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email_spam_detection.py
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email_spam_detection.py
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# -*- coding: utf-8 -*-
"""EMAIL_SPAM_DETECTION.ipynb
Automatically generated by Colaboratory.
Original file is located at
https://colab.research.google.com/drive/1BPPF1OcNjhM4NuFtMbWrqkW-x5OcUW8w
# **EMAIL SPAM DETECTION WITH MACHINE LEARNING**
![no-spam-gmail.webp](data:image/webp;base64,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)
#Download **Dataset** here [EMAIL SPAM DETECTION](https://drive.google.com/file/d/19Yz5vBQ3T174xeSOOqVzw3rWWm39stsf/view?usp=share_link)
### Knowing about the Dataset
**Importing the Required Libraries**
"""
# Numpy Library for Numerical Calculations
import numpy as np
# Pandas Library for Dataframe
import pandas as pd
# Matplotlib and for Plottings
import matplotlib.pyplot as plt
# Pickle Library for Saving the Model
import pickle
# RE Library for Regular Expression
import re
# NLTK Library for Natural Language Processing
import nltk
nltk.download('stopwords') # Downloading the Stopwords
# Stopwords for removing stopwords in the Text
from nltk.corpus import stopwords
# PorterStemmer for Stemming the Words
from nltk.stem.porter import PorterStemmer
# CountVectorizer for Bagging of Words and Vectorizing it
from sklearn.feature_extraction.text import CountVectorizer
# Train_Test_Split for splitting the Dataset
from sklearn.model_selection import train_test_split
# Decision Tree Classifier, Random Forest Classifier and Multinomial Naïve Bayes are Models
from sklearn.tree import DecisionTreeClassifier
from sklearn.ensemble import RandomForestClassifier
from sklearn.naive_bayes import MultinomialNB
# Accuracy Score and Confusion Matrix is for Analysis of Models
from sklearn.metrics import confusion_matrix
from sklearn.metrics import accuracy_score
"""**Reading informations in the Dataset**"""
from google.colab import drive
drive.mount('/content/drive')
spam = pd.read_csv("/content/drive/My Drive/Oasis Infobyte/Data Science - Internship/Email-Spam-Detection/spam.csv", encoding='ISO-8859-1')
"""**Checking for null values in Data**"""
spam.isnull().sum()
"""**Checking the First Five Values in the Data**"""
spam.head()
"""**Checking the Last Five Values in the Data**"""
spam.tail()
"""**Taking the required Columns in the Dataset**"""
spam = spam[['v1', 'v2']]
spam.columns = ['label', 'message']
spam.head()
"""**Dimensions of the Dataset**"""
spam.shape
"""**Checking for the classes in the Data**"""
spam.groupby('label').size()
"""### Plotting
**Plotting the Label in the Dataset**
"""
spam['label'].value_counts().plot(kind='bar')
"""### NLP
**Preprocessing the Text in the Dataset**
"""
ps = PorterStemmer()
corpus = []
for i in range(0, len(spam)):
review = re.sub('[^a-zA-Z]', ' ', spam['message'][i])
review = review.lower()
review = review.split()
review = [ps.stem(word) for word in review if not word in stopwords.words('english')]
review = ' '.join(review)
corpus.append(review)
# Printing the first 5 values in the corpus list
corpus[1:6]
"""**Creating Bag of Words Model**"""
cv = CountVectorizer(max_features = 4000)
X = cv.fit_transform(corpus).toarray()
Y = pd.get_dummies(spam['label'])
Y = Y.iloc[:, 1].values
"""### Data Modeling
**Splitting the Dataset into Training and Testing Set**
"""
X_train, X_test, Y_train, Y_test = train_test_split(X, Y, test_size = 0.20, random_state=42)
"""### Model Building
**Creating the Models**
"""
# Model 1 - Random Forest Classifier
model1 = RandomForestClassifier()
model1.fit(X_train, Y_train)
# Model 2 - Decision Tree Classifier
model2 = DecisionTreeClassifier()
model2.fit(X_train, Y_train)
# Model 3 - Multinomial Naïve Bayes
model3 = MultinomialNB()
model3.fit(X_train, Y_train)
"""**Prediction**"""
pred1 = model1.predict(X_test)
pred2 = model2.predict(X_test)
pred3 = model3.predict(X_test)
"""### Model Testing
**Testing the Model**
"""
# Model 1 - Random Forest Classifier
print("Random Forest Classifier")
print("Confusion Matrix: ")
print(confusion_matrix(Y_test, pred1))
print("Accuracy: ", accuracy_score(Y_test, pred1))
print("--------------------------------")
# Model 2 - Decision Tree Classifier
print("Decision Tree Classifier")
print("Confusion Matrix: ")
print(confusion_matrix(Y_test, pred2))
print("Accuracy: ", accuracy_score(Y_test, pred2))
print("--------------------------------")
# Model 3 - Multinomial Naïve Bayes
print("Multinomial Naïve Bayes")
print("Confusion Matrix: ")
print(confusion_matrix(Y_test, pred3))
print("Accuracy: ", accuracy_score(Y_test, pred3))
from sklearn.metrics import confusion_matrix
cm = confusion_matrix(Y_test, pred3)
import seaborn as sns
sns.heatmap(cm, annot=True)
report1 = classification_report(Y_test, pred1)
print("Classification Report for RFC \n", report1)
report2 = classification_report(Y_test, pred2)
print("Classification Report for DTC \n", report2)
report3 = classification_report(Y_test, pred3)
print("Classification Report for MNB \n", report3)
"""**Best Model is Multinomial Naïve Bayes**
### Saving Models
Saving all the Models
"""
filename = "RFC.pkl"
pickle.dump(model1, open(filename, 'wb'))
filename = "DTC.pkl"
pickle.dump(model2, open(filename, 'wb'))
filename = "MNB.pkl"
pickle.dump(model3, open(filename, 'wb'))
print("Saved all Models")