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9783642111297

Speech Processing in Modern Communication

by ; ;
  • ISBN13:

    9783642111297

  • ISBN10:

    3642111297

  • Edition: 1st
  • Format: Hardcover
  • Copyright: 2010-02-15
  • Publisher: Springer Verlag
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List Price: $219.99

Summary

More and more devices for human-to-human and human-to-machine communications require some sophisticated algorithms. This is due to the fact that the acoustic environment in which we live in and communicate is extremely challenging. More than ever, the fundamental problems of acoustic echo cancellation, interference and noise suppression, and dereverberation need to be tackled rigorously.

Table of Contents

Linear System Identification in the Short-Time Fourier Transform Domainp. 1
Introductionp. 2
Problem Formulationp. 4
System Identification Using Crossband Filtersp. 6
Crossband Filters Representationp. 6
Batch Estimation of Crossband Filtersp. 8
Selecting the Optimal Number of Crossband Filtersp. 11
System Identification Using the MTF Approximationp. 14
The MTF Approximationp. 14
Optimal Window Lengthp. 15
The Cross-MTF Approximationp. 18
Adaptive Estimation of Cross-Termsp. 19
Adaptive Control Algorithmp. 20
Experimental Resultsp. 22
Crossband Filters Estimationp. 23
Comparison of the Crossband Filters and MTF Approachesp. 23
CMTF Adaptation for Acoustic Echo Cancellationp. 25
Conclusionsp. 28
Appendixp. 28
Referencesp. 29
Identification of the Relative Transfer Function between Sensors in the Short-Time Fourier Transform Domainp. 33
Introductionp. 33
Identification of the RTF Using Multiplicative Transfer Function Approximationp. 34
Problem Formulation and the Multiplicative Transfer Function Approximationp. 35
RTF Identification Using Non-Stationarityp. 36
RTF Identification Using Speech Signalsp. 37
Identification of the RTF Using Convolutive Transfer Function Approximationp. 38
The Convolutive Transfer Function Approximationp. 39
RTF Identification Using the Convolutive Transfer Function Approximationp. 40
Relative Transfer Function Identification in Speech Enhancement Applicationsp. 41
Blocking Matrixp. 42
The Transfer Function Generalized Sidelobe Cancelerp. 44
Conclusionsp. 45
Referencesp. 46
Representation and Identification of Nonlinear Systems in the Short-Time Fourier Transform Domainp. 49
Introductionp. 49
Volterra System Identificationp. 51
Representation of Volterra Filters in the STFT Domainp. 55
Second-Order Volterra Filtersp. 55
High-Order Volterra Filtersp. 59
A New STFT Model For Nonlinear Systemsp. 61
Quadratically Nonlinear Modelp. 61
High-Order Nonlinear Modelsp. 65
Quadratically Nonlinear System Identificationp. 65
Batch Estimation Schemep. 67
Adaptive Estimation Schemep. 72
Experimental Resultsp. 76
Performance Evaluation for White Gaussian Inputsp. 77
Nonlinear Undermodeling in Adaptive System Identificationp. 79
Nonlinear Acoustic Echo Cancellation Applicationp. 81
Conclusionsp. 83
Appendixp. 83
Referencesp. 84
Variable Step-Size Adaptive Filters for Echo Cancellationp. 89
Introductionp. 90
Non-Parametric VSS-NLMS Algorithmp. 92
VSS-NLMS Algorithms for Echo Cancellationp. 96
VSS-APA for Echo Cancellationp. 103
VFF-RLS for System Identificationp. 106
Simulationsp. 112
VSS-NLMS Algorithms for AECp. 112
VSS-APA for AECp. 117
VFF-RLS for System Identificationp. 121
Conclusionsp. 123
Referencesp. 124
Simultaneous Detection and Estimation Approach for Speech Enhancement and Interference Suppressionp. 127
Introductionp. 127
Classical Speech Enhancement in Nonstationary Noise Environmentsp. 129
Simultaneous Detection and Estimation for Speech Enhancementp. 131
Quadratic Distortion Measurep. 134
Quadratic Spectral Amplitude Distortion Measurep. 137
Spectral Estimation Under a Transient Noise Indicationp. 140
A Priori SNR Estimationp. 142
Experimental Resultsp. 144
Simultaneous Detection and Estimationp. 146
Spectral Estimation Under a Transient Noise Indicationp. 147
Conclusionsp. 148
Referencesp. 149
Speech Dereverberation and Denoising Based on Time Varying Speech Model and Autoregressive Reverberation Modelp. 151
Introductionp. 151
Goalp. 152
Technological Backgroundp. 153
Minimum Mean-Squared Error Signal Estimation and Model-Based Approachp. 154
Dereverberation Methodp. 156
Heuristic Derivation of Weighted Prediction Error Methodp. 156
Reverberation Modelp. 160
Clean Speech Modelp. 165
Clean Speech Signal Estimator and Parameter Optimizationp. 165
Combined Dereverberation and Denoising Methodp. 167
Room Acoustics Modelp. 168
Clean Speech Modelp. 171
Clean Speech Signal Estimatorp. 172
Parameter Optimizationp. 173
Experimentsp. 179
Conclusionsp. 180
Referencesp. 181
Codebook Approaches for Single Sensor Speech/Music Separationp. 183
Introductionp. 183
Single Sensor Source Separationp. 185
Problem Formulationp. 185
GSMM-Based Source Separationp. 186
AR-Based Source Separationp. 187
Bayesian Non-Negative Matrix Factorizationp. 188
Learning the Codebookp. 190
Multi-Window Source Separationp. 190
General Description of the Algorithmp. 190
Choice of a Confidence Measurep. 191
Practical Choice of the Thresholdsp. 192
Estimation of the Expansion Coefficientsp. 193
Median Filterp. 193
Smoothing Priorp. 194
GMM Modeling of the Amplitude Coefficientsp. 195
Experimental Studyp. 195
Evaluation Criteriap. 195
Experimental Setup and Resultsp. 195
Conclusionsp. 196
Referencesp. 197
Microphone Arrays: Fundamental Conceptsp. 199
Introductionp. 199
Signal Modelp. 200
Array Modelp. 202
Signal-to-Noise Ratiop. 203
Array Gainp. 204
Noise Rejection and Desired Signal Cancellationp. 206
Beampatternp. 207
Anechoic Plane Wave Modelp. 208
Directivityp. 210
Superdirective Beamformingp. 210
White Noise Gainp. 211
Spatial Aliasingp. 212
Monochromatic Signalp. 215
Broadband Signalp. 217
Mean-Squared Errorp. 218
Wiener Filterp. 220
Minimum Variance Distortionless Responsep. 221
Conclusionsp. 222
Referencesp. 222
The MVDR Beamformer for Speech Enhancementp. 225
Introductionp. 226
Problem Formulationp. 227
From Speech Distortion Weighted Multichannel Wiener Filter to Minimum Variance Distortionless Response Filterp. 230
Speech Distortion Weighted Multichannel Wiener Filterp. 230
Minimum Variance Distortionless Response Filterp. 232
Decomposition of the Speech Distortion Weighted Multichannel Wiener Filterp. 234
Equivalence of MVDR and Maximum SNR Beamformerp. 235
Performance Measuresp. 235
Performance Analysisp. 237
On the Comparison of Different MVDR Beamformersp. 237
Local Analyzesp. 239
Global Analyzesp. 241
Non-Coherent Noise Fieldp. 242
Coherent plus Non-Coherent Noise Fieldp. 243
Performance Evaluationp. 244
Influence of the Number of Microphonesp. 245
Influence of the Reverberation Timep. 245
Influence of the Noise Fieldp. 247
Example Using Speech Signalsp. 249
Conclusionsp. 251
Appendixp. 251
Referencesp. 253
Extraction of Desired Speech Signals in Multiple-Speaker Reverberant Noisy Environmentsp. 255
Introductionp. 256
Problem Formulationp. 259
Proposed Methodp. 261
The LCMV and MVDR Beamformersp. 261
The Constraints Setp. 262
Equivalent Constraints Setp. 263
Modified Constraints Setp. 264
Estimation of the Constraints Matrixp. 266
Interferences Subspace Estimationp. 267
Desired Sources RTF Estimationp. 269
Algorithm Summaryp. 270
Experimental Studyp. 271
The Test Scenariop. 272
Simulated Environmentp. 274
Real Environmentp. 276
Conclusionsp. 277
Referencesp. 278
Spherical Microphone Array Beamformingp. 281
Introductionp. 281
Spherical Array Processingp. 282
Regular Beam Patternp. 284
Delay-and-Sum Beam Patternp. 286
Dolph-Chebyshev Beam Patternp. 288
Optimal Beamformingp. 290
Beam Pattern with Desired Multiple Nullsp. 293
2D Beam Pattern and its Steeringp. 295
Near-Field Beamformingp. 297
Direction-of-Arrival Estimationp. 300
Conclusionsp. 303
Referencesp. 303
Steered Beamforming Approaches for Acoustic Source Localizationp. 307
Introductionp. 307
Signal Modelp. 309
Spatial and Spatiotemporal Filteringp. 310
Parameterized Spatial Correlation Matrix (PSCM)p. 311
Source Localization Using Parameterized Spatial Correlationp. 313
Steered Response Powerp. 313
Minimum Variance Distortionless Responsep. 315
Maximum Eigenvaluep. 316
Broadband MUSICp. 318
Minimum Entropyp. 320
Sparse Representation of the PSCMp. 326
Linearly Constrained Minimum Variancep. 329
Autoregressive Modelingp. 331
Challengesp. 333
Conclusionsp. 334
Referencesp. 335
Indexp. 339
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