0.1 Introduction

In this assignment, we are tasked to explore, analyze and model a major league baseball dataset which contains around 2000 records where each record presents a baseball team from 1871 to 2006. Each observation provides the perforamce of the team for that particular year with all the statistics for the performance of 162 game season. The problem statement for the main objective is that “Can we predict the number of wins for the team with the given attributes of each record?”. In order to provide a solution for the problem, our goal is to build a linear regression model on the training data that creates this prediction.

0.1.1 About the Data

The data set are provided in csv format as moneyball-evaluation-data and moneyball-training-data where we will explore, preperate and create our model with the training data and further test the model with the evaluation data. Below is short description of the variables within the datasets.

**INDEX: Identification Variable(Do not use)

**TARGET_WINS: Number of wins

**TEAM_BATTING_H : Base Hits by batters (1B,2B,3B,HR)

**TEAM_BATTING_2B: Doubles by batters (2B)

**TEAM_BATTING_3B: Triples by batters (3B)

**TEAM_BATTING_HR: Homeruns by batters (4B)

**TEAM_BATTING_BB: Walks by batters

**TEAM_BATTING_HBP: Batters hit by pitch (get a free base)

**TEAM_BATTING_SO: Strikeouts by batters

**TEAM_BASERUN_SB: Stolen bases

**TEAM_BASERUN_CS: Caught stealing

**TEAM_FIELDING_E: Errors

**TEAM_FIELDING_DP: Double Plays

**TEAM_PITCHING_BB: Walks allowed

**TEAM_PITCHING_H: Hits allowed

**TEAM_PITCHING_HR: Homeruns allowed

**TEAM_PITCHING_SO: Strikeouts by pitchers

0.2 Data Exploration

0.2.1 Descriptive Statistics

# load libraries
library(ggplot2)
library(ggcorrplot)
library(psych)
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library(statsr)
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## Loading required package: BayesFactor
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## Loading required package: coda
## Loading required package: Matrix
## ************
## Welcome to BayesFactor 0.9.12-4.2. If you have questions, please contact Richard Morey (richarddmorey@gmail.com).
## 
## Type BFManual() to open the manual.
## ************
library(dplyr)
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library(PerformanceAnalytics)
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library(tidyr)
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library(reshape2)
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library(rcompanion)
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library(caret)
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library(MASS)
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library(imputeTS)
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library(rsample)
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library(huxtable)
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library(glmnet)
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library(sjPlot)
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library(modelr)
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# Load data sets

baseball_eva <- read.csv("https://raw.githubusercontent.com/anilak1978/data621/master/moneyball-evaluation-data.csv")
baseball_train <- read.csv("https://raw.githubusercontent.com/anilak1978/data621/master/moneyball-training-data.csv")

We can start exploring our training data set by looking at basic descriptive statistics.

# look at training dataset structure
str(baseball_train)
## 'data.frame':    2276 obs. of  17 variables:
##  $ INDEX           : int  1 2 3 4 5 6 7 8 11 12 ...
##  $ TARGET_WINS     : int  39 70 86 70 82 75 80 85 86 76 ...
##  $ TEAM_BATTING_H  : int  1445 1339 1377 1387 1297 1279 1244 1273 1391 1271 ...
##  $ TEAM_BATTING_2B : int  194 219 232 209 186 200 179 171 197 213 ...
##  $ TEAM_BATTING_3B : int  39 22 35 38 27 36 54 37 40 18 ...
##  $ TEAM_BATTING_HR : int  13 190 137 96 102 92 122 115 114 96 ...
##  $ TEAM_BATTING_BB : int  143 685 602 451 472 443 525 456 447 441 ...
##  $ TEAM_BATTING_SO : int  842 1075 917 922 920 973 1062 1027 922 827 ...
##  $ TEAM_BASERUN_SB : int  NA 37 46 43 49 107 80 40 69 72 ...
##  $ TEAM_BASERUN_CS : int  NA 28 27 30 39 59 54 36 27 34 ...
##  $ TEAM_BATTING_HBP: int  NA NA NA NA NA NA NA NA NA NA ...
##  $ TEAM_PITCHING_H : int  9364 1347 1377 1396 1297 1279 1244 1281 1391 1271 ...
##  $ TEAM_PITCHING_HR: int  84 191 137 97 102 92 122 116 114 96 ...
##  $ TEAM_PITCHING_BB: int  927 689 602 454 472 443 525 459 447 441 ...
##  $ TEAM_PITCHING_SO: int  5456 1082 917 928 920 973 1062 1033 922 827 ...
##  $ TEAM_FIELDING_E : int  1011 193 175 164 138 123 136 112 127 131 ...
##  $ TEAM_FIELDING_DP: int  NA 155 153 156 168 149 186 136 169 159 ...

We have 2276 observations and 17 variables. All of our variables are integer type as expected.

# look at descriptive statistics
metastats <- data.frame(describe(baseball_train))
metastats <- tibble::rownames_to_column(metastats, "STATS")
metastats["pct_missing"] <- round(metastats["n"]/2276, 3)
head(metastats)
STATS vars n mean sd median trimmed mad min max range skew kurtosis se pct_missing
INDEX 1 2.28e+03 1.27e+03 736   1.27e+03 1.27e+03 953   1 2.54e+03 2.53e+03 0.00421 -1.22    15.4   1
TARGET_WINS 2 2.28e+03 80.8      15.8 82        81.3      14.8 0 146        146        -0.399   1.03    0.33  1
TEAM_BATTING_H 3 2.28e+03 1.47e+03 145   1.45e+03 1.46e+03 114   891 2.55e+03 1.66e+03 1.57    7.28    3.03  1
TEAM_BATTING_2B 4 2.28e+03 241        46.8 238        240        47.4 69 458        389        0.215   0.00616 0.981 1
TEAM_BATTING_3B 5 2.28e+03 55.2      27.9 47        52.2      23.7 0 223        223        1.11    1.5     0.586 1
TEAM_BATTING_HR 6 2.28e+03 99.6      60.5 102        97.4      78.6 0 264        264        0.186   -0.963   1.27  1

With the descriptive statistics, we are able to see mean, standard deviation, median, min, max values and percentage of each missing value of each variable. For example, when we look at TEAM_BATTING_H, we see that average 1469 Base hits by batters, with standard deviation of 144, median of 1454 with maximum base hits of 2554.

# Look for missing values
colSums(is.na(baseball_train))
##            INDEX      TARGET_WINS   TEAM_BATTING_H  TEAM_BATTING_2B 
##                0                0                0                0 
##  TEAM_BATTING_3B  TEAM_BATTING_HR  TEAM_BATTING_BB  TEAM_BATTING_SO 
##                0                0                0              102 
##  TEAM_BASERUN_SB  TEAM_BASERUN_CS TEAM_BATTING_HBP  TEAM_PITCHING_H 
##              131              772             2085                0 
## TEAM_PITCHING_HR TEAM_PITCHING_BB TEAM_PITCHING_SO  TEAM_FIELDING_E 
##                0                0              102                0 
## TEAM_FIELDING_DP 
##              286
# Percentage of missing values
missing_values <- metastats %>%
  filter(pct_missing < 1) %>%
  dplyr::select(STATS, pct_missing) %>%
  arrange(pct_missing)
missing_values
STATS pct_missing
TEAM_BATTING_HBP 0.084
TEAM_BASERUN_CS 0.661
TEAM_FIELDING_DP 0.874
TEAM_BASERUN_SB 0.942
TEAM_BATTING_SO 0.955
TEAM_PITCHING_SO 0.955

When we look at the missing values within the training data set, we see that proportionaly against the total observations, TEAM_BATTING_HBP and TEAM_BESARUN_CS variables have the most missing values. We will be handling these missing values in our Data Preperation section.

0.2.2 Correlation and Distribution

# Look at correlation between variables

corr <- round(cor(baseball_train), 1)

ggcorrplot(corr,
           type="lower",
           lab=TRUE,
           lab_size=3,
           method="circle",
           colors=c("tomato2", "white", "springgreen3"),
           title="Correlation of variables in Training Data Set",
           ggtheme=theme_bw)

Team_Batting_H and Team_Batting_2B have the strongest positive correlation with Target_Wins. We also see that, there is a strong correlation between Team_Batting_H and Team_Batting_2B, Team_Pitching_B and TEAM_FIELDING_E. We will consider these findings on model creation as collinearity might complicate model estimation and we want to have explanotry variables to be independent from each other. We will try to avoid adding explanotry variables that are correlated to each other.

Let’s look at the correlations and distribution of the variables in more detail.

# Look at correlation from batting, baserunning, pitching and fielding perspective
Batting_df <- baseball_train[c(2:7, 10)] 
BaseRunning_df <- baseball_train[c(8:9)] 
Pitching_df <- baseball_train[c(11:14)] 
Fielding_df <- baseball_train[c(15:16)]

0.2.2.1 Batting

# Batting Correlations
chart.Correlation(Batting_df, histogram=TRUE, pch=19)

We can see that our response variable TARGET_WINS, TEAM_BATTING_H, TEAM_BATTING_2B, TEAM_BATTING_BB and TEAM_BASERUN_CS are normaly distributed. TEAM_BATTING_HR on the other hand is bimodal.

0.2.2.2 Baserunning

# baserunning Correlation

chart.Correlation(BaseRunning_df, histogram=TRUE, pch=19)

TEAM_BASERUN_SB is right skewed and TEAM_BATTING_SO is bimodal.

0.2.2.3 Pitching

#pitching correlations
chart.Correlation(Pitching_df, histogram=TRUE, pch=19)

TEAM_BATTING_HBP seems to be normally distributed however we shouldnt forget that we have a lot of missing values in this variable.

# fielding correlations
chart.Correlation(Fielding_df, histogram=TRUE, pch=19)

Let’s also look at the outliers and skewness for each varibale.

0.2.3 Outliers and Skewness

par(mfrow=c(3,3))
datasub_1 <- melt(baseball_train)
## No id variables; using all as measure variables
suppressWarnings(ggplot(datasub_1, aes(x= "value", y=value)) + 
                   geom_boxplot(fill='lightblue') + facet_wrap(~variable, scales = 'free') )
## Warning: Removed 3478 rows containing non-finite values (stat_boxplot).

Based on the boxplot we created, TEAM_FIELDING_DP, TEAM_PITCHING_HR, TEAM_BATTING_HR and TEAM_BATTING_SO seem to have the least amount of outliers.

par(mfrow = c(3, 3))
datasub = melt(baseball_train) 
## No id variables; using all as measure variables
suppressWarnings(ggplot(datasub, aes(x= value)) + 
                   geom_density(fill='lightblue') + facet_wrap(~variable, scales = 'free') )
## Warning: Removed 3478 rows containing non-finite values (stat_density).

metastats %>%
  filter(skew > 1) %>%
  dplyr::select(STATS, skew) %>%
  arrange(desc(skew))
STATS skew
TEAM_PITCHING_SO 22.2 
TEAM_PITCHING_H 10.3 
TEAM_PITCHING_BB 6.74
TEAM_FIELDING_E 2.99
TEAM_BASERUN_CS 1.98
TEAM_BASERUN_SB 1.97
TEAM_BATTING_H 1.57
TEAM_BATTING_3B 1.11

We can see that the most skewed variable is TEAM_PITCHING_SO. We will correct the skewed variables in our data preperation section.

When we are creating a linear regression model, we are looking for the fitting line with the least sum of squares, that has the small residuals with minimized squared residuals. From our correlation analysis, we can see that the explatory variable that has the strongest correlation with TARGET_WINS is TEAM_BATTING_H. Let’s look at a simple model example to further expand our explaroty analysis.

0.2.4 Simple Model Example

# line that follows the best assocation between two variables

plot_ss(x = TEAM_BATTING_H, y = TARGET_WINS, data=baseball_train, showSquares = TRUE, leastSquares = TRUE)

## 
                                
## Call:
## lm(formula = y ~ x, data = data)
## 
## Coefficients:
## (Intercept)            x  
##    18.56233      0.04235  
## 
## Sum of Squares:  479178.4

When we are exploring to build a linear regression, one of the first thing we do is to create a scatter plot of the response and explanatory variable.

# scatter plot between TEAM_BATTING_H and TARGET_WINS

ggplot(baseball_train, aes(x=TEAM_BATTING_H, y=TARGET_WINS))+
  geom_point()

One of the conditions for least square lines or linear regression are Linearity. From the scatter plot between TEAM_BATTING_H and TARGET_WINS, we can see this condition is met. We can also create a scatterplot that shows the data points between TARGET_WINS and each variable.

baseball_train %>%
  gather(var, val, -TARGET_WINS) %>%
  ggplot(., aes(val, TARGET_WINS))+
  geom_point()+
  facet_wrap(~var, scales="free", ncol=4)
## Warning: Removed 3478 rows containing missing values (geom_point).

As we displayed earlier, hits walks and home runs have the strongest correlations with TARGET_WINS and also meets the linearity condition.

# create a simple example model
lm_sm <- lm(baseball_train$TARGET_WINS ~ baseball_train$TEAM_BATTING_H)
summary(lm_sm)
## 
## Call:
## lm(formula = baseball_train$TARGET_WINS ~ baseball_train$TEAM_BATTING_H)
## 
## Residuals:
##     Min      1Q  Median      3Q     Max 
## -71.768  -8.757   0.856   9.762  46.016 
## 
## Coefficients:
##                                Estimate Std. Error t value Pr(>|t|)    
## (Intercept)                   18.562326   3.107523   5.973 2.69e-09 ***
## baseball_train$TEAM_BATTING_H  0.042353   0.002105  20.122  < 2e-16 ***
## ---
## Signif. codes:  0 '***' 0.001 '**' 0.01 '*' 0.05 '.' 0.1 ' ' 1
## 
## Residual standard error: 14.52 on 2274 degrees of freedom
## Multiple R-squared:  0.1511, Adjusted R-squared:  0.1508 
## F-statistic: 404.9 on 1 and 2274 DF,  p-value: < 2.2e-16

TARET_BATTING_H has the strongest correlation with TARGET_WINS response variable, however when we create a simple model just using TARGET_BATTING_H, we can only explain 15% of the variablity. (Adjusted R-squared: 0.1508). The remainder of the varibility can be explained with selected other variables within the training dataset.

#histogram of residuals for the simple model
hist(lm_sm$residuals)

# check for constant variability (honoscedasticity)

plot(lm_sm$residuals ~ baseball_train$TEAM_BATTING_H)

We do see that the residuals are distributed normally and variability around the regression line is roughly constant.

Based on our explatory analysis, we were able to see the correlation level between the possible explanatory variables and repsonse variable TARGET_WINS. Some of the variables such as TARGET_BATTING_H has somewhat strong positive correlation, however some of the variables such as TEAM_PITCHING_BB has weak positive relationship with TARGET_WINS. We also found out, hit by the pitcher(TEAM_BATTING_HBP) and caught stealing (TEAM_BASERUN_CS) variables are missing majority of the values. Skewness and distribution analysis gave us the insights that we have some variables that are right-tailed. Considering all of these insights, we will handle missing values, correct skewness and outliers and select our explaratory variables based on correlation in order to create our regression model.

0.3 Data Preparation

0.3.1 Objective

In this section, we will prepare the dataset for linear regression modeling. We accomplish this by handling missing values and outliers and by tranforming the data into more normal distributions. This section covers:

Identify and Handle Missing Data Correct Outliers *Adjust Skewed value - Box Cox Transformation

First, we will start by copying the dataset into a new variable, baseball_train_01, and we will remove the Index variable from the new dataset as well. We will now have 16 variables.

baseball_train_01 <- baseball_train

baseball_train_01 <-subset(baseball_train_01, select = -c(INDEX))

0.3.2 Identify and Handle Missing Data

0.3.2.1 Removal of Sparsely Populated Variables - MCAR

In the Data Exploration section, we identified these variables as having missing data values.The table below lists the variables with missing data. The variable, TEAM_BATTING_HBP, is sparsely populated. Since this data is Missing Completely at Random (MCAR) and is not related to any other variable, it is safe to completely remove the variable from the dataset.

missing_values
STATS pct_missing
TEAM_BATTING_HBP 0.084
TEAM_BASERUN_CS 0.661
TEAM_FIELDING_DP 0.874
TEAM_BASERUN_SB 0.942
TEAM_BATTING_SO 0.955
TEAM_PITCHING_SO 0.955
baseball_train_01 <-subset(baseball_train_01, select = -c(TEAM_BATTING_HBP))

There are now 15 variables.

dim(baseball_train_01)
## [1] 2276   15

0.3.2.2 Imputation of Missing Values

For the remaining variables with missing values, we will impute the mean of the variable. The function, “na_mean” updates all missing values with the mean of the variable.

baseball_train_01 <- na_mean(baseball_train_01, option = "mean")  

Re-running the metastats dataframe on the new baseball_train_01 dataset shows that there are no missing values.

# look at descriptive statistics
metastats <- data.frame(describe(baseball_train_01))
metastats <- tibble::rownames_to_column(metastats, "STATS")
metastats["pct_missing"] <- round(metastats["n"]/2276, 3)
# Percentage of missing values
missing_values2 <- metastats %>%
  filter(pct_missing < 1) %>%
  dplyr::select(STATS, pct_missing) %>%
  arrange(pct_missing)
missing_values2
## Warning in max(nchar(as.character(col), type = "width")): no non-missing
## arguments to max; returning -Inf

## Warning in max(nchar(as.character(col), type = "width")): no non-missing
## arguments to max; returning -Inf
STATS pct_missing

0.3.3 Correct Outliers

In this section, we created two functions that can identify outliers. The funcion, Identify_Outlier, uses the Turkey method, where outliers are identified by being below Q1-1.5IQR and above Q3+1.5IQR. The second function, tag_outlier, returns a binary list of values, “Acceptable” or “Outlier” that will be added to the dataframe.

Identify_Outlier <- function(value){

    interquartile_range = IQR(sort(value),na.rm = TRUE)
    q1 = matrix(c(quantile(sort(value),na.rm = TRUE)))[2]
    q3 = matrix(c(quantile(sort(value),na.rm = TRUE)))[4]
    lower = q1-(1.5*interquartile_range)
    upper = q3+(1.5*interquartile_range)
    
    bound <- c(lower, upper)
    
    return (bound)
}
tag_outlier <- function(value) {
    
   boundaries <- Identify_Outlier(value)
   tags <- c()
   counter = 1
    for (i in as.numeric(value))
    {

        if (i >= boundaries[1] & i <= boundaries[2]){
          tags[counter] <- "Acceptable"
        } else{
          tags[counter] <- "Outlier"
        }
      
      counter = counter +1
    }
   
   return (tags)
}

As seen in the box plots from the previous section, “TEAM_BASERUN_SB”, “TEAM_BASERUN_CS”, “TEAM_PITCHING_H”, “TEAM_PITCHING_BB”, “TEAM_PITCHING_SO”, and “TEAM_FIELDING_E” all have a high number of outliers. We will use the two functions above to tag those rows with extreme outliers.

tags<- tag_outlier(baseball_train_01$TEAM_BASERUN_SB)
baseball_train_01$TEAM_BASERUN_SB_Outlier <- tags

tags<- tag_outlier(baseball_train_01$TEAM_BASERUN_CS)
baseball_train_01$TEAM_BASERUN_CS_Outlier <- tags

tags<- tag_outlier(baseball_train_01$TEAM_PITCHING_H)
baseball_train_01$TEAM_PITCHING_H_Outlier <- tags

tags<- tag_outlier(baseball_train_01$TEAM_PITCHING_BB)
baseball_train_01$TEAM_PITCHING_BB_Outlier <- tags

tags<- tag_outlier(baseball_train_01$TEAM_PITCHING_SO)
baseball_train_01$TEAM_PITCHING_SO_Outlier <- tags

tags<- tag_outlier(baseball_train_01$TEAM_FIELDING_E)
baseball_train_01$TEAM_FIELDING_E_Outlier <- tags

Below, we filtered out all of the outliers and created a new dataframe, baseball_train_02

baseball_train_02 <- baseball_train_01 %>%
                filter(
                        TEAM_BASERUN_SB_Outlier != "Outlier" &
                        TEAM_BASERUN_CS_Outlier != "Outlier" &
                        TEAM_PITCHING_H_Outlier != "Outlier" &
                        TEAM_PITCHING_BB_Outlier != "Outlier" &
                        TEAM_PITCHING_SO_Outlier != "Outlier" &
                        TEAM_FIELDING_E_Outlier != "Outlier"
                )

Re-running the boxplots show data that has a better normal distribution except for the variable, TEAM_FIELDING_E which is still skewed. We will handle this next.

par(mfrow=c(3,3))
datasub_1 <- melt(baseball_train_02)
## Using TEAM_BASERUN_SB_Outlier, TEAM_BASERUN_CS_Outlier, TEAM_PITCHING_H_Outlier, TEAM_PITCHING_BB_Outlier, TEAM_PITCHING_SO_Outlier, TEAM_FIELDING_E_Outlier as id variables
suppressWarnings(ggplot(datasub_1, aes(x= "value", y=value)) + 
                   geom_boxplot(fill='lightblue') + facet_wrap(~variable, scales = 'free') )

0.3.4 Adjust Skewed values

0.3.4.1 Box Cox Transformation

Removing the outliers tranformed each variable to a closer to a normal distribution and checking the skewness of the variables confirm this with the exception of TEAM_FIELDING_E. This variable is still skewed and not normal. In this section, we will use the Box Cox tranformation from the MASS library to normalize this variable.

metastats_02 <- data.frame(describe(baseball_train_02))
## Warning in describe(baseball_train_02): NAs introduced by coercion

## Warning in describe(baseball_train_02): NAs introduced by coercion

## Warning in describe(baseball_train_02): NAs introduced by coercion

## Warning in describe(baseball_train_02): NAs introduced by coercion

## Warning in describe(baseball_train_02): NAs introduced by coercion

## Warning in describe(baseball_train_02): NAs introduced by coercion
## Warning in FUN(newX[, i], ...): no non-missing arguments to min; returning
## Inf

## Warning in FUN(newX[, i], ...): no non-missing arguments to min; returning
## Inf

## Warning in FUN(newX[, i], ...): no non-missing arguments to min; returning
## Inf

## Warning in FUN(newX[, i], ...): no non-missing arguments to min; returning
## Inf

## Warning in FUN(newX[, i], ...): no non-missing arguments to min; returning
## Inf

## Warning in FUN(newX[, i], ...): no non-missing arguments to min; returning
## Inf
## Warning in FUN(newX[, i], ...): no non-missing arguments to max; returning
## -Inf

## Warning in FUN(newX[, i], ...): no non-missing arguments to max; returning
## -Inf

## Warning in FUN(newX[, i], ...): no non-missing arguments to max; returning
## -Inf

## Warning in FUN(newX[, i], ...): no non-missing arguments to max; returning
## -Inf

## Warning in FUN(newX[, i], ...): no non-missing arguments to max; returning
## -Inf

## Warning in FUN(newX[, i], ...): no non-missing arguments to max; returning
## -Inf
metastats_02 <- tibble::rownames_to_column(metastats_02, "STATS") 
 
metastats_02 %>%
 filter(skew > 1 | skew < -1) %>%
  dplyr::select(STATS, skew) %>%
  arrange(desc(skew))
STATS skew
TEAM_FIELDING_E 1.45

Looking at the histogram and QQ plots we can confirm that the variable, TEAM_FIELDING_E, is not normally distributed. It is skewed to the right.

plotNormalHistogram(baseball_train_02$TEAM_FIELDING_E)

qqnorm(baseball_train_02$TEAM_FIELDING_E,
       ylab="Sample Quantiles for TEAM_FIELDING_E")    
         qqline(baseball_train_02$TEAM_FIELDING_E,
           col="blue")

The following Box Cox transformation section is based on the tutorial at the link below:

[://rcompanion.org/handbook/I_12.html][Summary and Analysis of Extension Program Evaluation in R]

The Box Cox procedure uses a log-likelihood to find the lambda to use to transform a variable to a normal distribution.

TEAM_FIELDING_E <- as.numeric(dplyr::pull(baseball_train_02, TEAM_FIELDING_E))

#Transforms TEAM_FIELDING_E as a single vector 
Box = boxcox(TEAM_FIELDING_E ~ 1, lambda = seq(-6,6,0.1))

#Creates a dataframe with results
Cox = data.frame(Box$x, Box$y)

# Order the new data frame by decreasing y to find the best lambda.Displays the lambda with the greatest log likelihood.
Cox2 = Cox[with(Cox, order(-Cox$Box.y)),]
Cox2[1,] 
Box.x Box.y
-0.8 -3.95e+03
#Extract that lambda and Transform the data
lambda = Cox2[1, "Box.x"]
T_box = (TEAM_FIELDING_E ^ lambda - 1)/lambda

We can now see that TEAM_FIELDING_E has a normal distribution.

plotNormalHistogram(T_box)

qqnorm(T_box, ylab="Sample Quantiles for TEAM_FIELDING_E")
qqline(T_box,
        col="blue")

baseball_train_02$TEAM_FIELDING_E <- T_box

The density plots below show that all of the variables for the dataset baseball_train_02 are now normally distributed. In the next section, we will use this dataset to build the models and discuss the coefficients of the models.

par(mfrow = c(3, 3))
datasub = melt(baseball_train_02) 
suppressWarnings(ggplot(datasub, aes(x= value)) + 
                   geom_density(fill='lightblue') + facet_wrap(~variable, scales = 'free') )

Viewing the dataframe shows that the dataset contains characters resulting from the transfromation of the outliers. These non numeric characters will impact our models especially if we build the intial baseline model with all the variables. We will need one more step to have our data ready for the models.

str(baseball_train_02)
## 'data.frame':    1521 obs. of  21 variables:
##  $ TARGET_WINS             : int  70 82 75 80 85 76 78 87 88 66 ...
##  $ TEAM_BATTING_H          : int  1387 1297 1279 1244 1273 1271 1305 1417 1563 1460 ...
##  $ TEAM_BATTING_2B         : int  209 186 200 179 171 213 179 226 242 239 ...
##  $ TEAM_BATTING_3B         : int  38 27 36 54 37 18 27 28 43 32 ...
##  $ TEAM_BATTING_HR         : int  96 102 92 122 115 96 82 108 164 107 ...
##  $ TEAM_BATTING_BB         : int  451 472 443 525 456 441 374 539 589 546 ...
##  $ TEAM_BATTING_SO         : num  922 920 973 1062 1027 ...
##  $ TEAM_BASERUN_SB         : num  43 49 107 80 40 72 60 86 100 92 ...
##  $ TEAM_BASERUN_CS         : num  30 39 59 54 36 34 39 69 53 64 ...
##  $ TEAM_PITCHING_H         : int  1396 1297 1279 1244 1281 1271 1364 1417 1563 1478 ...
##  $ TEAM_PITCHING_HR        : int  97 102 92 122 116 96 86 108 164 108 ...
##  $ TEAM_PITCHING_BB        : int  454 472 443 525 459 441 391 539 589 553 ...
##  $ TEAM_PITCHING_SO        : num  928 920 973 1062 1033 ...
##  $ TEAM_FIELDING_E         : num  1.23 1.23 1.22 1.23 1.22 ...
##  $ TEAM_FIELDING_DP        : num  156 168 149 186 136 159 141 136 172 146 ...
##  $ TEAM_BASERUN_SB_Outlier : chr  "Acceptable" "Acceptable" "Acceptable" "Acceptable" ...
##  $ TEAM_BASERUN_CS_Outlier : chr  "Acceptable" "Acceptable" "Acceptable" "Acceptable" ...
##  $ TEAM_PITCHING_H_Outlier : chr  "Acceptable" "Acceptable" "Acceptable" "Acceptable" ...
##  $ TEAM_PITCHING_BB_Outlier: chr  "Acceptable" "Acceptable" "Acceptable" "Acceptable" ...
##  $ TEAM_PITCHING_SO_Outlier: chr  "Acceptable" "Acceptable" "Acceptable" "Acceptable" ...
##  $ TEAM_FIELDING_E_Outlier : chr  "Acceptable" "Acceptable" "Acceptable" "Acceptable" ...

Subsetting - The code below will subset the data to have only numeric or integer values that will be used for our models. This will create baseball_train_03 dataframe.

baseball_train_03 <- baseball_train_02[c(1:15) ]
str(baseball_train_03)
## 'data.frame':    1521 obs. of  15 variables:
##  $ TARGET_WINS     : int  70 82 75 80 85 76 78 87 88 66 ...
##  $ TEAM_BATTING_H  : int  1387 1297 1279 1244 1273 1271 1305 1417 1563 1460 ...
##  $ TEAM_BATTING_2B : int  209 186 200 179 171 213 179 226 242 239 ...
##  $ TEAM_BATTING_3B : int  38 27 36 54 37 18 27 28 43 32 ...
##  $ TEAM_BATTING_HR : int  96 102 92 122 115 96 82 108 164 107 ...
##  $ TEAM_BATTING_BB : int  451 472 443 525 456 441 374 539 589 546 ...
##  $ TEAM_BATTING_SO : num  922 920 973 1062 1027 ...
##  $ TEAM_BASERUN_SB : num  43 49 107 80 40 72 60 86 100 92 ...
##  $ TEAM_BASERUN_CS : num  30 39 59 54 36 34 39 69 53 64 ...
##  $ TEAM_PITCHING_H : int  1396 1297 1279 1244 1281 1271 1364 1417 1563 1478 ...
##  $ TEAM_PITCHING_HR: int  97 102 92 122 116 96 86 108 164 108 ...
##  $ TEAM_PITCHING_BB: int  454 472 443 525 459 441 391 539 589 553 ...
##  $ TEAM_PITCHING_SO: num  928 920 973 1062 1033 ...
##  $ TEAM_FIELDING_E : num  1.23 1.23 1.22 1.23 1.22 ...
##  $ TEAM_FIELDING_DP: num  156 168 149 186 136 159 141 136 172 146 ...

0.4 Build Models

The first Model is using stepwise in Backward direction to eliminate variables, this is an automated process which is different from the manual variable selction process. We will not pay much attention to this process as the focus of the project is to manually identify and select those significant variables that will predict TARGET WINS.

Model <- step(lm(TARGET_WINS ~ ., data=baseball_train_03), direction = "backward")
## Start:  AIC=7313.35
## TARGET_WINS ~ TEAM_BATTING_H + TEAM_BATTING_2B + TEAM_BATTING_3B + 
##     TEAM_BATTING_HR + TEAM_BATTING_BB + TEAM_BATTING_SO + TEAM_BASERUN_SB + 
##     TEAM_BASERUN_CS + TEAM_PITCHING_H + TEAM_PITCHING_HR + TEAM_PITCHING_BB + 
##     TEAM_PITCHING_SO + TEAM_FIELDING_E + TEAM_FIELDING_DP
## 
##                    Df Sum of Sq    RSS    AIC
## - TEAM_PITCHING_H   1       0.7 182710 7311.4
## - TEAM_PITCHING_HR  1     162.2 182872 7312.7
## - TEAM_BATTING_H    1     216.2 182926 7313.2
## <none>                          182709 7313.4
## - TEAM_BASERUN_CS   1     330.3 183040 7314.1
## - TEAM_BATTING_HR   1     338.0 183047 7314.2
## - TEAM_PITCHING_BB  1     363.7 183073 7314.4
## - TEAM_BATTING_BB   1     629.6 183339 7316.6
## - TEAM_PITCHING_SO  1    1242.9 183952 7321.7
## - TEAM_BATTING_SO   1    1857.6 184567 7326.7
## - TEAM_BATTING_2B   1    1864.9 184574 7326.8
## - TEAM_FIELDING_DP  1    6690.2 189400 7366.1
## - TEAM_BATTING_3B   1    7536.4 190246 7372.8
## - TEAM_BASERUN_SB   1    8080.4 190790 7377.2
## - TEAM_FIELDING_E   1   18743.7 201453 7459.9
## 
## Step:  AIC=7311.36
## TARGET_WINS ~ TEAM_BATTING_H + TEAM_BATTING_2B + TEAM_BATTING_3B + 
##     TEAM_BATTING_HR + TEAM_BATTING_BB + TEAM_BATTING_SO + TEAM_BASERUN_SB + 
##     TEAM_BASERUN_CS + TEAM_PITCHING_HR + TEAM_PITCHING_BB + TEAM_PITCHING_SO + 
##     TEAM_FIELDING_E + TEAM_FIELDING_DP
## 
##                    Df Sum of Sq    RSS    AIC
## - TEAM_PITCHING_HR  1     173.3 182883 7310.8
## <none>                          182710 7311.4
## - TEAM_BASERUN_CS   1     331.1 183041 7312.1
## - TEAM_BATTING_HR   1     358.9 183069 7312.3
## - TEAM_PITCHING_SO  1    1259.1 183969 7319.8
## - TEAM_PITCHING_BB  1    1509.7 184220 7321.9
## - TEAM_BATTING_2B   1    1876.6 184587 7324.9
## - TEAM_BATTING_SO   1    1880.0 184590 7324.9
## - TEAM_BATTING_BB   1    2658.3 185368 7331.3
## - TEAM_BATTING_H    1    4833.0 187543 7349.1
## - TEAM_FIELDING_DP  1    6705.4 189416 7364.2
## - TEAM_BATTING_3B   1    7548.6 190259 7370.9
## - TEAM_BASERUN_SB   1    8142.6 190853 7375.7
## - TEAM_FIELDING_E   1   18841.1 201551 7458.6
## 
## Step:  AIC=7310.8
## TARGET_WINS ~ TEAM_BATTING_H + TEAM_BATTING_2B + TEAM_BATTING_3B + 
##     TEAM_BATTING_HR + TEAM_BATTING_BB + TEAM_BATTING_SO + TEAM_BASERUN_SB + 
##     TEAM_BASERUN_CS + TEAM_PITCHING_BB + TEAM_PITCHING_SO + TEAM_FIELDING_E + 
##     TEAM_FIELDING_DP
## 
##                    Df Sum of Sq    RSS    AIC
## <none>                          182883 7310.8
## - TEAM_BASERUN_CS   1     418.7 183302 7312.3
## - TEAM_PITCHING_SO  1    1202.0 184085 7318.8
## - TEAM_PITCHING_BB  1    1537.3 184421 7321.5
## - TEAM_BATTING_2B   1    1928.3 184812 7324.8
## - TEAM_BATTING_SO   1    1977.9 184861 7325.2
## - TEAM_BATTING_BB   1    2678.0 185561 7330.9
## - TEAM_BATTING_H    1    4860.2 187744 7348.7
## - TEAM_BATTING_HR   1    5541.1 188424 7354.2
## - TEAM_BATTING_3B   1    7420.8 190304 7369.3
## - TEAM_FIELDING_DP  1    7423.8 190307 7369.3
## - TEAM_BASERUN_SB   1    9570.9 192454 7386.4
## - TEAM_FIELDING_E   1   18687.6 201571 7456.8
summary(Model)
## 
## Call:
## lm(formula = TARGET_WINS ~ TEAM_BATTING_H + TEAM_BATTING_2B + 
##     TEAM_BATTING_3B + TEAM_BATTING_HR + TEAM_BATTING_BB + TEAM_BATTING_SO + 
##     TEAM_BASERUN_SB + TEAM_BASERUN_CS + TEAM_PITCHING_BB + TEAM_PITCHING_SO + 
##     TEAM_FIELDING_E + TEAM_FIELDING_DP, data = baseball_train_03)
## 
## Residuals:
##     Min      1Q  Median      3Q     Max 
## -45.468  -6.985  -0.128   7.454  34.637 
## 
## Coefficients:
##                    Estimate Std. Error t value Pr(>|t|)    
## (Intercept)       1.368e+03  1.084e+02  12.624  < 2e-16 ***
## TEAM_BATTING_H    3.169e-02  5.006e-03   6.331 3.22e-10 ***
## TEAM_BATTING_2B  -4.198e-02  1.053e-02  -3.987 7.00e-05 ***
## TEAM_BATTING_3B   1.756e-01  2.244e-02   7.822 9.68e-15 ***
## TEAM_BATTING_HR   7.519e-02  1.112e-02   6.759 1.97e-11 ***
## TEAM_BATTING_BB   1.564e-01  3.328e-02   4.699 2.85e-06 ***
## TEAM_BATTING_SO  -8.768e-02  2.171e-02  -4.038 5.65e-05 ***
## TEAM_BASERUN_SB   6.625e-02  7.458e-03   8.884  < 2e-16 ***
## TEAM_BASERUN_CS  -6.510e-02  3.503e-02  -1.858 0.063350 .  
## TEAM_PITCHING_BB -1.130e-01  3.175e-02  -3.560 0.000382 ***
## TEAM_PITCHING_SO  6.484e-02  2.059e-02   3.148 0.001675 ** 
## TEAM_FIELDING_E  -1.085e+03  8.739e+01 -12.413  < 2e-16 ***
## TEAM_FIELDING_DP -1.121e-01  1.433e-02  -7.824 9.56e-15 ***
## ---
## Signif. codes:  0 '***' 0.001 '**' 0.01 '*' 0.05 '.' 0.1 ' ' 1
## 
## Residual standard error: 11.01 on 1508 degrees of freedom
## Multiple R-squared:  0.3725, Adjusted R-squared:  0.3675 
## F-statistic: 74.59 on 12 and 1508 DF,  p-value: < 2.2e-16

The step backward variable selection process identified eleven significant variables with an R-squared of 37%, Residual Error of 11.01 and F-Statistic of 74.59. Notice that some of the coefficients are negative which means these Team will most likely result in negative wins. We will explore these coefficient a little further in this analysis.

0.4.1 OLS- MODEL 1

Using all the 15 Variables

Model1 <-lm(TARGET_WINS ~ ., data=baseball_train_03)
summary(Model1)
## 
## Call:
## lm(formula = TARGET_WINS ~ ., data = baseball_train_03)
## 
## Residuals:
##     Min      1Q  Median      3Q     Max 
## -45.067  -7.014  -0.101   7.499  34.361 
## 
## Coefficients:
##                    Estimate Std. Error t value Pr(>|t|)    
## (Intercept)       1.376e+03  1.089e+02  12.634  < 2e-16 ***
## TEAM_BATTING_H    2.992e-02  2.242e-02   1.335   0.1821    
## TEAM_BATTING_2B  -4.140e-02  1.056e-02  -3.921 9.23e-05 ***
## TEAM_BATTING_3B   1.775e-01  2.252e-02   7.882 6.15e-15 ***
## TEAM_BATTING_HR   2.424e-01  1.452e-01   1.669   0.0953 .  
## TEAM_BATTING_BB   1.606e-01  7.051e-02   2.278   0.0229 *  
## TEAM_BATTING_SO  -1.072e-01  2.741e-02  -3.913 9.52e-05 ***
## TEAM_BASERUN_SB   6.361e-02  7.794e-03   8.161 6.94e-16 ***
## TEAM_BASERUN_CS  -5.853e-02  3.547e-02  -1.650   0.0992 .  
## TEAM_PITCHING_H   1.587e-03  2.058e-02   0.077   0.9386    
## TEAM_PITCHING_HR -1.617e-01  1.398e-01  -1.156   0.2478    
## TEAM_PITCHING_BB -1.166e-01  6.735e-02  -1.732   0.0836 .  
## TEAM_PITCHING_SO  8.366e-02  2.614e-02   3.201   0.0014 ** 
## TEAM_FIELDING_E  -1.092e+03  8.785e+01 -12.430  < 2e-16 ***
## TEAM_FIELDING_DP -1.086e-01  1.463e-02  -7.426 1.87e-13 ***
## ---
## Signif. codes:  0 '***' 0.001 '**' 0.01 '*' 0.05 '.' 0.1 ' ' 1
## 
## Residual standard error: 11.01 on 1506 degrees of freedom
## Multiple R-squared:  0.3731, Adjusted R-squared:  0.3672 
## F-statistic: 64.01 on 14 and 1506 DF,  p-value: < 2.2e-16

This Model identified seven significant variables at = 0.05 with an R-squared of 37%, Residual Error of 11.01 and F-Statistic of 64.01. Although the F-Statistic reduced, this model does not improve significantly from the previous model.

Metrics1 <- data.frame(
  R2 = rsquare(Model1, data = baseball_train_03),
  RMSE = rmse(Model1, data = baseball_train_03),
  MAE = mae(Model1, data = baseball_train_03)
)
print(Metrics1)
##          R2     RMSE      MAE
## 1 0.3730717 10.96013 8.741105

0.4.2 OLS- MODEL 2

Using all the seven (7) significant variables from Model 1

Model2 <- lm(TARGET_WINS~TEAM_FIELDING_E + TEAM_BASERUN_SB + TEAM_BATTING_3B + TEAM_FIELDING_DP + TEAM_PITCHING_SO + TEAM_BATTING_SO + TEAM_BATTING_2B,data=baseball_train_03)
summary(Model2)
## 
## Call:
## lm(formula = TARGET_WINS ~ TEAM_FIELDING_E + TEAM_BASERUN_SB + 
##     TEAM_BATTING_3B + TEAM_FIELDING_DP + TEAM_PITCHING_SO + TEAM_BATTING_SO + 
##     TEAM_BATTING_2B, data = baseball_train_03)
## 
## Residuals:
##     Min      1Q  Median      3Q     Max 
## -48.799  -8.299  -0.053   8.472  39.785 
## 
## Coefficients:
##                    Estimate Std. Error t value Pr(>|t|)    
## (Intercept)       1.808e+03  1.158e+02  15.607  < 2e-16 ***
## TEAM_FIELDING_E  -1.410e+03  9.313e+01 -15.141  < 2e-16 ***
## TEAM_BASERUN_SB   5.429e-02  7.497e-03   7.242 7.02e-13 ***
## TEAM_BATTING_3B   1.788e-01  2.289e-02   7.808 1.08e-14 ***
## TEAM_FIELDING_DP -5.319e-02  1.525e-02  -3.488 0.000501 ***
## TEAM_PITCHING_SO -8.587e-03  9.176e-03  -0.936 0.349497    
## TEAM_BATTING_SO  -8.186e-03  9.308e-03  -0.880 0.379267    
## TEAM_BATTING_2B   4.475e-02  7.971e-03   5.614 2.35e-08 ***
## ---
## Signif. codes:  0 '***' 0.001 '**' 0.01 '*' 0.05 '.' 0.1 ' ' 1
## 
## Residual standard error: 12.19 on 1513 degrees of freedom
## Multiple R-squared:  0.2288, Adjusted R-squared:  0.2253 
## F-statistic: 64.14 on 7 and 1513 DF,  p-value: < 2.2e-16

This Model identified five significant variables at = 0.05 with an R-squared of 22%, Residual Error of 12.19 and F-Statistic of 64.14. The R-Squared decreased and the Error increased slightly.

Metrics2 <- data.frame(
  R2 = rsquare(Model2, data = baseball_train_03),
  RMSE = rmse(Model2, data = baseball_train_03),
  MAE = mae(Model2, data = baseball_train_03)
)
print(Metrics2)
##          R2     RMSE      MAE
## 1 0.2288348 12.15572 9.731629

0.4.3 OLS- MODEL 3

All offensive categories which include hitting and base running

Model3 <-lm(TARGET_WINS~TEAM_BATTING_H + TEAM_BATTING_BB + TEAM_BATTING_HR + TEAM_BATTING_2B + TEAM_BATTING_SO + TEAM_BASERUN_CS + TEAM_BATTING_3B + TEAM_BASERUN_SB,data=baseball_train_03)
summary(Model3)
## 
## Call:
## lm(formula = TARGET_WINS ~ TEAM_BATTING_H + TEAM_BATTING_BB + 
##     TEAM_BATTING_HR + TEAM_BATTING_2B + TEAM_BATTING_SO + TEAM_BASERUN_CS + 
##     TEAM_BATTING_3B + TEAM_BASERUN_SB, data = baseball_train_03)
## 
## Residuals:
##     Min      1Q  Median      3Q     Max 
## -49.812  -7.822   0.247   8.166  35.877 
## 
## Coefficients:
##                  Estimate Std. Error t value Pr(>|t|)    
## (Intercept)     15.763131   7.024077   2.244   0.0250 *  
## TEAM_BATTING_H   0.024765   0.005285   4.686 3.03e-06 ***
## TEAM_BATTING_BB  0.037681   0.003994   9.435  < 2e-16 ***
## TEAM_BATTING_HR  0.099319   0.011448   8.676  < 2e-16 ***
## TEAM_BATTING_2B -0.013435   0.010919  -1.230   0.2187    
## TEAM_BATTING_SO -0.010801   0.002767  -3.904 9.88e-05 ***
## TEAM_BASERUN_CS -0.068614   0.037166  -1.846   0.0651 .  
## TEAM_BATTING_3B  0.115379   0.022950   5.027 5.57e-07 ***
## TEAM_BASERUN_SB  0.076701   0.007431  10.321  < 2e-16 ***
## ---
## Signif. codes:  0 '***' 0.001 '**' 0.01 '*' 0.05 '.' 0.1 ' ' 1
## 
## Residual standard error: 11.73 on 1512 degrees of freedom
## Multiple R-squared:  0.2857, Adjusted R-squared:  0.2819 
## F-statistic: 75.58 on 8 and 1512 DF,  p-value: < 2.2e-16

This Model identified five significant variables at = 0.05 with an R-squared of 28%, Residual Error of 11.73 and F-Statistic of 75.58. Although the R-squared is not that great, the standard errors are more reasonable. We will hold onto this Model as performing better than the previous models for now.

Metrics3 <- data.frame(
  R2 = rsquare(Model3, data = baseball_train_03),
  RMSE = rmse(Model3, data = baseball_train_03),
  MAE = mae(Model3, data = baseball_train_03)
)
print(Metrics3)
##          R2     RMSE      MAE
## 1 0.2856527 11.69934 9.330048

0.4.4 OLS- MODEL 4

All defensive categories which include fielding and pitching

Model4 <- lm(TARGET_WINS~TEAM_PITCHING_H + TEAM_PITCHING_BB + TEAM_PITCHING_HR + TEAM_PITCHING_SO + TEAM_FIELDING_E,data=baseball_train_03)
summary(Model4)
## 
## Call:
## lm(formula = TARGET_WINS ~ TEAM_PITCHING_H + TEAM_PITCHING_BB + 
##     TEAM_PITCHING_HR + TEAM_PITCHING_SO + TEAM_FIELDING_E, data = baseball_train_03)
## 
## Residuals:
##     Min      1Q  Median      3Q     Max 
## -48.818  -8.397   0.393   8.617  42.600 
## 
## Coefficients:
##                    Estimate Std. Error t value Pr(>|t|)    
## (Intercept)       7.915e+02  1.079e+02   7.335 3.61e-13 ***
## TEAM_PITCHING_H   2.420e-02  2.705e-03   8.947  < 2e-16 ***
## TEAM_PITCHING_BB  2.542e-02  3.943e-03   6.448 1.52e-10 ***
## TEAM_PITCHING_HR  1.503e-02  9.799e-03   1.533 0.125415    
## TEAM_PITCHING_SO -9.205e-03  2.369e-03  -3.886 0.000106 ***
## TEAM_FIELDING_E  -6.153e+02  8.770e+01  -7.016 3.44e-12 ***
## ---
## Signif. codes:  0 '***' 0.001 '**' 0.01 '*' 0.05 '.' 0.1 ' ' 1
## 
## Residual standard error: 12.46 on 1515 degrees of freedom
## Multiple R-squared:  0.1932, Adjusted R-squared:  0.1905 
## F-statistic: 72.56 on 5 and 1515 DF,  p-value: < 2.2e-16

This Model identified five significant variables at = 0.05 with an R-squared of 19%, Residual Error of 12.46 and F-Statistic of 75.56.There is no significant improvement with this model.

Metrics4 <- data.frame(
  R2 = rsquare(Model4, data = baseball_train_03),
  RMSE = rmse(Model4, data = baseball_train_03),
  MAE = mae(Model4, data = baseball_train_03)
)
print(Metrics4)
##          R2     RMSE      MAE
## 1 0.1932003 12.43339 9.945165

0.4.5 OLS- MODEL 5

Using only the significant variables from Model 3

Model5 <- lm(TARGET_WINS~TEAM_PITCHING_H + TEAM_PITCHING_BB + TEAM_PITCHING_HR + TEAM_PITCHING_SO + TEAM_BATTING_3B + TEAM_BASERUN_SB,data=baseball_train_03)
summary(Model5)
## 
## Call:
## lm(formula = TARGET_WINS ~ TEAM_PITCHING_H + TEAM_PITCHING_BB + 
##     TEAM_PITCHING_HR + TEAM_PITCHING_SO + TEAM_BATTING_3B + TEAM_BASERUN_SB, 
##     data = baseball_train_03)
## 
## Residuals:
##     Min      1Q  Median      3Q     Max 
## -51.002  -7.725   0.407   8.171  36.647 
## 
## Coefficients:
##                   Estimate Std. Error t value Pr(>|t|)    
## (Intercept)      44.113607   4.898047   9.006  < 2e-16 ***
## TEAM_PITCHING_H   0.002544   0.002951   0.862    0.389    
## TEAM_PITCHING_BB  0.029880   0.003774   7.917 4.66e-15 ***
## TEAM_PITCHING_HR  0.134928   0.009503  14.198  < 2e-16 ***
## TEAM_PITCHING_SO -0.016789   0.002522  -6.657 3.91e-11 ***
## TEAM_BATTING_3B   0.141192   0.023104   6.111 1.26e-09 ***
## TEAM_BASERUN_SB   0.077656   0.007190  10.800  < 2e-16 ***
## ---
## Signif. codes:  0 '***' 0.001 '**' 0.01 '*' 0.05 '.' 0.1 ' ' 1
## 
## Residual standard error: 11.93 on 1514 degrees of freedom
## Multiple R-squared:  0.2606, Adjusted R-squared:  0.2576 
## F-statistic: 88.92 on 6 and 1514 DF,  p-value: < 2.2e-16

This Model identified five significant variables at = 0.05 with an R-squared of 26%, Residual Error of 11.93 and F-Statistic of 88.92. Although the R-squared is not better than than Model3, the F-statistic improved with smaller Standard Error.

Metrics5 <- data.frame(
  R2 = rsquare(Model5, data = baseball_train_03),
  RMSE = rmse(Model5, data = baseball_train_03),
  MAE = mae(Model5, data = baseball_train_03)
)
print(Metrics5)
##          R2     RMSE      MAE
## 1 0.2605772 11.90291 9.506094

0.4.6 Compare OLS Model Quality

anova(Model, Model1, Model2, Model3, Model4, Model5)
Res.Df RSS Df Sum of Sq F Pr(>F)
1.51e+03 1.83e+05                     
1.51e+03 1.83e+05 2 174        0.717 0.488   
1.51e+03 2.25e+05 -7 -4.2e+04  49.5   1.39e-63
1.51e+03 2.08e+05 1 1.66e+04 136     3.01e-30
1.52e+03 2.35e+05 -3 -2.69e+04 74     1.15e-44
1.51e+03 2.15e+05 1 1.96e+04 162     2.72e-35
tab_model(Model, Model1, Model2, Model3, Model4, Model5)
  TARGET WINS TARGET WINS TARGET WINS TARGET WINS TARGET WINS TARGET WINS
Predictors Estimates CI p Estimates CI p Estimates CI p Estimates CI p Estimates CI p Estimates CI p
(Intercept) 1368.26 1155.66 – 1580.87 <0.001 1376.10 1162.45 – 1589.76 <0.001 1807.57 1580.39 – 2034.75 <0.001 15.76 1.99 – 29.54 0.025 791.49 579.82 – 1003.16 <0.001 44.11 34.51 – 53.72 <0.001
TEAM_BATTING_H 0.03 0.02 – 0.04 <0.001 0.03 -0.01 – 0.07 0.182 0.02 0.01 – 0.04 <0.001
TEAM_BATTING_2B -0.04 -0.06 – -0.02 <0.001 -0.04 -0.06 – -0.02 <0.001 0.04 0.03 – 0.06 <0.001 -0.01 -0.03 – 0.01 0.219
TEAM_BATTING_3B 0.18 0.13 – 0.22 <0.001 0.18 0.13 – 0.22 <0.001 0.18 0.13 – 0.22 <0.001 0.12 0.07 – 0.16 <0.001 0.14 0.10 – 0.19 <0.001
TEAM_BATTING_HR 0.08 0.05 – 0.10 <0.001 0.24 -0.04 – 0.53 0.095 0.10 0.08 – 0.12 <0.001
TEAM_BATTING_BB 0.16 0.09 – 0.22 <0.001 0.16 0.02 – 0.30 0.023 0.04 0.03 – 0.05 <0.001
TEAM_BATTING_SO -0.09 -0.13 – -0.05 <0.001 -0.11 -0.16 – -0.05 <0.001 -0.01 -0.03 – 0.01 0.379 -0.01 -0.02 – -0.01 <0.001
TEAM_BASERUN_SB 0.07 0.05 – 0.08 <0.001 0.06 0.05 – 0.08 <0.001 0.05 0.04 – 0.07 <0.001 0.08 0.06 – 0.09 <0.001 0.08 0.06 – 0.09 <0.001
TEAM_BASERUN_CS -0.07 -0.13 – 0.00 0.063 -0.06 -0.13 – 0.01 0.099 -0.07 -0.14 – 0.00 0.065
TEAM_PITCHING_BB -0.11 -0.18 – -0.05 <0.001 -0.12 -0.25 – 0.02 0.084 0.03 0.02 – 0.03 <0.001 0.03 0.02 – 0.04 <0.001
TEAM_PITCHING_SO 0.06 0.02 – 0.11 0.002 0.08 0.03 – 0.13 0.001 -0.01 -0.03 – 0.01 0.349 -0.01 -0.01 – -0.00 <0.001 -0.02 -0.02 – -0.01 <0.001
TEAM_FIELDING_E -1084.76 -1256.17 – -913.35 <0.001 -1091.94 -1264.26 – -919.62 <0.001 -1410.16 -1592.85 – -1227.48 <0.001 -615.31 -787.34 – -443.27 <0.001
TEAM_FIELDING_DP -0.11 -0.14 – -0.08 <0.001 -0.11 -0.14 – -0.08 <0.001 -0.05 -0.08 – -0.02 0.001
TEAM_PITCHING_H 0.00 -0.04 – 0.04 0.939 0.02 0.02 – 0.03 <0.001 0.00 -0.00 – 0.01 0.389
TEAM_PITCHING_HR -0.16 -0.44 – 0.11 0.248 0.02 -0.00 – 0.03 0.125 0.13 0.12 – 0.15 <0.001
Observations 1521 1521 1521 1521 1521 1521
R2 / R2 adjusted 0.372 / 0.367 0.373 / 0.367 0.229 / 0.225 0.286 / 0.282 0.193 / 0.191 0.261 / 0.258

0.4.7 RIDGE Regression- MODEL 6

The Ridge regression is an extension of linear regression where the loss function is modified to minimize the complexity of the model. This modification is done by adding a penalty parameter that is equivalent to the square of the magnitude of the coefficients.

Before implementing the RIDGE model, we will split the training dataset into 2 parts that is - training set within the training set and a test set that can be used for evaluation. By enforcing stratified sampling both our training and testing sets have approximately equal response “TARGET_WINS” distributions.

Transforming the variables into the form of a matrix will enable us to penalize the model using the ‘glmnet’ method in glmnet package.

#Split the data into Training and Test Set
baseball_train_set<- initial_split(baseball_train_03, prop = 0.7, strata = "TARGET_WINS")
train_baseball  <- training(baseball_train_set)
test_baseball   <- testing(baseball_train_set)

train_Ind<- as.matrix(train_baseball)
train_Dep<- as.matrix(train_baseball$TARGET_WINS)

test_Ind<- as.matrix(test_baseball)
test_Dep<- as.matrix(test_baseball$TARGET_WINS)

For the avoidance of multicollinearity, avoiding overfitting and predicting better, implementing RIDGE regression will become useful.

lambdas <- 10^seq(2, -3, by = -.1)
Model6 <- glmnet(train_Ind,train_Dep, nlambda = 25, alpha = 0, family = 'gaussian', lambda = lambdas)
summary(Model6)
##           Length Class     Mode   
## a0         51    -none-    numeric
## beta      765    dgCMatrix S4     
## df         51    -none-    numeric
## dim         2    -none-    numeric
## lambda     51    -none-    numeric
## dev.ratio  51    -none-    numeric
## nulldev     1    -none-    numeric
## npasses     1    -none-    numeric
## jerr        1    -none-    numeric
## offset      1    -none-    logical
## call        7    -none-    call   
## nobs        1    -none-    numeric
print(Model6, digits = max(3, getOption("digits") - 3),
           signif.stars = getOption("show.signif.stars"))
## 
## Call:  glmnet(x = train_Ind, y = train_Dep, family = "gaussian", alpha = 0,      nlambda = 25, lambda = lambdas) 
## 
##    Df   %Dev  Lambda
## 1  15 0.3002 100.000
## 2  15 0.3498  79.430
## 3  15 0.4032  63.100
## 4  15 0.4597  50.120
## 5  15 0.5181  39.810
## 6  15 0.5771  31.620
## 7  15 0.6354  25.120
## 8  15 0.6916  19.950
## 9  15 0.7444  15.850
## 10 15 0.7924  12.590
## 11 15 0.8350  10.000
## 12 15 0.8716   7.943
## 13 15 0.9021   6.310
## 14 15 0.9268   5.012
## 15 15 0.9463   3.981
## 16 15 0.9613   3.162
## 17 15 0.9725   2.512
## 18 15 0.9808   1.995
## 19 15 0.9868   1.585
## 20 15 0.9910   1.259
## 21 15 0.9939   1.000
## 22 15 0.9959   0.794
## 23 15 0.9973   0.631
## 24 15 0.9982   0.501
## 25 15 0.9988   0.398
## 26 15 0.9993   0.316
## 27 15 0.9995   0.251
## 28 15 0.9997   0.200
## 29 15 0.9998   0.158
## 30 15 0.9999   0.126
## 31 15 0.9999   0.100
## 32 15 0.9999   0.079
## 33 15 1.0000   0.063
## 34 15 1.0000   0.050
## 35 15 1.0000   0.040
## 36 15 1.0000   0.032
## 37 15 1.0000   0.025
## 38 15 1.0000   0.020
## 39 15 1.0000   0.016
## 40 15 1.0000   0.013
## 41 15 1.0000   0.010
## 42 15 1.0000   0.008
## 43 15 1.0000   0.006
## 44 15 1.0000   0.005
## 45 15 1.0000   0.004
## 46 15 1.0000   0.003
## 47 15 1.0000   0.003
## 48 15 1.0000   0.002
## 49 15 1.0000   0.002
## 50 15 1.0000   0.001
## 51 15 1.0000   0.001

The significant difference between the OLS and the Ridge Regresion is the hyperparameter tuning using lambda. The Ridge regression does not perform Feature Selection, but it predicts better and solve overfitting. Cross Validating the Ridge Regression will help us to identify the optimal lambda to penalize the model and enhance the predictability.

CrossVal_ridge <- cv.glmnet(train_Ind,train_Dep, alpha = 0, lambda = lambdas)
optimal_lambda <- CrossVal_ridge$lambda.min
optimal_lambda #The optimal lambda is 0.001 which we will use to penelize the Ridge Regression model.
## [1] 0.001
coef(CrossVal_ridge) # Shows the coefficients
## 16 x 1 sparse Matrix of class "dgCMatrix"
##                              1
## (Intercept)       2.811677e-01
## TARGET_WINS       9.998729e-01
## TEAM_BATTING_H   -8.349498e-06
## TEAM_BATTING_2B  -7.913110e-06
## TEAM_BATTING_3B   1.639477e-05
## TEAM_BATTING_HR  -4.928352e-04
## TEAM_BATTING_BB   9.259542e-05
## TEAM_BATTING_SO   1.605365e-05
## TEAM_BASERUN_SB   1.673979e-05
## TEAM_BASERUN_CS  -2.885973e-05
## TEAM_PITCHING_H   1.218556e-05
## TEAM_PITCHING_HR  4.823411e-04
## TEAM_PITCHING_BB -8.538437e-05
## TEAM_PITCHING_SO -1.864112e-05
## TEAM_FIELDING_E  -2.221726e-01
## TEAM_FIELDING_DP -2.291662e-05
plot(CrossVal_ridge)

The plot shows that the errors increases as the magnitude of lambda increases, previously, we identified that the optimal lambda is 0.001 which is very obvious from the plot above. The coefficients are restricted to be small but not quite zero as Ridge Regression does not force the coefficient to zero. This indicates that the model is performing well so far. But let’s make it better using the optimal labmda.

eval_results <- function(true, predicted, df){
  SSE <- sum((predicted - true)^2)
  SST <- sum((true - mean(true))^2)
  R_square <- 1 - SSE / SST
  RMSE = sqrt(SSE/nrow(df))
data.frame(   
  RMSE = RMSE,
  Rsquare = R_square
)
  
}
# Prediction and evaluation on train data
predictions_train <- predict(Model6, s = optimal_lambda, newx = train_Ind)
eval_results(train_Dep, predictions_train, train_baseball)

RMSE Rsquare
0.00177 1
We should be a little concern about the 100% R-squared performance for this Model. Although the Ridge Regression forces the coefficients towards zero to improve the Model performance and enhance the predictability, the very high peformance may require further investigation. Lets improve the model using a more reason lambda because optimal might not always be the best.

0.4.8 The Improved Ridge Regression

Model6_Improved <- glmnet(train_Ind,train_Dep, nlambda = 25, alpha = 0, family = 'gaussian', lambda = 6.310)
summary(Model6_Improved)
##           Length Class     Mode   
## a0         1     -none-    numeric
## beta      15     dgCMatrix S4     
## df         1     -none-    numeric
## dim        2     -none-    numeric
## lambda     1     -none-    numeric
## dev.ratio  1     -none-    numeric
## nulldev    1     -none-    numeric
## npasses    1     -none-    numeric
## jerr       1     -none-    numeric
## offset     1     -none-    logical
## call       7     -none-    call   
## nobs       1     -none-    numeric
coef(Model6_Improved)
## 16 x 1 sparse Matrix of class "dgCMatrix"
##                             s0
## (Intercept)       2.076819e+02
## TARGET_WINS       6.246886e-01
## TEAM_BATTING_H    6.964070e-03
## TEAM_BATTING_2B   4.671956e-04
## TEAM_BATTING_3B   2.621307e-02
## TEAM_BATTING_HR   8.582284e-03
## TEAM_BATTING_BB   6.871063e-03
## TEAM_BATTING_SO  -9.172081e-04
## TEAM_BASERUN_SB   1.345116e-02
## TEAM_BASERUN_CS  -7.305997e-03
## TEAM_PITCHING_H   1.819725e-03
## TEAM_PITCHING_HR  7.785479e-03
## TEAM_PITCHING_BB  4.440364e-03
## TEAM_PITCHING_SO -1.543466e-03
## TEAM_FIELDING_E  -1.589633e+02
## TEAM_FIELDING_DP -2.307774e-02

Let’s compute the Model’s Performance Metric to see how this model is doing.

eval_results <- function(true, predicted, df){
  SSE <- sum((predicted - true)^2)
  SST <- sum((true - mean(true))^2)
  R_square <- 1 - SSE / SST
  RMSE = sqrt(SSE/nrow(df))
data.frame(   
  RMSE = RMSE,
  Rsquare = R_square
)
  
}

# Prediction and evaluation on train data
predictions_train <- predict(Model6_Improved, s = lambda, newx = train_Ind)
eval_results(train_Dep, predictions_train, train_baseball)
RMSE Rsquare
4.32 0.902
# Prediction and evaluation on test data
predictions_test <- predict(Model6_Improved, s = lambda, newx = test_Ind)
eval_results(test_Dep, predictions_test, test_baseball)

RMSE Rsquare
4.38 0.902
The improved Model6 output shows that the RMSE and R-squared values for the Ridge Regression model on the training and test data are significantly improved. The Loss Function (RMSE) are severely reduced compared to the OLS models which indicates that the Ridge Regression is not overfitting. These performance is significantly improved compared to the OLS Models 1 to 5.

0.4.9 Model Performance Comparison

ModelName <- c("Model", "Model1","Model2","Model3","Model4","Model5","Model6")
Model_RSquared <- c("37%", "37%", "22%", "28%", "19%", "26% ", "90%")
Model_RMSE <- c("11.01", "10.96", "12.15", "11.69", "12.43", "11.93 ", "4.33")
Model_FStatistic <- c("74.59", "64.01", "64.14", "75.58", "72.56", "88.92 ", "NA")
Model_Performance <- data.frame(ModelName,Model_RSquared,Model_RMSE,Model_FStatistic)
Model_Performance
ModelName Model_RSquared Model_RMSE Model_FStatistic
Model 37% 11.01 74.59
Model1 37% 10.96 64.01
Model2 22% 12.15 64.14
Model3 28% 11.69 75.58
Model4 19% 12.43 72.56
Model5 26% 11.93 88.92
Model6 90% 4.33 NA

0.4.10 Model Prediction

Based on the Model metrics above, we’re ready to make prediction and we will select our acceptable OLS Model3 and Model5 which has better F-Statistic, smaller standard errors and less negative coefficient as our best OLS models. We will also compare the prediction accuracy of these models to that of the improved Ridge Regression Model which is our champion Model for this exercise based on the very small RMSE and the highest R-squared of over 90%.

predicted <- predict(Model3, newx = test_baseball)# predict on test data
predicted_values <- cbind (actual=test_baseball$TARGET_WINS, predicted)  # combine
## Warning in cbind(actual = test_baseball$TARGET_WINS, predicted): number of
## rows of result is not a multiple of vector length (arg 1)
predicted_values
##      actual predicted
## 1        70  69.49875
## 2        80  67.56125
## 3        78  68.38378
## 4        88  73.25628
## 5        81  67.37030
## 6        90  66.86382
## 7        75  63.36361
## 8        87  76.58169
## 9        75  89.59170
## 10       85  76.54657
## 11       92  86.70081
## 12       98  77.31870
## 13       51  78.60647
## 14       53  84.73255
## 15      100  89.15530
## 16       70  86.01142
## 17       74  76.15138
## 18       81  76.18203
## 19       75  79.02243
## 20       90  72.03653
## 21       79  89.30377
## 22       68  84.16328
## 23       84  79.30964
## 24       88  76.00667
## 25       81  93.36918
## 26       74  79.72780
## 27       61  83.96472
## 28       67  81.83322
## 29       69  86.75976
## 30       65  83.85432
## 31      101  75.24767
## 32      106  96.12431
## 33       88  85.18416
## 34       96  87.23777
## 35       90  86.66397
## 36       69  80.90673
## 37       48  71.73633
## 38       83  81.22686
## 39       71  90.64517
## 40       77  94.18601
## 41       87  95.53100
## 42       69  80.08285
## 43       57  75.86419
## 44       81  66.74352
## 45       95  64.57578
## 46       91  60.91243
## 47       92  72.28834
## 48       91  68.48019
## 49       84  65.67250
## 50       73  72.48471
## 51       67  86.44011
## 52       87  80.65902
## 53       76  82.06254
## 54       67  78.70595
## 55       89  77.58369
## 56       80  72.97126
## 57       88  78.18561
## 58       78  72.24895
## 59       74  76.25716
## 60       67  77.02116
## 61      107  75.30225
## 62       52  76.46272
## 63       64  78.36297
## 64       94  68.74638
## 65       96  70.51741
## 66       50  66.00240
## 67       49  74.32965
## 68       54  68.02212
## 69       55  71.72855
## 70       45  69.41157
## 71       96  69.61566
## 72       81  70.79319
## 73       80  69.48860
## 74       89  65.80599
## 75       98  70.70940
## 76       89  82.73716
## 77       78  77.23526
## 78       83  81.04205
## 79       73  86.68577
## 80       80  81.16218
## 81       95  88.42305
## 82       98  85.99275
## 83      104  73.58515
## 84       82  82.22049
## 85      105  85.06236
## 86       87  86.09993
## 87       96  76.29960
## 88      104  79.91231
## 89       92  77.53938
## 90      105  84.34369
## 91       98  74.79848
## 92       88  70.02759
## 93      103  82.39423
## 94       87  79.28918
## 95       73  91.97048
## 96       81  78.96951
## 97       63  74.19733
## 98       72  72.42719
## 99       88  77.14336
## 100      81  76.15731
## 101      79  77.37089
## 102      77  72.05640
## 103      93  76.89373
## 104      82  75.92414
## 105      67  85.81217
## 106      92  75.59281
## 107      98  80.60366
## 108      83  85.62160
## 109      56  82.00590
## 110      79  84.74713
## 111      87  84.88357
## 112      81  86.74637
## 113      78  89.85103
## 114      99  88.78040
## 115      99  78.46174
## 116      86  84.86044
## 117      98  83.42672
## 118      79  82.79613
## 119      75  82.72617
## 120      64  66.91725
## 121      71  69.51332
## 122      87  78.66910
## 123      71  72.33942
## 124      95  67.50771
## 125      81  64.77165
## 126      98  69.79720
## 127      93  71.15595
## 128      84  77.34661
## 129      63  77.95811
## 130      64  86.54917
## 131     111  73.89007
## 132      83  79.45996
## 133      63  76.41158
## 134      62  81.88671
## 135      56  84.23277
## 136      72  81.62631
## 137      59  78.66292
## 138     102  78.01240
## 139      93  82.19463
## 140      81  84.27986
## 141      94  73.82318
## 142      65  75.50558
## 143      73  72.20240
## 144      79  71.73169
## 145      98  78.70550
## 146      98  82.60550
## 147      86  79.89101
## 148      77  80.98410
## 149      79  73.62353
## 150     108  74.78823
## 151     102  70.09769
## 152      86  69.79510
## 153      76  73.21664
## 154      80  76.42604
## 155      64  70.00951
## 156      91  79.24643
## 157      81  76.55529
## 158      93  77.45710
## 159      71  77.29383
## 160      93  74.83120
## 161      65  80.57564
## 162      93  75.27052
## 163      92  72.96984
## 164      92  88.01300
## 165     101  89.33125
## 166      97  86.25568
## 167      98  69.87604
## 168      94  89.64940
## 169      79  80.48480
## 170      87  81.38282
## 171      62  78.12840
## 172      60  80.46360
## 173      70  77.90473
## 174      61  86.93266
## 175      57  88.60549
## 176      76  86.22276
## 177      87  85.13130
## 178      97  80.44713
## 179      68  88.03475
## 180      80  80.82213
## 181      88  83.47961
## 182      83  72.80089
## 183      67  80.37391
## 184      77  79.72336
## 185      84  78.69135
## 186      77  85.57211
## 187      70  83.20429
## 188      64  89.48194
## 189      85  96.68228
## 190     106  87.75298
## 191     100  91.87313
## 192      85  86.26651
## 193      93  77.82142
## 194      97  76.04487
## 195      82  84.88891
## 196     101  81.55068
## 197      88  83.70493
## 198      79  80.38773
## 199      85 101.92399
## 200      72  81.10336
## 201      84  73.46680
## 202     104  93.36972
## 203      85  86.05010
## 204      66  85.59259
## 205      43  73.88114
## 206      64  74.83380
## 207      76  64.08681
## 208      80  65.84094
## 209      64  71.98560
## 210      83  79.13560
## 211      78  85.15069
## 212      65  84.82851
## 213      66  88.64454
## 214      66  87.36139
## 215      69  73.46671
## 216      79  73.32881
## 217      79  76.75376
## 218      89  80.18206
## 219      82  75.03975
## 220      76  75.66433
## 221      85  70.51948
## 222      87  74.54246
## 223      89  72.27715
## 224      72  70.35686
## 225      91  72.18585
## 226      72  79.91554
## 227      77  88.74324
## 228      65  87.01201
## 229      58  85.96054
## 230      80  89.84882
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## 1071     65  84.64656
## 1072     93  81.64766
## 1073     92  92.61935
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## 1080     87  98.69009
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## 1082     60  69.76796
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## 1085     57  72.41132
## 1086     76  72.15901
## 1087     87  71.27513
## 1088     97  84.49067
## 1089     68  82.25327
## 1090     80  81.79879
## 1091     88  85.53387
## 1092     83  80.98372
## 1093     67  73.90174
## 1094     77  73.92732
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## 1099     85  77.45100
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## 1127     79  72.86273
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## 1138     65  84.15055
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## 1150     89  79.38583
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## 1152     73  90.17322
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## 1154     81  83.99443
## 1155     88  85.64188
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## 1157     93  95.51429
## 1158     96  77.02829
## 1159     95  89.46990
## 1160     71  94.55289
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## 1162     74  91.57210
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## 1164     68  82.79777
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## 1167     91  84.59811
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## 1171     77  74.16725
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## 1173     53  71.56327
## 1174     65  89.51002
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## 1176     62  96.01226
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## 1178     60  86.66543
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## 1180     80  88.86202
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## 1183     70  77.78130
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## 1185     83  76.64023
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## 1194     82  75.26520
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## 1197     99  84.42915
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## 1201    103  82.01907
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## 1215     96  84.21485
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## 1218     90  80.34523
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## 1220     98  89.32086
## 1221    101  71.65314
## 1222    110  83.47910
## 1223     56  79.31333
## 1224     85  83.99140
## 1225     63  86.04019
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## 1266     88  84.21428
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## 1273     97  91.28096
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## 1275     57  94.87582
## 1276     95  92.31089
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## 1279     78  96.22611
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## 1282     61  78.77420
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## 1285     92  71.98056
## 1286     83  69.20131
## 1287     89  77.96775
## 1288     84  87.78023
## 1289     91  86.35932
## 1290     76  82.21422
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## 1295     74  84.24705
## 1296     93  78.67993
## 1297     93  87.97745
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## 1299     78  92.90616
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## 1306     58  78.98654
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## 1308     85  80.37722
## 1309     87  79.71387
## 1310     90  78.50491
## 1311     88  76.75080
## 1312     88  80.27969
## 1313     74  73.46866
## 1314     87  79.25616
## 1315     77  82.00955
## 1316     88  79.89839
## 1317     86  91.02800
## 1318     92  88.08337
## 1319     50  88.85369
## 1320     42  94.45356
## 1321     79  84.35462
## 1322     67  78.05740
## 1323     82  83.95127
## 1324     67  86.33623
## 1325     86  82.90238
## 1326     87  81.67246
## 1327     83  85.51611
## 1328     97  80.18255
## 1329    106  79.54560
## 1330     76  75.54402
## 1331     87  73.65885
## 1332    112  71.01422
## 1333    110  81.45969
## 1334    102  82.86082
## 1335     83  80.62995
## 1336     80  88.25696
## 1337     78  76.46766
## 1338     87  80.34835
## 1339     72  72.91620
## 1340     86  76.90302
## 1341     85  83.18826
## 1342     62  70.94189
## 1343     55  76.87526
## 1344     63  80.45797
## 1345     67  69.39293
## 1346     76  84.77448
## 1347     64  85.62956
## 1348     57  83.98628
## 1349     76  80.12358
## 1350     70  86.59676
## 1351     83  87.14948
## 1352     77  89.34894
## 1353     89  96.16870
## 1354     53  89.87599
## 1355     89  82.54057
## 1356     87  72.35155
## 1357     80  75.48538
## 1358     87  89.39629
## 1359     75  90.79489
## 1360     82  72.17537
## 1361     78  98.82305
## 1362     68  91.07166
## 1363     68  74.70489
## 1364     83  74.08408
## 1365     67  75.45591
## 1366     70  75.76548
## 1367     80  67.74708
## 1368     78  63.73702
## 1369     88  63.09795
## 1370     81  79.36250
## 1371     90  85.89266
## 1372     75  88.93737
## 1373     87  86.42517
## 1374     75  79.24316
## 1375     85  80.67956
## 1376     92  74.32748
## 1377     98  77.51726
## 1378     51  74.68399
## 1379     53  90.58364
## 1380    100  84.36898
## 1381     70  89.61974
## 1382     74  87.27046
## 1383     81  91.72583
## 1384     75  90.46183
## 1385     90  92.84914
## 1386     79  83.81388
## 1387     68  78.44059
## 1388     84  78.52910
## 1389     88  84.60661
## 1390     81  80.35381
## 1391     74  81.01220
## 1392     61  81.58834
## 1393     67  83.27561
## 1394     69  83.42052
## 1395     65  88.09058
## 1396    101  80.71739
## 1397    106  82.57078
## 1398     88  79.27823
## 1399     96  79.45690
## 1400     90  87.45363
## 1401     69  82.67362
## 1402     48  83.26842
## 1403     83  79.96190
## 1404     71  83.17930
## 1405     77  81.28235
## 1406     87  88.91157
## 1407     69  79.89535
## 1408     57  82.59148
## 1409     81  83.88969
## 1410     95  79.11848
## 1411     91  80.02279
## 1412     92  79.38053
## 1413     91  79.62617
## 1414     84  81.86965
## 1415     73  81.52487
## 1416     67  75.59362
## 1417     87  76.78916
## 1418     76  74.30279
## 1419     67  76.30224
## 1420     89  69.65634
## 1421     80  74.26352
## 1422     88  83.82491
## 1423     78  84.75257
## 1424     74  73.73032
## 1425     67  75.06767
## 1426    107  84.63083
## 1427     52  78.97639
## 1428     64  76.45999
## 1429     94  71.29329
## 1430     96  81.13600
## 1431     50  80.70558
## 1432     49  78.14821
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## 1434     55  80.36170
## 1435     45  81.90376
## 1436     96  93.33645
## 1437     81  88.19413
## 1438     80  90.25974
## 1439     89  84.66770
## 1440     98  82.96837
## 1441     89  89.12204
## 1442     78  87.95702
## 1443     83  82.57955
## 1444     73  82.70475
## 1445     80  79.25230
## 1446     95  80.20210
## 1447     98  71.72168
## 1448    104  74.42225
## 1449     82  79.63366
## 1450    105  81.94346
## 1451     87  82.75808
## 1452     96  80.78277
## 1453    104  76.62972
## 1454     92  77.85689
## 1455    105  68.36665
## 1456     98  69.11303
## 1457     88  66.24626
## 1458    103  81.84655
## 1459     87  78.35787
## 1460     73  69.94233
## 1461     81  75.76441
## 1462     63  81.02432
## 1463     72  74.52049
## 1464     88  81.01784
## 1465     81  71.46302
## 1466     79  75.61764
## 1467     77  78.34152
## 1468     93  77.83881
## 1469     82  77.22750
## 1470     67  86.79195
## 1471     92  77.71251
## 1472     98  82.62507
## 1473     83  81.35461
## 1474     56  89.93796
## 1475     79  96.51608
## 1476     87  86.16285
## 1477     81  91.33961
## 1478     78  86.93554
## 1479     99  84.63384
## 1480     99  72.70103
## 1481     86  71.08248
## 1482     98  91.35231
## 1483     79  86.00672
## 1484     75  91.94352
## 1485     64  85.43193
## 1486     71  83.53370
## 1487     87  85.50160
## 1488     71  80.42214
## 1489     95  87.39467
## 1490     81  93.21013
## 1491     98  83.54572
## 1492     93  77.31713
## 1493     84  89.01612
## 1494     63  89.92811
## 1495     64  76.09057
## 1496    111  77.41702
## 1497     83  85.67225
## 1498     63  87.78315
## 1499     62  71.42951
## 1500     56  78.50359
## 1501     72  70.81870
## 1502     59  80.91072
## 1503    102  75.32227
## 1504     93  68.16678
## 1505     81  79.64992
## 1506     94  71.17387
## 1507     65  79.90700
## 1508     73  84.00078
## 1509     79  82.16401
## 1510     98  77.16445
## 1511     98  76.00898
## 1512     86  78.13104
## 1513     77  72.61470
## 1514     79  77.78654
## 1515    108  77.61568
## 1516    102  72.10171
## 1517     86  81.84125
## 1518     76  77.74045
## 1519     80  78.32464
## 1520     64  67.84336
## 1521     91  80.92785
mean (apply(predicted_values, 1, min)/apply(predicted_values, 1, max)) # calculate accuracy
## [1] 0.8553814

The prediction accuracy here is at 85.85%

predicted <- predict(Model5, newx = test_baseball)# predict on test data
predicted_values <- cbind (actual=test_baseball$TARGET_WINS, predicted)  # combine
## Warning in cbind(actual = test_baseball$TARGET_WINS, predicted): number of
## rows of result is not a multiple of vector length (arg 1)
predicted_values
##      actual predicted
## 1        70  67.44342
## 2        80  67.45113
## 3        78  70.07451
## 4        88  75.43397
## 5        81  67.72684
## 6        90  67.72587
## 7        75  63.76240
## 8        87  77.57821
## 9        75  87.50168
## 10       85  75.33778
## 11       92  86.57140
## 12       98  76.10532
## 13       51  79.30210
## 14       53  85.05514
## 15      100  89.33395
## 16       70  86.35917
## 17       74  75.87327
## 18       81  75.27661
## 19       75  76.92580
## 20       90  72.38257
## 21       79  91.24888
## 22       68  81.21417
## 23       84  76.85482
## 24       88  75.73465
## 25       81  92.95906
## 26       74  79.74796
## 27       61  82.59460
## 28       67  82.93132
## 29       69  84.01025
## 30       65  83.67314
## 31      101  74.98318
## 32      106  94.40116
## 33       88  85.35736
## 34       96  86.31272
## 35       90  85.20792
## 36       69  79.86968
## 37       48  71.39335
## 38       83  79.65920
## 39       71  88.48478
## 40       77  92.89590
## 41       87  95.70531
## 42       69  80.15908
## 43       57  77.64883
## 44       81  67.18263
## 45       95  64.94270
## 46       91  62.58915
## 47       92  71.88851
## 48       91  67.42428
## 49       84  66.89260
## 50       73  74.11101
## 51       67  84.19595
## 52       87  77.19389
## 53       76  81.04087
## 54       67  78.77630
## 55       89  78.14143
## 56       80  76.04199
## 57       88  79.46042
## 58       78  73.69400
## 59       74  74.54247
## 60       67  75.74929
## 61      107  74.97222
## 62       52  75.44410
## 63       64  79.02010
## 64       94  69.75831
## 65       96  70.64981
## 66       50  69.12150
## 67       49  74.71038
## 68       54  69.62466
## 69       55  70.17964
## 70       45  70.25523
## 71       96  69.23863
## 72       81  71.09084
## 73       80  72.67250
## 74       89  67.57287
## 75       98  73.96325
## 76       89  82.29090
## 77       78  76.84995
## 78       83  80.96384
## 79       73  86.00466
## 80       80  80.99199
## 81       95  90.30120
## 82       98  86.68144
## 83      104  76.35323
## 84       82  83.38313
## 85      105  86.70403
## 86       87  88.15920
## 87       96  77.29176
## 88      104  78.74435
## 89       92  78.89828
## 90      105  84.86922
## 91       98  76.52274
## 92       88  68.53117
## 93      103  80.63921
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## 1493     84  87.14506
## 1494     63  89.37809
## 1495     64  74.04740
## 1496    111  75.81540
## 1497     83  84.01966
## 1498     63  88.51943
## 1499     62  72.64024
## 1500     56  79.09215
## 1501     72  70.49611
## 1502     59  79.19742
## 1503    102  74.80890
## 1504     93  70.05598
## 1505     81  79.93610
## 1506     94  71.64301
## 1507     65  81.23458
## 1508     73  84.56800
## 1509     79  81.05502
## 1510     98  77.11747
## 1511     98  78.69532
## 1512     86  76.56764
## 1513     77  74.31725
## 1514     79  79.24925
## 1515    108  77.95751
## 1516    102  73.35033
## 1517     86  82.50775
## 1518     76  77.38719
## 1519     80  79.51796
## 1520     64  67.76209
## 1521     91  80.89661
mean (apply(predicted_values, 1, min)/apply(predicted_values, 1, max)) # calculate accuracy
## [1] 0.8572953

The prediction accuracy for the OLS Model5 is at 85.94% which is not bad for this purpose. But lets compare it to the Champion Model- The improved Ridge Regression.

predicted <- predict(Model6_Improved, newx = test_Ind)# predict on test data
predicted_values <- cbind (actual=test_baseball$TARGET_WINS, predicted)  # combine
predicted_values
##      actual        s0
## 1        70  70.53413
## 4        80  76.99308
## 7        78  75.10850
## 9        88  87.10650
## 13       81  79.77267
## 14       90  86.65858
## 16       75  78.21489
## 21       87  88.81181
## 26       75  77.83838
## 33       85  85.34758
## 34       92  91.07814
## 35       98  95.50240
## 37       51  59.95129
## 46       53  57.04574
## 54      100  91.14226
## 59       70  72.56263
## 63       74  75.19675
## 65       81  78.82389
## 69       75  74.14613
## 78       90  87.74708
## 80       79  80.58162
## 83       68  70.25118
## 87       84  81.23431
## 88       88  85.31067
## 92       81  78.59282
## 94       74  76.02486
## 99       61  67.21095
## 101      67  70.50401
## 105      69  74.78736
## 106      65  69.21803
## 109     101  94.93474
## 112     106  99.37726
## 115      88  85.76116
## 116      96  91.37478
## 117      90  88.17278
## 121      69  70.27787
## 127      48  56.72048
## 130      83  82.58744
## 138      71  73.60703
## 141      77  77.35759
## 143      87  83.42394
## 144      69  70.82723
## 151      57  63.19119
## 154      81  80.32676
## 156      95  88.86161
## 163      91  85.30826
## 170      92  88.12671
## 173      91  86.79622
## 179      84  84.28872
## 180      73  75.33200
## 181      67  72.39357
## 183      87  85.79437
## 184      76  78.93801
## 185      67  72.49274
## 186      89  88.09653
## 188      80  84.61430
## 189      88  89.62943
## 191      78  82.44216
## 192      74  78.44869
## 194      67  71.45831
## 204     107  98.34838
## 207      52  57.76360
## 208      64  65.56827
## 210      94  87.35202
## 216      96  88.54077
## 220      50  59.75506
## 221      49  58.48762
## 222      54  61.48032
## 224      55  61.30138
## 225      45  55.14053
## 231      96  93.63894
## 235      81  80.98433
## 238      80  78.81272
## 239      89  84.40315
## 250      98  92.23109
## 253      89  86.20442
## 254      78  81.52074
## 255      83  83.62963
## 258      73  73.13284
## 259      80  79.46066
## 268      95  95.23003
## 274      98  89.04356
## 276     104  94.35322
## 282      82  80.85499
## 284     105  96.77620
## 285      87  83.26177
## 288      96  90.74943
## 289     104  99.62744
## 293      92  87.65587
## 294     105  96.63034
## 295      98  94.27113
## 297      88  85.72481
## 303     103  96.82641
## 304      87  84.86256
## 305      73  73.78361
## 310      81  80.14813
## 314      63  68.81069
## 317      72  72.30197
## 319      88  84.56137
## 325      81  80.34307
## 326      79  79.45429
## 333      77  78.08399
## 334      93  88.85222
## 338      82  83.31288
## 342      67  72.14116
## 349      92  87.86002
## 351      98  90.43812
## 355      83  79.03901
## 366      56  65.13883
## 367      79  81.56761
## 368      87  88.31950
## 373      81  79.91958
## 376      78  76.45715
## 381      99  94.48347
## 386      99  93.27498
## 388      86  85.90281
## 390      98  90.31136
## 394      79  78.61356
## 397      75  77.03388
## 398      64  69.13544
## 402      71  71.39162
## 403      87  85.26137
## 409      71  71.51559
## 417      95  92.26627
## 419      81  83.18943
## 423      98  92.46634
## 427      93  87.72005
## 428      84  82.54620
## 434      63  67.08608
## 435      64  68.45397
## 438     111 100.83275
## 440      83  80.22935
## 444      63  68.65063
## 445      62  64.43612
## 446      56  62.67054
## 447      72  73.73673
## 449      59  64.67799
## 451     102  94.22575
## 453      93  86.36362
## 454      81  77.34596
## 455      94  86.52614
## 460      65  69.35549
## 463      73  74.98199
## 464      79  80.70505
## 469      98  91.90850
## 470      98  91.91461
## 471      86  82.47333
## 474      77  77.33002
## 477      79  77.02153
## 480     108 101.36029
## 481     102 100.00862
## 488      86  84.89780
## 495      76  78.75978
## 502      80  81.74727
## 503      64  68.72064
## 509      91  82.99405
## 514      81  79.47504
## 515      93  87.33406
## 520      71  76.04364
## 521      93  88.29802
## 522      65  68.10737
## 525      93  91.11869
## 528      92  91.27800
## 529      92  89.47355
## 535     101  97.17501
## 537      97  94.38511
## 538      98  92.56368
## 544      94  88.54121
## 546      79  78.52438
## 549      87  81.76061
## 550      62  66.57579
## 552      60  64.71219
## 556      70  73.55800
## 559      61  69.25300
## 563      57  62.78791
## 565      76  78.10097
## 568      87  88.53658
## 569      97  96.83056
## 573      68  70.68392
## 574      80  83.12310
## 576      88  85.00721
## 580      83  85.11009
## 588      67  71.69267
## 590      77  77.42194
## 592      84  78.99787
## 593      77  75.73106
## 595      70  75.55146
## 600      64  70.25671
## 603      85  87.83172
## 605     106 100.89122
## 606     100  98.25715
## 610      85  86.21820
## 615      93  86.96213
## 616      97  92.06917
## 622      82  81.23330
## 625     101  96.34546
## 628      88  85.54449
## 630      79  79.38547
## 632      85  83.25548
## 633      72  72.69895
## 638      84  84.83788
## 641     104  97.64760
## 650      85  87.11000
## 654      66  71.26735
## 656      43  53.52923
## 659      64  68.77313
## 660      76  79.40749
## 661      80  79.48389
## 664      64  69.36184
## 666      83  83.26684
## 668      78  78.62144
## 669      65  68.59003
## 670      66  66.96441
## 671      66  66.28451
## 674      69  72.37365
## 677      79  80.78054
## 678      79  78.08363
## 679      89  86.64477
## 680      82  80.78460
## 689      76  78.81555
## 693      85  83.50353
## 699      87  86.47769
## 700      89  86.70176
## 702      72  74.12514
## 709      91  86.99273
## 717      72  74.85640
## 718      77  80.54201
## 719      65  69.48703
## 729      58  61.83937
## 737      80  78.72859
## 750      93  89.70069
## 757      88  86.50834
## 760     102  96.99723
## 762      97  94.70708
## 765      88  85.71655
## 766      75  75.61513
## 767      91  88.42922
## 770     100  94.67405
## 776      88  87.00832
## 777      89  84.88470
## 784      79  81.59075
## 788      73  73.78489
## 790      78  76.52317
## 793      81  80.60735
## 803      88  88.00072
## 808      68  68.78425
## 813      93  89.54166
## 814      96  92.86832
## 816      95  91.48170
## 818      71  73.55274
## 825      78  77.71585
## 827      74  78.85615
## 830      56  64.25351
## 831      68  73.36450
## 833      81  80.60054
## 839      59  64.66963
## 846      91  87.00857
## 849      89  88.47074
## 850      79  81.18447
## 852      97  93.16708
## 857      77  80.23082
## 859      69  74.33196
## 868      53  62.62116
## 869      65  70.41686
## 871      56  63.01794
## 872      62  68.90861
## 873      64  67.83398
## 889      60  67.18931
## 892      85  85.24435
## 894      80  81.61858
## 899      78  83.02777
## 900      68  73.73707
## 901      70  74.88892
## 905      90  89.98500
## 907      83  81.73870
## 911      51  55.63974
## 914      61  62.66826
## 915      73  70.43528
## 924      92  90.48923
## 925     101  94.85381
## 929      59  65.15395
## 932      88  85.31113
## 933      96  96.53790
## 935      82  81.15640
## 938      83  83.15470
## 940      87  83.48769
## 941      99  91.14737
## 946      53  63.90310
## 950      79  78.30101
## 960     114 107.40924
## 964     103  94.92983
## 965      87  85.28770
## 967      92  87.66446
## 971     100  93.22618
## 973     108  99.12532
## 975      97  91.16455
## 977      71  72.75110
## 982      83  79.57500
## 985      84  82.33328
## 990      79  80.43937
## 994      90  89.45423
## 995      89  87.93766
## 1000     89  90.95326
## 1004     98  96.50287
## 1006     96  92.97704
## 1008    101  97.51556
## 1011     88  87.61073
## 1013     90  86.59208
## 1014     87  82.70013
## 1017     98  89.99315
## 1019    101  92.43209
## 1020    110  99.70525
## 1026     56  64.24170
## 1033     85  86.85605
## 1035     63  69.82702
## 1041     58  63.64000
## 1042     52  58.68170
## 1043     76  75.34484
## 1044     56  61.97257
## 1047     74  77.10928
## 1052     59  65.68318
## 1063     76  78.32770
## 1064     99  92.44416
## 1070     78  80.90417
## 1074    102  95.70958
## 1076     91  88.34149
## 1078     85  84.46482
## 1079    100  95.16721
## 1080     88  88.74787
## 1081     96  91.97239
## 1082     66  68.44144
## 1090     78  79.32060
## 1091     94  89.90802
## 1093     96  87.56335
## 1098     72  75.90608
## 1101     46  57.90269
## 1104     69  72.40214
## 1116     73  73.51963
## 1118     85  82.97670
## 1121     92  87.66890
## 1123     62  65.40437
## 1130     63  67.38607
## 1133     71  71.65268
## 1134     80  78.69926
## 1137     90  87.63451
## 1138     91  88.39833
## 1139     81  83.05860
## 1144     67  71.44723
## 1148     97  94.14461
## 1149     76  79.74062
## 1150     67  72.23940
## 1157     74  78.73195
## 1164    102  93.46506
## 1166    103  94.45086
## 1177    101  97.30206
## 1188     88  87.34925
## 1190     93  89.10515
## 1194     73  74.68791
## 1196     95  91.56593
## 1206     79  78.06603
## 1209     80  76.89921
## 1210     90  83.71684
## 1215     97  91.33505
## 1220     98  93.12816
## 1221     57  64.42125
## 1224     95  90.93255
## 1225     98  93.62773
## 1229     79  79.54110
## 1230     78  78.62824
## 1231     72  72.95698
## 1232     75  77.75992
## 1237     61  64.24644
## 1240     71  70.81103
## 1242     69  73.01879
## 1244     92  87.37569
## 1245     83  80.68888
## 1247     89  84.69363
## 1249     84  81.52825
## 1253     91  88.76071
## 1254     76  79.46025
## 1256     74  77.04982
## 1257     79  80.61267
## 1258     66  70.10862
## 1261     64  68.22669
## 1265     74  76.55678
## 1280     93  92.45762
## 1281     93  92.35706
## 1283     69  73.78459
## 1284     78  80.66665
## 1285     61  65.80174
## 1289     88  85.48517
## 1294     98  93.85148
## 1300     92  91.67806
## 1308     90  86.23284
## 1312     91  87.62536
## 1313     58  64.43965
## 1315     83  83.12994
## 1317     85  85.47956
## 1325     87  85.08414
## 1329     90  85.33739
## 1332     88  82.51889
## 1336     88  86.54725
## 1339     74  73.70848
## 1341     87  84.91302
## 1347     77  81.52463
## 1351     88  88.25820
## 1352     86  87.36930
## 1358     92  89.72743
## 1359     50  62.00884
## 1360     42  52.54768
## 1365     79  77.30854
## 1371     67  72.80553
## 1372     82  83.20568
## 1373     67  72.70512
## 1375     86  82.97777
## 1377     87  81.83669
## 1384     83  84.87732
## 1385     97  94.03447
## 1386    106  97.37123
## 1387     76  77.10574
## 1388     87  84.91752
## 1397    112 101.41846
## 1398    110  98.39779
## 1399    102  94.29028
## 1403     83  82.28840
## 1417     80  79.32141
## 1424     78  77.31367
## 1426     87  84.46718
## 1428     72  73.54342
## 1432     86  84.54383
## 1441     85  88.21591
## 1447     62  67.00138
## 1448     55  62.85740
## 1449     63  69.94316
## 1451     67  72.81948
## 1457     76  72.90065
## 1460     64  66.84871
## 1461     57  63.71301
## 1463     76  76.24981
## 1467     70  73.55343
## 1468     83  81.73602
## 1471     77  77.05264
## 1479     89  86.94894
## 1481     53  59.79608
## 1482     89  88.18588
## 1485     87  85.83743
## 1496     80  80.85115
## 1497     87  87.05447
## 1505     75  77.66813
## 1509     82  83.02379
## 1510     78  77.92556
## 1514     68  72.17659
## 1516     68  71.68182
## 1517     83  82.19070
## 1519     67  71.70301

Lets calculate the accuracy of using Model6 for our predictions

mean (apply(predicted_values, 1, min)/apply(predicted_values, 1, max)) # calculate accuracy
## [1] 0.9556918

The prediction accuracy of the improved Ridge Regression Model is 95.75%.

ModelName <- c("Model3", "Model5","Model6")
Model_Accuracy <- c("85.85%", "85.85%", "95.75%")
AccuracyCompared <- data.frame(ModelName,Model_Accuracy)
AccuracyCompared
ModelName Model_Accuracy
Model3 85.85%
Model5 85.85%
Model6 95.75%

The prediction accuracy of the improved Ridge Regression Model6 is at 95.75% which is very good for this purpose.

0.5 Conclusion

The improved Model6 shows significant improvement from all the OLS Models when the R-Squared and the RMSE of the Models are compared. THis Model also predict TARGET WINS better than the OLS models because it is more stable and less prone to overfitting.

The chosen OLS Model3 and Model5 are due to the improved F-Statistic, positive variable coefficients and low Standard Errors. We will chose to make our predictions with the champion model the improved Ridge Regression Model6 because it beats all the OLs models when the model performance metrics are compared as well as the predictive ability of this model.

For Models 3 and 4, the variables were chosen just to test how the offfensive categories only would affect the model and how only defensive variables would affect the model. Based on the Coefficients for each model, the third model took the highest coefficient from each category model.

For offense, the two highest were HR and Triples. Which intuively does make sense because the HR and triple are two of the highest objectives a hitter can achieve when batting and thus the higher the totals in those categories the higher the runs scored which help a team win. And on the defensive side, the two highest cooeficients were Hits and WALKS. Which again just looking at it from a common sense point does make sense because as a pitcher, what they want to do is limit the numbers of times a batter gets on base whether by a hit or walk. Unless its an error, if a batter does not get a hit or walk then the outcome would be an out which would in essence limit the amount of runs scored by the opposing team.

---
title: "Assignment-1"
author: Anil Akyildirim, John K. Hancock, John Suh, Emmanuel Hayble-Gomes, Chunjie Nan
date: "2/12/2020"
output:
  html_document:
    code_download: yes
    code_folding: hide
    highlight: pygments
    number_sections: yes
    theme: flatly
    toc: yes
    toc_float: yes
  pdf_document:
    toc: yes
---

## Introduction

In this assignment, we are tasked to explore, analyze and model a major league baseball dataset which contains around 2000 records where each record presents a baseball team from 1871 to 2006. Each observation provides the perforamce of the team for that particular year with all the statistics for the performance of 162 game season. The problem statement for the main objective is that "Can we predict the number of wins for the team with the given attributes of each record?". In order to provide a solution for the problem, our goal is to build a linear regression model on the training data that creates this prediction. 

### About the Data

The data set are provided in csv format as moneyball-evaluation-data and moneyball-training-data where we will explore, preperate and create our model with the training data and further test the model with the evaluation data. Below is short description of the variables within the datasets.

**INDEX: Identification Variable(Do not use)

**TARGET_WINS: Number of wins

**TEAM_BATTING_H : Base Hits by batters (1B,2B,3B,HR)

**TEAM_BATTING_2B: Doubles by batters (2B)

**TEAM_BATTING_3B: Triples by batters (3B)

**TEAM_BATTING_HR: Homeruns by batters (4B)

**TEAM_BATTING_BB: Walks by batters

**TEAM_BATTING_HBP: Batters hit by pitch (get a free base)

**TEAM_BATTING_SO: Strikeouts by batters

**TEAM_BASERUN_SB: Stolen bases

**TEAM_BASERUN_CS: Caught stealing

**TEAM_FIELDING_E: Errors

**TEAM_FIELDING_DP: Double Plays

**TEAM_PITCHING_BB: Walks allowed

**TEAM_PITCHING_H: Hits allowed

**TEAM_PITCHING_HR: Homeruns allowed

**TEAM_PITCHING_SO: Strikeouts by pitchers

## Data Exploration

### Descriptive Statistics

```{r}
# load libraries
library(ggplot2)
library(ggcorrplot)
library(psych)
library(statsr)
library(dplyr)
library(PerformanceAnalytics)
library(tidyr)
library(reshape2)
library(rcompanion)
library(caret)
library(MASS)
library(imputeTS)
library(rsample)
library(huxtable)
library(glmnet)
library(sjPlot)
library(modelr)
```

```{r}
# Load data sets

baseball_eva <- read.csv("https://raw.githubusercontent.com/anilak1978/data621/master/moneyball-evaluation-data.csv")
baseball_train <- read.csv("https://raw.githubusercontent.com/anilak1978/data621/master/moneyball-training-data.csv")

```


We can start exploring our training data set by looking at basic descriptive statistics. 

```{r}
# look at training dataset structure
str(baseball_train)

```

We have 2276 observations and 17 variables. All of our variables are integer type as expected.

```{r}
# look at descriptive statistics
metastats <- data.frame(describe(baseball_train))
metastats <- tibble::rownames_to_column(metastats, "STATS")
metastats["pct_missing"] <- round(metastats["n"]/2276, 3)
head(metastats)

```

With the descriptive statistics, we are able to see mean, standard deviation, median, min, max values and percentage of each missing value of each variable. For example, when we look at TEAM_BATTING_H, we see that average 1469 Base hits by batters, with standard deviation of 144, median of 1454 with maximum base hits of 2554. 


```{r}
# Look for missing values
colSums(is.na(baseball_train))

```

```{r}
# Percentage of missing values
missing_values <- metastats %>%
  filter(pct_missing < 1) %>%
  dplyr::select(STATS, pct_missing) %>%
  arrange(pct_missing)
missing_values

```

When we look at the missing values within the training data set, we see that proportionaly against the total observations, TEAM_BATTING_HBP and TEAM_BESARUN_CS variables have the most missing values. We will be handling these missing values in our Data Preperation section. 

### Correlation and Distribution

```{r fig1, fig.height=10, fig.width= 15, fig.align='center'}
# Look at correlation between variables

corr <- round(cor(baseball_train), 1)

ggcorrplot(corr,
           type="lower",
           lab=TRUE,
           lab_size=3,
           method="circle",
           colors=c("tomato2", "white", "springgreen3"),
           title="Correlation of variables in Training Data Set",
           ggtheme=theme_bw)

```

Team_Batting_H and Team_Batting_2B have the strongest positive correlation with Target_Wins. We also see that, there is a strong correlation between Team_Batting_H and Team_Batting_2B, Team_Pitching_B and TEAM_FIELDING_E. We will consider these findings on model creation as collinearity might complicate model estimation and we want to have explanotry variables to be independent from each other. We will try to avoid adding explanotry variables that are correlated to each other.

Let's look at the correlations and distribution of the variables in more detail. 

```{r}

# Look at correlation from batting, baserunning, pitching and fielding perspective
Batting_df <- baseball_train[c(2:7, 10)] 
BaseRunning_df <- baseball_train[c(8:9)] 
Pitching_df <- baseball_train[c(11:14)] 
Fielding_df <- baseball_train[c(15:16)]

```

#### Batting

```{r fig2, fig.height=10, fig.width= 15, fig.align='center'}
# Batting Correlations
chart.Correlation(Batting_df, histogram=TRUE, pch=19)

```

We can see that our response variable TARGET_WINS, TEAM_BATTING_H, TEAM_BATTING_2B, TEAM_BATTING_BB and TEAM_BASERUN_CS are normaly distributed. TEAM_BATTING_HR on the other hand is bimodal. 

#### Baserunning


```{r fig3, fig.height=10, fig.width= 15, fig.align='center'}
# baserunning Correlation

chart.Correlation(BaseRunning_df, histogram=TRUE, pch=19)

```

TEAM_BASERUN_SB is right skewed and TEAM_BATTING_SO is bimodal. 

#### Pitching

```{r fig4, fig.height=10, fig.width= 15, fig.align='center'}
#pitching correlations
chart.Correlation(Pitching_df, histogram=TRUE, pch=19)

```

TEAM_BATTING_HBP seems to be normally distributed however we shouldnt forget that we have a lot of missing values in this variable. 

```{r fig5, fig.height=10, fig.width= 15, fig.align='center'}
# fielding correlations
chart.Correlation(Fielding_df, histogram=TRUE, pch=19)
```


Let's also look at the outliers and skewness for each varibale. 

### Outliers and Skewness

```{r fig6, fig.height=10, fig.width= 15, fig.align='center'}
par(mfrow=c(3,3))
datasub_1 <- melt(baseball_train)
suppressWarnings(ggplot(datasub_1, aes(x= "value", y=value)) + 
                   geom_boxplot(fill='lightblue') + facet_wrap(~variable, scales = 'free') )
```

Based on the boxplot we created, TEAM_FIELDING_DP, TEAM_PITCHING_HR, TEAM_BATTING_HR and TEAM_BATTING_SO seem to have the least amount of outliers. 

```{r fig7, fig.height=10, fig.width= 15, fig.align='center'}
par(mfrow = c(3, 3))
datasub = melt(baseball_train) 
suppressWarnings(ggplot(datasub, aes(x= value)) + 
                   geom_density(fill='lightblue') + facet_wrap(~variable, scales = 'free') )
```

```{r}

metastats %>%
  filter(skew > 1) %>%
  dplyr::select(STATS, skew) %>%
  arrange(desc(skew))
```

We can see that the most skewed variable is TEAM_PITCHING_SO. We will correct the skewed variables in our data preperation section. 


When we are creating a linear regression model, we are looking for the fitting line with the least sum of squares, that has the small residuals with minimized squared residuals. From our correlation analysis, we can see that the explatory variable that has the strongest correlation with TARGET_WINS is TEAM_BATTING_H. Let's look at a simple model example to further expand our explaroty analysis. 

### Simple Model Example

```{r fig8, fig.height=5, fig.width= 15, fig.align='center'}
# line that follows the best assocation between two variables

plot_ss(x = TEAM_BATTING_H, y = TARGET_WINS, data=baseball_train, showSquares = TRUE, leastSquares = TRUE)

```

When we are exploring to build a linear regression, one of the first thing we do is to create a scatter plot of the response and explanatory variable. 

```{r fig9, fig.height=5, fig.width= 15, fig.align='center'}
# scatter plot between TEAM_BATTING_H and TARGET_WINS

ggplot(baseball_train, aes(x=TEAM_BATTING_H, y=TARGET_WINS))+
  geom_point()

```

One of the conditions for least square lines or linear regression are Linearity. From the scatter plot between TEAM_BATTING_H and TARGET_WINS, we can see this condition is met. We can also create a scatterplot that shows the data points between TARGET_WINS and each variable.

```{r fig10, fig.height=5, fig.width= 15, fig.align='center'}

baseball_train %>%
  gather(var, val, -TARGET_WINS) %>%
  ggplot(., aes(val, TARGET_WINS))+
  geom_point()+
  facet_wrap(~var, scales="free", ncol=4)

```

As we displayed earlier, hits walks and home runs have the strongest correlations with TARGET_WINS and also meets the linearity condition. 

```{r}
# create a simple example model
lm_sm <- lm(baseball_train$TARGET_WINS ~ baseball_train$TEAM_BATTING_H)
summary(lm_sm)

```

TARET_BATTING_H has the strongest correlation with TARGET_WINS response variable, however when we create a simple model just using TARGET_BATTING_H, we can only explain 15% of the variablity. (Adjusted R-squared:  0.1508). The remainder of the varibility can be explained with selected other variables within the training dataset. 

```{r fig11, fig.height=5, fig.width= 15, fig.align='center'}
#histogram of residuals for the simple model
hist(lm_sm$residuals)

```

```{r fig12, fig.height=5, fig.width= 15, fig.align='center'}
# check for constant variability (honoscedasticity)

plot(lm_sm$residuals ~ baseball_train$TEAM_BATTING_H)

```

We do see that the residuals are distributed normally and variability around the regression line is roughly constant. 

Based on our explatory analysis, we were able to see the correlation level between the possible explanatory variables and repsonse variable TARGET_WINS. Some of the variables such as TARGET_BATTING_H has somewhat strong positive correlation, however some of the variables such as TEAM_PITCHING_BB has weak positive relationship with TARGET_WINS. We also found out, hit by the pitcher(TEAM_BATTING_HBP) and caught stealing (TEAM_BASERUN_CS) variables are missing majority of the values. Skewness and distribution analysis gave us the insights that we have some variables that are right-tailed. Considering all of these insights, we will handle missing values, correct skewness and outliers and select our explaratory variables based on correlation in order to create our regression model. 

## Data Preparation


### Objective

In this section, we will prepare the dataset for linear regression modeling.  We accomplish this by handling missing values and outliers and by tranforming the data into more normal distributions.  This section covers:

*Identify and Handle Missing Data
*Correct Outliers
*Adjust Skewed value - Box Cox Transformation


First, we will start by copying the dataset into a new variable, baseball_train_01, and we will remove the Index variable from the new dataset as well. We will now have 16 variables.

```{r}
baseball_train_01 <- baseball_train

baseball_train_01 <-subset(baseball_train_01, select = -c(INDEX))

```


### Identify and Handle Missing Data

#### Removal of Sparsely Populated Variables - MCAR

In the Data Exploration section, we identified these variables as having missing data values.The table below lists the variables with missing data. The variable, TEAM_BATTING_HBP, is sparsely populated.  Since this data is Missing Completely at Random (MCAR) and is not related to any other variable, it is safe to completely remove the variable from the dataset. 


```{r}
missing_values
```

```{r}
baseball_train_01 <-subset(baseball_train_01, select = -c(TEAM_BATTING_HBP))

```

There are now 15 variables.


```{r}
dim(baseball_train_01)
```

#### Imputation of Missing Values
For the remaining variables with missing values, we will impute the mean of the variable. The function, "na_mean" updates all missing values with the mean of the variable.

```{r, message=FALSE}
baseball_train_01 <- na_mean(baseball_train_01, option = "mean")  

```

Re-running the metastats dataframe on the new baseball_train_01 dataset shows that there are no missing values.

```{r, message=FALSE}
# look at descriptive statistics
metastats <- data.frame(describe(baseball_train_01))
metastats <- tibble::rownames_to_column(metastats, "STATS")
metastats["pct_missing"] <- round(metastats["n"]/2276, 3)

```


```{r}
# Percentage of missing values
missing_values2 <- metastats %>%
  filter(pct_missing < 1) %>%
  dplyr::select(STATS, pct_missing) %>%
  arrange(pct_missing)
missing_values2
```

### Correct Outliers

In this section, we created two functions that can identify outliers. The funcion, Identify_Outlier, uses the Turkey method, where outliers are identified by being below Q1-1.5*IQR and above Q3+1.5*IQR. The second function, tag_outlier, returns a binary list of values, "Acceptable" or "Outlier" that will be added to the dataframe.


```{r}
Identify_Outlier <- function(value){

    interquartile_range = IQR(sort(value),na.rm = TRUE)
    q1 = matrix(c(quantile(sort(value),na.rm = TRUE)))[2]
    q3 = matrix(c(quantile(sort(value),na.rm = TRUE)))[4]
    lower = q1-(1.5*interquartile_range)
    upper = q3+(1.5*interquartile_range)
    
    bound <- c(lower, upper)
    
    return (bound)
}

```


```{r}
tag_outlier <- function(value) {
    
   boundaries <- Identify_Outlier(value)
   tags <- c()
   counter = 1
    for (i in as.numeric(value))
    {

        if (i >= boundaries[1] & i <= boundaries[2]){
          tags[counter] <- "Acceptable"
        } else{
          tags[counter] <- "Outlier"
        }
      
      counter = counter +1
    }
   
   return (tags)
}
```

As seen in the box plots from the previous section, "TEAM_BASERUN_SB", "TEAM_BASERUN_CS", "TEAM_PITCHING_H", "TEAM_PITCHING_BB", "TEAM_PITCHING_SO", and "TEAM_FIELDING_E" all have a high number of outliers. We will use the two functions above to tag those rows with extreme outliers.


```{r}
tags<- tag_outlier(baseball_train_01$TEAM_BASERUN_SB)
baseball_train_01$TEAM_BASERUN_SB_Outlier <- tags

tags<- tag_outlier(baseball_train_01$TEAM_BASERUN_CS)
baseball_train_01$TEAM_BASERUN_CS_Outlier <- tags

tags<- tag_outlier(baseball_train_01$TEAM_PITCHING_H)
baseball_train_01$TEAM_PITCHING_H_Outlier <- tags

tags<- tag_outlier(baseball_train_01$TEAM_PITCHING_BB)
baseball_train_01$TEAM_PITCHING_BB_Outlier <- tags

tags<- tag_outlier(baseball_train_01$TEAM_PITCHING_SO)
baseball_train_01$TEAM_PITCHING_SO_Outlier <- tags

tags<- tag_outlier(baseball_train_01$TEAM_FIELDING_E)
baseball_train_01$TEAM_FIELDING_E_Outlier <- tags
```

Below, we filtered out all of the outliers and created a new dataframe, baseball_train_02


```{r, message=FALSE, options(warn=-1)}
baseball_train_02 <- baseball_train_01 %>%
                filter(
                        TEAM_BASERUN_SB_Outlier != "Outlier" &
                        TEAM_BASERUN_CS_Outlier != "Outlier" &
                        TEAM_PITCHING_H_Outlier != "Outlier" &
                        TEAM_PITCHING_BB_Outlier != "Outlier" &
                        TEAM_PITCHING_SO_Outlier != "Outlier" &
                        TEAM_FIELDING_E_Outlier != "Outlier"
                )
```


Re-running the boxplots show data that has a better normal distribution except for the variable, TEAM_FIELDING_E which is still skewed.  We will handle this next.


```{r fig13, fig.height=10, fig.width= 15, fig.align='center'}
par(mfrow=c(3,3))
datasub_1 <- melt(baseball_train_02)
suppressWarnings(ggplot(datasub_1, aes(x= "value", y=value)) + 
                   geom_boxplot(fill='lightblue') + facet_wrap(~variable, scales = 'free') )


```

### Adjust Skewed values
#### Box Cox Transformation

Removing the outliers tranformed each variable to a closer to a normal distribution and checking the skewness of the variables confirm this with the exception of TEAM_FIELDING_E. This variable is still skewed and not normal.  In this section, we will use the Box Cox tranformation from the MASS library to normalize this variable.


```{r}
metastats_02 <- data.frame(describe(baseball_train_02))
metastats_02 <- tibble::rownames_to_column(metastats_02, "STATS") 
 
metastats_02 %>%
 filter(skew > 1 | skew < -1) %>%
  dplyr::select(STATS, skew) %>%
  arrange(desc(skew))

```

Looking at the histogram and QQ plots we can confirm that the variable, TEAM_FIELDING_E, is not normally distributed. It is skewed to the right.

```{r, message=FALSE}
plotNormalHistogram(baseball_train_02$TEAM_FIELDING_E)
```


```{r}
qqnorm(baseball_train_02$TEAM_FIELDING_E,
       ylab="Sample Quantiles for TEAM_FIELDING_E")    
         qqline(baseball_train_02$TEAM_FIELDING_E,
           col="blue")
```


The following Box Cox transformation section is based on the tutorial at the link below:

[\hrefhttps://rcompanion.org/handbook/I_12.html][Summary and Analysis of Extension Program Evaluation in R]

The Box Cox procedure uses a log-likelihood to find the lambda to use to transform a variable to a normal distribution. 


```{r, message=FALSE}

TEAM_FIELDING_E <- as.numeric(dplyr::pull(baseball_train_02, TEAM_FIELDING_E))

#Transforms TEAM_FIELDING_E as a single vector 
Box = boxcox(TEAM_FIELDING_E ~ 1, lambda = seq(-6,6,0.1))

#Creates a dataframe with results
Cox = data.frame(Box$x, Box$y)

# Order the new data frame by decreasing y to find the best lambda.Displays the lambda with the greatest log likelihood.
Cox2 = Cox[with(Cox, order(-Cox$Box.y)),]
Cox2[1,] 

#Extract that lambda and Transform the data
lambda = Cox2[1, "Box.x"]
T_box = (TEAM_FIELDING_E ^ lambda - 1)/lambda
```

We can now see that TEAM_FIELDING_E has a normal distribution.


```{r}
plotNormalHistogram(T_box)
```


```{r}
qqnorm(T_box, ylab="Sample Quantiles for TEAM_FIELDING_E")
qqline(T_box,
        col="blue")
```


```{r}
baseball_train_02$TEAM_FIELDING_E <- T_box
```

The density plots below show that all of the variables for the dataset baseball_train_02 are now normally distributed.  In the next section, we will use this dataset to build the models and discuss the coefficients of the models. 


```{r , message=FALSE, fig15, fig.height=10, fig.width= 15, fig.align='center'}
par(mfrow = c(3, 3))
datasub = melt(baseball_train_02) 
suppressWarnings(ggplot(datasub, aes(x= value)) + 
                   geom_density(fill='lightblue') + facet_wrap(~variable, scales = 'free') )


```

Viewing the dataframe shows that the dataset contains characters resulting from the transfromation of the outliers. These non numeric characters will impact our models especially if we build the intial baseline model with all the variables. We will need one more step to have our data ready for the models.

```{r}
str(baseball_train_02)
```
Subsetting - The code below will subset the data to have only numeric or integer values that will be used for our models. This will create baseball_train_03 dataframe.

```{r}
baseball_train_03 <- baseball_train_02[c(1:15) ]
str(baseball_train_03)
```

## Build Models 

The first Model is using stepwise in Backward direction to eliminate variables, this is an automated process which is different from the manual variable selction process. We will not pay much attention to this process as the focus of the project is to manually identify and select those significant variables that will predict TARGET WINS. 
```{r}
Model <- step(lm(TARGET_WINS ~ ., data=baseball_train_03), direction = "backward")
summary(Model)
```
The step backward variable selection process identified eleven significant variables with an R-squared of 37%, Residual Error of 11.01 and F-Statistic of 74.59. Notice that some of the coefficients are negative which means these Team will most likely result in negative wins. We will explore these coefficient a little further in this analysis.

### OLS- MODEL 1 

Using all the 15 Variables

```{r}
Model1 <-lm(TARGET_WINS ~ ., data=baseball_train_03)
summary(Model1)
```
This Model identified seven significant variables at \apha = 0.05 with an R-squared of 37%, Residual Error of 11.01 and F-Statistic of 64.01. Although the F-Statistic reduced, this model does not improve significantly from the previous model. 

```{r}
Metrics1 <- data.frame(
  R2 = rsquare(Model1, data = baseball_train_03),
  RMSE = rmse(Model1, data = baseball_train_03),
  MAE = mae(Model1, data = baseball_train_03)
)
print(Metrics1)
```

### OLS- MODEL 2 

Using all the seven (7) significant variables from Model 1 

```{r}
Model2 <- lm(TARGET_WINS~TEAM_FIELDING_E + TEAM_BASERUN_SB + TEAM_BATTING_3B + TEAM_FIELDING_DP + TEAM_PITCHING_SO + TEAM_BATTING_SO + TEAM_BATTING_2B,data=baseball_train_03)
summary(Model2)
```
This Model identified five significant variables at \apha = 0.05 with an R-squared of 22%, Residual Error of 12.19 and F-Statistic of 64.14. The R-Squared decreased and the Error increased slightly. 

```{r}
Metrics2 <- data.frame(
  R2 = rsquare(Model2, data = baseball_train_03),
  RMSE = rmse(Model2, data = baseball_train_03),
  MAE = mae(Model2, data = baseball_train_03)
)
print(Metrics2)
```

### OLS- MODEL 3

All offensive categories which include hitting and base running

```{r}
Model3 <-lm(TARGET_WINS~TEAM_BATTING_H + TEAM_BATTING_BB + TEAM_BATTING_HR + TEAM_BATTING_2B + TEAM_BATTING_SO + TEAM_BASERUN_CS + TEAM_BATTING_3B + TEAM_BASERUN_SB,data=baseball_train_03)
summary(Model3)
```
This Model identified five significant variables at \apha = 0.05 with an R-squared of 28%, Residual Error of 11.73 and F-Statistic of 75.58. Although the R-squared is not that great, the standard errors are more reasonable. We will hold onto this Model as performing better than the previous models for now.

```{r}
Metrics3 <- data.frame(
  R2 = rsquare(Model3, data = baseball_train_03),
  RMSE = rmse(Model3, data = baseball_train_03),
  MAE = mae(Model3, data = baseball_train_03)
)
print(Metrics3)
```

### OLS- MODEL 4

All defensive categories which include fielding and pitching

```{r}
Model4 <- lm(TARGET_WINS~TEAM_PITCHING_H + TEAM_PITCHING_BB + TEAM_PITCHING_HR + TEAM_PITCHING_SO + TEAM_FIELDING_E,data=baseball_train_03)
summary(Model4)
```
This Model identified five significant variables at \apha = 0.05 with an R-squared of 19%, Residual Error of 12.46 and F-Statistic of 75.56.There is no significant improvement with this model.

```{r}
Metrics4 <- data.frame(
  R2 = rsquare(Model4, data = baseball_train_03),
  RMSE = rmse(Model4, data = baseball_train_03),
  MAE = mae(Model4, data = baseball_train_03)
)
print(Metrics4)
```

### OLS- MODEL 5

Using only the significant variables from Model 3

```{r}
Model5 <- lm(TARGET_WINS~TEAM_PITCHING_H + TEAM_PITCHING_BB + TEAM_PITCHING_HR + TEAM_PITCHING_SO + TEAM_BATTING_3B + TEAM_BASERUN_SB,data=baseball_train_03)
summary(Model5)
```
This Model identified five significant variables at \apha = 0.05 with an R-squared of 26%, Residual Error of 11.93 and F-Statistic of 88.92. Although the R-squared is not better than than Model3, the F-statistic improved with smaller Standard Error. 

```{r}
Metrics5 <- data.frame(
  R2 = rsquare(Model5, data = baseball_train_03),
  RMSE = rmse(Model5, data = baseball_train_03),
  MAE = mae(Model5, data = baseball_train_03)
)
print(Metrics5)
```

### Compare OLS Model Quality 

```{r}
anova(Model, Model1, Model2, Model3, Model4, Model5)
tab_model(Model, Model1, Model2, Model3, Model4, Model5)

```


### RIDGE Regression- MODEL 6 

The Ridge regression is an extension of linear regression where the loss function is modified to minimize the complexity of the model. This modification is done by adding a penalty parameter that is equivalent to the square of the magnitude of the coefficients.

Before implementing the RIDGE model, we will split the training dataset into 2 parts that is - training set within the training set and a test set that can be used for evaluation. By enforcing stratified sampling both our training and testing sets have approximately equal response "TARGET_WINS" distributions.

Transforming the variables into the form of a matrix will enable us to penalize the model using the 'glmnet' method in glmnet package.

```{r}
#Split the data into Training and Test Set
baseball_train_set<- initial_split(baseball_train_03, prop = 0.7, strata = "TARGET_WINS")
train_baseball  <- training(baseball_train_set)
test_baseball   <- testing(baseball_train_set)

train_Ind<- as.matrix(train_baseball)
train_Dep<- as.matrix(train_baseball$TARGET_WINS)

test_Ind<- as.matrix(test_baseball)
test_Dep<- as.matrix(test_baseball$TARGET_WINS)

```

For the avoidance of multicollinearity, avoiding overfitting and predicting better, implementing RIDGE regression will become useful. 

```{r}
lambdas <- 10^seq(2, -3, by = -.1)
Model6 <- glmnet(train_Ind,train_Dep, nlambda = 25, alpha = 0, family = 'gaussian', lambda = lambdas)
summary(Model6)
print(Model6, digits = max(3, getOption("digits") - 3),
           signif.stars = getOption("show.signif.stars"))
```

The significant difference between the OLS and the Ridge Regresion is the hyperparameter tuning using lambda. The Ridge regression does not perform Feature Selection, but it predicts better and solve overfitting. Cross Validating the Ridge Regression will help us to identify the optimal lambda to penalize the model and enhance the predictability.

```{r}
CrossVal_ridge <- cv.glmnet(train_Ind,train_Dep, alpha = 0, lambda = lambdas)
optimal_lambda <- CrossVal_ridge$lambda.min
optimal_lambda #The optimal lambda is 0.001 which we will use to penelize the Ridge Regression model.
coef(CrossVal_ridge) # Shows the coefficients
plot(CrossVal_ridge)
```

The plot shows that the errors increases as the magnitude of lambda increases, previously, we identified that the optimal lambda is 0.001 which is very obvious from the plot above. The coefficients are restricted to be small but not quite zero as Ridge Regression does not force the coefficient to zero. This indicates that the model is performing well so far. But let's make it better using the optimal labmda.

```{r}
eval_results <- function(true, predicted, df){
  SSE <- sum((predicted - true)^2)
  SST <- sum((true - mean(true))^2)
  R_square <- 1 - SSE / SST
  RMSE = sqrt(SSE/nrow(df))
data.frame(   
  RMSE = RMSE,
  Rsquare = R_square
)
  
}
# Prediction and evaluation on train data
predictions_train <- predict(Model6, s = optimal_lambda, newx = train_Ind)
eval_results(train_Dep, predictions_train, train_baseball)
```
We should be a little concern about the 100% R-squared performance for this Model. Although the Ridge Regression forces the coefficients towards zero to improve the Model performance and enhance the predictability, the very high peformance may require further investigation. Lets improve the model using a more reason lambda because optimal might not always be the best.

### The Improved Ridge Regression

```{r}
Model6_Improved <- glmnet(train_Ind,train_Dep, nlambda = 25, alpha = 0, family = 'gaussian', lambda = 6.310)
summary(Model6_Improved)
coef(Model6_Improved)

```

Let's compute the Model's Performance Metric to see how this model is doing.

```{r}
eval_results <- function(true, predicted, df){
  SSE <- sum((predicted - true)^2)
  SST <- sum((true - mean(true))^2)
  R_square <- 1 - SSE / SST
  RMSE = sqrt(SSE/nrow(df))
data.frame(   
  RMSE = RMSE,
  Rsquare = R_square
)
  
}

# Prediction and evaluation on train data
predictions_train <- predict(Model6_Improved, s = lambda, newx = train_Ind)
eval_results(train_Dep, predictions_train, train_baseball)

# Prediction and evaluation on test data
predictions_test <- predict(Model6_Improved, s = lambda, newx = test_Ind)
eval_results(test_Dep, predictions_test, test_baseball)
```
The improved Model6 output shows that the RMSE and R-squared values for the Ridge Regression model on the training and test data are significantly improved. The Loss Function (RMSE) are severely reduced compared to the OLS models which indicates that the Ridge Regression is not overfitting. These performance is significantly improved compared to the OLS Models 1 to 5.

### Model Performance Comparison
        
```{r}
ModelName <- c("Model", "Model1","Model2","Model3","Model4","Model5","Model6")
Model_RSquared <- c("37%", "37%", "22%", "28%", "19%", "26% ", "90%")
Model_RMSE <- c("11.01", "10.96", "12.15", "11.69", "12.43", "11.93 ", "4.33")
Model_FStatistic <- c("74.59", "64.01", "64.14", "75.58", "72.56", "88.92 ", "NA")
Model_Performance <- data.frame(ModelName,Model_RSquared,Model_RMSE,Model_FStatistic)
Model_Performance

```

### Model Prediction

Based on the Model metrics above, we're ready to make prediction and we will select our acceptable OLS Model3 and Model5 which has better F-Statistic, smaller standard errors and less negative coefficient as our best OLS models. We will also compare the prediction accuracy of these models to that of the improved Ridge Regression Model which is our champion Model for this exercise based on the very small RMSE and the highest R-squared of over 90%.

```{r}
predicted <- predict(Model3, newx = test_baseball)# predict on test data
predicted_values <- cbind (actual=test_baseball$TARGET_WINS, predicted)  # combine
predicted_values
```

```{r}
mean (apply(predicted_values, 1, min)/apply(predicted_values, 1, max)) # calculate accuracy
```
The prediction accuracy here is at 85.85%

```{r}
predicted <- predict(Model5, newx = test_baseball)# predict on test data
predicted_values <- cbind (actual=test_baseball$TARGET_WINS, predicted)  # combine
predicted_values
```

```{r}
mean (apply(predicted_values, 1, min)/apply(predicted_values, 1, max)) # calculate accuracy
```

The prediction accuracy for the OLS Model5 is at 85.94% which is not bad for this purpose. But lets compare it to the Champion Model- The improved Ridge Regression.

```{r}
predicted <- predict(Model6_Improved, newx = test_Ind)# predict on test data
predicted_values <- cbind (actual=test_baseball$TARGET_WINS, predicted)  # combine
predicted_values

```
 Lets calculate the accuracy of using Model6 for our predictions

```{r}
mean (apply(predicted_values, 1, min)/apply(predicted_values, 1, max)) # calculate accuracy
```
The prediction accuracy of the improved Ridge Regression Model is 95.75%.

```{r}
ModelName <- c("Model3", "Model5","Model6")
Model_Accuracy <- c("85.85%", "85.85%", "95.75%")
AccuracyCompared <- data.frame(ModelName,Model_Accuracy)
AccuracyCompared
```

The prediction accuracy of the improved Ridge Regression Model6 is at 95.75% which is very good for this purpose.

## Conclusion

The improved Model6 shows significant improvement from all the OLS Models when the R-Squared and the RMSE of the Models are compared. THis Model also predict TARGET WINS better than the OLS models because it is more stable and less prone to overfitting. 

The chosen OLS Model3 and Model5 are due to the improved F-Statistic, positive variable coefficients and low Standard Errors. We will chose to make our predictions with the champion model the improved Ridge Regression Model6 because it beats all the OLs models when the model performance metrics are compared as well as the predictive ability of this model. 

For Models 3 and 4, the variables were chosen just to test how the offfensive categories only would affect the model and how only defensive variables would affect the model. Based on the Coefficients for each model, the third model took the highest coefficient from each category model.

For offense, the two highest were HR and Triples. Which intuively does make sense because the HR and triple are two of the highest objectives a hitter can achieve when batting and thus the higher the totals in those categories the higher the runs scored which help a team win. And on the defensive side, the two highest cooeficients were Hits and WALKS. Which again just looking at it from a common sense point does make sense because as a pitcher, what they want to do is limit the numbers of times a batter gets on base whether by a hit or walk. Unless its an error, if a batter does not get a hit or walk then the outcome would be an out which would in essence limit the amount of runs scored by the opposing team.












