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Multivariate.R
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Multivariate.R
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#-------------------------------------------------------------------------------
# CLEAR WATER: Predicting Water Quality in Chicago Beaches
#
# All user-defined settings are found in this file
# Make changes below as described to manipulate the model
# The model and evaluation code is located in 30_Model.R and Functions/modelEColi.R
#
# Run this file only - all other code is pulled in by Master.R
#-------------------------------------------------------------------------------
# Load libraries and functions
source("R/00_Startup.R")
#-------------------------------------------------------------------------------
# Ingest Data
#-------------------------------------------------------------------------------
# The following .R files have been run already and are cached in Data/df.Rds
# source("R/10_LabResults.R")
# source("R/11_USGSpredictions.R")
# source("R/12_LockOpenings.R")
# source("R/13_Beach_Water_Levels.R")
# source("R/14_Weather.R")
# source("R/15_WaterQuality.R")
# source("R/20_Clean.R")
# Transform wind variables for modeling
# df$windDirectionMath <- 270 - df$windBearing
# df$windU <- df$windSpeed * cos(df$windDirectionMath)
# df$windV <- df$windSpeed * sin(df$windDirectionMath)
#
# df$windDirectionMath_hourly_1 <- 270 - df$windBearing_hourly_1
# df$windU_hourly_1 <- df$windSpeed_hourly_1 * cos(df$windDirectionMath_hourly_1)
# df$windV_hourly_1 <- df$windSpeed_hourly_1 * sin(df$windDirectionMath_hourly_1)
# df$windDirectionMath_hourly_2 <- 270 - df$windBearing_hourly_2
# df$windU_hourly_2 <- df$windSpeed_hourly_2 * cos(df$windDirectionMath_hourly_2)
# df$windV_hourly_2 <- df$windSpeed_hourly_2 * sin(df$windDirectionMath_hourly_2)
# df$windDirectionMath_hourly_3 <- 270 - df$windBearing_hourly_3
# df$windU_hourly_3 <- df$windSpeed_hourly_3 * cos(df$windDirectionMath_hourly_3)
# df$windV_hourly_3 <- df$windSpeed_hourly_3 * sin(df$windDirectionMath_hourly_3)
# df$windDirectionMath_hourly_4 <- 270 - df$windBearing_hourly_4
# df$windU_hourly_4 <- df$windSpeed_hourly_4 * cos(df$windDirectionMath_hourly_4)
# df$windV_hourly_4 <- df$windSpeed_hourly_4 * sin(df$windDirectionMath_hourly_4)
# df$windDirectionMath_hourly_5 <- 270 - df$windBearing_hourly_5
# df$windU_hourly_5 <- df$windSpeed_hourly_5 * cos(df$windDirectionMath_hourly_5)
# df$windV_hourly_5 <- df$windSpeed_hourly_5 * sin(df$windDirectionMath_hourly_5)
# df$windDirectionMath_hourly_6 <- 270 - df$windBearing_hourly_6
# df$windU_hourly_6 <- df$windSpeed_hourly_6 * cos(df$windDirectionMath_hourly_6)
# df$windV_hourly_6 <- df$windSpeed_hourly_6 * sin(df$windDirectionMath_hourly_6)
# df$windDirectionMath_hourly_7 <- 270 - df$windBearing_hourly_7
# df$windU_hourly_7 <- df$windSpeed_hourly_7 * cos(df$windDirectionMath_hourly_7)
# df$windV_hourly_7 <- df$windSpeed_hourly_7 * sin(df$windDirectionMath_hourly_7)
# df$windDirectionMath_hourly_8 <- 270 - df$windBearing_hourly_8
# df$windU_hourly_8 <- df$windSpeed_hourly_8 * cos(df$windDirectionMath_hourly_8)
# df$windV_hourly_8 <- df$windSpeed_hourly_8 * sin(df$windDirectionMath_hourly_8)
#
# df_shift_1 <- shift_previous_data(1, df)
# df_shift_2 <- shift_previous_data(2, df)
# df_shift_3 <- shift_previous_data(3, df)
#
# df <- cbind(df, df_shift_1[,584:1080])
# df <- cbind(df, df_shift_2[,584:1080])
# df <- cbind(df, df_shift_3[,584:1080])
#
# saveRDS(df, paste0(getwd(),"/Data/df-3-day.Rds"))
df <- readRDS(paste0(getwd(),"/Data/df-3-day.Rds"))
#-------------------------------------------------------------------------------
# ADD PREDICTORS
#-------------------------------------------------------------------------------
df$precipIntensity.3.day.total <- df$precipIntensity.1.daysPrior +
df$precipIntensity.2.daysPrior +
df$precipIntensity.3.daysPrior
df$precipIntensity.by.8am <- df$precipIntensity_hourly_1 +
df$precipIntensity_hourly_2 +
df$precipIntensity_hourly_3 +
df$precipIntensity_hourly_4 +
df$precipIntensity_hourly_5 +
df$precipIntensity_hourly_6 +
df$precipIntensity_hourly_7 +
df$precipIntensity_hourly_8
df$cloudCover.3.day.total <- df$cloudCover.1.daysPrior +
df$cloudCover.2.daysPrior +
df$cloudCover.3.daysPrior
df$sunlightTime <- df$sunsetTime - df$sunriseTime
df$windSpeed.3.day.total <- df$windSpeed.1.daysPrior +
df$windSpeed.2.daysPrior +
df$windSpeed.3.daysPrior
df$windSpeed.by.8am <- df$windSpeed_hourly_1 +
df$windSpeed_hourly_2 +
df$windSpeed_hourly_3 +
df$windSpeed_hourly_4 +
df$windSpeed_hourly_5 +
df$windSpeed_hourly_6 +
df$windSpeed_hourly_7 +
df$windSpeed_hourly_8
df$windU.3.day.total <- df$windU.1.daysPrior +
df$windU.2.daysPrior +
df$windU.3.daysPrior
df$windU.by.8am <- df$windU_hourly_1 +
df$windU_hourly_2 +
df$windU_hourly_3 +
df$windU_hourly_4 +
df$windU_hourly_5 +
df$windU_hourly_6 +
df$windU_hourly_7 +
df$windU_hourly_8
df$windV.3.day.total <- df$windV.1.daysPrior +
df$windV.2.daysPrior +
df$windV.3.daysPrior
df$windV.by.8am <- df$windV_hourly_1 +
df$windV_hourly_2 +
df$windV_hourly_3 +
df$windV_hourly_4 +
df$windV_hourly_5 +
df$windV_hourly_6 +
df$windV_hourly_7 +
df$windV_hourly_8
df$Water.Level.3.day.total <- df$Water.Level.1.daysPrior +
df$Water.Level.1.daysPrior +
df$Water.Level.1.daysPrior
df$DayOfWeek <- as.factor(df$DayOfWeek)
df$Obrien.Lock.Volume.3.day.total <- df$Obrien.Lock.Volume.1.daysPrior +
df$Obrien.Lock.Volume.2.daysPrior +
df$Obrien.Lock.Volume.3.daysPrior
df$CRCW.Lock.Volume.3.day.total <- df$CRCW.Lock.Volume.1.daysPrior +
df$CRCW.Lock.Volume.2.daysPrior +
df$CRCW.Lock.Volume.3.daysPrior
df$Wilmette.Lock.Volume.3.day.total <- df$Wilmette.Lock.Volume.1.daysPrior +
df$Wilmette.Lock.Volume.2.daysPrior +
df$Wilmette.Lock.Volume.3.daysPrior
#-------------------------------------------------------------------------------
# CHOOSE PREDICTORS
# Comment out the predictors that you do not want to use
#-------------------------------------------------------------------------------
# set predictors
df_model <- df[, c("Escherichia.coli", #dependent variable
"Client.ID", #beach name
## Precipitation
"precipProbability",
"precipIntensity.1.daysPrior",
"precipIntensity.3.day.total",
"precipIntensity.by.8am",
## Sunlight
"cloudCover.1.daysPrior",
"cloudCover.3.day.total",
"sunlightTime",
## Wind
"windSpeed.1.daysPrior",
"windSpeed.3.day.total",
"windSpeed.by.8am",
"windU.1.daysPrior",
"windU.3.day.total",
"windU.by.8am",
"windV.1.daysPrior",
"windV.3.day.total",
"windV.by.8am",
## Tidal levels
"moonPhase",
## Lake levels
"Water.Level",
"Water.Level.1.daysPrior",
"Water.Level.3.day.total",
## Density of humans and animals
"DayOfWeek",
"DayOfYear",
### Variables NOT cited in our paper from prior literature
## Lock openings
"Obrien.Lock.Volume.1.daysPrior",
"CRCW.Lock.Volume.1.daysPrior",
"Wilmette.Lock.Volume.1.daysPrior",
"Obrien.Lock.Volume.3.day.total",
"CRCW.Lock.Volume.3.day.total",
"Wilmette.Lock.Volume.3.day.total",
## Today's readings at selected beaches
"Foster_Escherichia.coli",
"North_Avenue_Escherichia.coli",
"n31st_Escherichia.coli",
"Leone_Escherichia.coli",
"South_Shore_Escherichia.coli",
## Train/Test split data
"Year",
"Date"
)]
finaltest <- df_model[df_model$Year == "2016",]
#-------------------------------------------------------------------------------
# CHOOSE TEST/TRAIN SETS
# You can decide whether to use kFolds cross validation or define your own sets
# If you set kFolds to TRUE, the data will be separated into 10 sets
# If you set kFolds to FALSE, the model will use trainStart, trainEnd, etc. (see below)
# CANNOT BE USED IF productionMode = TRUE
#-------------------------------------------------------------------------------
kFolds <- FALSE #If TRUE next 2 lines will not be used but cannot be commented out
testYears <- c("2016")
trainYears <- c("2006", "2007", "2008", "2009","2010", "2011", "2012", "2013", "2014", "2015")
# trainYears <- trainYears[! trainYears %in% testYears]
# If productionMode is set to TRUE, a file named model.Rds will be generated
# Its used is explained at https://github.com/Chicago/clear-water-app
# Set trainYears to what you would like the model to train on
# testYears must still be specified, although not applicable
# plots will not be accurate
productionMode <- FALSE
#-------------------------------------------------------------------------------
# DOWNSAMPLING
# If you set downsample to TRUE, choose the 3 variables below
# The training set will be a 50/50 split of 1) data less than the "lowMax" and
# 2) data between the "highMin" and "highMax"
#-------------------------------------------------------------------------------
# downsample settings
downsample <- FALSE #If FALSE comment out the next 3 lines
highMin <- 235
highMax <- 2500
lowMax <- 235
#-------------------------------------------------------------------------------
# EXCLUDE ENTIRE BEACHES FROM THE TEST SET
# This is important if you use same-day beach test results as a predictor
# If so, the predictor beach should not be a beach that is being predicted
# because the model would then be predicting on data it was trained on.
# Comment out any beach that you used as a predictor.
#-------------------------------------------------------------------------------
excludeBeaches <- c(
# "12th",
"31st",
# "39th",
# "57th",
"63rd",
# "Albion",
"Calumet",
"Foster",
# "Howard",
# "Jarvis",
# "Juneway",
"Leone",
"Montrose",
"North Avenue",
# "Oak Street",
"Ohio",
# "Osterman",
"Rainbow",
# "Rogers",
"South Shore"
)
#-------------------------------------------------------------------------------
# NAME PLOTS
# These are automatically generated based on the settings chosen above
#-------------------------------------------------------------------------------
title1 <- paste0("ROC",
if(kFolds == TRUE) " - kFolds",
if(kFolds == FALSE) " - validate on ",
if(kFolds == FALSE) testYears)
title2 <- paste0("PR Curve",
if(kFolds == TRUE) " - kFolds",
if(kFolds == FALSE) " - validate on ",
if(kFolds == FALSE) testYears)
#-------------------------------------------------------------------------------
# THRESHHOLD
# These settings can be used to manipulate the plots and the model_summary dataframe
#-------------------------------------------------------------------------------
threshBegin <- 1
threshEnd <- 1000
thresh <- 235
#-------------------------------------------------------------------------------
# RUN MODEL
# Plots will generate and results will be saved in "model_summary"
#-------------------------------------------------------------------------------
# runs all modeling code
source("R/30_Model.R", print.eval=TRUE)
# creates a data frame with all model results
# this aggregates the folds to generate one single curve
# for user-defined test set, this doesn't have any effect
model_summary <- plot_data %>%
group_by(thresholds) %>%
summarize(tpr = mean(tpr),
fpr = mean(fpr),
precision = mean(precision, na.rm = TRUE),
recall = mean(recall),
tp = mean(tp),
fn = mean(fn),
tn = mean(tn),
fp = mean(fp)
)
saveRDS(model, paste0("models/", "model-hybrid-plus-other-2016-holdout", ".Rds"))