This book is the result of an exhaustive review of the general algorithms used for noise reduction using two general application criteria: one-input, one-output systems, and two-input, one-output systems. The text describes theoretically and experimentally the processes related to high-order statist
Algorithms for Noise Reduction in Signals. Theory and practical examples based on statistical and convolutional analysis
✍ Scribed by Miguel Enrique Iglesias Martı´nez, Miguel A´ngel Garcı´a March, Carles Milia´n Enrique and Pedro Ferna´ndez de Co´rdoba
- Publisher
- IOP Publishing
- Year
- 2022
- Tongue
- English
- Leaves
- 109
- Category
- Library
No coin nor oath required. For personal study only.
✦ Table of Contents
PRELIMS.pdf
Preface
Author biographies
Miguel Enrique Iglesias Martínez
Miguel Ángel García March
Carles Milián Enrique
Pedro Fernández de Córdoba
Glossary
CH001.pdf
Chapter 1 Introduction
References
CH002.pdf
Chapter 2 Current trends in signal processing techniques applied to noise reduction
2.1 Signals and noise
2.2 Current trends in signal processing techniques applied to noise reduction
2.2.1 Filtering methods based on FIR and IIR system impulse response
2.2.2 Adaptive noise reduction methods
2.2.3 Machine learning methods: neural networks
2.2.4 Wavelet-based methods
2.3 Introduction to higher-order statistical analysis
2.3.1 Higher-order statistics: definition and properties
2.3.2 Higher-order spectra
2.3.3 Use of HOSA applied to noise reduction
2.3.4 Use of HOSA applied to phase information retrieval
2.3.5 Conclusions of chapter
References
CH003.pdf
Chapter 3 Noise reduction in periodic signals based on statistical analysis
3.1 Basic approach to noise reduction using higher-order noise reduction statistics
3.1.1 Working with the fourth-order cumulant
3.1.2 Experimental results on noise reduction applying only higher-order (fourth-order) statistics
3.1.3 Phase recovery algorithm
3.2 Amplitude correction in the spectral domain
3.3 Experimental results applying the phase recovery algorithm
3.4 Computational cost analysis of the proposed method compared with others
3.4.1 Computational cost of methods based on bispectrum computation
3.4.2 Computational cost of methods based on trispectrum computation
3.4.3 Computational cost of a method based on the combination of one- and
3.4.4 Computational cost of the proposed phase recovery algorithm
3.5 SNR levels processed by the proposed algorithm compared with others developed for noise reduction and phase retrieval
3.6 Comparative analysis according to other noise reduction methods not based on HOSA
3.7 Application to noise reduction in real signals
3.7.1 Vibration sensor ADXL203
3.7.2 Application to noise reduction in digital modulations
3.7.3 Noise reduction in the human tremor signal
3.8 Conclusions of the chapter
References
APPA.pdf
Chapter
References
APPB.pdf
Chapter
B.1 Moments
B.2 Cumulants
B.3 Higher-order spectra
APPC.pdf
Chapter
Reference
APPD.pdf
Chapter
APPE.pdf
Chapter
📜 SIMILAR VOLUMES
The title says it all. This book was meant to be used. It is organized around a series of transformations that are performed on an image in going from the raw, captured form to usable result. Each step is well identified so you can go directly to the part you need. The methods and routines used are
This graduate-level text provides a language for understanding, unifying, and implementing a wide variety of algorithms for digital signal processing - in particular, to provide rules and procedures that can simplify or even automate the task of writing code for the newest parallel and vector machin
Key features of this book: Covers methods of processing noise and vibration signals; Takes a practical approach to the subject and includes a case study covering how to successfully reduce transmission noise; Describes the procedure for the measurement and calculation of the angular vibrations of ge
<p>This book presents an algorithm for the detection of an orthogonal frequency division multiplexing (OFDM) signal in a cognitive radio context by means of a joint and iterative channel and noise estimation technique. Based on the minimum mean square criterion, it performs an accurate detection of