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E-grāmata: Compression of Biomedical Images and Signals [Wiley Online]

Edited by (University of Paris 12 France), Edited by (University of Angers France)
  • Formāts: 288 pages
  • Sērija : ISTE
  • Izdošanas datums: 01-Aug-2008
  • Izdevniecība: ISTE Ltd and John Wiley & Sons Inc
  • ISBN-10: 470611154
  • ISBN-13: 9780470611159
  • Wiley Online
  • Cena: 185,37 €*
  • * this price gives unlimited concurrent access for unlimited time
  • Formāts: 288 pages
  • Sērija : ISTE
  • Izdošanas datums: 01-Aug-2008
  • Izdevniecība: ISTE Ltd and John Wiley & Sons Inc
  • ISBN-10: 470611154
  • ISBN-13: 9780470611159
During the last decade, image and signal compression for storage and transmission purpose has seen a great expansion. But what about medical data compression? Should a medical image or a physiological signal be processed and compressed like any other data? The progress made in imaging systems, storing systems and telemedicine makes compression in this field particularly interesting. However, this compression has to be adapted to the specificities of biomedical data which contain diagnosis information.
As such, this book offers an overview of compression techniques applied to medical data, including: physiological signals, MRI, X-ray, ultrasound images, static and dynamic volumetric images.
Researchers, clinicians, engineers and professionals in this area, along with postgraduate students in the signal and image processing field, will find this book to be of great interest.
Preface xiii
Relevance of Biomedical Data Compression
1(14)
Jean-Yves Tanguy
Pierre Jallet
Christel Le Bozec
Guy Frija
Introduction
1(1)
The management of digital data using PACS
2(2)
Usefulness of PACS
2(1)
The limitations of installing a PACS
3(1)
The increasing quantities of digital data
4(4)
An example from radiology
4(2)
An example from anatomic pathology
6(1)
An example from cardiology with ECG
7(1)
Increases in the number of explorative examinations
8(1)
Legal and practical matters
8(1)
The role of data compression
9(1)
Diagnostic quality
10(2)
Evaluation
10(1)
Reticence
11(1)
Conclusion
12(1)
Bibliography
12(3)
State of the Art of Compression Methods
15(28)
Atilla Baskurt
Introduction
15(1)
Outline of a generic compression technique
16(5)
Reducing redundancy
17(1)
Quantizing the decorrelated information
18(1)
Coding the quantized values
18(2)
Compression ratio, quality evaluation
20(1)
Compression of still images
21(12)
JPEG standard
22(1)
Why use DCT?
22(2)
Quantization
24(1)
Coding
24(1)
Compression of still color images with JPEG
25(1)
JPEG standard: conclusion
26(1)
JPEG 2000 standard
27(1)
Wavelet transform
27(1)
Decomposition of images with the wavelet transform
27(2)
Quantization and coding of subbands
29(1)
Wavelet-based compression methods, serving as references
30(1)
JPEG 2000 standard
31(2)
The compression of image sequences
33(5)
DCT-based video compression scheme
34(2)
A history of and comparison between video standards
36(2)
Recent developments in video compression
38(1)
Compressing 1D signals
38(1)
The compression of 3D objects
39(1)
Conclusion and future developments
39(1)
Bibliography
40(3)
Specificities of Physiological Signals and Medical Images
43(34)
Christine Cavaro-Menard
Amine Nait-Ali
Jean-Yves Tanguy
Elsa Angelini
Christel Le Bozec
Jean-Jacques Le Jeune
Introduction
43(1)
Characteristics of physiological signals
44(6)
Main physiological signals
44(1)
Electroencephalogram (EEG)
44(1)
Evoked potential (EP)
45(1)
Electromyogram (EMG)
45(1)
Electrocardiogram (ECG)
46(1)
Physiological signal acquisition
46(1)
Properties of physiological signals
46(1)
Properties of EEG signals
46(2)
Properties of ECG signals
48(2)
Specificities of medical images
50(23)
The different features of medical imaging formation processes
50(1)
Radiology
51(3)
Magnetic resonance imaging (MRI)
54(4)
Ultrasound
58(4)
Nuclear medicine
62(4)
Anatomopathological imaging
66(2)
Conclusion
68(1)
Properties of medical images
69(1)
The size of images
70(1)
Spatial and temporal resolution
71(1)
Noise in medical images
72(1)
Conclusion
73(1)
Bibliography
74(3)
Standards in Medical Image Compression
77(24)
Bernard Gibaud
Joel Chabriais
Introduction
77(2)
Standards for communicating medical data
79(8)
Who creates the standards, and how?
79(1)
Standards in the healthcare sector
80(1)
Technical committee 251 of CEN
80(1)
Technical committee 215 of the ISO
80(1)
DICOM Committee
80(5)
Health Level Seven (HL7)
85(1)
Synergy between the standards bodies
86(1)
Existing standards for image compression
87(12)
Image compression
87(2)
Image compression in the DICOM standard
89(1)
The coding of compressed images in DICOM
89(3)
The types of compression available
92(3)
Modes of access to compressed data
95(4)
Conclusion
99(1)
Bibliography
99(2)
Quality Assessment of Lossy Compressed Medical Images
101(28)
Christine Cavaro-Menard
Patrick Le Callet
Dominique Barba
Jean-Yves Tanguy
Introduction
101(1)
Degradations generated by compression norms and their consequences in medical imaging
102(3)
The block effect
102(1)
Fading contrast in high spatial frequencies
103(2)
Subjective quality assessment
105(9)
Protocol evaluation
105(1)
Analyzing the diagnosis reliability
106(2)
ROC analysis
108(3)
Analyses that are not based on the ROC method
111(1)
Analyzing the quality of diagnostic criteria
111(3)
Conclusion
114(1)
Objective quality assessment
114(11)
Simple signal-based metrics
115(1)
Metrics based on texture analysis
115(2)
Metrics based on a model version of the HVS
117(1)
Luminance adaptation
117(1)
Contrast sensivity
118(1)
Spatio-frequency decomposition
118(1)
Masking effect
119(1)
Visual distortion measures
120(3)
Analysis of the modification of quantitative clinical parameters
123(2)
Conclusion
125(1)
Bibliography
125(4)
Compression of Physiological Signals
129(26)
Amine Nait-Ali
Introduction
129(1)
Standards for coding physiological signals
130(1)
CEN/ENV 1064 Norm
130(1)
ASTM 1467 Norm
130(1)
EDF norm
130(1)
Other norms
131(1)
EEG compression
131(2)
Time-domain EEG compression
131(1)
Frequency-domain EEG compression
132(1)
Time-frequency EEG compression
132(1)
Spatio-temporal compression of the EEG
132(1)
Compression of the EEG by parameter extraction
132(1)
ECG compression
133(17)
State of the art
133(1)
Evaluation of the performances of ECG compression methods
134(1)
ECG pre-processing
135(1)
ECG compression for real-time transmission
136(1)
Time domain ECG compression
136(5)
Compression of the ECG in the frequency domain
141(3)
ECG compression for storage
144(1)
Synchronization and polynomial modeling
145(4)
Synchronization and interleaving
149(1)
Compression of the ECG signal using the JPEG 2000 standard
150(1)
Conclusion
150(1)
Bibliography
151(4)
Compression of 2D Biomedical Images
155(32)
Christine Cavaro-Menard
Amine Nait-Ali
Olivier Deforges
Marie Babel
Introduction
155(1)
Reversible compression of medical images
156(4)
Lossless compression by standard methods
156(1)
Specific methods of lossless compression
157(1)
Compression based on the region of interest
158(2)
Conclusion
160(1)
Lossy compression of medical images
160(13)
Quantization of medical images
160(1)
Principles of vector quantization
161(1)
A few illustrations
161(2)
Balanced tree-structured vector quantization
163(1)
Pruned tree-structured vector quantization
163(1)
Other vector quantization methods applied to medical images
163(1)
DCT-based compression of medical images
164(3)
JPEG 2000 lossy compression of medical images
167(1)
Optimizing the JPEG 2000 parameters for the compression of medical images
167(3)
Fractal compression
170(1)
Some specific compression methods
171(1)
Compression of mammography images
171(1)
Compression of ultrasound images
172(1)
Progressive compression of medical images
173(8)
State-of-the-art progressive medical image compression techniques
173(1)
LAR progressive compression of medical images
174(1)
Characteristics of the LAR encoding method
174(2)
Progressive LAR encoding
176(2)
Hierarchical region encoding
178(3)
Conclusion
181(1)
Bibliography
182(5)
Compression of Dynamic and Volumetric Medical Sequences
187(24)
Azza Ouled Zaid
Christian Olivier
Amine Nait-Ali
Introduction
187(3)
Reversible compression of (2D+t) and 3D medical data sets
190(2)
Irreversible compression of (2D+t) medical sequences
192(4)
Intra-frame lossy coding
192(2)
Inter-frame lossy coding
194(1)
Conventional video coding techniques
194(1)
Modified video coders
195(1)
2D+t wavelet-based coding systems limits
195(1)
Irreversible compression of volumetric medical data sets
196(11)
Wavelet-based intra coding
196(1)
Extension of 2D transform-based coders to 3D data
197(1)
3D DCT coding
197(1)
3D wavelet-based coding based on scalar or vector quantization
198(1)
Embedded 3D wavelet-based coding
199(5)
Object-based 3D embedded coding
204(1)
Performance assessment of 3D embedded coders
205(2)
Conclusion
207(1)
Bibliography
208(3)
Compression of Static and Dynamic 3D Surface Meshes
211(36)
Khaled Mamou
Francoise Preteux
Remy Prost
Sebastien Valette
Introduction
211(2)
Definitions and properties of triangular meshes
213(3)
Compression of static meshes
216(13)
Single resolution mesh compression
217(1)
Connectivity coding
217(1)
Geometry coding
218(1)
Multi-resolution compression
219(1)
Mesh simplification methods
219(1)
Spectral methods
219(1)
Wavelet-based approaches
220(9)
Compression of dynamic meshes
229(10)
State of the art
230(1)
Prediction-based techniques
230(1)
Wavelet-based techniques
231(2)
Clustering-based techniques
233(1)
PCA-based techniques
234(1)
Discussion
234(2)
Application to dynamic 3D pulmonary data in computed tomography
236(1)
Data
236(1)
Proposed approach
237(1)
Results
238(1)
Conclusion
239(1)
Appendices
240(1)
Appendix A: mesh via the MC algorithm
240(1)
Bibliography
241(6)
Hybrid Coding: Encryption-Watermarking-Compression for Medical Information Security
247(30)
William Puech
Gouenou Coatrieux
Introduction
247(1)
Protection of medical imagery and data
248(3)
Legislation and patient rights
248(1)
A wide range of protection measures
249(2)
Basics of encryption algorithms
251(6)
Encryption algorithm classification
251(1)
The DES encryption algorithm
252(1)
The AES encryption algorithm
253(1)
Asymmetric block system: RSA
254(1)
Algorithms for stream ciphering
255(2)
Medical image encryption
257(8)
Image block encryption
258(1)
Coding images by asynchronous stream cipher
258(1)
Applying encryption to medical images
259(2)
Selective encryption of medical images
261(4)
Medical image watermarking and encryption
265(7)
Image watermarking and health uses
265(1)
Watermarking techniques and medical imagery
266(1)
Characteristics
266(1)
The methods
267(2)
Confidentiality and integrity of medical images by data encryption and data hiding
269(3)
Conclusion
272(1)
Bibliography
273(4)
Transmission of Compressed Medical Data on Fixed and Mobile Networks
277(26)
Christian Olivier
Benoit Parrein
Rodolphe Vauzelle
Introduction
277(1)
Brief overview of the existing applications
278(1)
The fixed and mobile networks
279(8)
The network principles
279(1)
Presentation, definitions and characteristics
279(2)
The different structures and protocols
281(1)
Improving the Quality of Service
281(1)
Wireless communication systems
282(1)
Presentation of these systems
282(2)
Wireless specificities
284(3)
Transmission of medical images
287(12)
Contexts
287(1)
Transmission inside a hospital
287(1)
Transmission outside hospital on fixed networks
287(1)
Transmission outside hospital on mobile networks
288(1)
Encountered problems
288(1)
Inside fixed networks
288(1)
Inside mobile networks
289(4)
Presentation of some solutions and directions
293(1)
Use of error correcting codes
294(3)
Unequal protection using the Mojette transform
297(2)
Conclusion
299(1)
Bibliography
300(3)
Conclusion 303(2)
List of Authors 305(4)
Index 309
Dr. Amine Naļt-Ali is an Associate Professor at the University Paris 12 (France), and a member of the Laboratory LISSI. His research interests are focused on physiological signal processing and analysis, optimisation using metaheuristics, none linear system modeling, biosignal and medical image compression. Dr. Christine Cavaro-Ménard is an Associate Professor at the University of Angers (France), and a member of the Laboratory LISA. Her research interests include medical image processing (segmentation, classification, texture analysis, registration) for diagnosis assistance, medical image compression and quality evaluation of compressed medical images.