Abstract | We represent words as sequences of substrings, and use the substrings as features in a Support Vector Machine (SVM) ranker, which is trained to rank possible stress patterns. |
Automatic Stress Prediction | We use a support vector machine (SVM) to rank the possible patterns for each sequence (Section 3.2). |
Automatic Stress Prediction | Table l: The steps in our stress prediction system (with orthographic and phonetic prediction examples): (1) word splitting, (2) support vector ranking of stress patterns, and (3) pattem-to-vowel |
Automatic Stress Prediction | We adopt a Support Vector Machine (SVM) solution to these ranking constraints as described by J oachims (2002). |
Introduction | We divide each word into a sequence of substrings, and use these substrings as features for a Support Vector Machine (SVM) ranker. |
Abstract | Our method is based on recent advances in the field of statistical machine learning (multivariate capabilities of Support Vector Machines) and a rich feature space. |
Building a Discourse Parser | 2.2 Support Vector Machines |
Building a Discourse Parser | Support Vector Machines (SVM) (Vapnik, 1995) are used to model classifiers S and L. SVM refers to a set of supervised learning algorithms that are based on margin maximization. |