- •Preface to the Second Edition
- •Contents
- •List of Abbreviations
- •1: Epidemiology of AMD
- •Core Messages
- •1.1 Introduction
- •1.3 Frequency
- •1.3.1 Prevalence
- •1.3.2 Incidence
- •1.4 Natural Course
- •1.5 Genetic Factors
- •1.5.1 The Complement Pathway Genes
- •1.5.1.1 Complement Factor H (CFH)
- •1.5.1.3 Complement Component 3 (C3)
- •1.5.1.4 Complement Factor I (CFI)
- •1.5.2 The ARMS2 (10q26) Locus
- •1.5.3.1 Apolipoprotein E (APOE)
- •1.5.4 Candidate Gene Association Studies
- •1.6 Environmental Factors
- •1.6.1 Smoking
- •1.6.2 Antioxidants
- •1.6.3 Body Mass Index (BMI)
- •1.6.4 Hypertension
- •1.6.5 Cataract Surgery
- •1.7 Interaction Between Risk Determinants
- •1.7.1 Combined Effects of CFH Y402H and Other Genetic and/or Environmental Factors
- •1.7.2 Combined Effects of 10q26 SNPs and Other Genetic and/or Environmental Factors
- •1.7.4 Combined Effects of the APOE Gene and Other Genetic and/or Environmental Factors
- •References
- •2: Genetics
- •Core Messages
- •2.1 Introduction
- •2.2 Identifying Risk Factors of a Common Disease
- •2.3 Early Findings
- •2.4.1 Functional Implications
- •2.5.1 Functional Implications
- •2.7 Prospects of Genetics in AMD Therapy and Prevention
- •Summary for the Clinician
- •References
- •Core Messages
- •3.1 Introduction
- •3.2 Cause and Consequences of Ageing
- •3.3 Clinical Changes Associated with Retinal Ageing
- •3.4 Ageing of the Neural Retina
- •3.5 Ageing of the RPE
- •3.5.1 Changes in RPE Cell Density
- •3.5.2 Subcellular Changes in the RPE
- •3.5.3 Accumulation of Lipofuscin
- •3.5.4 Melanosomes and Pigment Complexes
- •3.5.7 Antioxidant Capacity of the RPE
- •3.6 Ageing of Bruch’s Membrane
- •3.7 The Association Between Ageing and AMD
- •Summary for the Clinician
- •References
- •Core Messages
- •4.1 Introduction
- •4.2 The Complement System
- •4.3 Evidence for Involvement of the Complement System in AMD Pathogenesis
- •4.4.2 Complement Gene Variants and AMD Subtypes
- •4.4.3 Complement Gene Variants and Progression of AMD
- •4.4.5 Variations of Complement Genes and Response to Treatment: Pharmacogenetics
- •4.5 Emerging Pharmacological Intervention Targeting Complement Dysregulation
- •Conclusions
- •Summary for the Clinician
- •References
- •5: Histopathology
- •Core Messages
- •5.1 Retinal Pigment Epithelium
- •5.1.1 Structure and Function of the Retinal Pigment Epithelium
- •5.1.3 Deposits in the RPE
- •5.2 Bruch’s Membrane
- •5.2.1 Structure of Bruch’s Membrane
- •5.2.3 Deposits in Bruch’s Membrane, Drusen
- •5.3 Choroidal Neovascularization
- •5.4 Detachment of the Retinal Pigment Epithelium
- •5.5 Geographic Atrophy of the RPE
- •Summary for the Clinician
- •References
- •6: Early AMD
- •Core Messages
- •6.1 Introduction
- •6.2 Drusen
- •6.2.3 Fluorescence Angiography and Optical Coherence Tomography
- •6.3 Focal Hypopigmentation and Hyperpigmentation of the Retinal Pigment Epithelium
- •6.4 Abnormal Choroidal Perfusion
- •Summary for the Clinician
- •References
- •Core Messages
- •7.1 Introduction
- •7.2.1 Decreased Visual Acuity
- •7.2.2 Visual Distortion
- •7.2.3 Visual Field Defects
- •7.2.4 Miscellaneous Symptoms
- •7.3 Signs of Choroidal Neovascularization
- •7.3.1 Hemorrhage
- •7.3.2 Macular Edema and Subretinal Fluid
- •7.3.3 Retinal Pigment Epithelial Detachment
- •7.3.4 Miscellaneous Signs
- •7.4 Common Testing Modalities to Diagnose Choroidal Neovascularization
- •7.4.1 Fluorescein Angiography
- •7.4.2 Indocyanine Green Angiography
- •7.4.4 Optical Coherence Tomography
- •Summary for the Clinician
- •References
- •8: Geographic Atrophy
- •Core Messages
- •8.1 Introduction
- •8.3 Histology and Pathogenesis of Geographic Atrophy
- •8.5 Spectral Domain Optical Coherence Tomography in Geographic Atrophy
- •8.7 Risk Factors
- •8.7.1 Genetic Factors
- •8.7.2 Systemic Risk Factors
- •8.7.3 Ocular Risk Factors
- •8.8 Development of CNV in Eyes with GA
- •8.9 Visual Function in GA Patients
- •8.9.1 Measurement of Visual Acuity
- •8.9.2 Contrast Sensitivity
- •8.9.3 Reading Speed
- •8.9.4 Fundus Perimetry
- •8.10 Perspectives for Therapeutic Interventions
- •8.10.2 Complement Inhibition
- •8.10.3 Neuroprotection
- •8.10.4 Alleviation of Oxidative Stress
- •8.10.5 Serotonin-1A-Agonist
- •8.10.6 Perspective
- •Summary for the Clinician
- •References
- •9: Fundus Imaging of AMD
- •Core Messages
- •9.1 Introduction
- •9.2 Color Photography
- •9.3 Monochromatic Photography
- •9.5 Optical Coherence Tomography
- •9.5.2 Coherence Length
- •9.5.3 Time Domain Optical Coherence Tomography
- •9.5.4 Frequency Domain Optical Coherence Tomography
- •9.5.5 Increasing Depth of Imaging
- •9.5.6 General Optical Coherence Tomographic Imaging Characteristics of the Macular Region
- •9.6 Fundus Angiography
- •9.6.1 Fluorescein Dye Characteristics
- •9.6.2 Indocyanine Green Dye Characteristics
- •9.6.3 Cameras Used in Fluorescence Angiography
- •9.6.4 Patient Consent and Instruction
- •9.6.5 Fluorescein Injection
- •9.6.6 Fluorescein Technique
- •9.6.7 Indocyanine Green Technique
- •9.7 Fluorescein Angiographic Interpretation
- •9.7.1 Filling Sequence
- •9.7.2 The Macula
- •9.8 Deviations from Normal Angiographic Appearance
- •9.10.1 Drusen
- •9.12 Neovascular AMD
- •9.13 Retinal Pigment Epithelial Detachments
- •9.14 Retinal Vascular Contribution to the Exudative Process
- •9.15 Follow-up
- •9.15.1 Thermal Laser
- •9.15.2 Photodynamic Therapy
- •9.15.3 Anti-VEGF Therapy
- •Summary for the Clinician
- •References
- •10: Optical Coherence Tomography
- •10.1 Introduction
- •Core Messages
- •10.4 OCT in Geographic Atrophy
- •10.5 OCT in Exudative AMD
- •Summary for Clinician
- •References
- •11: Microperimetry
- •Core Messages
- •11.1 Introduction
- •11.2.1 From Manual to Automatic Microperimetry
- •11.2.2 Automatic Microperimetry
- •11.2.3 Microperimetry: The Examination
- •11.2.4 Microperimetry: Test Evaluation
- •11.2.5 Other Microperimeter
- •11.3 Microperimetry in AMD
- •11.3.1 Early AMD
- •11.3.2 Geographic Atrophy
- •11.3.3 Neovascular AMD
- •11.3.4 Neovascular AMD: Treatment
- •Summary for the Clinician
- •References
- •Core Messages
- •12.1 Introduction
- •12.2 Antioxidants and Zinc
- •12.3 Beta-Carotene
- •12.4 Macular Xanthophylls
- •12.6 Vitamin E
- •12.7 Vitamin C
- •12.8 Zinc
- •12.10 AREDS2
- •Summary for the Clinician
- •References
- •Core Messages
- •13.1 Introduction
- •13.2 Basic Principles
- •13.2.1 Clinical Background
- •13.2.2 Laser Photocoagulation
- •13.2.3 Photodynamic Therapy
- •13.3 Treatment Procedures
- •13.3.1 Laser Photocoagulation
- •13.3.2 Photodynamic Therapy
- •13.4 Study Results
- •13.4.1 Laser Photocoagulation
- •13.4.1.1 Extrafoveal CNV
- •13.4.1.2 Subfoveal CNV
- •13.4.1.3 Meta-analysis
- •13.4.2 Photodynamic Therapy
- •13.4.2.1 Predominantly Classic
- •13.4.2.2 Occult with No Classic Neovascularization
- •13.4.2.3 Minimally Classic
- •13.5 Safety and Adverse Events
- •13.5.1 Laser Photocoagulation
- •13.5.2 Photodynamic Therapy
- •13.6 Variations
- •13.6.1 Laser Photocoagulation: Different Wavelengths
- •13.6.2 Photodynamic Therapy
- •13.6.3 Combination Treatments
- •13.7 Present Guidelines
- •13.7.1 Laser Photocoagulation
- •13.7.2 Photodynamic Therapy
- •13.8 Perspectives
- •Summary for the Clinician
- •References
- •Core Messages
- •14.1 Introduction
- •14.2 Vascular Endothelial Growth Factor (VEGF)
- •14.3 Targets Within the VEGF Pathway
- •14.3.1 Sequestration of Released VEGF
- •14.3.2 Inhibition of VEGF and VEGF Receptor Synthesis by Small Interfering RNA (siRNA)
- •14.3.3 Inhibition of the Intracellular Signal Cascade
- •14.3.4 Natural VEGF Inhibitors
- •14.4 New Methods of Drug Delivery
- •14.5 Combined Strategies
- •Summary for the Clinician
- •References
- •Core Messages
- •15.1 Introduction
- •15.1.1 Anti-VEGF Therapies for NV-AMD
- •15.2.1 How Should Neovascular AMD be Diagnosed?
- •15.2.4.1 Results with Continuous Monthly Treatment
- •15.2.4.2 How Should Treatment be Started?
- •15.2.4.3 What Flexible Approaches Are Reported?
- •Fixed Quarterly Injection Studies
- •Flexible Dosing Regimens: Two Approaches
- •Flexible Dosing Regimens: ‘As Needed’ Approach
- •Flexible Dosing Regimens: ‘Treat-and-Extend’ Approach
- •Summary for the Clinician
- •References
- •Core Messages
- •16.1 Introduction
- •16.3 Current Limitation of Therapy in the Treatment of Exudative AMD
- •16.4 Rationale for Combination Therapy in the Treatment of Exudative AMD
- •16.5 Clinical Data Examining Combination Therapy for Exudative AMD
- •16.5.3 Triple Therapy for Exudative AMD
- •16.5.4 Combination Therapy with Radiation
- •Summary for the Clinician
- •References
- •Core Messages
- •17.1 Introduction
- •17.2 Current Treatment Options for Dry AMD
- •17.3 Targeting the Cause of AMD
- •17.4 Preclinical and Phase I Drugs in Development for Dry AMD
- •17.4.1 Clinical Trial Endpoints in Dry AMD
- •Trimetazidine
- •17.4.2.2 Neuroprotection
- •Ciliary Neurotrophic Factor (CNTF/NT-501)
- •AL-8309B (Tandospirone)
- •Brimonidine Tartrate Intravitreal Implant
- •17.4.2.3 Visual Cycle Modulators
- •Fenretinide
- •17.4.2.4 Other
- •17.4.3 Drugs to Prevent Injury from Oxidative Stress and Micronutrient Depletion
- •17.4.4.1 Complement Inhibition at C3
- •17.4.4.2 Complement Inhibition at C5
- •Eculizumab
- •17.4.4.3 Complement Inhibition of Factor D
- •FCFD4514S
- •Iluvien
- •Glatiramer Acetate (Copaxone)
- •17.5 Summary
- •Summary for the Clinician
- •References
- •18: Surgical Therapy
- •Core Messages
- •18.1 Maculoplasty
- •18.2 Macular Translocation
- •18.3 Single Cell Suspensions
- •18.5 Indications for Surgery
- •18.5.1 Non-responder
- •18.5.2 Pigment Epithelium Rupture
- •18.5.3 Massive Submacular Bleeding
- •18.5.5 Macula Dystrophies
- •Summary for the Clinician
- •References
- •19: Reading with AMD
- •Core Messages
- •19.1 Introduction
- •19.2 Physiological Principles
- •19.3 Reading with a Central Scotoma
- •19.3.1.2 The Reading Visual Field Related to the Fundus (Fig. 19.4b)
- •19.3.1.3 The Reading Visual Field Related to the Text (Fig. 19.4c)
- •19.3.1.4 Eccentric Fixation Related to the Globe (Fig. 19.5)
- •19.3.3 Examination of Fixation Behaviour
- •19.3.4 Motor Aspects
- •19.4 Methods to Examine Reading Ability
- •19.5 Rehabilitation Approaches to Improve Reading Ability
- •Summary for the Clinician
- •References
- •20: Low Vision Aids in AMD
- •Core Messages
- •20.2 Effects of Visual Impairment in AMD
- •20.5 Optical Magnifying Visual Aids for Distance
- •20.5.1 Aids for Watching Television
- •20.8 Electronic Reading Instruments
- •20.9 Additional Aids
- •20.10 Noteworthy Details for the Provision of Low Vision Aids
- •20.11 Basic Information on Prescription
- •Summary for the Clinician
- •References
- •Index
Index
A
A2E, 50–53, 142, 267, 268 ABCA1-gene, 17 ABCA4-gene, 18, 35 ACU-4429, 268
AdPEDF, 229
AD. See Alzheimer’s disease (AD)
Advanced glycation end products (AGE), 79–80, 89 AGE. See Advanced glycation end products (AGE) AG-013958, 229
Age-related eye disease Study (AREDS) alleviation, oxidative stress, 133 beta-carotene, 193
defined, 70–71, 192, 263
Age-related macular degeneration (AMD)
blue fundus autofluorescence image, 179, 180 causes and consequences, and neural retina, 57 caution, 6
choroidal perfusion, 107–108 classification, epidemiologic studies, 4
CNV (see Choroidal neovascularization (CNV)) color fundus and fundus auto fluorescence
images, 179
complement system (see Complement system, AMD) description, 101
diabetic retinopathy, 179 drusen, 102–107
dry (see Dry AMD) environmental factors
antioxidants, 18–19 BMI, 19
cataract surgery, 19–20 hypertension, 19 smoking, 18
FAF, 178
fundus autofluorescence, 57, 58 fundus imaging (see Fundus imaging) GA (see Geographic atrophy (GA)) genetic factors
ARMS2 (10q26) locus, 12–13
candidate gene association studies, 17–18 complement pathway genes, 7–12 lipid-related genes, 13–17
heterogeneous etiological factors, 101 histopathologic studies, 178 incidence rates and risks, 7 interaction, risk determinants
APOE gene, genetic and environmental factors, 21 CFH and ARMS2/HTRA1 SNPs, 21
CFH Y402H, genetic and environmental factors, 20 10q26 SNPs, genetic and environmental factors, 20–21
lipid metabolism, 3 natural course, 7
nutritional supplementation (see Nutritional supplementation, AMD)
NV-AMD (see Neovascular AMD (NV-AMD)) prevalence
geographic atrophy and neovascular, 6 population-based studies, 4–6
quantitative parameters, 102 reading (see Reading, AMD) RPE, 107
smoking, 3
soft drusen and pigmentary abnormalities, 3 stages, 101, 102
TIMP3, 17
treatment (see Treatment, AMD) “wet” and “dry”, 101
Age-related maculopathy (ARM) BM, 165, 166
disorganization retinal layers, 167 drusenoid PED, 165, 166
OS/IS junction, 165, 166 types, drusen, 165
AL-8309B (Tandospirone), 267 Alternative pathway of complement (APC)
activation, 66
AMD donor eyes and genetic Studies, 68 Alzheimer’s disease (AD)
APOE gene, 35 protein isoforms, 35
AMD. See Age-related macular degeneration (AMD) Anticalines, 228
Antioxidants AREDS, 18–19 capacity, RPE
oxidative damage, 55 peripheral, 56
ROS, 55–56 reduction of serum, 18 and zinc
AREDS, 192, 193
categories, disease severities, 192 mortality rates, 192
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DOI 10.1007/978-3-642-22107-1, © Springer-Verlag Berlin Heidelberg 2013 |
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Anti-VEGF therapy description, 233
diseases management, 235 evidence-based guidelines, 235 fluorescein leakage, 159, 160 macula, thermometer, 160 management, 235–236 NV-AMD
antibody Fab fragment, 234 ‘as needed’ approach, 241–242
continuous monthly treatment, 238, 239 diagnosis, 236
fixed quarterly injection studies, 240–241 lesions, 237–238
long-term considerations, 242 parameters, 238
placental growth factors, 234–235 ranibizumab and bevacizumab, 234, 235 RCT, 234
‘treat-and-extend’ approach, 242 treatment, 240
SNPs, 234
APC. See Alternative pathway of complement (APC) APOE. See Apolipoprotein E (APOE) Apolipoprotein E (APOE)
allele-based meta-analysis, APOe4 and APOe2, 15–16
defined, 13
and genetic/environmental factors, 21 haplotypes, 14, 16
RPE cells and Bruch’s membrane, 16–17 AREDS. See Age-related eye disease study (AREDS) ARM. See Age-related maculopathy (ARM) ARMS2 (10q26) locus
allele-based meta-analysis, 13, 14 AMD, 12–13
haplotypes, 1
HTRA1 meta-analyses, 13 linkage studies, 12
‘As Needed’ approach, NV-AMD bevacizumab, 242
PrONTO, 239, 241 re-treatment criteria, 241 SUSTAIN trial, 239, 241
Atrophy, non-geographical body-mass-index, 128
choroidal neovascularization, 122 clinical manifestations, 111–118 contrast sensitivity, 131
foveal, 131
genetic factors, 127–128 light exposition, 128 reading speed, 131–132 spectral-domain-OCT, 125 therapy, 131
Auto fluorescence imaging emission, light, 142
fundus camera-based systems, 144 lipofuscin, 142
SLO-based systems, 144
B
Barbados-Eye Study, 6
Basal laminar deposits (BLD), 87, 88 Basal linear deposits, 84, 104–105
BDES. See Beaver Dam Eye Study (BDES) Beaver Dam Eye Study (BDES)
AMD subtypes, age, 6 hypertension, 19 meta-analysis, 18
Bevacizumab, 228
Bevasiranib, 229
BLD. See Basal laminar deposits (BLD) Bleeding
intraretinal, 255 submacular, 279–280
Blindness
definition, 33, 295
Blue Mountains Eye Study (BMES) beta-carotene, 193
intake, lutein/zeaxanthin, 194 vitamin E intake, 196
BM. See Bruch’s membrane (BM) BMI. See Body mass index (BMI) Body mass index (BMI), 19 Brachytherapy
epimacular, 255
Brimonidine tartrate intravitreal implant, 267 Bruch’s membrane (BM)
age-related changes AGE, 79–80
biochemical characteristics, 81, 82 cross-linking, 79
different aged specimens, 80, 81 donor eyes, 81
electron and light microscopic, 79 fatty acids, 81
glycosylations, 79 hydrauic conductivity, 82
immunohistochemical staining, 81 macular ageing, 83
MMP, 82 peroxidized lipids, 82 phospholipids, 82 protein vitronectin, 79
quick-freeze/deep-etch technique, 81 TIMP, 82
unsaturated fatty acids, 82–83 defined, 56
drusen
amorphous and vesicular structure, 84, 85 BLD, 87
choroid, 87 classification, 84, 86 description, 83
histological appearance, 83 hypothesis, 87
lipid contents, 84, 86 LSC, 85–86
macular degeneration, 87 neutral lipids, 85
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ophthalmoscope, 83, 84 ophthalmoscopically visible change, 83
pentalaminar structure, 79, 80
C
C3. See Complement component 3 (C3) Candidate gene approach, 34, 38 Carboxyethylpyrrole (CEP), 67 Carboxymethyl lysine, 79
CAREDS, 195
Catalase, 55, 56
Cataract and Age-Related Maculopathy study, 102, 165
Cathepsin D, 54, 55
CCTV. See Closed circuit television systems (CCTV) CDCV-hypothesis, 34
CDRV-hypothesis, 34, 35 CETP-gene, 17 CFB-gene, 37
CFB. See Complement factor B (CFB) CFH. See Complement factor H (CFH) CFI. See Complement factor I (CFI)
Cholesterol, 16–17, 81, 87, 128 Cholesteryl transfer protein, plasma, 39 Chondroitin sulphate, 87
Choriocapillaris (CC), 56, 122, 123, 152, 219 Chorioretinopathy, central, serous, 153 Choroidal neovascularization (CNV)
AGE, 89
autofluorescent image, 116, 117 capillaries growth, 88
clinical differentiation, 88 combination treatments
PDT, anti-angiogenic and anti-inflammatory therapies, 220
steroids, verteporfin therapy, 219 verteporfin PDT, 219
cumulative oxidative stress, 247 description, 87, 111, 203 development, 69
FA, 117
fatty acid metabolism, 91 fibrovascular membranes, 87–88 field defects
dark spot, 113 description, 112–113 microperimetry, 113
fluorescence angiography, 88, 89 foggy vision, 113
hemorrhage
collection, blood, 113 RPE, 113, 114
VEGF levels, 113, 115 hypoxia and lipofuscin, 91 ICG angiography, 117–118 immigrating capillaries, 91 immune system, 88–89
laser photocoagulation (see Laser photocoagulation) leakage, 238
macular edema and subretinal fluid, 113–115 natural fluorophores, 118
occult neovascularization, 88, 90 OCT, 88–90, 118
oxidation processes, 89 pathogenic processes, 247
PDT (see Photodynamic therapy (PDT)) phospholipids, 91
photoreceptor cells, 91
polypoidal choroidal vasculopathy, 116, 117 principles
“extra-foveal” membrane, 203, 204 FA, 203
“juxta-foveal” membrane, 204, 205 perifoveal laser technique, Crétei, 204, 210
retinal microglia cells, 89 retina specialists, 221–222 RPE detachment, 114–116 subfoveal, 72, 237 subtypes, 237
VA
acuity change, 111–112 anticoagulated patients, 111 testing, 112
VEGF, 90, 91, 221 verteporfin, 250 visual distortion
macular diseases, 112 PHP, 112
screening tool, 112 Choroidal perfusion
choriocapillaris, 107, 108 description, 107
fluorescein angiography, 107, 108 Ciliary neurotrophic factor (CNTF)
defined, 266–267 efficacy, 133
mueller glial membranes, 266 retinal degeneration, 266 retinitis pigmentosa, 267
Closed circuit television systems (CCTV) advantages, 303, 304
disadvantages, 304
letters appearance, monitor, 303, 304 mobile electronic reading system, TFT
monitor, 304 specialty, 303
CME. See Cystoid macular edema (CME) CNTF. See Ciliary neurotrophic factor (CNTF) CNV. See Choroidal neovascularization (CNV) Coherence tomography, optical
drusen, 106, 107 frequency-domain-optical, 145
spectral-domain-OCT (see Spectral domain optical coherence tomography (SD-OCT))
Coherence time, 144 Collagen derivatives, 85–86 Combination therapy, 247–256
Common disease-common variant (CDCV) hypothesis, 34
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Index |
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Common disease-rare variant (CDRV) hypothesis, 34, 35 Complement component 2 (C2) See also Complement
factor B (CFB)
associated variants identification, 36–38 SNPs, 38
Complement component 3 (C3), 11, 12 Complement factor B (CFB)
allele-based meta-analysis, 10 protective haplotypes, 9 proteins, 9
R32Q/IVS10 haplotype, 11 Complement factor H (CFH)
activation, 8–9
allele-based meta-analysis, 8
AMD-associated genes, complement cascade, 37–38 and ARMS2/HTRA1 SNPs, 21
genetic polymorphism, 269 GWAS, 35, 37
and isoform FHL-1, 37
population attributable risk, Y402H, 9 protective haplotypes, 37
RCA, 270
validated AMD susceptibility loci and functional variants, 36, 37
Y402H and genetic/environmental factors, 20 Complement factor I (CFI), 11
Complement system, AMD activation
abnormal, 69 APC, 66, 68
prediction and impact, plasma levels, 68 prophylactic intervention, 69
clinical application, 65–66 dysregulation, 65 evidence, involvement
blood protein levels, 67
genetic component, susceptibility, 67 human studies, pathogenesis, 66–67 in vitro and animal studies, 67
gene variants and subtypes CNV, 69
“cuticular drusen”, 69 PCV, 69–70
immune processes, 66
nutrition, supplementation and smoking, 70–71 pharmacogenetics, 71
pharmacological intervention, dysregulation, 72 progression and gene variants, 70
therapeutics, 72 Copaxone, 272–273 Copenhagen City Eye Study, 7 Corticosteroids, 248, 254, 272
C-reactive protein (CRP), 20, 37, 67 Cystoid macular edema (CME), 113, 114
D
Degeneration
macular degeneration (see Macular degeneration) reticular pigment, 106
DENALI-Study, 219, 253
DHA. See Docosahexaenoic acid (DHA) Disposable soma theory, 52 Docosahexaenoic acid (DHA)
defined, 195 intakes, 196 LCPUFAs, 195
Drusen CFH, 102
classification, 103
fluorescence angiography and OCT hydrophilic fluorescein dye, 106 RPE, 107
late-stage atrophic/neovascular lesions, 102 psychophysical examinations, 103 spontaneous modifications
basal linear deposits, 104–105 cuticular, 104, 105
hard, 103 peripheral, 106
reticular pseudodrusen, 105–106 soft, 104
unilateral/bilateral late AMD, 102 vitronectin, 102
Dry AMD clinical trial
OCT, 265
visual acuity, 264–265 drugs, inflammation
additional complement pathway-modulating drugs, 272 anti-inflammatory drugs, 272–273
ARC-1905, 272 CFH, 269
complement inhibition, factor D, 272 complement pathway, 270 eculizumab, 271–272
POT-4, 270–271 GA, 263
irreversible blindness, 263
oxidative stress and micronutrient depletion antioxidant properties, 268
DHA, 268
drugs, prevent injury, 269 OT-551, 269
photoreceptors and RPE, 265–268 RPE, 263
treatment options antiangiogenic therapies, 264 AREDS, 263 choriocapillaris, 264 cigarette smoking, 264
Dystrophy vitelliform, 150
E
ECM. See Extracellular matrix (ECM) Eculizumab, 72
Eicosapentaenoic acid (EPA) and DHA, 195, 196 serum concentration, 195
Endostatin, 229, 230
Index |
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Enhanced-Depth-Imaging-OCT, 115, 116, 145 Environmental factors, 18–21
EPA. See Eicosapentaenoic acid (EPA) Epidemiology, AMD, 3–22 Extracellular matrix (ECM)
degradation and maintenance, 39 formation, 33
Eye Disease Case Control Study (EDCCS), 195, 196
F
FA. See Fluorescein angiography (FA)
FAM. See Fundus autofluorescence in age-related macular degeneration (FAM)
FBLN6-gene, 18 FCFD4514S, 72, 272 Fenretinide, 267–268
Fibrovascular pigment epithelial detachment (FVPED), 203–204
Filling-in-phenomenon, 183 Fine matrix mapping, 132 Finnish case-control Study, 21 Fixation
central, 176, 177, 181, 183, 184, 280, 288, 289 clinical evaluation, 176–178
eccentric, 131, 132, 181, 280, 289–291 mostly eccentric, 290, 291
Fixation behaviour, 290–292 Fixation locus, preferred retinal, 289 Fixation stability, 176, 181, 184, 291 Fixed quarterly injection studies
EXCITE trial, 239, 240 PIER trial, 239, 240 SAILOR data, 241 SUSTAIN, 239, 240
Fluorescein angiography (FA) choroidal-based speckled
hyperfluorescence, 204 CNV, 203
FOCUS Study, 252–253 Free radical theory, 46 Fundus angiography
cameras, 147 CNV, 146
fluorescein dye characteristics, 146 fluorescein injection, 148
ICG dye characteristics, 146–147 patient consent and instruction, 147–148 sodium fluorescein, 146
Fundus autofluorescence imaging classification, abnormal FAF, 124, 125 FAM, 124
image analysis software, 124 LF, 123, 124
monitoring, atrophic progression, 124 monogenetic retinal diseases, 123–124
Fundus autofluorescence in age-related macular degeneration (FAM), 124
Fundus imaging angiography, 146–149
anti-VEGF therapy, 159–160
auto fluorescence imaging, 142, 144 color photography, 142
deviations, angiographic appearance age-related macular degeneration, 150 hyperfluorescence, 149
fluorescein angiographic interpretation, 149 indocyanine green angiographic interpretation, 150 monochromatic and color photography, 141 monochromatic photography, 142
neovascular, 152–155 non-neovascular
ophthalmoscopy, 151 vitelliform dystrophy, 150
OCT, 144–146 PDT, 159 perimetry, 132
pigmentary abnormalities, GA fluorescein angiography, 152 focal hyperpigmentation, 151 pigmentary alteration, 152
retinal diseases, 141 retinal PED
choroidal neovascularization, 155, 156 CNV, 155
ICG angiography, 153, 155
intra-and subretinal hemorrhage, 155–158 retinal vascular contribution, exudative process
chorioretinal anastomosis, 158
polypoidal choroidal vasculopathy, 158–159 retinal disease, 158
RVAC, 158 thermal laser, 159
FVPED. See Fibrovascular pigment epithelial detachment (FVPED)
G
GA. See Geographic atrophy (GA) Galilean and Kepler telescopes
binocular vision, 302 calculation, magnification, 302 LVAs, distance, 299, 301 reading, 302, 303
spectacle, reading cap, 301, 302 GAP-Study, 106, 124, 126, 127, 129, 133 GATE-Study, 133
Genetics
ABCA4 and APOE genes, 35 ARMS2/HTRA1
AMD pathogenesis, 39 functional data, 39
linkage signal, chromosome, 38
risk variants, rs1061170 and rs10490924, 38 variants, SNPs, 39
CFH, 35–38
ECM formation, 33 GWAS, 39–40
risk factors identification, disease, 34–35 therapy and prevention, 40
Genome-wide association studies (GWAS) identification, CFH, 39
LIPC and AMD, 17
314 |
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Geographic atrophy (GA) AMD, 121, 122 clinical characteristics
BM, 122
fundus autofluorescence images, 122, 123 CNV development, eyes, 129–130
defined, 167
fixation site, patient, 180 foveal sparing, 180
fundus autofluorescence imaging, 123–125 genetic factors
AMD pathogenesis, 127 TLR3 variant, 128
histology and pathogenesis choroidal capillaries, 123 inflammatory processes, 123
ocular risk factors, 129 quantification, progression
BDES, 126 GAS, 125–126 risk factors, 127
Stargardt’s macular dystrophy, 27 SD-OCT, 125
sensitivity map, fundus autofluorescence image, 181 SLO microperimetry, 180
systemic risk factors cataract extraction, 128
choroidal neovascularization, 128–129 hypertension, 128
therapeutic interventions alleviation, oxidative stress, 133
anti-inflammatory substances, 132 CNTF, 133
complement inhibition, 133 neuroprotection, 133 serotonin-1A-agonist, 133
visual function
contrast sensitivity, 131 fundus perimetry, 132
measurement, visual acuity, 130–131 reading speed, 131–132
Geographic atrophy Study (GAS), 125–126
GWAS. See Genome-wide association studies (GWAS)
H
High temperature requirement factor A1 (HTRA1) gene meta-analyses, 13
SNPs, 21
Histopathology
BM (see Bruch’s membrane (BM))
CNV (see Choroidal neovascularization (CNV)) detachment
amino acids, 93 BM, 91, 92
fibrovascular tissue, 92 hydrophilic sodium fluorescein, 92 hydrophobic barrier, 92, 94 hydrostatic pressure, 94
integrins, 93
lipids content, 92–93
optical coherence tomography, 92, 93 oxidative damage, 93
pathogenesis, 93, 94 retinal pigments, 91, 92
geographic atrophy atrophic areas, 95 cell death, 95 dry AMD, 94
lipofuscin accumulation, 94
ophthalmoscopy and autofluorescence imaging, 94, 95
RPE (see Retinal pigment epithelium (RPE)) HMCN1-gene, 18
Homocysteine, 197–198 HTRA1-gene, 13, 21, 38–39
HTRA1-SNPs, 21
HtrA serine peptidase, 38 Hyperfluorescence, 149–150, 152, 159, 160 Hyperhomocysteinemia, 198 Hyperpigmentation, focal, 107, 151–152 Hypertonia, 19
Hypofluorescence, 46, 92, 150, 152, 159
I
ICG angiography. See Indocyanine green (ICG) angiography
Iluvien, 271, 272
Imaging, 118, 123–125, 141–160 Imidazo (1,2-A) pyridine, 229
Immune system, native, congenital, hereditary, 66, 89 Indian Study, 10
Indocyanine green (ICG) angiography delineation, 207
direct thermal laser photocoagulation, 212 PCV, 118
Inflammation, 48, 195, 269–273
Inject-and-extend-regimen, 235
Injection, intravitreal, 71, 194, 227–229, 279–280 Integrins, 93
Intravitreal bevacizumab (IVB), 252–254 iPad, 304, 305
IPE. See Iris pigment epithelium (IPE) Iris pigment epithelium (IPE), 277
IVB. See Intravitreal bevacizumab (IVB)
K
Kepler-telescope, 298, 301–302
Krypton red laser, 206, 218
Krypton yellow laser, 206, 218
L
Laser photocoagulation absorption, wavelength, 206 case selection, 207
defined, 205 extrafoveal CNV
post-laser recurrence, 210, 211
recurrences detection, ICG angiography, 211, 212
Index |
315 |
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FA, 209
meta-analysis, 212–213 safety and adverse events, 216
spot size, duration and irradiation intensity, 206 subfoveal CNV, 212
treatment technique, 207–208 types, treatments, 209 wavelengths, 217
LCPUFAs. See Long-chain polyunsaturated fatty acids (LCPUFAs)
Linolenic acid, 83
Lipase, hepatic, 39, 127–128 LIPC-gene, 17, 36, 39–40, 128 Lipid accumulation, 17, 40
Lipid composition, 16, 17, 57, 82–83 Lipid metabolism, 7
Lipid peroxidation, 50, 56, 128 Lipofuscin
accumulation, 50–52, 55, 57 components, 142
Liquid crystal display microperimetry, 175, 178 Liquid, subretinal, 113–114, 159, 167 Logarithm of the minimum angle of resolution
(LogMAR), 236
logMAR. See Logarithm of the minimum angle of resolution (LogMAR)
Long-chain polyunsaturated fatty acids (LCPUFAs) BMES, 196
DHA, 195, 196
“Long-spaced” collagen (LSC), 85–87 Los Angeles Latino Eye study, 6–7 Low-density lipoprotein (LDL) receptors
lipophilic verteporfin, 207 Lu-Tex, 219
Low vision aids (LVAs) distance, optical magnifiers
advantages and disadvantages, 299, 301 and discrete opacification, optic media, 301 folding and illuminated pocket, 301 Galilean and Kepler telescopes, 301–303 half-eye magnifying spectacles, 299
hand magnifier, 300 illuminated stand, 300
magnifying clips, glasses attachment, 300, 301 and magnifying glasses, 298, 299
reading ability, 301
reading, hyperocular magnifying spectacles, 299 electronic
magnifiers, 303–305 reading instruments, 305
evaluation, required magnification, 296–297 illumination, 305–306
magnification methods, 297 magnifiers prescription, 306 optical magnification, distance
advantage and disadvantage, 298 Kepler-type telescope, 297 watching television, 298
principles, prescription, 307 reading table, 305
visual impairment
effects, 296 rehabilitation, 295–296
WHO notation, acuity classification, 295, 296 LPL-gene, 17
LSC. See “Long-spaced” collagen (LSC) Luminescence test, 149
Lupus erythematosus, 69 Lutein, 194–195, 199, 264
Lutetium texaphyrin (Lu-Tex), 219 Lu-Tex. See Lutetium texaphyrin (Lu-Tex) LVAs. See Low vision aids (LVAs)
M
Macroautophagocytosis, 54 Macula
fluorescein angiography, 149 Macular degeneration, age-related
age, 295–307 antioxidants, 18–19 classification, 4
clinical manifestations, 117–118 diagnostics, 117–118, 236
dry, 263–273, 280–282 early, 101–108
early stage, 87, 102, 233, 276 environmental factors, 18–20 etiology, 34, 38, 195 exudative, 167–170, 249–256 frequency, 4–7
genetic factors-hypertonia, 7–18 imaging, 141–160
incidence, 6–7
late, 4, 6–16, 19–20, 69–72 microperimetry, 173–186 neovascular, 152–155 non-neovascular, 150–151 pathogenesis, 66–68 pathomechanism, 282 photodynamic therapy, 203–222 prevalence, 4–6
prevention, 40 progression, 70
risk factors, 127–129 smoking, 18, 70–71
spectral-domain-OCT, 163–165 surgical therapy, 275–282 therapy, 40, 233–243, 249–256 therapy control, 9, 35, 37, 67 visual disability, 112
Macular dystrophy surgical therapy, 282
Macular-mapping-test, 292 Macular edema and subretinal fluid
accumulation, subretinal fluid, 114, 115 CME, 113
CNV, 114
cystoid changes, 113–114
Macular photocoagulation Study (MPS) disc areas, 213
VA, 212
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Macular translocation
advantages and disadvantages, 276 pigment epithelium, 277
PVR, 276 retinotopy, 276
Maculoplasty AMD, 275
photoreceptor transplantation, 275 visual improvement, 276
Magnification methods, 297 Malattia leventinese, 150 Malondialdehyde, 50
Matrix metalloproteinases (MMP), 82 Matrix proteins, extracellular, 18, 79, 81, 102 MC-1101, 265–266
Melanin, 6, 52, 56, 95, 113, 117, 142 Melanolipofuscin, 52
Melanosomes reduction, 52 loss, 46, 49, 52
Membrane extraction, submacular, 279 Membrane, fibrovascular, 87–88 Mendelian diseases, 34 MERITAGE-I-Study, 255 Metalloproteinases, 17, 79 Metalloproteinse inhibitor 3, 17, 39 Metamorphopsy, 167, 209 Microperimetry
AMD, 178–185
psychophysical visual function testing, 173 psychophysics, 173
SLO, 174
technologic evolution, 174–178 automatic microperimetry, 174–175 fixation test, 176
manual, automatic microperimetry, 174 SLO/OCT, 178
stimulus, 175
test evaluation, 176–178 Mitochondrial theory, 46
MMP. See Matrix metalloproteinases (MMP) Monochromatic photography
fluorescein angiography, 142
modern digital color imaging, 142, 143 SLO, 142
subretinal drusenoid deposits, 142, 143 MONT-BLANC-Study, 253
Morbus Stargardt (Stargardt’s disease) surgical therapy, 282
MP1-Microperimeter, 174, 175, 178, 181 Muenster-Aging-and-Retina-Study, 18
N
Ng-YAG-laser, 206 Neovascular AMD (NV-AMD)
antibody Fab fragment, 234 ‘As Needed’ approach, 241–242 beam radiation for CNV, 155 chorioretinal scar, 182
classic CNV, 152
continuous monthly treatment
MARINA and ANCHOR trials, 238, 239 ranibizumab, 238
CSC, 153 diagnosis
classification, 236 FA, 236
ICG, 236 logMAR, 236 OCT, 236 PCV, 236 RAP, 236
fixed quarterly injection studies, 240–241 fluorescein angiography, 153
lesions characteristics, 237 CNV, 237
MARINA data, 237 ranibizumab, 237 RCOphth guidelines, 237
sub-foveal haemorrhage, 238
linear scan spectral domain-OCT, 181, 182 long-term considerations, 242
macular diseases, 183 MARINA and ANCHOR, 234 parameters
‘active’ disease, 238 extracellular fluid, 238 RPE tears, 238
placental growth factors, 235 polypoidal choroidal vasculopathy, 155 ranibizumab and bevacizumab, 234, 235 RCT, 234
‘treat-and-extend’ approach, 242 treatment, 239, 240
vascular ingrowth, 152 visual impairment, eyes, 181
Nerve fibre layer, retinal, 47 Neuroprotection, 133, 266–267 Neuroretina, ageing, 182 Neutrazimab, 272
Non-synonymous coding SNPs (nscSNPs) APOE variants, 35
CFB, 38
nscSNPs. See Non-synonymous coding SNPs (nscSNPs) Nutritional supplementation, AMD
antioxidants and zinc, 192–193 AREDS2
micronutrients role, 198–199 objective, 199
beta-carotene, 193–194 defined, 191
folate and B-vitamins, 197–198 hyperhomocysteinemia, 199 macular xanthophylls
AREDS formulations, testing, 195 degeneration, 194, 195
FDA, 195 Western diet, 194
omega-3 LCPUFAs, 195–196 pathogenesis, macular degeneration, 192
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vitamin C, 196–197 vitamin E, 196 zinc, 197
Nutritional supplementation, 191–199 NV-AMD. See Neovascular AMD (NV-AMD)
O
OCT. See Optical coherence tomography (OCT) Omega-3-fatty acids, 19, 70, 133, 192, 193, 195–196, 198, 264 Optical coherence tomography (OCT)
analyses, postmortem eyes, 47 ARM, 165–167
assessment, 236 CNV, 163
cystoid change, 113–114 drusenoid detachments, RPE, 107 exudative AMD
anti-VEGF therapy, 167
retinal thickness maps, 168, 169 SD-OCT scans, 167, 168, 170
frequency domain, 145 GA, 167
ICG leakage and fluid accumulation, 216, 217, 220 imaging characteristics, macular region, 145–146 increasing depth, imaging, 145
length, 144
noninvasive method, 85, 88 SD-OCT, 163–165 TD-OCT, 144–145 wave-like nature, light, 144
OT-551, 133, 269
Oxygen, reactive, 46, 50–52, 55–57, 128, 142
P
Palomid, 229 Paraoxonase 1, 18 Pars-plana vitrectomy, 255 Patch, 277–278 Pazopanib, 229
PCV. See Polypoidal choroidal vasculopathy (PCV) PDGF, 225, 226, 229
PDT. See Photodynamic therapy (PDT)
PEDF. See Pigment epithelium derived factor (PEDF) Pegaptanib sodium, 227
Perfluorocarbon liquids (PFCL), 278 Perimetry
fundus controlled, 132 microperimetry (see Microperimetry)
PFCL. See Perfluorocarbon liquids (PFCL) Pharmacotherapeutic approach, 221 Phospholipids, 79, 81, 82, 85, 91 Photodynamic therapy (PDT)
anti-VEGF monotherapy, 220 case selection, 209
CFH Y402H genotype and response, 71 combination therapy, 221
fluorescein leakage, 210 ICG angiography, 207, 217 laser, 207
mechanism, 206 minimally classic
prevention, laser photocoagulation, 214 VPDT, 213
neovascularization, 159 photosensitizer and light, 218–219 predominantly classic, 213–215 reduced fluence, 219
safety and adverse events
calcium channel blockers and polymyxin B, 216 ICG angiography, 216, 217
subfoveal CNV, 217 “selective” verteporfin therapy, 219
subepithelial occult, no classic neovascularization, 213 tissular effect, 207
treatment technique, 209 verteporfin, 206–207 VPDT, 213
Photocoagulation
laser photocoagulation (see Laser photocoagulation) perifoveal, 106, 212, 213
treatment technique, 207–208 Photofrin, 218
Photoreceptors density, 47
loss, 47, 123, 265 transplantation, 275
Photosensitizers, 50, 206, 209, 218
PHP. See Preferential hyperacuity perimetry (PHP) Phthalocyanine, 218
Physicians’-Health-Study, 18, 193, 194, 196 Pigment epithelial detachment (PED)
CNV, visualized, 116 fibrovascular, 114 serous, 115
Pigment epithelium-choroid translocation ICG angiography, 277
immune reactions, 277 PFCL, 278 retinotomy, 278
Pigment epithelium derived factor (PEDF), 229 Pigment epithelium, retinal
ageing, 45–59 cell density, 49–50
depigmentation, 19 deposits, 79
detachment, 114–116, 155–158 irregular pigmentation, 102 rupture s.a. tear, 278–279 spectral-domain-OCT, 165, 167 tear, 101, 116, 155–156
Pigment epithelium rupture, 278–279 PLEKHA1-gene, 12, 38
Polypoidal choroidal vasculopathy (PCV) Caucasian population, 69–70
ICG, 236
Posterior segment drug delivery system (PS DDS), 267 Preferential hyperacuity perimetry (PHP), 112 Preferred retinal locus (PRL)
defined, 289 eccentric, 290
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PRL. See Preferred retinal locus (PRL) Proliferative vitreoretinopathy (PVR), 276, 277 Proton irradiation, 249
PS DDS. See Posterior segment drug delivery system (PS DDS)
Pseudodrusen, reticular, 105–106, 142 Psychophysical visual function testing, 173 PVR. See Proliferative vitreoretinopathy (PVR)
R
Radiation therapy
combination with VEGF inhibitors, 248, 249 epiretinal, 249
RADICAL-Study, 220, 255
Randomized controlled trial (RCT), 234, 235 Ranibizumab, 227–228
RAP. See Retinal angiomatous proliferation (RAP) RBP. See Retinol-binding protein (RBP)
RCT. See Randomized controlled trial (RCT) Reactive oxygen species (ROS)
generation, 50–55, 57 lipofuscin, 50 mitochondria, 46, 56
Reading, AMD ability, 287, 288 fixation behavior
clinical assessment, 291
eccentric, scotoma shift direction, 290, 291 SLO-fundus, 290, 291
fixation stability, 291 methods, ability, 291–292 physiological principles
eye movements, 289 retinal area, 288 SLO-fundus, 289
VA, eccentricity, 287–288 preconditions, ability, 293 rehabilitation approaches, 292–293 visual field
eccentric fixation, 289, 290 fundus, 289
margin, scotoma, 288–289
Recombinant tissue plasminogen activator (rTPA), 279, 280
“Red-free” photography, 142
Rehabilitation approaches, reading ability, 292–293 Resequencing technology, 35
Retina and RPE, ageing aging process, 45, 46 and AMD, 57–58
antioxidant capacity, 55–56 BM, 56–57
changes, cell density, 49–50 clinical changes
color fundus, 46 electrophysiological studies, 47 retinal function, 47
cumulative damage, 48–49 defined, 45
functions, 48
lipofuscin accumulation
A2E concentrations, 50–51 lysosomal dysregulation, 52 and photoreactivity, 50, 51
lysosomal-autophagy axis enzyme activity, 54, 55 lipofuscin, 54–55
macromolecules degradation, 53, 54 mitochondria, 55
melanosomes and pigment complexes, 52 mitochondrial changes, 52–53
neural
decrease, photoreceptor cells density, 47, 48 inflammatory pathways, 48
OCT, 47 RPE, 48–56
stochastic and grammed theories, 45–46 subcellular changes, 50
Retinal angiomatous proliferation (RAP), 236, 237 Retinal nerve fiber layer (RNFL), 47
Retinal pigment epithelium (RPE) See also Retina and RPE, ageing
age-related changes accumulation, lipofuscin, 78 degenerative changes, 79 functional processes, 78
phagocytosis and degradation, 77–78 CFB and C2, 38
CFH and FHL-1 risk variant, 37 choroidal neovascularizations, 107 detachment
fibrovascular PED, 114, 115 ICG fluoresces, 115, 116
indocyanine green angiography, 115, 116 SD-OCT, 115
focal hyperpigmentations, 107 injuries, 33
and photoreceptors
choroidal circulation, 265–266 neuroprotection, 266–267 RN6G, 268
visual cycle modulators, 267–268 structure and function, 77, 78 vision-threatening lesions, AMD, 263
Retinal vascular anomalous complexes (RVAC), 158 Retinol-binding protein (RBP), 267–268
Ring scotoma, 290, 292 Risk factors
genetic, 127–128
environmental, 11, 18, 40, 71, 264 ocular, 129
systemic, 128–129
RNFL. See Retinal nerve fiber layer (RNFL) RN6G, 266, 268
ROS. See Reactive oxygen species (ROS) Rotterdam Study (RS)
dietary intake, 20 dose-dependent association, 19
interaction, CFH and cataract surgery, 20 meta-analysis, 18
population-based, 70
Index |
319 |
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RS. See Rotterdam Study (RS)
rTPA. See Recombinant tissue plasminogen activator (rTPA)
S
Saccades, 288, 291
Scanning laser ophthalmoscope (SLO) commercial systems, 144
FP, 132
fundus image, 288
Scar, disciform, 87, 88, 90–91, 129, 130 Scatter photocoagulation, 213
Scotoma
absolute, 130, 182, 184 central, 288–291
Scottish and English case-control Study, 11 sCR1, 272
SD-OCT. See Spectral domain optical coherence tomography (SD-OCT)
Serotonin 1A agonist, 133 sFLT01, 228
Single nucleotide polymorphisms (SNPs) candidate gene approach, 34
CFH and ARMS2/HTRA1, 21 evaluation, 9
functional, 12 information, 34
10q26 and genetic/environmental factors, 20–21 siRNA. See Small interfering RNA (siRNA) Sirolimus, 132
SLO. See Scanning laser ophthalmoscope (SLO) Small interfering RNA (siRNA)
Bevasiranib, 229 defined, 228
Smoking, 18, 70–71
SNPs. See Single nucleotide polymorphisms (SNPs) Sodium fluorescein, 92, 117, 146, 147
Sorby’s fundus dystrophy, 17, 107
Spectral domain optical coherence tomography (SD-OCT) disease stages, 125
3D scan, 164, 165
Fourier transformation, optical spectrum, 164 interferometric imaging technique, 163–164 normal retina, 165
progression, GA, 125, 126 SLD, 164
thickness map, 164, 165 Squalamine, 229
Stargardt diseases, 35, 123–124, 268 “Stars in the sky” appearance, 105 Stress, oxidative, 133, 268–269 Sudan black, 81, 86
Surgical therapy dry AMD
BM, 280
fluorescein and ICG angiography, 280, 281 geographic atrophy, 281
OCT, 280
pigment epithelium choroid translocation, 280, 281 macula dystrophies, 282
macular translocation, 276–277
maculoplasty, 275–276 massive submacular bleeding
rTPA, 280 vitrectomy, 279
non-responder, 278 photodynamic therapy, 278
pigment epithelium-choroid translocation, 277–278 pigment epithelium rupture, 278–279
single cell suspensions
Bruch’s basal membrane, 277 IPE, 277
Superoxide dismutase, mitochondrial, 53 Susceptibility genes, 7, 35, 39, 40 Swept source OCT, 145
T
TA106, 271, 272
TD-OCT. See Time domain optical coherence tomography (TD-OCT)
Teletherapy, 249
TG100801, 229
TG101095, 229 Thalidomide analogs, 229
Time domain optical coherence tomography (TD-OCT) measurement technique, 145
periodic waveforms, 144 TIMP3-gene, 17, 39
Tin ethyl etiopurpurin, 218
Tissue inhibitor of metalloproteinases-3 (TIMP3) AMD susceptibility genes, 39
candidate gene analyses, 17 TLR3. See Toll-like-receptor 3 (TLR3) Toll-like-receptor 3 (TLR3), 128
‘Treat-and-Extend’ approach, NV-AMD, 242 Treatment, AMD
ageing process, 247 antiangiogenic monotherapy, 248 anti-VEGF agents
combination therapy, VPDT, 251–252 IVB, 253
bevacizumab, 248
choroidal hypoperfusion, 183 CNV, 247
combination therapy, radiation
effect, neovascular membranes, 255 pharmacotherapies, 256 subconjunctival hemorrhage, 256
cortiocosteroids, 248 FA, 184
intraocular epiretinal probe, 249 intravitreal anti-VEGF therapies, 249
microperimetry fixation site and sensitivity map, 184, 185 OCT, 184
radiation therapy, 249 rationale
neovascularization matures, 249 verteporfin, 250
VPDT, 250 RPE, 185
systemic bevacizumab, 183–184
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Treatment, AMD (cont.) triple therapy
bevacizumab, 254 CNV, 254
ranibizumab monotherapy, 255 VEGF, 248
visual function, 183 VPDT, 250–251
Triamcinolone, 248, 250–251 Trimetazidine, 265
V
VA. See Visual acuity (VA)
Vascular endothelial growth factor (VEGF) angiogenesis, 225
binding, family members, 225, 226 drug delivery methods, 230 hemorrhages and telangiectasis, 113
inhibition, unrelated and physiologic processes, 230 pathway
inhibition, cascade, 227
intracellular signal cascade inhibition, 229 natural inhibitors, 229–230
receptor synthesis and inhibition, siRNA, 228–229
sequestration, released, 227–228
synthesis and degradation, matrix molecules, 90, 91 vasculopathy, polypoid, choroidal (PCV), 236, 237 VECAT, 196
VEGF-A, 225, 226
VEGFR, 226–227
VEGF. See Vascular endothelial growth factor (VEGF) Verteporfin, 206–207
Verteporfin photodynamic therapy (VPDT) angiogenic signals, modification, 248 angio-occlusive effect, 250
benefits, 213
safety and efficacy, 213 triamcinolone
intraocular pressure, 251 IVTA, 250
small pilot studies, 251 Vision, central
loss, 87–88, 264 VISION Study, 252
Visual acuity (VA) mean LogMAR, 237 outcomes, 241 response, 240 stability, 242
Visual aid for short distance, 298–303 electronically magnifying, 303–305 for the distance, 297–298 magnifying, 292, 297–298 magnifying need, 291–292, 298
possibilities of magnification, 297, 298 prescription, 306–307
Visual cycle modulators, 267–268 Visual field
central, 47, 104, 113, 178, 183, 292 peripheral, 47, 112, 296
Visual impairment classification, 295, 296 definition, 295–296
Vitamin B, 197–198
Vitamin C, 196–197 Vitamin E, 196
Vitrectomy, 117, 249, 255, 279 Vitronectin, 66, 79, 102
VPDT. See Verteporfin photodynamic therapy (VPDT)
W
WAFACS. See Women’s antioxidant and folic acid cardiovascular study (WAFACS)
Women’s antioxidant and folic acid cardiovascular Study (WAFACS), 191, 198
X
Xanthophyll, macular, 194–195, 198, 206
Y
Y402h-gene, 20, 21
Z
Zeaxanthin, 71, 194–195, 199
Zinc, 192–193, 197
