How Can a Loss of Information in Mixed Attribute Datasets be Prevented?

Inhaltsverzeichnis (Table of Contents)

• CHAPTER 1: INTRODUCTION.
• 1.1 Objective of the work
• 1.2 Introduction to data mining
• 1.3 Missing values
• 1.4 Missing value imputation
• 1.5 Model flow diagram
• 1.6 Organization of the report
• 1.7 Summary
• CHAPTER 2: LITERATURE REVIEW
• 2.1 Introduction
• 2.2 Literature review
• 2.2.1 Missing values
• 2.2.2 Missing value imputation
• 2.2.3 Kernel functions
• 2.3 Summary
• CHAPTER 3: DATASET DESCRIPTION
• 3.1 Introduction
• 3.2 Data set description
• 3.3 Summary
• CHAPTER 4: IMPUTATION TECHNIQUES
• 4.1 Introduction
• 4.2 K –Nearest neighbor imputation method
• 4.3 Experimental results for imputation done using K-NN
• 4.4 Frequency Estimation Method
• 4.5 Experimental results for frequency estimator
• 4.6 Kernel Functions
• 4.7 Imputation using RBF kernel
• 4.8 Experimental results for rbf kernel
• 4.9 Imputation using poly kernel
• 4.10 Experimental results for poly kernel
• 4.11 Summary
• CHAPTER 5: IMPUTATION USING MIXTURE OF KERNELS.
• 5.1 Introduction
• 5.2 Interpolation and Extrapolation
• 5.3 Mixture of kernels
• 5.4 Experimental results for mixture of kernels
• 5.5 Imputation using spherical kernel with rbf kernel.
• 5.6 Experimental results for imputation using spherical kernel and rbf kernel
• 5.7 Imputation using spherical kernel and poly kernel
• 5.8 Experimental results for spherical kernel and poly kernel
• 5.9 Summary
• CHAPTER 6: RESULTS AND DISCUSSION
• 6.1 Introduction
• 6.2 Performance evaluation
• 6.3 Experimental results and discussion
• 6.4 Discussion of results
• 6.5 Summary

Zielsetzung und Themenschwerpunkte (Objectives and Key Themes)

This work aims to utilize an estimator to impute missing values in mixed attribute datasets. This approach utilizes information present in both complete and incomplete instances, preventing information loss often incurred during data conversion. The effectiveness of this method is evaluated through extensive experiments and compared to traditional algorithms using metrics such as root mean square error and correlation coefficients.

• Missing value imputation in mixed attribute datasets.
• Preserving information during data imputation.
• Performance evaluation of imputation methods.
• Comparison to existing algorithms.
• Data mining concepts and techniques.

Zusammenfassung der Kapitel (Chapter Summaries)

• Chapter 1: Introduction: Introduces the objective of the work, which is to develop and evaluate an estimator for imputing missing values in mixed attribute datasets. This chapter also provides a brief overview of data mining concepts, missing values, and missing value imputation.
• Chapter 2: Literature Review: Reviews existing literature on missing values, missing value imputation techniques, and kernel functions. This chapter provides the theoretical foundation for the proposed imputation method.
• Chapter 3: Dataset Description: Presents the dataset used in the research, providing details about its characteristics and any relevant information about missing values.
• Chapter 4: Imputation Techniques: Discusses various imputation techniques, including K-Nearest Neighbor, frequency estimation, and kernel-based methods. It also presents experimental results for each technique.
• Chapter 5: Imputation Using Mixture of Kernels: Explores the use of a mixture of kernels for imputation. It explains the concept of interpolation and extrapolation, as well as the rationale for using a combination of kernels. Experimental results for different kernel combinations are presented.
• Chapter 6: Results and Discussion: Analyzes the results of the experiments conducted, comparing the performance of different imputation methods. It discusses the effectiveness of the proposed method and provides insights into the findings.

Schlüsselwörter (Keywords)

Missing value imputation, mixed attribute datasets, kernel functions, data mining, performance evaluation, root mean square error, correlation coefficients, experimental results.