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Ensemble Machine Learning : Advances in Research and Applications / M. A. Jabbar, Loveleen Gaur, Abdelkrim Haqiq, editors.
- Format:
- Book
- Series:
- Computer science, technology and applications.
- Computer Science, Technology and Applications Series
- Language:
- English
- Subjects (All):
- Ensemble learning (Machine learning).
- Physical Description:
- 1 online resource (287 pages)
- Edition:
- First edition.
- Place of Publication:
- New York : Nova Science Publishers, [2024]
- Summary:
- "Ensemble Machine Learning: Advances in Research and Applications" delves into the dynamic realm of ensemble methods, offering a comprehensive exploration of its evolution, methodologies, and diverse applications. Chapters are gathered from the collective wisdom of researchers, practitioners, and innovators who have pioneered this ever-evolving domain. This book serves as a compendium, bringing together theoretical foundations, cutting-edge advancements, and practical insights, catering to both seasoned experts and those venturing into the intricate world of ensemble learning. Each chapter encapsulates the essence of collaboration among diverse models, unveiling the intricacies of ensemble techniques, their fusion strategies, and their impact across industries. This book serves as a guiding beacon for enthusiasts, researchers, and practitioners navigating the intricate landscape of ensemble machine learning, fostering innovation, and paving the way for future breakthroughs"-- Provided by publisher.
- Contents:
- Intro
- Contents
- Preface
- Chapter 1
- Ensemble Machine Learning in Deep Fake Detection
- Abstract
- 1. Introduction
- 2. Deep Fake Creation Techniques
- 2.1. Deep Face Lab
- 2.2. Face2Face
- 3. Deep Fake Detection Techniques
- 3.1. Machine Learning-Based Approaches
- 3.2. Face Aliveness Detection
- 3.3. Behavioral Analysis
- 4. Ensemble Learning
- 4.1. Types of Ensemble Learning
- 4.1.1. Bagging
- 4.1.2. Boosting
- 4.2. Applications of Ensemble Learning
- 5. Ensemble Learning in Deep Fake Detection
- Conclusion
- Future Scope
- References
- Chapter 2
- Ensemble Machine Learning in Security
- 2. Ensemble Learning in Security
- 2.1. Types of Ensemble Learning
- 2.1.1. Bagging
- 2.1.2. Benefits and Drawbacks of Bagging
- 2.1.3. Bagging Applications
- 2.1.4. Boosting
- 2.2. Applications of Ensemble Learning
- 3. Ensemble Learning in Security
- 3.1. Types of Security Attacks
- 3.2. Snooping
- 3.3. Traffic Analysis
- 3.4. Modification
- 3.5. Masquerading
- 3.6. Replaying
- 3.7. Repudiation
- 3.8. Denial of Service (DOS)
- 4. ML Techniques in Security Attacks
- 5. Existing Methods in Security
- 5.1. Access Control
- 5.2. Security Awareness and Training
- 6. Comparison Table of Conventional and Ensemble Learning Techniques
- Chapter 3
- The Ensemble Method for Unsupervised Learning
- 1. Introduction to Ensemble Learning for Unsupervised Learning
- 2. Ensemble Clustering Methods
- 3. Advantages of Ensembling in Unsupervised Learning
- 4. Ensemble Feature Selection
- 5. Meta-clustering
- 6. Consensus Clustering
- 7. Ensemble Anomaly Detection
- 8. Feature Aggregation in Ensemble Clustering
- 9. Hybrid Unsupervised Ensembles
- 10. Evaluation Metrics for Unsupervised Ensembles
- 11. Handling Ensemble Diversity.
- 12. Ensemble Learning for Dimensionality Reduction
- 13. Challenges and Considerations
- 14. Real-world Applications
- 15. Future Directions and Trends
- Chapter 4
- Advances in Boosting Techniques for Machine Learning
- 1. The original AdaBoost Algorithm
- 1.1. Walkthrough of the AdaBoost Algorithm
- 2. Variants of AdaBoost Algorithm
- 2.1. Real AdaBoost Algorithm
- 2.2. Gentle AdaBoost Algorithm
- 2.3. Modest AdaBoost Algorithm
- 2.4. Parameterized AdaBoost Algorithm
- 2.5. Margin-Pruning Boost Algorithm
- 2.6. Penalized AdaBoost Algorithm
- 3. Advances in Boosting Algorithm
- 3.1. XGBoost
- 3.1.1. Advantages of the XGBoost Algorithm
- 3.2. CatBoost
- 3.2.1. Advantages of the CatBoost Algorithm
- 3.3. LightGBM
- 3.3.1. Advantages of the LightGBM Algorithm
- Chapter 5
- Base Learners and Weak Learners: The Building Blocks of Ensemble Learning
- Introduction
- Characteristics of Base Learners
- Characteristics of Weak Learners
- Base Learners Vs Strong Learners
- Comparison between Weak Learners Vs Strong Learners
- Various Examples of Different Learner Type
- Interpretability of Base Learners and Weak Learners
- Base Learners
- Weak Learners
- Importance of Model Interpretability in Real-World Applications
- Emerging Trends in Base Learners and Weak Learners in Ensemble Learning
- Chapter 6
- An Ensemble Learning Based-Detection Model for Chronic Kidney Disease
- 2. Literature Review
- 3. Proposed Methodology
- 3.1. Dataset Acquisition
- 3.2. Dataset Pre-processing
- 3.3. Methodology
- 3.3.1. Convolutional Neural Network (CNN)
- 3.3.2. Long Short-Term Memory (LSTM)
- 3.3.3. CNN-LSTM
- 3.4. Proposed Ensemble Technique
- 4. Results and Discussion
- 4.1. Performance Metrics
- 4.2. Results
- Conclusion.
- References
- Chapter 7
- Ensemble Machine Learning-based Approach for Pan Evaporation Prediction using Observatory Data
- 2. Materials and Methods
- 2.1. Area of Research, Data Collection and Pre-Processing
- 2.2. Development of Machine Learning (ML) based Pan Evaporation Estimation
- 3. Training of the Models
- 3.1. Multi-layer Perceptron
- 3.2. Support Vector Machine (SVM)
- 3.3. Decision Tree (DT) Regressor
- 3.4. Random Forest (RF)
- 3.5. AdaBoost
- 3.6. XGBoost
- 3.7. Gradient and Light Gradient Boosting
- 3.8. CatBoost Boosting
- 3.9. Histogram Gradient Boosting
- 3.10. Proposed Ensemble ML based Pan Evaporation Estimation Model
- 3.11. Empirical Methods for Pan Evaporation Estimation
- 3.11.1. Linacre Method
- 3.11.2. Christiansen Method
- 4. Performance Measures
- 4.1. Mean Absolute Error (MAE)
- 4.2. Mean Squared Error
- 4.3. Root Mean Squared Error
- 4.4. R-Square
- 5. Result and Discussion
- 6. Agricultural Implications (Water Resources Management)
- Acknowledgments
- Chapter 8
- Software-Defined Network-based Machine Learning in IoT Applications
- 2. Related Work
- 3. Design of Software Defined Network-based Machine Learning
- 3.1. Centralized Organization
- 3.2. SDN-ML Controller Challenges
- 3.3. Communication Protocol: Open-Flow
- 4. Background of IoT
- 4.1. Intelligent IoT Applications
- 4.1.1. Home Automation
- 4.1.2. Industry 4.0
- 4.1.3. Smart City
- 4.2. The Future of IoT
- 5. SDN based IoT
- 5.1. Scalability
- 5.2. Complexity
- 5.3. Security
- Chapter 9
- Ensemble Machine Learning for Personalized Diabetic Retinopathy Management
- Overview of Machine Learning in Diabetic Retinopathy
- Convolutional Neural Networks (CNNs).
- Transfer Learning
- Ensemble Learning
- Explainable AI (XAI)
- Longitudinal Data Analysis
- Automated Grading Systems
- Challenges and Considerations
- Introduction to Ensemble Machine Learning
- Ensemble Learning Components
- Diversity in Models
- Aggregation Techniques
- Reduction of Overfitting
- Improved Stability
- Potential Benefits in Medical Diagnostics
- Enhanced Diagnostic Accuracy
- Risk Stratification and Customization
- Adaptability to Heterogeneous Data
- Improving Model Robustness
- Facilitating Clinical Decision-Making
- Ensemble Machine Learning Techniques
- Bagging Methods
- Boosting Algorithms
- Stacking Models
- Voting Classifiers
- Weighted Averaging
- Ensemble of Different Architectures
- Temporal Ensembles
- Personalization in Diabetic Retinopathy Management
- Role of Ensemble Machine Learning in Personalization
- Diverse Factors Influencing Diabetic Retinopathy (DR) Progression and Treatment Response
- Chapter 10
- Remanning Useful Life Predictions using Machine Learning Algorithms in Smart Buildings
- 3. Materials and Methods
- 3.1. Data Preprocessing
- Chapter 11
- Model Building and Data Analytics for Process Conformance using ML
- 2. Literature Survey
- 3. Model Building Overview and Tools
- 4. ML Workbench
- 4.1. Data Collection and Preprocessing
- 4.2. Feature Engineering
- 4.3. Ensemble Learning Algorithms
- 4.4. Data Splitting
- 4.5. Model Training
- 4.6. Model Evaluation
- 4.7. Ensemble Building
- 4.8. Deployment
- 4.9. Monitoring and Maintenance
- 5. Result and Analysis
- 5.1. Data Collection and Preparation
- 5.2. Feature Engineering
- 5.3. Model Selection.
- 5.4. Data Splitting
- 5.5. Model Training
- 5.6. Model Evaluation
- 5.7. Interpretability
- 5.8. Visualization
- 5.9. Continuous Improvement
- 5.10. Deployment
- 5.11. Monitoring and Maintenance
- 5.12. Documentation and Reporting
- Chapter 12
- Ensemble Learning-Based Approaches for Disease Detection of Agricultural Products
- 2. Ensemble Method
- 2.1. Boosting
- 2.1.1. Adaboost
- 2.1.2. Gradient Boosting
- 2.1.3. XG Boosting
- 2.1.4. LightGBM
- 2.2. Bagging
- 2.2.1. Bootstrapping
- 2.2.2. Aggregation
- 2.3. Stacking
- 2.5. Disadvantages of Ensemble Learning
- 3. Ensemble Method for Precision Agriculture
- 3.1.1. Fungal Diseases
- 3.1.2. Viral Disease
- 3.1.3. Bacterial Diseases
- 3.2. Ensemble Method for Leaf Disease Detection
- 3.2.1. Coffee Disease Detection
- 3.2.2. Grape Leaf Detection
- 3.3. Ensemble Method for Fruit Disease Detection
- 3.4. Vegetable Detection
- 4. Conclusion and Recommendations
- Chapter 13
- A Non-Destructive Technique to Grade the Quality of Mango Fruit: A Review
- Internal Quality Parameters for Mango
- Problem Identification
- Results
- Chapter 14
- Breast Cancer Image Analysis and Classification Framework by Machine Learning Techniques
- Literature Review
- Proposed Methodology
- Data Preprocessing
- Ensemble Learning Algorithms
- Results and Discussion
- Index
- Blank Page.
- Notes:
- Description based on publisher supplied metadata and other sources.
- Description based on print version record.
- Includes bibliographical references and index.
- Other Format:
- Print version: Jabbar, M. A. Ensemble Machine Learning: Advances in Research and Applications
- ISBN:
- 9798895300886
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