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1. Full Text Distinctive Features of Adult Ocular Dominance Plasticity
by Sato, Masaaki and Stryker, Michael P
Journal of Neuroscience, ISSN 0270-6474, 10/2008, Volume 28, Issue 41, pp. 10278 - 10286
Sensory experience profoundly shapes neural circuitry of juvenile brain. Although the visual cortex of adult rodents retains a capacity for plasticity in... 
Optical imaging | Visual cortex | Critical period | Mouse | Vision | Plasticity | SYSTEM | critical period | visual cortex | plasticity | SYNAPTIC PLASTICITY | NEUROSCIENCES | KITTEN STRIATE CORTEX | mouse | vision | CORTICAL PLASTICITY | EXPERIENCE-DEPENDENT PLASTICITY | optical imaging | INTRINSIC SIGNAL | MICE | MONOCULAR DEPRIVATION | MOUSE VISUAL-CORTEX | Adaptation, Physiological | Dominance, Ocular - physiology | Mice, Inbred C57BL | Receptors, N-Methyl-D-Aspartate - metabolism | Critical Period (Psychology) | Vision, Monocular | Visual Cortex - physiology | Sensory Deprivation - physiology | Animals | Neuronal Plasticity - physiology | Aging - physiology | Time Factors | Vision, Binocular | Signal Transduction - physiology | Mice | Index Medicus
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2. Full Text Experience-dependent expression of miR-132 regulates ocular dominance plasticity
by Coatti, Alessandro and Tognini, Paola and Pizzorusso, Tommaso and Putignano, Elena
Nature Neuroscience, ISSN 1097-6256, 10/2011, Volume 14, Issue 10, pp. 1237 - 1239
miR-132 is a CREB-induced microRNA that is involved in dendritic spine plasticity. We found that visual experience regulated histone post-translational... 
NEUROSCIENCES | Dominance, Ocular - physiology | NIH 3T3 Cells | Age Factors | Sensory Deprivation | Neuronal Plasticity - drug effects | MicroRNAs - metabolism | Critical Period (Psychology) | Green Fluorescent Proteins - genetics | CREB-Binding Protein - genetics | CREB-Binding Protein - metabolism | Neuronal Plasticity - physiology | Chromatin Immunoprecipitation | Oligonucleotides - pharmacology | Dominance, Ocular - drug effects | Neurons - physiology | Neurons - drug effects | Action Potentials - drug effects | Gene Expression Regulation, Developmental - physiology | Animals, Newborn | Visual Cortex - cytology | Mice, Inbred C57BL | Mice, Transgenic | Protein Processing, Post-Translational - physiology | Action Potentials - physiology | Animals | Analysis of Variance | Evoked Potentials, Visual - drug effects | Photic Stimulation - methods | Mice | MicroRNAs - genetics | Histones - metabolism | MicroRNAs - chemistry | Physiological aspects | Brain | MicroRNA | Research | Gene expression | Index Medicus
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3. Full Text Reactivation of Ocular Dominance Plasticity in the Adult Visual Cortex
by Tommaso Pizzorusso and Paolo Medini and Nicoletta Berardi and Sabrina Chierzi and James W. Fawcett and Lamberto Maffei and Medicinska fakulteten and Institutionen för molekylärbiologi (Medicinska fakulteten) and Umeå universitet
Science, ISSN 0036-8075, 11/2002, Volume 298, Issue 5596, pp. 1248 - 1251
In young animals, monocular deprivation leads to an ocular dominance shift, whereas in adults after the critical period there is no such shift. Chondroitin... 
Visual cortex | Eyes | Sprouting | Neurons | Ocular dominance | Plasticity | Antibodies | Visual acuity | Reports | Critical periods | Adult animals | AXON GROWTH | CHONDROITIN-SULFATE PROTEOGLYCANS | EXPERIENCE-DEPENDENT PLASTICITY | REGENERATION | MULTIDISCIPLINARY SCIENCES | IN-VIVO | EXTRACELLULAR-MATRIX | POSTNATAL-DEVELOPMENT | PERINEURONAL NETS | RAT-BRAIN | MONOCULAR DEPRIVATION | Darkness | Glycosaminoglycans - metabolism | Synapses - physiology | Lectins, C-Type | Chondroitin Sulfate Proteoglycans - metabolism | Extracellular Matrix - metabolism | Rats | Axons - physiology | Visual Acuity | Visual Cortex - physiology | Nerve Tissue Proteins - metabolism | Chondroitin ABC Lyase - metabolism | Animals | Time Factors | Neuronal Plasticity | Light | Neurons - physiology | Dominance, Ocular | Extracellular Matrix Proteins - metabolism | Rats as laboratory animals | Critical periods (Biology) | Research | Amblyopia | Central nervous system | Neurology | Eyes & eyesight | Index Medicus | Basic Medicine | Medical and Health Sciences | Medicin och hälsovetenskap | Medicinska och farmaceutiska grundvetenskaper
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4. Full Text PirB Restricts Ocular-Dominance Plasticity in Visual Cortex
by Josh Syken and Tadzia GrandPre and Patrick O. Kanold and Carla J. Shatz
Science, ISSN 0036-8075, 9/2006, Volume 313, Issue 5794, pp. 1795 - 1800
Experience can alter synaptic connectivity throughout life, but the degree of plasticity present at each age is regulated by mechanisms that remain largely... 
Brain | Visual cortex | Receptors | Eyes | Messenger RNA | Neurons | Plasticity | Reports | Mice | Critical periods | Immune system | CLASS-I MHC | CELLS | MULTIDISCIPLINARY SCIENCES | NEGATIVELY REGULATES NEUTROPHIL | CRITICAL PERIOD | GENE-EXPRESSION | INHIBITORY RECEPTORS | MICE | LONG-TERM POTENTIATION | IMMUNOGLOBULIN-LIKE RECEPTOR | REQUIREMENT | Dominance, Ocular - physiology | Phosphorylation | Protein Tyrosine Phosphatase, Non-Receptor Type 11 | Receptors, Immunologic - chemistry | Receptors, Immunologic - physiology | Cytoskeletal Proteins - genetics | Protein Tyrosine Phosphatases - metabolism | Intracellular Signaling Peptides and Proteins - metabolism | Recombinant Fusion Proteins - metabolism | Visual Cortex - physiology | Brain - metabolism | Histocompatibility Antigens Class I - metabolism | In Situ Hybridization | Synapses - metabolism | Aging | Cytoskeletal Proteins - metabolism | Neurons - metabolism | Protein Structure, Tertiary | Synapses - physiology | Mice, Inbred C57BL | Cells, Cultured | Nerve Tissue Proteins - genetics | Nerve Tissue Proteins - metabolism | Animals | Neuronal Plasticity | Protein Binding | Mutation | Receptors, Immunologic - genetics | Protein Tyrosine Phosphatase, Non-Receptor Type 6 | Receptors, Immunologic - metabolism | Research | Structure | Analysis | Proteins | Rodents | Nervous system | Eyes & eyesight | Index Medicus
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5. Full Text Environmental enrichment extends ocular dominance plasticity into adulthood and protects from stroke-induced impairments of plasticity
by Franziska Greifzu and Justyna Pielecka-Fortuna and Evgenia Kalogeraki and Katja Krempler and Plinio D. Favaro and Oliver M. Schlüter and Siegrid Löwel
Proceedings of the National Academy of Sciences of the United States of America, ISSN 0027-8424, 1/2014, Volume 111, Issue 3, pp. 1150 - 1155
Ocular dominance (OD) plasticity in mouse primary visual cortex (V1) declines during postnatal development and is absent beyond postnatal day 110 if mice are... 
Visual cortex | Eyes | Ocular dominance | Plasticity | Mice | Adulthood | Lesions | Housing | T tests | Behavioral neuroscience | EXPERIENCE-DEPENDENT PLASTICITY | CORTEX | MULTIDISCIPLINARY SCIENCES | MOUSE | VISUAL CORTICAL PLASTICITY | INTRINSIC SIGNAL | EYE RESPONSES | MONOCULAR DEPRIVATION | GROWTH-FACTOR | SYSTEM DEVELOPMENT | BRAIN | Mice, Inbred C57BL | Male | GABA Modulators - chemistry | Stroke - physiopathology | Visual Cortex - physiology | Thrombosis - pathology | Patch-Clamp Techniques | Animals | Ibuprofen - chemistry | Interneurons - metabolism | Neuronal Plasticity - physiology | Diazepam - chemistry | Time Factors | Perfusion | Vision, Ocular | Light | Environment | Female | Dominance, Ocular | Stroke (Disease) | Physiological aspects | Research | Adaptation (Physiology) | Prescription drugs | Stroke | Rodents | Index Medicus | Biological Sciences
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6. Full Text Elimination of Inhibitory Synapses Is a Major Component of Adult Ocular Dominance Plasticity
by van Versendaal, Daniëlle and Rajendran, Rajeev and Saiepour, M. Hadi and Klooster, Jan and Smit-Rigter, Laura and Sommeijer, Jean-Pierre and De Zeeuw, Chris I and Hofer, Sonja B and Heimel, J. Alexander and Levelt, Christiaan N
Neuron, ISSN 0896-6273, 04/2012, Volume 74, Issue 2, pp. 374 - 383
During development, cortical plasticity is associated with the rearrangement of excitatory connections. While these connections become more stable with age,... 
DENDRITIC SPINES | CORTICAL-NEURONS | EXPERIENCE-DEPENDENT PLASTICITY | MONKEY STRIATE CORTEX | GABAERGIC SYNAPSES | IN-VIVO | QUANTITATIVE DISTRIBUTION | NEUROSCIENCES | GABA(A) RECEPTOR SUBTYPES | MOUSE VISUAL-CORTEX | INTRACORTICAL INHIBITION | Dominance, Ocular - physiology | Age Factors | Sensory Deprivation | Dendritic Spines - metabolism | Green Fluorescent Proteins - genetics | Neural Inhibition - physiology | Visual Pathways - physiology | Neuronal Plasticity - physiology | Neurons - ultrastructure | Time Factors | Neurons - physiology | Neural Inhibition - genetics | Microscopy, Electron, Transmission | Membrane Proteins - genetics | Synapses - physiology | Visual Cortex - cytology | Vesicular Glutamate Transport Protein 2 - metabolism | Electroporation | Synapses - ultrastructure | Carrier Proteins - genetics | Animals | Vesicular Inhibitory Amino Acid Transport Proteins - metabolism | Luminescent Proteins - genetics | Mice | In Vitro Techniques | Dendritic Spines - ultrastructure | Fluorescence | Neurosciences | Cognition | Adults | Neurons | Proteins | Brain | Cell culture | Microscopy | Index Medicus
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7. Full Text Reducing Intracortical Inhibition in the Adult Visual Cortex Promotes Ocular Dominance Plasticity
by Harauzov, Alexey and Spolidoro, Maria and DiCristo, Graziella and De Pasquale, Roberto and Cancedda, Laura and Pizzorusso, Tommaso and Viegi, Alessandro and Berardi, Nicoletta and Maffei, Lamberto
Journal of Neuroscience, ISSN 0270-6474, 01/2010, Volume 30, Issue 1, pp. 361 - 371
Experience-dependent plasticity in the cortex is often higher during short critical periods in postnatal development. The mechanisms limiting adult cortical... 
CORTICAL PLASTICITY | TISSUE-PLASMINOGEN ACTIVATOR | EXPERIENCE-DEPENDENT PLASTICITY | RECEPTIVE-FIELD PROPERTIES | IN-VIVO | CAT | RATS | CRITICAL-PERIOD | MONOCULAR DEPRIVATION | STRIATE CORTEX | NEUROSCIENCES | Dominance, Ocular - physiology | Neural Inhibition - physiology | Animals | Evoked Potentials, Visual - physiology | Neuronal Plasticity - physiology | Age Factors | Rats, Long-Evans | Rats | Visual Cortex - physiology | Index Medicus
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8. Full Text Homeostatic plasticity mechanisms are required for juvenile, but not adult, ocular dominance plasticity
by Adam Ranson and Claire E. J. Cheetham and Kevin Fox and Frank Sengpiel
Proceedings of the National Academy of Sciences of the United States of America, ISSN 0027-8424, 1/2012, Volume 109, Issue 4, pp. 1311 - 1316
Ocular dominance (OD) plasticity in the visual cortex is a classic model system for understanding developmental plasticity, but the visual cortex also shows... 
Monoculars | Visual cortex | Eyes | Neurons | Ocular dominance | Plasticity | Mice | Critical periods | Visual deprivation | Behavioral neuroscience | EYE | AMPA RECEPTORS | EXPERIENCE-DEPENDENT PLASTICITY | DEVELOPING VISUAL-CORTEX | MULTIDISCIPLINARY SCIENCES | MOUSE | PERIOD | MICE | ALPHA-CAMKII AUTOPHOSPHORYLATION | MONOCULAR DEPRIVATION | SYNAPTIC PLASTICITY | Dominance, Ocular - physiology | Phosphorylation | Age Factors | Mice, Inbred C57BL | Tumor Necrosis Factor-alpha - genetics | Electrophysiology | Visual Cortex - physiology | Mice, Knockout | Calcium-Calmodulin-Dependent Protein Kinase Type 2 - genetics | Animals | Neuronal Plasticity - physiology | Analysis of Variance | Homeostasis - physiology | Calcium-Calmodulin-Dependent Protein Kinase Type 2 - metabolism | Neuroplasticity | Aging | Physiological aspects | Research | Visual perception | Homeostasis | Signal transduction | Kinases | Rodents | Cells | Index Medicus | Biological Sciences
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9. Full Text NMDA Receptor-Dependent Ocular Dominance Plasticity in Adult Visual Cortex
by Sawtell, Nathaniel B and Frenkel, Mikhail Y and Philpot, Benjamin D and Nakazawa, Kazu and Tonegawa, Susumu and Bear, Mark F
Neuron, ISSN 0896-6273, 2003, Volume 38, Issue 6, pp. 977 - 985
The binocular region of mouse visual cortex is strongly dominated by inputs from the contralateral eye. Here we show in adult mice that depriving the dominant... 
CORTICAL PLASTICITY | SOURCE DENSITY ANALYSIS | CRITICAL-PERIOD | BARREL CORTEX | EXPERIENCE | LONG-TERM POTENTIATION | MONOCULAR DEPRIVATION | STRIATE CORTEX | SYNAPTIC PLASTICITY | EVOKED-POTENTIALS | NEUROSCIENCES | Dominance, Ocular - physiology | Visual Cortex - growth & development | Mice, Inbred C57BL | Viral Proteins - genetics | Male | Mice, Transgenic | Vision, Monocular | Receptors, N-Methyl-D-Aspartate - physiology | Visual Cortex - physiology | Mice, Knockout | Receptors, N-Methyl-D-Aspartate - genetics | Patch-Clamp Techniques | Animals | Evoked Potentials, Visual - physiology | Excitatory Postsynaptic Potentials | Neuronal Plasticity | Aging | Receptors, N-Methyl-D-Aspartate - deficiency | Mice | Integrases - genetics | Medical research | Rodents | Agreements | Index Medicus
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10. Full Text Age-dependent ocular dominance plasticity in adult mice
by Lehmann, Konrad and Löwel, Siegrid
PLoS ONE, ISSN 1932-6203, 09/2008, Volume 3, Issue 9, pp. e3120 - e3120
Background: Short monocular deprivation (4 days) induces a shift in the ocular dominance of binocular neurons in the juvenile mouse visual cortex but is... 
BIOLOGY | Dominance, Ocular - physiology | Visual Cortex - pathology | Animals | Time Factors | Vision, Ocular | Mice, Inbred C57BL | Aging | Male | Mice | Neurons - metabolism | Vision, Monocular - physiology | Eye diseases | Neuroimaging | Adolescence | Monkeys | Experiments | Acuity | Eye | Rodents | Plasticity | Optical communication | Binocular vision | Visual deprivation | Adolescents | Age | Deprivation | Young adults | Neurons | Monocular vision | Dominance | Visual acuity | Cortex (visual) | Ocular dominance | Vision | Plasticity (visual) | Plastic properties | Adults | Index Medicus
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11. Full Text Classical MHCI Molecules Regulate Retinogeniculate Refinement and Limit Ocular Dominance Plasticity
by Datwani, Akash and McConnell, Michael J and Kanold, Patrick O and Micheva, Kristina D and Busse, Brad and Shamloo, Mehrdad and Smith, Stephen J and Shatz, Carla J
Neuron, ISSN 0896-6273, 2009, Volume 64, Issue 4, pp. 463 - 470
Major histocompatibility complex class I (MHCI) genes were discovered unexpectedly in healthy CNS neurons in a screen for genes regulated by neural activity.... 
MOLIMMUNO | MOLNEURO | SIGNALING | CLASS-I MHC | NATURAL-KILLER-CELLS | RETINAL WAVES | CORTICAL PLASTICITY | SYNAPSE | CNS | MICE | MONOCULAR DEPRIVATION | NEUROSCIENCES | MOUSE VISUAL-CORTEX | T-CELLS | Animals, Newborn | Dominance, Ocular - physiology | Retina - growth & development | Visual Pathways - growth & development | Mice, Inbred C57BL | Retina - immunology | Visual Pathways - immunology | Mice, Knockout | Geniculate Bodies - growth & development | Neuronal Plasticity - genetics | Animals | H-2 Antigens - genetics | Neuroimmunomodulation - genetics | Neuronal Plasticity - physiology | Mice, Mutant Strains | H-2 Antigens - physiology | Mice | Dominance, Ocular - genetics | Geniculate Bodies - immunology | Tomography | Medical imaging | Charitable foundations | Neurons | Rodents | Index Medicus
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12. Full Text Homeostatic Regulation of Eye-Specific Responses in Visual Cortex during Ocular Dominance Plasticity
by Mrsic-Flogel, Thomas D and Hofer, Sonja B and Ohki, Kenichi and Reid, R. Clay and Bonhoeffer, Tobias and Hübener, Mark
Neuron, ISSN 0896-6273, 2007, Volume 54, Issue 6, pp. 961 - 972
Experience-dependent plasticity is crucial for the precise formation of neuronal connections during development. It is generally thought to depend on Hebbian... 
SYSNEURO | MOLNEURO | DENDRITIC SPINES | METAPLASTICITY | EXPERIENCE-DEPENDENT PLASTICITY | COMPETITION | IN-VIVO | MOUSE | NEURONAL POPULATIONS | NETWORKS | MONOCULAR DEPRIVATION | SYNAPTIC PLASTICITY | NEUROSCIENCES | Animals, Newborn | Eyelids - physiology | Calcium - metabolism | Visual Cortex - cytology | Mice, Inbred C57BL | Eyelids - innervation | Vision, Binocular - physiology | Sensory Deprivation - physiology | Visual Pathways - physiology | Animals | Neuronal Plasticity - physiology | Photic Stimulation - methods | Time Factors | Neurons - physiology | Brain Mapping | Eye - innervation | Action Potentials - radiation effects | Mice | Dominance, Ocular | Vision, Monocular - physiology | Brain | Neurons | Compensation | Index Medicus
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13. Full Text Synaptic plasticity onto inhibitory neurons as a mechanism for ocular dominance plasticity
by Bono, Jacopo and Clopath, Claudia and Clopath, Claudia
PLoS Computational Biology, ISSN 1553-734X, 03/2019, Volume 15, Issue 3, pp. e1006834 - e1006834
Ocular dominance plasticity is a well-documented phenomenon allowing us to study properties of cortical maturation. Understanding this maturation might be an... 
PRIMARY VISUAL-CORTEX | RESPONSES | TRANSMISSION | NETWORK | BIOCHEMICAL RESEARCH METHODS | MATHEMATICAL & COMPUTATIONAL BIOLOGY | EXPERIENCE | MONOCULAR DEPRIVATION | CRITICAL-PERIOD PLASTICITY | Animals | Neural Inhibition | Neuronal Plasticity | Evoked Potentials, Visual | Neurons - physiology | Presynaptic Terminals - physiology | Dominance, Ocular | Models, Neurological | Physiological aspects | Models | Cortical columns | Adaptation (Physiology) | Neurons | Ocular dominance | Bioengineering | Deprivation | Neurosciences | Maturation | Cortex | Visual pathways | Dominance | Plasticity (synaptic) | Plasticity | Plasticity (cortical) | Visual deprivation | Inhibition | Critical period | Index Medicus
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