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Preim B., Bartz D. — Visualization in Medicine: Theory, Algorithms, and Applications
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Íàçâàíèå: Visualization in Medicine: Theory, Algorithms, and Applications
Àâòîðû: Preim B., Bartz D.
Àííîòàöèÿ: Visualization in Medicine is the first book on visualization and its application to problems in medical diagnosis, education, and treatment. The book describes the algorithms, the applications and their validation (how reliable are the results?), and the clinical evaluation of the applications (are the techniques useful?). It discusses visualization techniques from research literature as well as the compromises required to solve practical clinical problems.
The book covers image acquisition, image analysis, and interaction techniques designed to explore and analyze the data. The final chapter shows how visualization is used for planning liver surgery, one of the most demanding surgical disciplines. The book is based on several years of the authors' teaching and research experience. Both authors have initiated and lead a variety of interdisciplinary projects involving computer scientists and medical doctors, primarily radiologists and surgeons.
* A core field of visualization and graphics missing a dedicated book until now
* Written by pioneers in the field and illustrated in full color
* Covers theory as well as practice
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Ðóáðèêà: Ìåäèöèíà è çäðàâîîõðàíåíèå /
Ñòàòóñ ïðåäìåòíîãî óêàçàòåëÿ: Ãîòîâ óêàçàòåëü ñ íîìåðàìè ñòðàíèö
ed2k: ed2k stats
Ãîä èçäàíèÿ: 2007
Êîëè÷åñòâî ñòðàíèö: 680
Äîáàâëåíà â êàòàëîã: 30.12.2007
Îïåðàöèè: Ïîëîæèòü íà ïîëêó |
Ñêîïèðîâàòü ññûëêó äëÿ ôîðóìà | Ñêîïèðîâàòü ID
Ïðåäìåòíûé óêàçàòåëü
Mesh, smoothing 176—179
MeVisLab 580—584
MeVisLab, defined 580
MeVisLab, image processing library 581
MeVisLab, network for tagged volume rendering 583
MeVisLab, network illustration 582
MeVisLab, scripting facilities 581
MeVisLab, value 584
MeVisLab, versions 583 (see also “Visualization software”)
Microscopic anatomy 528
Minimal distance computation 329—335
Minimal distance computation in medical visualization 330—331
Minimal distance computation, accurate 330
Minimal distance computation, based on bounding spheres 331—335
Minimal distance computation, distance transformation 335
Minimal distance computation, in robotics 330—331
Minimal distance computation, parameter choice 333—334
Minimal distance computation, recursive determination 333
Minimal distance computation, restriction 335
Minimal distance computation, validation 335 (see also “Distance measurements”)
Minimally invasive virtual reality simulator for laparoscopic surgery (MIST-VR) 565—566
MITK 584
Mixed reality 411—416
Mixed reality, camera alignment 413—414
Mixed reality, endoscope calibration 415—416
Mixed reality, interaction 414—416
Mixed reality, occlusion problem 412—413
Mixed reality, summary 417
Model-based segmentation methods 109—116
Model-based segmentation methods, active appearance models (AAMs) 114—15
Model-based segmentation methods, active contour models 109—111
Model-based segmentation methods, active shape models 111—114
Model-based segmentation methods, defined 109
Model-based segmentation methods, fast marching 111
Model-based segmentation methods, level sets 111
Model-based visualization, error 370—371
Model-based visualization, evaluation 370
Model-based visualization, outlook 572—573
Model-based visualization, qualitative validation 365—366
Model-based visualization, quantitative validation 366—369 (see also “Visualizations”)
Moire artifact 20
Monte — Carlo simulation 515
Morphological image analysis 119—120
MRI diffusion tensor imaging (MRI-DTI) see “Diffusion tensor imaging (DTI)”
MT-Dyna 251
Multidimensional transfer functions 270—275
Multidimensional transfer functions, 2D component functions 272—274
Multidimensional transfer functions, conversion to lookup tables 271—272
Multidimensional transfer functions, defined 270
Multidimensional transfer functions, histograms 271—272
Multidimensional transfer functions, representation 274—275 (see also “Transfer functions”)
Multimodal visualization 484—485
Multiparameter visualization 245—247
Multiplanar reconstruction (MPR) 155 375
Multiplanar reformatting 78
Multiresolution filtering 93
Multiresolution slicing 219
Navigated Control 411
Navigating instruments 409—411
Near focus objects (NFO) 435 438 439
Nearest neighbor segment approximation (NNSA) 508
Neighborhoods 17
Neuroanatomy 457—458
Noise reduction, filter 89 90
Noise reduction, diffusion filtering 92
Noise reduction, dynamic filters 91—92
Noise reduction, filtering at boundaries 92—93
Noise reduction, filters 88
Noise reduction, morphologic operators 119—120
Noise reduction, multiresolution filtering 93
Noise reduction, static filters 89—91
Noise reduction, techniques 88—93
Non-photorealistic rendering (NPR) 420
Non-photorealistic rendering (NPR), degrees of freedom 422
Non-photorealistic rendering (NPR), overview 423 (see also “Illustrative rendering”)
Non-uniform aneurysm 398
Normal estimators 151—152
Normals, noise on 167
Normals, vertex 152
Normals, voxel 152
Nyquist rate 18 20
Nyquist theorem 18
Oblique slice mode examination 156
Occlusion culling 174—175
Occlusion problem 412—413
Octrees 169
OFFIS dicom toolkit 587
Oncologic liver surgery planning 508—511
One-dimensional transfer functions, component functions 268
One-dimensional transfer functions, strategies 262—70 (see also “Transfer functions”)
Opacity transfer function (OTF) 187 420
Operating room (OR), interaction in 414—416
Operating room (OR), intervention planning 416
Operating room (OR), mixed reality in 411—416
Operating room (OR), navigating instruments 409—411
Operative techniques 552
Operative techniques, endoscopic surgery simulation 562
Operative techniques, haptic surgery simulator 562—563
Operative techniques, petrous bone surgery simulation 563—565
Operative techniques, studying 562—566
Optical see-through displays 412
Optical tracking 408—409
Optimization, numerical 128
Organization, this book 7—9
Oriented bounding box (OBB) 172 299 336
Osteotomy planning 306
Outer intervals 325
Pancreatic survey planning 520—521
Parameter maps 241 242
Parametric surfaces, visualization with 353
Partial volume effects 21—22
Partitional clustering 489
Path measurements 320—321
Perceptually uniform color spaces 31—32
Perfusion maps 254
Petrous bone surgery simulation 563—565
Phantoms 230—232
Pharmacokinetic models 243—244
Phase-contrast angiography (PCA) 53
Phong illumination model 145 146—148
Phong illumination model, component images 148
Phong illumination model, components 146—147
Phong illumination model, illustrated 147
Phong shading 430
Pituitary gland, endoscopic intervention 395
Pituitary gland, function 395
Pituitary gland, minimally invasive surgery 395—397
Pituitary gland, tumor location/approach 396
Pituitary gland, virtual endoscopy of 396—397
Planar diffusion 468
Plane-based volume rendering 155—156
Planned navigation 385
Polaris Spectra 409
Polaris Vicra 409
Polygon-volume interactions 224—225
Polygonal isosurface extraction 159—168
Polygonal isosurface extraction, ambiguities 165—166
Polygonal isosurface extraction, artifacts 166—167
Polygonal isosurface extraction, Marching Cubes 162—165
Polygonal isosurface extraction, Marching Squares 160—162
Polygonal isosurface extraction, segmented, multiple objects, transparency 167—168 (see also “Isosurface extraction”)
Polygonal models, feature lines from 423—426
Polygonal models, Gouraud-shaded 424
Polygonal models, silhouettes from 423—426
Polygonal models, smoothing 425
Positron emission tomography (PET) 4 35 60—61
Positron emission tomography (PET), applications in oncology 61
Positron emission tomography (PET), data 61
Positron emission tomography (PET), defined 60
Positron emission tomography (PET), fMRI and 61
Positron emission tomography (PET), principle 60
Pre-integrated volume rendering 194—195
Primal Pictures 552
Principal component analysis (PCA) 112
Protons 49
Proximity matrix 488
Proximity metrics for clustering 487—488
Proximity metrics, advanced 488
Proximity metrics, symmetric 488
Proxy geometry 212
Psychophysical experiments 570
Quadtrees 169
Qualitative validation 365—366
Quantitative image analysis 73—76
Quantitative image analysis, annotation 76
Quantitative image analysis, manual segmentation 76
Quantitative image analysis, regional lung function determination 74—75
Quantitative image analysis, response evaluation in solid tumors 75
Quantitative validation 366—369
Radiographic anatomy 528
Radiological information systems (RIS) 69
Radiology workflow 70
Range visualization 448—449
Ray casting 197—203
Ray casting for segmented datasets 223 (see also “Direct volume visualization”)
Ray casting with quantized gradients 203
Ray casting, acceleration methods 200—203
Ray casting, coarse sampling rate 198
Ray casting, computations 202
Ray casting, defined 197
Ray casting, image illustration 199
Ray casting, perspective, ray divergence 200
Ray casting, quality 199—200
Ray merging 224
Ray tracing 197
RealityEngine graphics 213
Receiver-operator curves (ROC) 27
Rectilinear grids 274—275
Red, green, and blue component (RGB) 31
Reference array 409
Reference star 409 410
Reference transfer functions 266—267
Reference transfer functions for gradient-based visualizations 278—280
Reference transfer functions, histogram 267
Reflective marker 409
Region growing 98—100
Region growing for vessel segmentation 100
Region growing, adaptive threshold intervals 100
Region growing, advanced methods 100
Region growing, defined 98
Region growing, interaction techniques 117—118
Region growing, model assumptions in 115—116
Region growing, stages 99
Region of interest (ROI) 73 85—86
Regional anatomy 528
Registration with landmarks 128
Registration, accuracy 406
Registration, defined 126
Registration, examples 126—127
Registration, image-guided surgery 405—407
Registration, local 129
Registration, problem formulation 127
Registration, scientific literature 127
Registration, visualization integration 129—130
Renal surgery planning 520—521
Resampling 86—87
Resampling in ultrasound processing 86
Resampling with texture-mapping 213
Resampling, data volumes 25
Resection, boundary, in resection plane 304—305
Resection, defined 294
Resection, interactive 308
Resection, proposals, combination of 307
Resection, virtual 294—297
Resection, virtual, with deformable cutting plane 297—307
Resection, volume 305
Risk analysis for LDLT 511—514
Risk analysis for LDLT, oncologic liver surgery planning 508—11
Risk analysis for LDLT, pancreatic surgery planning 521
Risk analysis for LDLT, renal surgery planning 522
Rotational X-ray 39—40
Rotational X-ray, defined 39
Rotational X-ray, illustrated 40 (see also “X-ray imaging”)
rulers 319—320
Run-length encoded (RLE) representation 204
SaarCOR system 221
Sampling in volume rendering pipeline 187
Sampling theorem 18—19
Saturation contrast 445
Scientific visualization 1—3
SCIRun 578—579
Script-based animation specification 542—545
Script-based animation specification, anatomy and surgery education 542—544
Script-based animation specification, high-level script translation 544
Script-based animation specification, stages 545 (see also “Animations”)
Segmentation of 4D data 132
Segmentation of intrahepatic vasculature 506—507
Segmentation, algorithm 83
Segmentation, aspects 95
Segmentation, computer support 96
Segmentation, data processing 243
Segmentation, defined 95
Segmentation, general approaches 95—109
Segmentation, implicit 262
Segmentation, infiltrating balloon 110
Segmentation, liver 505—506
Segmentation, livewire 104—109
Segmentation, manual 96
Segmentation, method validation 124—126
Segmentation, model-based approaches 109—116 573
Segmentation, region growing 98—100 115—116
Segmentation, results, postprocessing 119—122
Segmentation, results, smoothing 120—122
Segmentation, significance 95—96
Segmentation, threshold-based 96—98
Segmentation, tumor 506
Segmentation, vascular structures 345
Segmentation, vessel 122 346
Segmentation, watershed 100—104
Selective clipping 293—294
Selective clipping with Boolean textures 293—294
Selective clipping, defined 293 (see also “Clipping”)
Sensitivity 26 41
Shading, cool-to-warm tone 432—433
Shading, Gouraud 430
Shading, half-tone 431—432
Shading, illustrative styles 430—433
Shading, Phong 430
Shading, primitives 431
Shadow volumes, emphasis with 442—443
Shadow volumes, illustrated 443
Shape perception 421—422
Shape-based interpolation 106—107
Shear warp 203—206
Shear warp, dataset rendering illustration 206
Shear warp, defined 203
Shear warp, factorizations 204
Shear warp, planes 204
Shear warp, quality 205—206
Shear warp, transformation 204
Shear warp, varying sampling distances 205 (see also “Direct volume visualization”)
Shell rendering 220
Signal artifacts 25—26
Significant scalar field (SSF) 362
silhouettes 421
Silhouettes, algorithms 424
Silhouettes, data structures for 426
Silhouettes, from polygonal models 423—426
Silhouettes, generation of liver 426
Silhouettes, generation of skeletal structures 426
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