Support vector machines using GMM supervectors for speaker verification
By William M. Campbell, Douglas E. Sturim, Douglas A. Reynolds. 2006
1,107 citations recorded by the source corpus.
Subfields: Artificial Intelligence, Signal Processing
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Artificial Intelligence
- Junichi Yamagishi
- Ming Li
- Haizhou Li
- Weicheng Cai
- Xiao-Lei Zhang
- Zhongxin Bai
- Tomi H. Kinnunen
- Wenbo Liu
In Signal Processing
- Ming Li
- Junichi Yamagishi
- Weicheng Cai
- Haizhou Li
- Xiao-Lei Zhang
- Zhongxin Bai
- Tomi H. Kinnunen
- Wenbo Liu
Citations in the corpus
- Exploring the Encoding Layer and Loss Function in End-to-End Speaker and Language Recognition System (2018, background): “They are problems in that we are trying to retrieve information about an entire utterance rather than specific word content [1].”
- Generalized I-vector Representation with Phonetic Tokenizations and Tandem Features for both Text Independent and Text Dependent Speaker Verification (2015, methodology): “Third, within this i-vector space, variability compensation methods, such as Within-Class Covariance Normalization (WCCN) [7], Linear Discriminative Analysis (LDA) and Nuisance Attribute Projection (NAP) [1] are performed to reduce the variability for subsequent scoring methods (e.”
- Spoofing and countermeasures for speaker verification: A survey (2015, background): “The combination of GMM supervectors and support vector machine (SVM) classifiers was developed to enable the discriminative training of generative models (Campbell et al., 2006).”
- Deep Speaker Feature Learning for Text-Independent Speaker Verification (2017, methodology): “, the SVM model for the GMM-UBM approach [4] and the PLDA model for the i-vector approach [5].”
- Non-parallel voice conversion using i-vector PLDA: towards unifying speaker verification and transformation (2017, positive): “These two GMMs correspond either to the (source, target) pair without any conversion or (converted, target) pair.”
- Finding Difficult Speakers in Automatic Speaker Recognition (2011, methodology): “One such approach is an SVM classifier that uses GMM supervectors as features [14].”
- EmotionSense: a mobile phones based adaptive platform for experimental social psychology research (2010, methodology): “Alternative SVM-based schemes, including the popular GMMsupervector [7] and MLLR [28] kernel classifiers, were not considered as they are generally suitable for binary classification tasks.”
- An overview of text-independent speaker recognition: From features to supervectors (2010, methodology): “Given the demonstrated excellent performance of the JFA compensation and Gaussian supervector SVMs [38], it seems appropriate to ask how they compare with each other, and whether they could be combined?”
- A review of biometric technology along with trends and prospects (2014, background): “Table 4: Summary of behavioral modalities: Modality Feature Set Recognition Techniques Datasets Voice Spectrum, Glottal pulse features, pitch, energy, duration, rhythm, temporal features, phones, idiolects, semantics, accent, pronunciation, LPCC [204], MFCC [205], VQ [206-208], HMM [209], GMM [210, ”
- What Does the Speaker Embedding Encode? (2017, positive): “To address this limitation, researchers explored methods to correlate different Gaussian components through global transformations, leading to the super-vector representation [3, 4], which achieved competitive results when combined with support vector machines.”
- Speaker verification and spoken language identification using a generalized i-vector framework with phonetic tokenizations and tandem features (2014, methodology): “Third, within this i-vector space, variability compensation methods, such as Within-Class Covariance Normalization (WCCN) [4], Linear Discriminative Analysis (LDA) and Nuisance Attribute Projection (NAP) [5], are performed to reduce the variability for the subsequent modeling methods (e.”
- Spoken Language Recognition: From Fundamentals to Practice (2013, methodology): “;MM T by stacking the mean vectors of all the adapted mixture components [18].”
- A novel scheme for speaker recognition using a phonetically-aware deep neural network (2014, methodology): “In the GMM-support vector machine (SVM) [13] framework, the speakerspecific GMM is obtained just as in the GMM-UBM framework, but the means of the GMM are concatenated to generate a vector called a supervector, which is then input to the SVM.”
- A Novel Learnable Dictionary Encoding Layer for End-to-End Language Identification (2018, methodology): “ID 3s 10s 30s 3s 10s 30s 1 GMM i-vector SDC GMM Supervector 20.46 8.29 3.02 17.71 7.00 2.27 2 CNN-TAP CNN FeatureMaps TAP 9.98 3.24 1.73 11.28 5.76 3.96 3 CNN-LDE(C=16) CNN FeatureMaps LDE 9.61 3.71 1.74 8.89 2.73 1.13 4 CNN-LDE(C=32) CNN FeatureMaps LDE 8.70 2.94 1.41 8.12 2.45 0.98 5 CNN-LDE(C=64)”
- SVM Based Speaker Verification using a GMM Supervector Kernel and NAP Variability Compensation (2006, methodology): “Second, for a nonlinear kernel [10], SVM NAP uses a nonlinear expanded version of the GMM supervector.”
- Audio-based multimedia event detection using deep recurrent neural networks (2016, methodology): “The mean vectors and the diagonals of the covariance matrices of a GMM are concatenated to yield a “supervector” [1], which is used as the clip-level representation, such as in [2].”