Institute for Sociology and Political Science Norwegian University of Science and Technology
June 12, 2024
Outcome
Code
dat$f_support_restrictions<-as.factor(dat$support_restrictions_plus)ans_f_support_restrictions <- dat[, .(.N), by = .(f_support_restrictions, country)]ans_f_support_restrictions[, percent := N /sum(N) *100 , by ="country"]with( ans_f_support_restrictions,plt(facet = country,x =as.numeric(f_support_restrictions), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Prohibiting Firms from Trading High Technology w. China",xlab ="Oppose Strongly to Support Strongly",frame =FALSE ))
Just oppose-support:
Code
dat$f_support_oppose <-as.factor(dat$support_oppose)ans_support_oppose <- dat[, .(.N), by = .(f_support_oppose, country)]ans_support_oppose[, percent := N /sum(N) *100 , by ="country"]with( ans_support_oppose,plt(facet = country,x =as.numeric(f_support_oppose), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Prohibiting Firms from Trading High Technology w. China",xlab ="Oppose, Neither, Support",frame =FALSE ))
Issue Importance sperately:
Code
dat$f_ans_imp<-as.factor(dat$importance_str)ans_imp <- dat[, .(.N), by = .(f_ans_imp, country)]ans_imp[, percent := N /sum(N) *100 , by ="country"]with( ans_imp,plt(facet = country,x =as.numeric(f_ans_imp), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Decision Importance",xlab ="Not at all important to Extremely important ",frame =FALSE ))
Treatment Effekte insgesamt
Code
# Center categorical co variables ------------------contrasts(dat$gender) <-c(-1,1)contrasts(dat$country) <-contr.sum(5)contrasts(dat$edu_cat) <-cbind(c(-1,1,0),c(-1,0,1))contrasts(dat$costs) <-contr.Treatment(n =c("small","large"))contrasts(dat$frame) <-contr.Treatment(n =c("economic","military"))# Center metric co variables ------------------met_cov <-c('EU_gen','sat_life','sat_econ_nat','sat_gov','sat_dem','polint_EU','leftright','poltrust','natatt','global','migration','age')dat[, paste0(met_cov) :=lapply( .SD, scale, scale =FALSE, center =TRUE), .SDcols = met_cov]
avg_costs_w_frame <-data.table(avg_comparisons(mod_2,variables ="costs", by ="frame"))cols <-names(avg_costs_w_frame)[4:7]avg_costs_w_frame[,(cols) :=round(.SD,3), .SDcols=cols]tt(avg_costs_w_frame[,2:7])
tinytable_2i4tw5lmah2pgaqnbdkl
contrast
frame
estimate
std.error
statistic
p.value
mean(large) - mean(small)
economic
-0.017
0.005
-3.122
0.002
mean(large) - mean(small)
military
-0.018
0.006
-3.292
0.001
Average effects of frame within each country
Code
avg_frame_w_country <-data.table(avg_comparisons(mod_2,variables ="frame", by ="country"))cols <-names(avg_frame_w_country)[4:7]avg_frame_w_country[,(cols) :=round(.SD,3), .SDcols=cols]tt(avg_frame_w_country[,2:7])
tinytable_1psmuumv4g7ztxexuh6s
contrast
country
estimate
std.error
statistic
p.value
mean(military) - mean(economic)
France
0.003
0.010
0.285
0.776
mean(military) - mean(economic)
Germany
0.013
0.008
1.705
0.088
mean(military) - mean(economic)
Italy
-0.002
0.008
-0.290
0.772
mean(military) - mean(economic)
Poland
0.012
0.008
1.422
0.155
mean(military) - mean(economic)
Sweden
0.001
0.009
0.097
0.923
Average effects of costs within each country
Code
avg_costs_w_country <-data.table(avg_comparisons(mod_2,variables ="costs", by ="country"))cols <-names(avg_costs_w_country)[4:7]avg_costs_w_country[,(cols) :=round(.SD,3), .SDcols=cols]tt(avg_costs_w_country[,2:7])
tinytable_hdt2krdwamrnq2q425wi
contrast
country
estimate
std.error
statistic
p.value
mean(large) - mean(small)
France
-0.020
0.010
-1.976
0.048
mean(large) - mean(small)
Germany
-0.022
0.008
-2.772
0.006
mean(large) - mean(small)
Italy
-0.029
0.008
-3.663
0.000
mean(large) - mean(small)
Poland
-0.014
0.008
-1.682
0.093
mean(large) - mean(small)
Sweden
-0.003
0.009
-0.346
0.729
Plots
Costs by country
Code
avg_cost <-data.table(avg_comparisons(mod_2,variables ="costs", by ="country"))with( avg_cost,plt(x = country, y = estimate,ymin = conf.low, ymax = conf.high,type ="pointrange", pch =19, col = color_plots,grid =TRUE,lwd =3,xlab ="",main ="Average Treatment Effect of Large vs. Small Costs",frame =FALSE ))abline(h =0, lty =3)
Framing by country
Code
avg_frame <-data.table(avg_comparisons(mod_2,variables ="frame", by ="country"))with( avg_frame,plt(x = country, y = estimate,ymin = conf.low, ymax = conf.high,type ="pointrange", pch =19, col = color_plots,grid =TRUE,lwd =3,xlab ="",main ="Average Treatment Effect of Military vs. Economic Framing",frame =FALSE ))abline(h =0, lty =3)
Group Means by country
Germany
Code
pred_overall<-data.table(avg_predictions(mod_base,variables =c("geo_exp","country")))setorder(pred_overall, cols ="geo_exp") with( pred_overall[country=="Germany"],plt(x = geo_exp, y = estimate,ymin = conf.low, ymax = conf.high,type ="pointrange", pch =19, col = color_plots,grid =TRUE,lwd =3,xlab ="",main ="Average Group Means Germany",frame =FALSE ))
France
Code
with( pred_overall[country=="France"],plt(x = geo_exp, y = estimate,ymin = conf.low, ymax = conf.high,type ="pointrange", pch =19, col = color_plots,grid =TRUE,lwd =3,xlab ="",main ="Average Group Means France",frame =FALSE ))
Italy
Code
with( pred_overall[country=="Italy"],plt(x = geo_exp, y = estimate,ymin = conf.low, ymax = conf.high,pch =19, col = color_plots,type ="pointrange", grid =TRUE,lwd =3,xlab ="",main ="Average Group Means Italy",frame =FALSE ))
Poland
Code
with( pred_overall[country=="Poland"],plt(x = geo_exp, y = estimate,ymin = conf.low, ymax = conf.high,pch =19, col = color_plots,type ="pointrange", grid =TRUE,lwd =3,xlab ="",main ="Average Group Means Poland",frame =FALSE ))
Sweden
Code
with( pred_overall[country=="Sweden"],plt(x = geo_exp, y = estimate,ymin = conf.low, ymax = conf.high,type ="pointrange", pch =19, col = color_plots,grid =TRUE,lwd =3,xlab ="",main ="Average Group Means Sweden",frame =FALSE ))
Plotting Trade Preferences by country
China
Code
dat$f_trade_China <-as.factor(dat$trade_China)ans_trade_China <- dat[, .(.N), by = .(f_trade_China, country)]ans_trade_China[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_China,plt(facet = country,x =as.numeric(f_trade_China), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Should [country] increase or reduce trade with China?",xlab ="Reduce Significantly to Increase Significantly",frame =FALSE ))
India
Code
dat$f_trade_India <-as.factor(dat$trade_India)ans_trade_India <- dat[, .(.N), by = .(f_trade_India, country)]ans_trade_India[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_India,plt(facet = country,x =as.numeric(f_trade_India), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Should [country] increase or reduce trade with India?",xlab ="Reduce Significantly to Increase Significantly",frame =FALSE ))
Brazil
Code
dat$f_trade_Brazil<-as.factor(dat$trade_Brazil)ans_trade_Brazil <- dat[, .(.N), by = .(f_trade_Brazil, country)]ans_trade_Brazil[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_Brazil,plt(facet = country,x =as.numeric(f_trade_Brazil), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Should [country] increase or reduce trade with Brazil?",xlab ="Reduce Significantly to Increase Significantly",frame =FALSE ))
Russia
Code
dat$f_trade_Russia <-as.factor(dat$trade_Russia)ans_trade_Russia <- dat[, .(.N), by = .(f_trade_Russia, country)]ans_trade_Russia[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_Russia,plt(facet = country,x =as.numeric(f_trade_Russia), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Should [country] increase or reduce trade with Russia?",xlab ="Reduce Significantly to Increase Significantly",frame =FALSE ))
USA
Code
dat$f_trade_US<-as.factor(dat$trade_US)ans_trade_US<- dat[, .(.N), by = .(f_trade_US, country)]ans_trade_US[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_US,plt(facet = country,x =as.numeric(f_trade_US), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Should [country] increase or reduce trade with the US?",xlab ="Reduce Significantly to Increase Significantly",frame =FALSE ))
EU
Code
dat$f_trade_EU<-as.factor(dat$trade_EU)ans_trade_EU<- dat[, .(.N), by = .(f_trade_EU, country)]ans_trade_EU[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_EU,plt(facet = country,x =as.numeric(f_trade_EU), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Should [country] increase or reduce trade with EU?",xlab ="Reduce Significantly to Increase Significantly",frame =FALSE ))
Economic Globalisation Attitude
Code
with( dat,plt(density(global, na.rm =TRUE),facet = country,grid =TRUE, col = color_plots, fill = color_plots,main ="Globalisation Scale",xlab ="Opposition to Support",frame =FALSE ))
Power Perceptions
Code
dat$f_power_perc <-as.factor(dat$power_perc)ans_power_perc <- dat[, .(.N), by = .(f_power_perc, country)]ans_power_perc[, percent := N /sum(N) *100 , by ="country"]with( ans_power_perc,plt(facet = country,x =as.numeric(f_power_perc), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots, xlim =c(1,10),main ="Determining [country’s] overall power",xlab ="Military power to Economic power",frame =FALSE ))
Issue Importance Trade
Code
dat$f_trade_issue<-as.factor(dat$issue_trade)ans_trade_issue<- dat[, .(.N), by = .(f_trade_issue, country)]ans_trade_issue[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_issue,plt(facet = country,x =as.numeric(f_trade_issue), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots, main ="Issue Importance: Trade",xlab ="Not important at all to Very important",frame =FALSE ))
Satisfaction with National economy
Code
dat$f_sat_econ_nat<-as.factor(dat$sat_econ_nat)ans_econ_nat<- dat[, .(.N), by = .(f_sat_econ_nat, country)]ans_econ_nat[, percent := N /sum(N) *100 , by ="country"]with( ans_econ_nat,plt(facet = country,x =as.numeric(f_sat_econ_nat), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Satisfaction: National Economy",xlab ="Very dissatisfied to Very satisfied",frame =FALSE ))
Source Code
---title: "Geoeconomics Report"author: - name: Paul Meiners url: www.pmeiners.github.io affiliation: Institute for Sociology and Political Science <br>Norwegian University of Science and Technologyauthor-title: ""affiliation-title: ""published-title: ""date: last-modifiedformat: html: embed-resources: true anchor-sections: true code-tools: true code-fold: true fig-width: 7 fig-height: 6 code-block-bg: "#f1f3f5" code-block-border-left: "#31BAE9" theme: journal toc: true toc-depth: 3 toc-location: left captions: true cap-location: margin table-captions: true tbl-cap-location: margin reference-location: margin pdf: pdf-engine: lualatex toc: false number-sections: true number-depth: 2 top-level-division: section reference-location: document listings: false execute: echo: false header-includes: \usepackage{marginnote, here, relsize, needspace, setspace} \def\it{\emph}comments: hypothesis: falseexecute: warning: false message: false---```{r include = FALSE}# Load three packagesrequire(car)require(data.table)require(tinyplot)require(tinytable)require(estimatr)require(marginaleffects)require(modelsummary)#theme_quarto <- function(x) format_tt(x, quarto = TRUE)#options(tinytable_tt_theme = theme_quarto)color_plots <- "dodgerblue"``````{r include = FALSE}dat <- readRDS(file = "~/Documents/RWD/EUSurvey/data_geoecon.RDS")setDT(dat)dat[, geo_exp := fcase(costs == "small" & frame == "economic", "small/economic", costs == "small" & frame == "military", "small/military", costs == "large" & frame == "economic", "large/economic", costs == "large" & frame == "military", "large/military", default = NA)]dat$geo_exp = factor(dat$geo_exp , levels=c("large/military", "small/military", "large/economic","small/economic"))normalize_fun <- function(x, ...){(x - min(x, ...)) / (max(x, ...) - min(x, ...))}# Rescaling variables ------------cols_num <- c('age','leftright','EU_gen','sat_econ_nat','sat_gov','sat_dem','poltrust','sat_life', 'gentrust','polint','polint_EU','natatt','local','global','power_perc','trade_China','trade_India', 'trade_Brazil','trade_Russia','trade_US','trade_EU','migration','issue_fake','issue_def', 'issue_border','issue_terror','issue_trade','support_restrictions_plus','support_restrictions')dat[, paste0(cols_num) := lapply(.SD, normalize_fun, na.rm = TRUE), .SDcols = cols_num]```# Outcome```{r}dat$f_support_restrictions<-as.factor(dat$support_restrictions_plus)ans_f_support_restrictions <- dat[, .(.N), by = .(f_support_restrictions, country)]ans_f_support_restrictions[, percent := N /sum(N) *100 , by ="country"]with( ans_f_support_restrictions,plt(facet = country,x =as.numeric(f_support_restrictions), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Prohibiting Firms from Trading High Technology w. China",xlab ="Oppose Strongly to Support Strongly",frame =FALSE ))```Just oppose-support:```{r}dat$f_support_oppose <-as.factor(dat$support_oppose)ans_support_oppose <- dat[, .(.N), by = .(f_support_oppose, country)]ans_support_oppose[, percent := N /sum(N) *100 , by ="country"]with( ans_support_oppose,plt(facet = country,x =as.numeric(f_support_oppose), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Prohibiting Firms from Trading High Technology w. China",xlab ="Oppose, Neither, Support",frame =FALSE ))```Issue Importance sperately:```{r}dat$f_ans_imp<-as.factor(dat$importance_str)ans_imp <- dat[, .(.N), by = .(f_ans_imp, country)]ans_imp[, percent := N /sum(N) *100 , by ="country"]with( ans_imp,plt(facet = country,x =as.numeric(f_ans_imp), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Decision Importance",xlab ="Not at all important to Extremely important ",frame =FALSE ))```# Treatment Effekte insgesamt```{r}# Center categorical co variables ------------------contrasts(dat$gender) <-c(-1,1)contrasts(dat$country) <-contr.sum(5)contrasts(dat$edu_cat) <-cbind(c(-1,1,0),c(-1,0,1))contrasts(dat$costs) <-contr.Treatment(n =c("small","large"))contrasts(dat$frame) <-contr.Treatment(n =c("economic","military"))# Center metric co variables ------------------met_cov <-c('EU_gen','sat_life','sat_econ_nat','sat_gov','sat_dem','polint_EU','leftright','poltrust','natatt','global','migration','age')dat[, paste0(met_cov) :=lapply( .SD, scale, scale =FALSE, center =TRUE), .SDcols = met_cov]``````{r}mod_base <-lm_robust(support_restrictions_plus ~ geo_exp*country, data = dat, se_type ="HC3")mod_1 <-lm_robust(support_restrictions_plus ~ costs * frame, data = dat, se_type ="HC3")mod_2 <-lm_robust(support_restrictions_plus ~ costs * frame * (country + gender + edu_cat), data = dat, se_type ="HC3")```## Average effects```{r warning=FALSE}avg_frame <- avg_comparisons(mod_2, variables = "frame")avg_costs <- avg_comparisons(mod_2, variables = "costs")avg_costframe <- data.table(rbind(avg_frame,avg_costs))avg_costframe <- avg_costframe[,2:6]cols <- names(avg_costframe)[2:5]avg_costframe[,(cols) := round(.SD,3), .SDcols=cols]tt(avg_costframe)```## Average effects of costs within each frame```{r warning=FALSE}avg_costs_w_frame <- data.table(avg_comparisons(mod_2, variables = "costs", by = "frame"))cols <- names(avg_costs_w_frame)[4:7]avg_costs_w_frame[,(cols) := round(.SD,3), .SDcols=cols]tt(avg_costs_w_frame[,2:7])```## Average effects of frame within each country```{r warning=FALSE}avg_frame_w_country <- data.table(avg_comparisons(mod_2, variables = "frame", by = "country"))cols <- names(avg_frame_w_country)[4:7]avg_frame_w_country[,(cols) := round(.SD,3), .SDcols=cols]tt(avg_frame_w_country[,2:7])```## Average effects of costs within each country```{r warning=FALSE}avg_costs_w_country <- data.table(avg_comparisons(mod_2, variables = "costs", by = "country"))cols <- names(avg_costs_w_country)[4:7]avg_costs_w_country[,(cols) := round(.SD,3), .SDcols=cols]tt(avg_costs_w_country[,2:7])```# Plots## Costs by country```{r}avg_cost <-data.table(avg_comparisons(mod_2,variables ="costs", by ="country"))with( avg_cost,plt(x = country, y = estimate,ymin = conf.low, ymax = conf.high,type ="pointrange", pch =19, col = color_plots,grid =TRUE,lwd =3,xlab ="",main ="Average Treatment Effect of Large vs. Small Costs",frame =FALSE ))abline(h =0, lty =3)```## Framing by country```{r}avg_frame <-data.table(avg_comparisons(mod_2,variables ="frame", by ="country"))with( avg_frame,plt(x = country, y = estimate,ymin = conf.low, ymax = conf.high,type ="pointrange", pch =19, col = color_plots,grid =TRUE,lwd =3,xlab ="",main ="Average Treatment Effect of Military vs. Economic Framing",frame =FALSE ))abline(h =0, lty =3)```## Group Means by country### Germany```{r}pred_overall<-data.table(avg_predictions(mod_base,variables =c("geo_exp","country")))setorder(pred_overall, cols ="geo_exp") with( pred_overall[country=="Germany"],plt(x = geo_exp, y = estimate,ymin = conf.low, ymax = conf.high,type ="pointrange", pch =19, col = color_plots,grid =TRUE,lwd =3,xlab ="",main ="Average Group Means Germany",frame =FALSE ))```### France```{r}with( pred_overall[country=="France"],plt(x = geo_exp, y = estimate,ymin = conf.low, ymax = conf.high,type ="pointrange", pch =19, col = color_plots,grid =TRUE,lwd =3,xlab ="",main ="Average Group Means France",frame =FALSE ))```### Italy```{r}with( pred_overall[country=="Italy"],plt(x = geo_exp, y = estimate,ymin = conf.low, ymax = conf.high,pch =19, col = color_plots,type ="pointrange", grid =TRUE,lwd =3,xlab ="",main ="Average Group Means Italy",frame =FALSE ))```### Poland```{r}with( pred_overall[country=="Poland"],plt(x = geo_exp, y = estimate,ymin = conf.low, ymax = conf.high,pch =19, col = color_plots,type ="pointrange", grid =TRUE,lwd =3,xlab ="",main ="Average Group Means Poland",frame =FALSE ))```### Sweden```{r}with( pred_overall[country=="Sweden"],plt(x = geo_exp, y = estimate,ymin = conf.low, ymax = conf.high,type ="pointrange", pch =19, col = color_plots,grid =TRUE,lwd =3,xlab ="",main ="Average Group Means Sweden",frame =FALSE ))```# Plotting Trade Preferences by country## China```{r}dat$f_trade_China <-as.factor(dat$trade_China)ans_trade_China <- dat[, .(.N), by = .(f_trade_China, country)]ans_trade_China[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_China,plt(facet = country,x =as.numeric(f_trade_China), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Should [country] increase or reduce trade with China?",xlab ="Reduce Significantly to Increase Significantly",frame =FALSE ))```## India```{r}dat$f_trade_India <-as.factor(dat$trade_India)ans_trade_India <- dat[, .(.N), by = .(f_trade_India, country)]ans_trade_India[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_India,plt(facet = country,x =as.numeric(f_trade_India), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Should [country] increase or reduce trade with India?",xlab ="Reduce Significantly to Increase Significantly",frame =FALSE ))```## Brazil```{r}dat$f_trade_Brazil<-as.factor(dat$trade_Brazil)ans_trade_Brazil <- dat[, .(.N), by = .(f_trade_Brazil, country)]ans_trade_Brazil[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_Brazil,plt(facet = country,x =as.numeric(f_trade_Brazil), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Should [country] increase or reduce trade with Brazil?",xlab ="Reduce Significantly to Increase Significantly",frame =FALSE ))```## Russia```{r}dat$f_trade_Russia <-as.factor(dat$trade_Russia)ans_trade_Russia <- dat[, .(.N), by = .(f_trade_Russia, country)]ans_trade_Russia[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_Russia,plt(facet = country,x =as.numeric(f_trade_Russia), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Should [country] increase or reduce trade with Russia?",xlab ="Reduce Significantly to Increase Significantly",frame =FALSE ))```## USA```{r}dat$f_trade_US<-as.factor(dat$trade_US)ans_trade_US<- dat[, .(.N), by = .(f_trade_US, country)]ans_trade_US[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_US,plt(facet = country,x =as.numeric(f_trade_US), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Should [country] increase or reduce trade with the US?",xlab ="Reduce Significantly to Increase Significantly",frame =FALSE ))```## EU```{r}dat$f_trade_EU<-as.factor(dat$trade_EU)ans_trade_EU<- dat[, .(.N), by = .(f_trade_EU, country)]ans_trade_EU[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_EU,plt(facet = country,x =as.numeric(f_trade_EU), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Should [country] increase or reduce trade with EU?",xlab ="Reduce Significantly to Increase Significantly",frame =FALSE ))```# Economic Globalisation Attitude```{r}with( dat,plt(density(global, na.rm =TRUE),facet = country,grid =TRUE, col = color_plots, fill = color_plots,main ="Globalisation Scale",xlab ="Opposition to Support",frame =FALSE ))```# Power Perceptions```{r}dat$f_power_perc <-as.factor(dat$power_perc)ans_power_perc <- dat[, .(.N), by = .(f_power_perc, country)]ans_power_perc[, percent := N /sum(N) *100 , by ="country"]with( ans_power_perc,plt(facet = country,x =as.numeric(f_power_perc), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots, xlim =c(1,10),main ="Determining [country’s] overall power",xlab ="Military power to Economic power",frame =FALSE ))```# Issue Importance Trade```{r}dat$f_trade_issue<-as.factor(dat$issue_trade)ans_trade_issue<- dat[, .(.N), by = .(f_trade_issue, country)]ans_trade_issue[, percent := N /sum(N) *100 , by ="country"]with( ans_trade_issue,plt(facet = country,x =as.numeric(f_trade_issue), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots, main ="Issue Importance: Trade",xlab ="Not important at all to Very important",frame =FALSE ))```# Satisfaction with National economy```{r}dat$f_sat_econ_nat<-as.factor(dat$sat_econ_nat)ans_econ_nat<- dat[, .(.N), by = .(f_sat_econ_nat, country)]ans_econ_nat[, percent := N /sum(N) *100 , by ="country"]with( ans_econ_nat,plt(facet = country,x =as.numeric(f_sat_econ_nat), y = percent, type="h", lwd =4, grid =TRUE, col = color_plots,main ="Satisfaction: National Economy",xlab ="Very dissatisfied to Very satisfied",frame =FALSE ))```