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- # Bot Detection Dataset 🤖🔍
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- Welcome to the Bot Detection Dataset! This dataset is designed to facilitate the analysis and detection of bot accounts on Twitter. It contains a collection of user profiles and associated tweet data, along with a binary label indicating whether each user is a bot or not.
 
 
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- ## Dataset Information 📊
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- The dataset is provided in a CSV file format named 'bot_detection_dataset.csv'. It includes the following columns:
 
 
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- - User ID: Unique identifier for each user in the dataset.
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- - Username: The username associated with the user.
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- - Tweet: The text content of the tweet.
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- - Retweet Count: The number of times the tweet has been retweeted.
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- - Mention Count: The number of mentions in the tweet.
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- - Follower Count: The number of followers the user has.
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- - Verified: A boolean value indicating whether the user is verified or not.
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- - Bot Label: A label indicating whether the user is a bot (1) or not (0).
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- - Location: The location associated with the user.
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- - Created At: The date and time when the tweet was created.
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- - Hashtags: The hashtags associated with the tweet.
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- ## How to Use 📝
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- 1. Load the dataset: Read the 'bot_detection_dataset.csv' file into your preferred data analysis or machine learning tool/library.
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- 2. Preprocess the data: Perform any necessary data cleaning, handling missing values, and feature engineering.
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- 3. Split the data: Divide the dataset into training and testing sets.
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- 4. Choose a Machine Learning Algorithm: Select one or more algorithms suitable for binary classification, such as Logistic Regression, Random Forest, Gradient Boosting, Support Vector Machines, or Neural Networks.
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- 5. Train the model: Train the chosen algorithm(s) on the training data.
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- 6. Evaluate the model: Evaluate the model's performance using appropriate evaluation metrics.
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- 7. Predict Bot or Not: Apply the trained model to new data to predict whether a user is a bot or not.
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- ## ML Algorithms for Bot Detection 🧠💡
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- Several machine learning algorithms can be applied to predict bot accounts using this dataset. Some commonly used algorithms include:
 
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- - Logistic Regression
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- - Random Forest
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- - Gradient Boosting (XGBoost, LightGBM)
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- - Support Vector Machines (SVM)
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- - Neural Networks (MLPs, CNNs)
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- Experiment with different algorithms and consider performing hyperparameter tuning to optimize the model's performance.
 
 
 
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- Remember to acknowledge the dataset source and provide appropriate citations if you use this dataset for research or analysis.
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- Enjoy exploring the Bot Detection Dataset and discovering insights into Twitter bot accounts! 🚀🔍
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+ # Social Media Bot Detection (Metadata-based)
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+ This project focuses on detecting automated social media accounts using structured profile and behavioral metadata.
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+ Instead of relying on tweet content or NLP techniques, the model analyzes account-level and activity-based features
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+ to identify bot-like patterns.
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+ ## Dataset Overview
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+ The dataset consists of user profile and activity metadata collected at the account level.
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+ Each record represents a user and includes structured numerical and boolean attributes, along with a binary label
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+ indicating whether the account is automated (bot) or human-operated.
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+ ### Example Features Used
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+ - Follower count and following count
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+ - Follower–following ratio
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+ - Posting activity (status count)
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+ - Account age (in days)
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+ - Profile attributes (verified status, default profile settings)
 
 
 
 
 
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+ ## Modeling Approach
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+ - **Preprocessing:** Cleaned and standardized structured metadata features.
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+ - **Feature Engineering:** Derived behavioral indicators such as follower–following ratio and account age.
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+ - **Modeling:** Trained a Random Forest classifier to distinguish bot and human accounts.
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+ - **Explainability:** Used feature importance to interpret which attributes influence predictions.
 
 
 
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+ ## Evaluation
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+ Model evaluation was performed offline using standard classification metrics such as accuracy and recall.
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+ The Streamlit application focuses on inference and explainability rather than live metric reporting.
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+ ## Application Demo
 
 
 
 
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+ A lightweight Streamlit interface is provided to:
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+ - Input account metadata
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+ - Generate bot or human predictions
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+ - Visualize feature importance for interpretability
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+ ## Notes
 
 
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+ This project is intended as a prototype to demonstrate machine learning workflows, feature engineering,
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+ and model interpretability using structured data rather than production-scale deployment.