POP","CARIBOU_POP","BONNEVILLE_POP"))
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plot(irf(MOD,opt_irf,conf_bands = c(0.05, 0.1,0.15)),area=TRUE,vars_impulse = c("LN_POP"),vars_response = c("WY_POP","LN_POP","UINTA_POP","SUBLETTE_POP","SWEETWATER_POP"))
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plot(irf(MOD,opt_irf,conf_bands = c(0.05, 0.1,0.15)),area=TRUE,vars_impulse = c("LN_POP"),vars_response = c("TETON_POP","BEAR_LAKE_POP","CARIBOU_POP","BONNEVILLE_POP"))
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DATA2 <- RES %>% mutate(US_POP=US_POP-WY_POP,WY_POP=WY_POP-LN_POP-UINTA_POP-SUBLETTE_POP-SWEETWATER_POP-TETON_POP)
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TS_DATA2 <- DATA2 %>% select(YEAR,LN_POP,US_POP,WY_POP,UINTA_POP,SUBLETTE_POP,SWEETWATER_POP,TETON_POP,BEAR_LAKE_POP,CARIBOU_POP,BONNEVILLE_POP) %>%
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dplyr::filter(!is.na(LN_POP)) %>%
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arrange(YEAR) %>% select(-YEAR) %>% ts %>% log
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MOD2 <- bvar(TS_DATA2,lags=5, n_draw=15000)
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plot(irf(MOD2,opt_irf,conf_bands = c(0.05, 0.1,0.15)),area=TRUE,vars_response = c("LN_POP"))
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?plot.bvar_irf
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plot(predict(MOD,horizon=25,conf_bands = c(0.05, 0.1,0.15)),area=TRUE,vars=c("LN_POP"))
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exp(3.5)-exp(3)
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acf(resid(MOD))
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library(tidyverse)
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library(bayesPop)
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library(bayesMig)
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DAT <- read_tsv(us.mig.file)
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DAT[,2] %>% t
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sum(DAT$`2001`)
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# Toy simulation for US states
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dir.create("Output")
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sim.dir <- "./Output"
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us.mig.file <- file.path(find.package("bayesMig"), "extdata", "USmigrates.txt")
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m <- run.mig.mcmc(nr.chains = 2, iter = 100000, thin = 1, my.mig.file = us.mig.file,
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output.dir = sim.dir, present.year = 2017, annual = TRUE)
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pred <- mig.predict(sim.dir = sim.dir, burnin = 5, end.year = 2050)
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mig.trajectories.plot(pred, "Wyoming", pi = 80, ylim = c(-0.03, 0.03))
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load("./Output/bayesMig.mcmc.meta.rda")
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#############
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#subnat example
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data.dir <- "./extdata"
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dir.create("Pop_Output")
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sim.dir <- "./Pop_Output"
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dir.create("Output")
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example(pop.predict.subnat)
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read_tsv(file.path(data.dir, "CANlocations.txt"))
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pred <- pop.predict.subnat(output.dir = sim.dir, locations = file.path(data.dir, "CANlocations.txt"),
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inputs = list(popM = file.path(data.dir, "CANpopM.txt"),popF = file.path(data.dir, "CANpopF.txt")),
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verbose = TRUE)
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pop.pyramid(pred, "Ontario")
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?pop.pyramid
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summary(pred)
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write.pop.trajectories(pred)
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load("Pop_Output/predictions/prediction.rda")
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106
old/Popultaion.R
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old/Popultaion.R
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library(tidyverse)
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library(fixest)
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source("Scripts/Functions.r")
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#source("Scripts/Load_Wyoming_Web_Data.r")
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DATA_TO_GATHER <- list()
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c("WYPOP","WY_POP",TRUE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c("WYNQGSP","WY_GDP",TRUE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c("MEHOINUSWYA646N","WY_MED_INCOME",TRUE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c("BUSAPPWNSAWY","WY_BUISNESS_APPLICATIONS",FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('ACTLISCOUWY','WY_HOUSES_FOR_SALE',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYRVAC','WY_RENTAL_VACANCY_RATE',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYBPPRIVSA','WY_PRIVATE_HOUSING',FALSE)
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#New Private Housing Units Authorized by Building Permits for Wyoming
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('B03002006E056023','LN_FIVE_YEAR_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('GDPALL56023','LN_GDP',TRUE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYLINC3POP','LN_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('LAUCN560230000000005','LN_EMPLOYMENT',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('BPPRIV056023','LN_PRIVE_HOUSING',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('ENU5602320510','LN_NUM_ESTABLISHMENTS',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('GDPALL56041','UINTA_GDP',TRUE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYUINT1POP','UINTA_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYSUBL5POP','SUBLETTE_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYSWEE7POP','SWEETWATER_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('WYTETO9POP','TETON_POP',FALSE)
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##Idaho Counties
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('IDBEAR7POP','BEAR_LAKE_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('IDCARI9POP','CARIBOU_POP',FALSE)
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('IDBONN0POP','BONNEVILLE_POP',FALSE)
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###US Population
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DATA_TO_GATHER[[length(DATA_TO_GATHER)+1]] <- c('POPTOTUSA647NWDB','US_POP',FALSE)
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for(x in 1:length(DATA_TO_GATHER)){
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CURRENT <- DATA_TO_GATHER[[x]]
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if(CURRENT[3]){C_DATA <- CPI_ADJUST(FRED_GET(CURRENT[1],CURRENT[2]))}else{C_DATA <- FRED_GET(CURRENT[1],CURRENT[2])}
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if(x==1){RES <- C_DATA}else{RES <- RES %>% full_join(C_DATA)}
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rm(CURRENT,C_DATA)
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}
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DATA <- RES %>% mutate(US_POP=US_POP-WY_POP,WY_POP=WY_POP-LN_POP-UINTA_POP-SUBLETTE_POP-SWEETWATER_POP-TETON_POP)
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colnames(DATA)
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feols(log(LN_POP) ~log(US_POP)+log(UINTA_POP)+log(WY_POP)+log(SUBLETTE_POP)+log(SWEETWATER_POP)+log(TETON_POP)+log(BEAR_LAKE_POP)+log(CARIBOU_POP)+log(BONNEVILLE_POP)+YEAR,data=DATA)
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TS_DATA_ORIG <- DATA %>% select(YEAR,LN_POP,US_POP,WY_POP,UINTA_POP,SUBLETTE_POP,SWEETWATER_POP,TETON_POP,BEAR_LAKE_POP,CARIBOU_POP,BONNEVILLE_POP) %>% filter(!is.na(LN_POP)) %>% arrange(YEAR) %>% select(-YEAR)
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TS_DATA <- diff(log(ts(TS_DATA_ORIG,start=c(1970),end=c(2024),frequency=1)))
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library("forecast")
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library("vars")
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VARselect(TS_DATA,lag.max=4,type="const")
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VAR1 <- VAR(TS_DATA,p=3,type="const",season=NULL,exog=NULL)
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plot(irf(VAR1,response="LN_POP"))
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plot(forecast(VAR1,))
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RES <- (predict(VAR1, n.ahead = 20, ci = 0.95))
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names(RES )
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names(RES$fcst)
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RES$fcst$LN_POP %>% as_tibble
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CURRENT_POP <- max(DATA$LN_POP,na.rm=TRUE)
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0.0157*CURRENT_POP*1000
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0.083*CURRENT_POP*1000
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-0.0489*CURRENT_POP*1000
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# View the forecasted values and confidence intervals
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print(forecast_results)
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# You can also plot the forecasts
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plot(forecast_results)
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install.packages("sparsegl")
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plot(VAR1)
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#Check a VAR it looks like lags on changes to Private industry could affect other variables
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#Idea check a SVAR placing limits on which shocks are first
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feols((LINC_POP)~(WY_POP)+log(LINC_PRIV_IND)+Year,data=DF)
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feols(log(1000*LINC_POP)~log(LINC_GDP)+log(LINC_PRIV_IND)+log(LINC_LABOR_FORCE)+log(LINC_PRIV_IND)+Year,DF)
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RES
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ggplot(data=RES) +geom_point(aes(x=YEAR,y=WY_POP),color="red")+geom_point(aes(x=YEAR,y=30*LN_POP),color="blue")+geom_point(aes(x=YEAR,y=LN_GDP/1700),color="black")+geom_point(aes(x=YEAR,y=LN_LABOR_FORCE/20),color="orange")
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itial information and data that will be required from Kemmerer-Diamondville Water &
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Wastewater Joint Powers Board includes names of key stakeholders that can be interviewed
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regarding future developments, new businesses, and business closures.
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version
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install.packages("pbkrtest")
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install.packages("bayesPop")
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update.packages(ask=FALSE )
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library("bayesMig")
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help("bayesPop")
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library(bayesMig)
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?mig.predict
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example(mig.predict)
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mig.predict(51)
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library("bayesPop")
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example(bayesMig)
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?bayesMig
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