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Preim B., Bartz D. — Visualization in Medicine: Theory, Algorithms, and Applications
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


ßçûê: en

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
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Ïðåäìåòíûé óêàçàòåëü
Silhouettes, in object class discrimination      435
Silhouettes, line generation      428
Silhouettes, subpolygon      425
Silhouettes, surface rendering with      437
Simulation, integration with visualization      570—571
Simulation, Monte Carlo      515
Simulation, numerical      570
Simulation, surgery      553—561
Single-photon emission computed tomography (SPECT)      35 61—63
Single-photon emission computed tomography (SPECT), data      62
Single-photon emission computed tomography (SPECT), defined      61
Single-photon emission computed tomography (SPECT), dynamic      62
Single-photon emission computed tomography (SPECT), PET versus      62
Skeletonization      122—124
Skeletonization in vessel analysis      346—350
Skeletonization, direct      124
Skeletonization, illustrated      347
Skeletonization, indirect      122—124
Skeletonization, method comparison      124
Skeletonization, skeleton enhancement      348
Slices, browsing      72—73
Slices, CT      46
Slices, drawing on      296—297
Slices, emphasis in      448
Slices, selection      447—448
Smoothing with binomial filter      348
Smoothing, Laplacian      301
Smoothing, mesh      176—179
Smoothing, polygonal models      425
Smoothing, segmentation results      120—122
Sobel operator      150
Soft tissue deformation      555—558
Soft tissue deformation, simulation      555—558
Soft tissue deformation, simulation with FEM      556
Soft tissue deformation, simulation with mass-spring models      556—557
Soft-copy reading      69—80
Soft-copy reading, browsing slices      72—73
Soft-copy reading, diagnosis with 3D visualizations      77—80
Soft-copy reading, digital hanging protocol      76
Soft-copy reading, display devices      70—71
Soft-copy reading, image data evaluation      73
Soft-copy reading, integration      69—71
Soft-copy reading, of digital mammograms      71
Soft-copy reading, quantitative image analysis      73—76
Soft-copy reading, software assistant guidelines      76—77
Soft-copy reading, tasks      71—73
Soft-copy reading, windowing      71—72
Software assistants for liver surgery planning      516—519
Software assistants, defined      516
Software assistants, HepaVision      516 517
Software assistants, InterventionPlanner      517—519
Span space      170
Spatial domain      18 21
spatial resolution      29
Spatial resolution, defined      30
Spatial resolution, fovea      29
Spatialized transfer functions      288
Specificity      26
Specular reflection      146—148
Sphenoidotomy      396
Spin-spin relaxation      50
Splatting      206—212
Splatting, acceleration methods      210—212
Splatting, axis-aligned sheet-plane      209
Splatting, defined      206
Splatting, early splat elimination      211
Splatting, GPUs and      212
Splatting, illustrated      207
Splatting, post-classification      210
Splatting, preclassification      207 209
Splatting, precomputed footprints      210
Splatting, quality      208—210
Splatting, spherical splats      208
Splatting, splat overlap      208
Splatting, splat size      207 (see also “Direct volume visualization”)
Splitting box algorithm      168—169
Staircasing artifacts      23 24
Static noise reduction filters      89—91
Statistical Parametric Mapping (SPM)      55
Stereotactic frame      405
Stipplings      453
Streamlines with controlled density      481—482
Streamlines, adaptation for tensor data      480
Streamlines, adaptive placement      482
Streamlines, computation      478—483
Streamlines, defined      478
Streamlines, illumination of      482—483
Streamlines, representing fiber tracts      482
Streamlines, streamtubes versus      484
Streamlines, visualization example      479
Streamsurfaces      484
Streamtubes      484
Structures, enhancement      94—95
Structures, vascular      94
Subdivision surfaces, applied to vessel tree      357
Subdivision surfaces, visualization      355—357
Subpolygon silhouettes      425
Suggestive contours      425
Summed-area tables (SAT)      211
Superquadric tensor glyphs      474—475 476
Surface postprocessing      173—180
Surface postprocessing, geometry culling      173—175
Surface postprocessing, mesh reduction      175—176
Surface postprocessing, mesh smoothing      176—179
Surface postprocessing, voxelization      179—180
Surface shaded display (SSD)      7 77—78
Surface-based volume rendering      156—173
Surface-based volume rendering, contour tracing      158
Surface-based volume rendering, Cuberille voxel representation      158—159
Surface-based volume rendering, polygonal isosurface extraction      159—168 (see also “Volume rendering”)
Surgery education      552—566
Surgery education, associative phase      553
Surgery education, autonomous phase      553
Surgery education, clinical, CBT systems for      553
Surgery education, cognitive phase      552
Surgery education, operative techniques      552
Surgery simulation      553—561
Surgery simulation, arbitrary freeform cuts      555
Surgery simulation, collision detection      555 560
Surgery simulation, endoscopic      562
Surgery simulation, haptic feedback      555 560—561
Surgery simulation, hepatic      562—563
Surgery simulation, petrous bone      563—565
Surgery simulation, requirements      555
Surgery simulation, soft tissue deformation      555—558
Surgery simulation, validation      565—566
Surgery simulation, variable training scenarios      555 558—560
Surgical theory      552
Synchronized emphasis      447—449
Systemic anatomy      528
T-junctions      467
Table feed      46
Templates      272—273
Temporal denoising      243
Tensor glyphs      473—477
Tensor glyphs, 3D visualization      475—476
Tensor glyphs, color schemes      476—477
Tensor glyphs, density control      475
Tensor glyphs, ellipsoids      474 476
Tensor glyphs, evaluation criteria      473
Tensor glyphs, jittered placement      475
Tensor glyphs, superquadric      474—475 476
Tensor glyphs, visualization with      475—476
Tensorlines      478
Texture-mapping      212—219
Texture-mapping, dataset management      218—219
Texture-mapping, framebuffer accuracy      217
Texture-mapping, hybrid rendering algorithms      218
Texture-mapping, quality      215—218
Texture-mapping, resampling through      213
Texture-mapping, shortcomings      214—215
Texture-mapping, varying sampling distance      216
Texture-mapping, volume rendering illustration      213 (see also “Direct volume visualization”)
Thermoablations, applicator positioning      514—515
Thermoablations, physical effects      515—516
Thermoablations, planning      514—516
Thin slab volume rendering      193—194
Threshold-based segmentation      96—98
Threshold-based segmentation, application      97
Threshold-based segmentation, connected component analysis (CCA)      98
Threshold-based segmentation, multiple intensity intervals      96
Threshold-based segmentation, threshold selection      97—98 (see also “Segmentation”)
Time to peak (TTP)      240
Time-of-flight (TOF)      53 395
Tissue deformation      404
Tracked pointer tool      406
Tracking      407—409
Tracking, electromagnetic      407—408
Tracking, optical      408—409 (see also “Image-guided surgery”)
Transfer function specification      261—290
Transfer function specification by means of component functions      269—270
Transfer function specification for boundary emphasis      264—265
Transfer function specification, data-driven      263—266
Transfer function specification, future work      288
Transfer function specification, image-driven      267—270
Transfer function specification, opacity increase strategy      262
Transfer function specification, summary      288
Transfer functions, according to histogram      267
Transfer functions, binary opacity      143
Transfer functions, color      144—145
Transfer functions, defined      137—138
Transfer functions, design      263
Transfer functions, distance-based      280—286
Transfer functions, gradient-based      275—280
Transfer functions, gray-level      144—145
Transfer functions, impact on visual representation      144
Transfer functions, isovalues      145
Transfer functions, local      286—287
Transfer functions, multidimensional      270—275
Transfer functions, one-dimensional, strategies      262—270
Transfer functions, opacity (OTF)      187 420
Transfer functions, opacity, generating      265—266
Transfer functions, presets for specification      144
Transfer functions, reference      266—267
Transfer functions, spatialized      288
Transfer functions, specification      142—145
Transformations, comparison      128
Transformations, global      127 128
Transformations, local      127 128
Transparency      167—168
Trigeminal neuralgia      395
Trilinear interpolation, DTI data      465
Trilinear interpolation, illustrated      15 (see also “Interpolation”)
Trivariate color scales      33
Truncated cones, visualization with      353—355
Tube phantom      20
Tumor perfusion      238—240 248—253
Tumor perfusion, computer support      250—251
Tumor perfusion, imaging      250
Tumor perfusion, visualization techniques      251—253
Tumor segmentation      506
Tumor surgery, planning      284—285
Tumor surgery, resection proposals      510—511
Tumor surgery, risk analysis      508—511
Turbo-spin-echo (TSE)      395
Two-handed interaction      260
Two-level volume rendering      222
Two-level volume rendering, advantage      227—228
Two-level volume rendering, hybrid      227—228 (see also “Volume rendering”)
Ultrasound      57—60
Ultrasound, 3D      59
Ultrasound, advantage      58
Ultrasound, defined      57
Ultrasound, display block diagram      59
Ultrasound, images      57 58
Ultrasound, intravascular (IVUS)      59
Ultrasound, summary      63
Undersampling      19—21
Uniform grids      14
United Network for Organ Sharing (UNOS)      504
V-Collide      330
Validation, anatomic tree structures      365—371
Validation, clustering      492
Validation, criteria      229—230
Validation, data-level comparisons      232
Validation, distance measurement      319
Validation, geometric models      230—232
Validation, image-level comparison      232
Validation, metrics      125—126
Validation, qualitative      365—366
Validation, quantitative      366—369
Validation, results presentation      232—235
Validation, segmentation methods      124—126
Validation, studies      125
Validation, surgical simulators      565—66
Validation, volume visualization algorithms      228—235
Variable training scenarios      555 558—560
Variable training scenarios, automatic mesh generation      559—560
Variable training scenarios, strategies      558—559
Vascular structures      94
Vascular structures, human liver      344
Vascular structures, quantitative analysis      376
Vascular structures, tracing      100
Vascular structures, visualization      373
Vessel analysis      345—350
Vessel analysis, pipeline      122
Vessel analysis, segmentation      346
Vessel analysis, skeletonization      346—350
Vessel analysis, structure preprocessing      345—346
Vessel analysis, system identification      348—350
Vessel reconstruction      350—352
Vessel reconstruction for interaction      352
Vessel reconstruction for visualization      351—352
Vessel reconstruction, explicit      352—357
Vessel reconstruction, implicit      352 357—361
Vessel segmentation      122 346
Vessel visualization for diagnosis      374—377
Vessel visualization, explicit surface reconstruction      352—357
Vessel visualization, implicit surface reconstruction      357—361
Vessel visualization, overview      350—352
Vessel visualization, vessel reconstruction for      351—352
Video see-through devices      412
View-frustum culling      173—174
Virtual angioscopy      397—400
Virtual angioscopy of cerebral blood vessels      397—399
Virtual angioscopy of coronary blood vessels      399—400
Virtual bronchoscopy      389—391
Virtual bronchoscopy, illustrated      390
Virtual bronchoscopy, methods      391
Virtual cardioendoscopy      400
Virtual colonoscopy      387—389
Virtual colonoscopy, illustrated      389
Virtual colonoscopy, optical      388—389
Virtual colonoscopy, summary      389
Virtual endoscopy      78—79 381—402
Virtual endoscopy of pituitary gland      396—397
Virtual endoscopy, angioscopy      397—400
Virtual endoscopy, application scenarios      382—384
Virtual endoscopy, automatic (planned) navigation      385—386
Virtual endoscopy, bronchoscopy      389—391
Virtual endoscopy, cardioendoscopy      400
Virtual endoscopy, colonoscopy      387—389
Virtual endoscopy, diagnosis and screening      383
Virtual endoscopy, direct volume rendering      385
Virtual endoscopy, guided navigation      386—387
Virtual endoscopy, indirect volume rendering      384—385
Virtual endoscopy, intervention and therapy planning      383
Virtual endoscopy, intraoperative navigation      383
Virtual endoscopy, manual (free) navigation      386
Virtual endoscopy, navigation      385—386
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