diff --git a/scripts/create_simple_homog_pop.R b/scripts/create_simple_homog_pop.R
index 00097da..796b139 100644
--- a/scripts/create_simple_homog_pop.R
+++ b/scripts/create_simple_homog_pop.R
@@ -1,9 +1,13 @@
 # generate simple, unstructured synthetic population of arbitrary size
 n <- 1e3
 
-simple_people <- data.frame("age" = rep(1, times = n),
-                            "homeId" = "10000000000")
+simple_people <- data.frame(
+  "age" = rep(1, times = n),
+  "homeId" = "10000000000"
+)
 
-write.csv(x = simple_people,
-          file = "./input/simple_people.csv",
-          row.names = FALSE)
\ No newline at end of file
+write.csv(
+  x = simple_people,
+  file = "./input/simple_people.csv",
+  row.names = FALSE
+)
diff --git a/scripts/make_ode_and_compare.R b/scripts/make_ode_and_compare.R
index 334cddf..b2d6ec2 100644
--- a/scripts/make_ode_and_compare.R
+++ b/scripts/make_ode_and_compare.R
@@ -12,23 +12,24 @@ sir_model <- function(time, state, parameters) {
   S <- state[1]
   I <- state[2]
   R <- state[3]
-  
+
   # Unpack parameters
   beta <- parameters["beta"]
   gamma <- parameters["gamma"]
-  
+
   # Calculate derivatives
   dS <- -beta * S * I / (S + I + R)
   dI <- beta * S * I / (S + I + R) - gamma * I
   dR <- gamma * I
-  
+
   return(list(c(dS, dI, dR)))
 }
 
 # Get input params
 input_params <- fromJSON("./input/input.json")
 pop_size <- nrow(read.csv(
-  file = input_params$epi_isolation.Parameters$synth_population_file))
+  file = input_params$epi_isolation.Parameters$synth_population_file
+))
 
 # Obtain via simulation an estimate of the mean duration of infectiousness
 
@@ -36,14 +37,15 @@ R0 <- input_params$epi_isolation.Parameters$r_0
 gi <- input_params$epi_isolation.Parameters$generation_interval
 reps <- 1e6
 
-ixa_style_duration_I_fx <- function(R0, gi){
+ixa_style_duration_I_fx <- function(R0, gi) {
   infect_attempts <- rpois(n = 1, lambda = R0)
   ifelse(test = infect_attempts == 0,
-         yes = 0,
-         no = max(rexp(n = infect_attempts, rate = 1/gi)))
+    yes = 0,
+    no = max(rexp(n = infect_attempts, rate = 1 / gi))
+  )
 }
 
-sim_I_dur_ixa <- 
+sim_I_dur_ixa <-
   replicate(n = reps, expr = ixa_style_duration_I_fx(R0 = R0, gi = gi))
 
 mean_sim_I_dur_ixa <- mean(sim_I_dur_ixa)
@@ -52,25 +54,31 @@ mean_sim_I_dur_ixa <- mean(sim_I_dur_ixa)
 initial_state <- c(S = pop_size - 1, I = 1, R = 0)
 
 # Define parameters
-gamma = 1 / mean_sim_I_dur_ixa
-beta = input_params$epi_isolation.Parameters$r_0 * gamma
+gamma <- 1 / mean_sim_I_dur_ixa
+beta <- input_params$epi_isolation.Parameters$r_0 * gamma
 parameters <- c(beta = beta, gamma = gamma)
 
 # Time sequence for simulation (e.g., from day 0 to day 100)
 time_sequence <- seq(0, input_params$epi_isolation.Parameters$max_time,
-                     by = input_params$epi_isolation.Parameters$report_period)
+  by = input_params$epi_isolation.Parameters$report_period
+)
 
 # Run the ODE solver
-ode_results <- ode(y = initial_state,
-               times = time_sequence,
-               func = sir_model,
-               parms = parameters)
-
-ode_results_df <- ode_results |> as.data.frame() |> 
+ode_results <- ode(
+  y = initial_state,
+  times = time_sequence,
+  func = sir_model,
+  parms = parameters
+)
+
+ode_results_df <- ode_results |>
+  as.data.frame() |>
   rename(t = time, Susceptible = S, Infectious = I, Recovered = R) |>
-  pivot_longer(cols = c(Susceptible, Infectious, Recovered),
-               names_to = "InfectiousStatus",
-               values_to = "count") |>
+  pivot_longer(
+    cols = c(Susceptible, Infectious, Recovered),
+    names_to = "InfectiousStatus",
+    values_to = "count"
+  ) |>
   mutate(model = "ode_sir")
 
 # make a model where there are multiple infectious compartments
@@ -84,18 +92,18 @@ s3ir_model <- function(time, state, parameters) {
   I2 <- state[3]
   I3 <- state[4]
   R <- state[5]
-  
+
   # Unpack parameters
   beta <- parameters["beta"]
   gamma <- parameters["gamma"] * 3
-  
+
   # Calculate derivatives
   dS <- -beta * S * (I1 + I2 + I3) / (S + I1 + I2 + I3 + R)
   dI1 <- beta * S * (I1 + I2 + I3) / (S + I1 + I2 + I3 + R) - gamma * I1
   dI2 <- gamma * I1 - gamma * I2
   dI3 <- gamma * I2 - gamma * I3
-  dR <- gamma * I3       # Change in recovered population
-  
+  dR <- gamma * I3 # Change in recovered population
+
   return(list(c(dS, dI1, dI2, dI3, dR)))
 }
 
@@ -103,44 +111,54 @@ s3ir_model <- function(time, state, parameters) {
 initial_state_s3ir <- c(S = pop_size - 1, I1 = 1, I2 = 0, I3 = 0, R = 0)
 
 # Run the ODE solver
-ode_s3iR_results <- ode(y = initial_state_s3ir,
-                   times = time_sequence,
-                   func = s3ir_model,
-                   parms = parameters)
-
-ode_s3ir_results_df <- ode_s3iR_results |> as.data.frame() |> 
-  mutate(I = I1 + I2 + I3) |> select(!c(I1, I2, I3)) |>
+ode_s3iR_results <- ode(
+  y = initial_state_s3ir,
+  times = time_sequence,
+  func = s3ir_model,
+  parms = parameters
+)
+
+ode_s3ir_results_df <- ode_s3iR_results |>
+  as.data.frame() |>
+  mutate(I = I1 + I2 + I3) |>
+  select(!c(I1, I2, I3)) |>
   rename(t = time, Susceptible = S, Infectious = I, Recovered = R) |>
-  pivot_longer(cols = c(Susceptible, Infectious, Recovered),
-               names_to = "InfectiousStatus",
-               values_to = "count") |>
+  pivot_longer(
+    cols = c(Susceptible, Infectious, Recovered),
+    names_to = "InfectiousStatus",
+    values_to = "count"
+  ) |>
   mutate(model = "ode_s3ir")
 
 # Load simulation results from Ixa model
 ixa_results_df <- read.csv(
-  file = "./output/person_property_count_multi_rep.csv")
+  file = "./output/person_property_count_multi_rep.csv"
+)
 
 # combine ODE and stochastic results and make plots
-ode_results_df <- ode_results_df |> 
+ode_results_df <- ode_results_df |>
   mutate(ixa_rep = max(ixa_results_df$ixa_rep) + 1)
-ode_s3ir_results_df <- ode_s3ir_results_df |> 
+ode_s3ir_results_df <- ode_s3ir_results_df |>
   mutate(ixa_rep = max(ixa_results_df$ixa_rep) + 2)
 results_df <- rbind(ixa_results_df, ode_results_df, ode_s3ir_results_df)
 
-results_df |> 
-  ggplot(aes(x = t, y = count, group = paste(InfectiousStatus,ixa_rep))) +
+results_df |>
+  ggplot(aes(x = t, y = count, group = paste(InfectiousStatus, ixa_rep))) +
   geom_line(
-    aes(color = InfectiousStatus, linewidth = model, linetype = model)) +
+    aes(color = InfectiousStatus, linewidth = model, linetype = model)
+  ) +
   xlab("Day") +
   ylab("Number of people") +
   scale_linetype_manual(values = c(1, 2, 3)) +
   scale_linewidth_manual(values = c(0.1, 1, 1)) +
   theme_minimal()
 
-results_df |> filter(InfectiousStatus == "Infectious") |>
-  ggplot(aes(x = t, y = count, group = paste(InfectiousStatus,ixa_rep))) +
+results_df |>
+  filter(InfectiousStatus == "Infectious") |>
+  ggplot(aes(x = t, y = count, group = paste(InfectiousStatus, ixa_rep))) +
   geom_line(
-    aes(color = InfectiousStatus, linewidth = model, linetype = model)) +
+    aes(color = InfectiousStatus, linewidth = model, linetype = model)
+  ) +
   xlab("Day") +
   ylab("Number of people") +
   scale_linetype_manual(values = c(1, 2, 3)) +
@@ -149,16 +167,18 @@ results_df |> filter(InfectiousStatus == "Infectious") |>
 
 # simulate durations of infectiousness and plot cdfs for different assumptions
 
-s3ir_duration_I_fx <- function(n_I_comp, mean_ixa){
-  sum(rexp(n = n_I_comp, rate = 1/mean_ixa * n_I_comp))
+s3ir_duration_I_fx <- function(n_I_comp, mean_ixa) {
+  sum(rexp(n = n_I_comp, rate = 1 / mean_ixa * n_I_comp))
 }
 
-sim_I_dur_ode_sir <- 
-  rexp(n = reps, rate = 1/mean_sim_I_dur_ixa)
+sim_I_dur_ode_sir <-
+  rexp(n = reps, rate = 1 / mean_sim_I_dur_ixa)
 
-sim_I_dur_ode_s3ir <- 
-  replicate(n = reps, expr = s3ir_duration_I_fx(n_I_comp = 3,
-                                                mean_ixa = mean_sim_I_dur_ixa))
+sim_I_dur_ode_s3ir <-
+  replicate(n = reps, expr = s3ir_duration_I_fx(
+    n_I_comp = 3,
+    mean_ixa = mean_sim_I_dur_ixa
+  ))
 
 plot(ecdf(sim_I_dur_ixa), main = "CDF of duration of infectiousness")
 plot(ecdf(sim_I_dur_ode_sir), col = "orange", add = TRUE)
diff --git a/scripts/run_ixa_repeatedly.R b/scripts/run_ixa_repeatedly.R
index 40aa6ad..95affb2 100644
--- a/scripts/run_ixa_repeatedly.R
+++ b/scripts/run_ixa_repeatedly.R
@@ -3,7 +3,7 @@
 # so run the script directly from a terminal
 
 # function that changes the seed, runs the model, and gets the output
-run_ixa_rep_fx <- function(ixa_rep){
+run_ixa_rep_fx <- function(ixa_rep) {
   input_params$epi_isolation.Parameters$seed <- ixa_rep
   jsonlite::toJSON(x = input_params, pretty = TRUE, auto_unbox = TRUE) |>
     writeLines("./input/input.json")
@@ -11,7 +11,8 @@ run_ixa_rep_fx <- function(ixa_rep){
   infectious_report <- readr::read_csv(file.path(
     "output",
     "person_property_count.csv"
-  )) |> dplyr::mutate(model = "ixa", ixa_rep = ixa_rep) |> 
+  )) |>
+    dplyr::mutate(model = "ixa", ixa_rep = ixa_rep) |>
     dplyr::select(!c(Age, CensusTract))
   return(infectious_report)
 }
@@ -29,6 +30,8 @@ output <- lapply(X = seq_len(ixa_reps), FUN = run_ixa_rep_fx)
 output_df <- do.call(rbind, output)
 
 # export results
-write.csv(x = output_df,
-          file = "./output/person_property_count_multi_rep.csv",
-          row.names = FALSE)
\ No newline at end of file
+write.csv(
+  x = output_df,
+  file = "./output/person_property_count_multi_rep.csv",
+  row.names = FALSE
+)