An Introduction to Support Vector Machines and Other Kernel-based Learning MethodsThis is the first comprehensive introduction to Support Vector Machines (SVMs), a generation learning system based on recent advances in statistical learning theory. SVMs deliver state-of-the-art performance in real-world applications such as text categorisation, hand-written character recognition, image classification, biosequences analysis, etc., and are now established as one of the standard tools for machine learning and data mining. Students will find the book both stimulating and accessible, while practitioners will be guided smoothly through the material required for a good grasp of the theory and its applications. The concepts are introduced gradually in accessible and self-contained stages, while the presentation is rigorous and thorough. Pointers to relevant literature and web sites containing software ensure that it forms an ideal starting point for further study. Equally, the book and its associated web site will guide practitioners to updated literature, new applications, and on-line software. |
Kirjan sisältä
Tulokset 1 - 5 kokonaismäärästä 27
Sivu v
... 2.1 Linear Classification 9 2.1.1 Rosenblatt's Perceptron 11 2.1.2 Other Linear Classifiers 19 2.1.3 Multi-class Discrimination 20 2.2 Linear Regression 20 2.2.1 Least Squares 21 2.2.2 Ridge Regression 22 2.3 Dual Representation of ...
... 2.1 Linear Classification 9 2.1.1 Rosenblatt's Perceptron 11 2.1.2 Other Linear Classifiers 19 2.1.3 Multi-class Discrimination 20 2.2 Linear Regression 20 2.2.1 Least Squares 21 2.2.2 Ridge Regression 22 2.3 Dual Representation of ...
Sivu ix
Presenting a comprehensive introduction to SVMs requires the synthesis of a surprisingly wide range of material, including dual representations, feature spaces, learning theory, optimisation theory, and algorithmics.
Presenting a comprehensive introduction to SVMs requires the synthesis of a surprisingly wide range of material, including dual representations, feature spaces, learning theory, optimisation theory, and algorithmics.
Sivu 9
Importantly, we will show that in most cases such machines can be represented in a particularly useful form, which we will call the dual representation. This fact will prove crucial in later chapters. The important notions of margin and ...
Importantly, we will show that in most cases such machines can be represented in a particularly useful form, which we will call the dual representation. This fact will prove crucial in later chapters. The important notions of margin and ...
Sivu 11
The algorithm updates the weight vector and bias directly, something that we will refer to as the primal form in contrast to an alternative dual representation which we will introduce below. This procedure is guaranteed to converge ...
The algorithm updates the weight vector and bias directly, something that we will refer to as the primal form in contrast to an alternative dual representation which we will introduce below. This procedure is guaranteed to converge ...
Sivu 18
Once a sample S has been fixed, one can think of the vector a as alternative representation of the hypothesis in different or dual coordinates. This expansion is however not unique: different a can correspond to the same hypothesis w.
Once a sample S has been fixed, one can think of the vector a as alternative representation of the hypothesis in different or dual coordinates. This expansion is however not unique: different a can correspond to the same hypothesis w.
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Sisältö
1 | |
9 | |
KernelInduced Feature Spaces | 26 |
Generalisation Theory | 52 |
Optimisation Theory | 79 |
Support Vector Machines | 93 |
Implementation Techniques | 125 |
Applications of Support Vector Machines | 149 |
A Pseudocode for the SMO Algorithm | 162 |
References | 173 |
Index | 187 |
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1-norm soft margin algorithm analysis applied approach Bayesian bias bound Chapter choice classification computational consider constraints convergence convex corresponding datasets Definition described dual problem dual representation fat-shattering dimension feasibility gap feature mapping feature space finite Gaussian processes generalisation error geometric margin given Hence heuristics high dimensional Hilbert space hyperplane hypothesis inequality inner product space input space introduced iterative Karush-Kuhn-Tucker kernel function kernel matrix Lagrange multipliers Lagrangian learning algorithm linear functions linear learning machines loss function machine learning margin distribution margin slack vector maximal margin hyperplane maximise minimise norm objective function obtained on-line optimisation problem parameters perceptron perceptron algorithm performance positive semi-definite primal and dual quantity random examples real-valued function Remark result ridge regression Section sequence slack variables soft margin optimisation solution solve subset Support Vector Machines SVMs techniques Theorem training data training examples training points training set update Vapnik VC dimension weight vector zero