Journal of Speech, Language, and Hearing Research, ISSN 1092-4388, 02/2008, Volume 51, Issue 1, pp. S225 - S239
Theresa A. Jones University of Texas at Austin Contact author: Jeffrey A. Kleim, Brain Rehabilitation Research Center (151A), Malcom Randall VA Hospital, 1610...
Recovery | Plasticity | Rehabilitation | PRIMARY SOMATOSENSORY CORTEX | plasticity | recovery | DENDRITIC STRUCTURAL PLASTICITY | PRIMARY MOTOR CORTEX | LINGUISTICS | rehabilitation | TRANSCRANIAL MAGNETIC STIMULATION | SENSORIMOTOR CORTICAL DAMAGE | LONG-TERM POTENTIATION | INDUCED MOVEMENT THERAPY | ADULT SQUIRREL-MONKEYS | FOREBRAIN CHOLINERGIC SYSTEM | EXERCISE INDUCES ANGIOGENESIS | Neurological Impairments | Intervention | Brain | Cognitive Processes | Models | Learning Strategies | Animals | Brain Damage, Chronic - rehabilitation | Brain Injury, Chronic - physiopathology | Neuronal Plasticity | Humans | Brain Injury, Chronic - rehabilitation | Brain Damage, Chronic - physiopathology | Recovery of Function | Neuroplasticity | Brain damage | Care and treatment | Research | Human subjects | Changes | Neurosciences | Nervous system | Behavior | Neurological disorders
Recovery | Plasticity | Rehabilitation | PRIMARY SOMATOSENSORY CORTEX | plasticity | recovery | DENDRITIC STRUCTURAL PLASTICITY | PRIMARY MOTOR CORTEX | LINGUISTICS | rehabilitation | TRANSCRANIAL MAGNETIC STIMULATION | SENSORIMOTOR CORTICAL DAMAGE | LONG-TERM POTENTIATION | INDUCED MOVEMENT THERAPY | ADULT SQUIRREL-MONKEYS | FOREBRAIN CHOLINERGIC SYSTEM | EXERCISE INDUCES ANGIOGENESIS | Neurological Impairments | Intervention | Brain | Cognitive Processes | Models | Learning Strategies | Animals | Brain Damage, Chronic - rehabilitation | Brain Injury, Chronic - physiopathology | Neuronal Plasticity | Humans | Brain Injury, Chronic - rehabilitation | Brain Damage, Chronic - physiopathology | Recovery of Function | Neuroplasticity | Brain damage | Care and treatment | Research | Human subjects | Changes | Neurosciences | Nervous system | Behavior | Neurological disorders
Journal Article
Neurorehabilitation and Neural Repair, ISSN 1545-9683, 05/2009, Volume 23, Issue 4, pp. 313 - 319
Journal Article
Journal of Applied Physiology, ISSN 8750-7587, 12/2006, Volume 101, Issue 6, pp. 1776 - 1782
The motor cortex and spinal cord possess the remarkable ability to alter structure and function in response to differential motor training. Here we review the...
Endurance training | Skill training | Spinal cord plasticity | Motor cortex plasticity | Strength training | strength training | MOVEMENT REPRESENTATIONS | SPORT SCIENCES | PHYSIOLOGY | endurance training | motor cortex plasticity | FUNCTIONAL REORGANIZATION | DENDRITIC STRUCTURAL PLASTICITY | PRIMATE H-REFLEX | TRANSCRANIAL MAGNETIC STIMULATION | MUSCLE STRENGTH | SENSORIMOTOR CORTEX | CENTRAL-NERVOUS-SYSTEM | spinal cord plasticity | ADULT SQUIRREL-MONKEYS | CROSS-SECTIONAL AREA | skill training | Physical Fitness - physiology | Motor Cortex - physiology | Motor Neurons - physiology | Humans | Adaptation, Physiological - physiology | Muscle, Skeletal - physiology | Action Potentials - physiology | Pyramidal Tracts - physiopathology | Animals | Movement - physiology | Neuronal Plasticity - physiology | Muscle Contraction - physiology | Spinal Cord - physiology | Exercise - physiology
Endurance training | Skill training | Spinal cord plasticity | Motor cortex plasticity | Strength training | strength training | MOVEMENT REPRESENTATIONS | SPORT SCIENCES | PHYSIOLOGY | endurance training | motor cortex plasticity | FUNCTIONAL REORGANIZATION | DENDRITIC STRUCTURAL PLASTICITY | PRIMATE H-REFLEX | TRANSCRANIAL MAGNETIC STIMULATION | MUSCLE STRENGTH | SENSORIMOTOR CORTEX | CENTRAL-NERVOUS-SYSTEM | spinal cord plasticity | ADULT SQUIRREL-MONKEYS | CROSS-SECTIONAL AREA | skill training | Physical Fitness - physiology | Motor Cortex - physiology | Motor Neurons - physiology | Humans | Adaptation, Physiological - physiology | Muscle, Skeletal - physiology | Action Potentials - physiology | Pyramidal Tracts - physiopathology | Animals | Movement - physiology | Neuronal Plasticity - physiology | Muscle Contraction - physiology | Spinal Cord - physiology | Exercise - physiology
Journal Article
Physical Therapy, ISSN 0031-9023, 04/2016, Volume 96, Issue 4, pp. 430 - 430
Journal Article
Nature Neuroscience, ISSN 1097-6256, 06/2006, Volume 9, Issue 6, pp. 735 - 737
Motor training can induce profound physiological plasticity within primary motor cortex, including changes in corticospinal output and motor map topography....
TRANSCRANIAL MAGNETIC STIMULATION | NEUROSCIENCES | MODULATION | HUMAN-MEMORY | Motor Cortex - anatomy & histology | Nerve Regeneration - genetics | Brain-Derived Neurotrophic Factor - genetics | Motor Cortex - physiology | Recovery of Function - genetics | Motor Skills - physiology | Humans | Genotype | Male | Neuropsychological Tests | Transcranial Magnetic Stimulation | Learning - physiology | Neuronal Plasticity - genetics | Movement - physiology | Evoked Potentials, Motor - genetics | Brain Mapping | Adult | Amino Acid Substitution - genetics | Female | Polymorphism, Genetic - genetics | Valine - genetics | Methionine - genetics | Neuroplasticity | Neural transmission | Regulation | Research | Motor learning | Genetic polymorphisms
TRANSCRANIAL MAGNETIC STIMULATION | NEUROSCIENCES | MODULATION | HUMAN-MEMORY | Motor Cortex - anatomy & histology | Nerve Regeneration - genetics | Brain-Derived Neurotrophic Factor - genetics | Motor Cortex - physiology | Recovery of Function - genetics | Motor Skills - physiology | Humans | Genotype | Male | Neuropsychological Tests | Transcranial Magnetic Stimulation | Learning - physiology | Neuronal Plasticity - genetics | Movement - physiology | Evoked Potentials, Motor - genetics | Brain Mapping | Adult | Amino Acid Substitution - genetics | Female | Polymorphism, Genetic - genetics | Valine - genetics | Methionine - genetics | Neuroplasticity | Neural transmission | Regulation | Research | Motor learning | Genetic polymorphisms
Journal Article
Physical Therapy, ISSN 0031-9023, 04/2016, Volume 96, Issue 4, pp. 430 - 432
According to Khan and Scott,3 in the late 19th century, the Oxford English Dictionary defined the term mechanotherapy as "the employment of mechanical means...
ORTHOPEDICS | REHABILITATION | Attitude of Health Personnel | Clinical Decision-Making | Genomics | Humans | Physical Therapy Specialty | Professional Role | Physical Therapists | Regenerative Medicine | Rehabilitation | Periodicals as Topic | Patient Selection | Precision Medicine | Practice | Forecasts and trends | Regenerative medicine | Physical therapists | Innovations | Tissue engineering | Curricula | Patients | Brain research | Students | Precision medicine | Stem cells | Physiology | Clinical medicine | Physical therapy
ORTHOPEDICS | REHABILITATION | Attitude of Health Personnel | Clinical Decision-Making | Genomics | Humans | Physical Therapy Specialty | Professional Role | Physical Therapists | Regenerative Medicine | Rehabilitation | Periodicals as Topic | Patient Selection | Precision Medicine | Practice | Forecasts and trends | Regenerative medicine | Physical therapists | Innovations | Tissue engineering | Curricula | Patients | Brain research | Students | Precision medicine | Stem cells | Physiology | Clinical medicine | Physical therapy
Journal Article
Journal of Communication Disorders, ISSN 0021-9924, 2011, Volume 44, Issue 5, pp. 521 - 528
Highlights â–º Neural plasticity is the neurobiological mechanism supporting functional improvement after brain injury. â–º The brain uses different neural...
Psychiatry | Neural plasticity, Motor cortex, Stroke, Synaptic plasticity | DENDRITIC PLASTICITY | Neural plasticity | Stroke | SQUIRREL-MONKEYS | FUNCTIONAL REORGANIZATION | PRIMARY MOTOR CORTEX | INDUCED POTENTIATION | RECOVERY | LINGUISTICS | TRANSCRANIAL MAGNETIC STIMULATION | SENSORIMOTOR CORTEX | ADULT-RAT | Motor cortex | Synaptic plasticity | REHABILITATION | FOCAL CORTICAL ISCHEMIA | Neurological Impairments | Brain | Cognitive Processes | Therapy | Head Injuries | Injuries | Diseases | Brain - physiopathology | Humans | Neuronal Plasticity - drug effects | Motor Cortex - physiopathology | Brain Injuries - physiopathology | Electric Stimulation Therapy | Recruitment, Neurophysiological - physiology | Brain - drug effects | Learning - physiology | Animals | Neuronal Plasticity - physiology | Brain Injuries - rehabilitation | Recovery of Function - physiology | Teachers | Brain injury
Psychiatry | Neural plasticity, Motor cortex, Stroke, Synaptic plasticity | DENDRITIC PLASTICITY | Neural plasticity | Stroke | SQUIRREL-MONKEYS | FUNCTIONAL REORGANIZATION | PRIMARY MOTOR CORTEX | INDUCED POTENTIATION | RECOVERY | LINGUISTICS | TRANSCRANIAL MAGNETIC STIMULATION | SENSORIMOTOR CORTEX | ADULT-RAT | Motor cortex | Synaptic plasticity | REHABILITATION | FOCAL CORTICAL ISCHEMIA | Neurological Impairments | Brain | Cognitive Processes | Therapy | Head Injuries | Injuries | Diseases | Brain - physiopathology | Humans | Neuronal Plasticity - drug effects | Motor Cortex - physiopathology | Brain Injuries - physiopathology | Electric Stimulation Therapy | Recruitment, Neurophysiological - physiology | Brain - drug effects | Learning - physiology | Animals | Neuronal Plasticity - physiology | Brain Injuries - rehabilitation | Recovery of Function - physiology | Teachers | Brain injury
Journal Article
PM&R, ISSN 1934-1482, 2010, Volume 2, Issue 12, pp. S208 - S219
Abstract Decades of basic science have clearly demonstrated the capacity of the central nervous system (CNS) to structurally and functionally adapt in response...
Physical Medicine and Rehabilitation | SPORT SCIENCES | REHABILITATION | Learning - physiology | Animals | Neuronal Plasticity - physiology | Motor Skills - physiology | Humans | Brain Injuries - rehabilitation | Recovery of Function - physiology | Brain Injuries - physiopathology | Central Nervous System Diseases - rehabilitation | Electric Stimulation Therapy | Central Nervous System - injuries | Central Nervous System Diseases - physiopathology
Physical Medicine and Rehabilitation | SPORT SCIENCES | REHABILITATION | Learning - physiology | Animals | Neuronal Plasticity - physiology | Motor Skills - physiology | Humans | Brain Injuries - rehabilitation | Recovery of Function - physiology | Brain Injuries - physiopathology | Central Nervous System Diseases - rehabilitation | Electric Stimulation Therapy | Central Nervous System - injuries | Central Nervous System Diseases - physiopathology
Journal Article
Neurochemical Research, ISSN 0364-3190, 11/2003, Volume 28, Issue 11, pp. 1757 - 1769
Voluntary exercise, treadmill activity, skills training, and forced limb use have been utilized in animal studies to promote brain plasticity and functional...
Biochemistry, general | Neurosciences | Parkinson's disease | BDNF | exercise | experience | stroke | degeneration | Neurology | enrichment | FGF-2 | rehabilitation | Biomedicine | GDNF | neurotrophic factors | Aging | Enrichment | Experience | Stroke | Exercise | Degeneration | Rehabilitation | Neurotrophic factors | MIDDLE CEREBRAL-ARTERY | USE-DEPENDENT EXAGGERATION | BIOCHEMISTRY & MOLECULAR BIOLOGY | FOCAL ISCHEMIC-INJURY | ADULT-RATS | NEUROSCIENCES | UNILATERAL SENSORIMOTOR CORTEX | LATERAL HYPOTHALAMIC-LESIONS | CENTRAL-NERVOUS-SYSTEM | aging | LONG-TERM POTENTIATION | INDUCED MOVEMENT THERAPY | EXERCISE INDUCES ANGIOGENESIS | Exercise Therapy - methods | Motor Activity - physiology | Humans | Nerve Degeneration - physiopathology | Treatment Outcome | Brain Injuries - therapy | Brain Injuries - physiopathology | Physical Conditioning, Animal - physiology | Nerve Degeneration - pathology | Animals | Neuronal Plasticity - physiology | Cognition - physiology | Recovery of Function - physiology | Exercise - physiology | Brain Injuries - pathology | Nerve Degeneration - therapy
Biochemistry, general | Neurosciences | Parkinson's disease | BDNF | exercise | experience | stroke | degeneration | Neurology | enrichment | FGF-2 | rehabilitation | Biomedicine | GDNF | neurotrophic factors | Aging | Enrichment | Experience | Stroke | Exercise | Degeneration | Rehabilitation | Neurotrophic factors | MIDDLE CEREBRAL-ARTERY | USE-DEPENDENT EXAGGERATION | BIOCHEMISTRY & MOLECULAR BIOLOGY | FOCAL ISCHEMIC-INJURY | ADULT-RATS | NEUROSCIENCES | UNILATERAL SENSORIMOTOR CORTEX | LATERAL HYPOTHALAMIC-LESIONS | CENTRAL-NERVOUS-SYSTEM | aging | LONG-TERM POTENTIATION | INDUCED MOVEMENT THERAPY | EXERCISE INDUCES ANGIOGENESIS | Exercise Therapy - methods | Motor Activity - physiology | Humans | Nerve Degeneration - physiopathology | Treatment Outcome | Brain Injuries - therapy | Brain Injuries - physiopathology | Physical Conditioning, Animal - physiology | Nerve Degeneration - pathology | Animals | Neuronal Plasticity - physiology | Cognition - physiology | Recovery of Function - physiology | Exercise - physiology | Brain Injuries - pathology | Nerve Degeneration - therapy
Journal Article
NEUROREHABILITATION AND NEURAL REPAIR, ISSN 1545-9683, 05/2009, Volume 23, Issue 4, pp. 313 - 319
There is a lack of consistency among researchers and clinicians in the use of terminology that describes changes in motor ability following neurological...
Stroke | Terminology | CORTEX ACTIVATION | RANDOMIZED CONTROLLED-TRIAL | CORTICAL REORGANIZATION | Recovery | PREMOTOR CORTEX | FUNCTIONAL MRI | CLINICAL NEUROLOGY | REACHING PERFORMANCE | UPPER EXTREMITY FUNCTION | Compensation | Hemiplegia | Rehabilitation | QUALITY-OF-LIFE | HEMIPARETIC STROKE | INDUCED MOVEMENT THERAPY | Disability Evaluation | Outcome Assessment (Health Care) - methods | Humans | Stroke - complications | Stroke Rehabilitation | Terminology as Topic | Stroke - physiopathology | Outcome Assessment (Health Care) - standards | Interdisciplinary Communication | Movement Disorders - physiopathology | Neuronal Plasticity - physiology | Movement Disorders - etiology | Recovery of Function - physiology | Hemiplegia - rehabilitation | Hemiplegia - complications | Movement Disorders - rehabilitation | Hemiplegia - physiopathology | Stroke (Disease) | Physiological aspects | Care and treatment | Stroke patients | Motor ability | Analysis
Stroke | Terminology | CORTEX ACTIVATION | RANDOMIZED CONTROLLED-TRIAL | CORTICAL REORGANIZATION | Recovery | PREMOTOR CORTEX | FUNCTIONAL MRI | CLINICAL NEUROLOGY | REACHING PERFORMANCE | UPPER EXTREMITY FUNCTION | Compensation | Hemiplegia | Rehabilitation | QUALITY-OF-LIFE | HEMIPARETIC STROKE | INDUCED MOVEMENT THERAPY | Disability Evaluation | Outcome Assessment (Health Care) - methods | Humans | Stroke - complications | Stroke Rehabilitation | Terminology as Topic | Stroke - physiopathology | Outcome Assessment (Health Care) - standards | Interdisciplinary Communication | Movement Disorders - physiopathology | Neuronal Plasticity - physiology | Movement Disorders - etiology | Recovery of Function - physiology | Hemiplegia - rehabilitation | Hemiplegia - complications | Movement Disorders - rehabilitation | Hemiplegia - physiopathology | Stroke (Disease) | Physiological aspects | Care and treatment | Stroke patients | Motor ability | Analysis
Journal Article
Journal of Neurophysiology, ISSN 0022-3077, 12/1998, Volume 80, Issue 6, pp. 3321 - 3325
Kleim, Jeffrey A., Scott Barbay, and Randolph J. Nudo. Functional reorganization of the rat motor cortex following motor skill learning. J. Neurophysiol. 80:...
ORGANIZATION | MOVEMENT REPRESENTATIONS | CORTICAL ABLATIONS | PHYSIOLOGY | SENSORIMOTOR CORTEX | NEURONS | ADULT-RATS | FORELIMB CORTEX | ALTERS | NEUROSCIENCES | TACTILE EXPERIENCE | LESIONS | Microelectrodes | Motor Cortex - physiology | Electric Stimulation | Motor Skills - physiology | Forelimb - physiology | Electrophysiology | Hindlimb - physiology | Rats | Hindlimb - innervation | Male | Forelimb - innervation | Learning - physiology | Animals | Pyramidal Cells - physiology | Brain Mapping | Motor Cortex - cytology
ORGANIZATION | MOVEMENT REPRESENTATIONS | CORTICAL ABLATIONS | PHYSIOLOGY | SENSORIMOTOR CORTEX | NEURONS | ADULT-RATS | FORELIMB CORTEX | ALTERS | NEUROSCIENCES | TACTILE EXPERIENCE | LESIONS | Microelectrodes | Motor Cortex - physiology | Electric Stimulation | Motor Skills - physiology | Forelimb - physiology | Electrophysiology | Hindlimb - physiology | Rats | Hindlimb - innervation | Male | Forelimb - innervation | Learning - physiology | Animals | Pyramidal Cells - physiology | Brain Mapping | Motor Cortex - cytology
Journal Article
Nature Protocols, ISSN 1754-2189, 06/2007, Volume 2, Issue 7, pp. 1675 - 1684
Measuring changes in the characteristics of corticospinal output has become a critical part of assessing the impact of motor experience on cortical...
PERIPHERAL-NERVE | STROKE | MOVEMENT REPRESENTATIONS | HUMAN MOTOR CORTEX | EXCITABILITY | BIOCHEMICAL RESEARCH METHODS | DEPENDENT PLASTICITY | EXPERIENCE | MAP | MODULATION | BRAIN | Hand - innervation | Humans | Spinal Cord - physiology | Magnetic Resonance Imaging - methods | Adult | Cerebral Cortex - physiology | Reference Values | Brain Mapping - methods | Transcranial Magnetic Stimulation - methods | Brain Injuries - physiopathology | Motor Activity | Stereotaxic Techniques
PERIPHERAL-NERVE | STROKE | MOVEMENT REPRESENTATIONS | HUMAN MOTOR CORTEX | EXCITABILITY | BIOCHEMICAL RESEARCH METHODS | DEPENDENT PLASTICITY | EXPERIENCE | MAP | MODULATION | BRAIN | Hand - innervation | Humans | Spinal Cord - physiology | Magnetic Resonance Imaging - methods | Adult | Cerebral Cortex - physiology | Reference Values | Brain Mapping - methods | Transcranial Magnetic Stimulation - methods | Brain Injuries - physiopathology | Motor Activity | Stereotaxic Techniques
Journal Article
Physical Therapy, ISSN 0031-9023, 04/2016, Volume 96, Issue 4, pp. 570 - 580
The Human Genome Project and the International HapMap Project have yielded new understanding of the influence of the human genome on health and disease,...
FUNCTIONAL POLYMORPHISM | MEDICINE GENOMICS | PAIN SENSITIVITY | CARDIOVASCULAR-DISEASE | REHABILITATION | FAMILIAL AGGREGATION | ORTHOPEDICS | AMERICAN-HEART-ASSOCIATION | KNEE OSTEOARTHRITIS | SCIENTIFIC STATEMENT | CORONARY-ARTERY-DISEASE | GENETIC RISK SCORE | Genetic Predisposition to Disease | Genome-Wide Association Study | Pharmacogenetics | Genomics | Humans | Cardiovascular Diseases - therapy | Cardiovascular Diseases - genetics | Osteoarthritis - genetics | Osteoarthritis - therapy | Motor Activity - genetics | Physical Fitness | Physical Therapy Specialty | Polymorphism, Single Nucleotide | Precision Medicine | Evaluation | Forecasts and trends | Physical therapy | Therapeutics, Physiological | DNA methylation | Twins | Genes | Mortality | Chronic illnesses
FUNCTIONAL POLYMORPHISM | MEDICINE GENOMICS | PAIN SENSITIVITY | CARDIOVASCULAR-DISEASE | REHABILITATION | FAMILIAL AGGREGATION | ORTHOPEDICS | AMERICAN-HEART-ASSOCIATION | KNEE OSTEOARTHRITIS | SCIENTIFIC STATEMENT | CORONARY-ARTERY-DISEASE | GENETIC RISK SCORE | Genetic Predisposition to Disease | Genome-Wide Association Study | Pharmacogenetics | Genomics | Humans | Cardiovascular Diseases - therapy | Cardiovascular Diseases - genetics | Osteoarthritis - genetics | Osteoarthritis - therapy | Motor Activity - genetics | Physical Fitness | Physical Therapy Specialty | Polymorphism, Single Nucleotide | Precision Medicine | Evaluation | Forecasts and trends | Physical therapy | Therapeutics, Physiological | DNA methylation | Twins | Genes | Mortality | Chronic illnesses
Journal Article
Journal of Neuroscience, ISSN 0270-6474, 2013, Volume 33, Issue 50, pp. 19499 - 19503
Learning a novel motor skill is associated with well characterized structural and functional plasticity in the rodent motor cortex. Furthermore, neuroimaging...
NERVOUS-SYSTEM | CORTEX | SYNAPTOGENESIS | NEUROPLASTICITY | REORGANIZATION | DIFFUSION | NEUROSCIENCES | Learning - physiology | Motor Cortex - physiology | Myelin Sheath - physiology | Animals | Neuronal Plasticity - physiology | Anisotropy | Diffusion Magnetic Resonance Imaging | Nerve Fibers, Myelinated - physiology | Rats | Male | Psychomotor Performance - physiology | Brief Communications
NERVOUS-SYSTEM | CORTEX | SYNAPTOGENESIS | NEUROPLASTICITY | REORGANIZATION | DIFFUSION | NEUROSCIENCES | Learning - physiology | Motor Cortex - physiology | Myelin Sheath - physiology | Animals | Neuronal Plasticity - physiology | Anisotropy | Diffusion Magnetic Resonance Imaging | Nerve Fibers, Myelinated - physiology | Rats | Male | Psychomotor Performance - physiology | Brief Communications
Journal Article
Cerebral Cortex, ISSN 1047-3211, 05/2010, Volume 20, Issue 5, pp. 1254 - 1262
Brain-derived neurotrophic factor (BDNF) is important to brain functions such as plasticity and repair. A single nucleotide polymorphism for this growth...
Genetics | Genotype | FMRI | Cortex | Plasticity | Brain-Derived Neurotrophic Factor - genetics | Humans | Male | Brain - physiology | Psychomotor Performance - physiology | Functional Laterality - genetics | Young Adult | Brain - blood supply | Fingers - physiology | Movement - physiology | Adult | Female | Oxygen - blood | Neuropsychological Tests | Learning - physiology | Magnetic Resonance Imaging | Analysis of Variance | Image Processing, Computer-Assisted | Adolescent | Brain Mapping | Polymorphism, Single Nucleotide - genetics | Valine - genetics | Methionine - genetics | Cohort Studies | cortex | fMRI | plasticity | genetics | genotype
Genetics | Genotype | FMRI | Cortex | Plasticity | Brain-Derived Neurotrophic Factor - genetics | Humans | Male | Brain - physiology | Psychomotor Performance - physiology | Functional Laterality - genetics | Young Adult | Brain - blood supply | Fingers - physiology | Movement - physiology | Adult | Female | Oxygen - blood | Neuropsychological Tests | Learning - physiology | Magnetic Resonance Imaging | Analysis of Variance | Image Processing, Computer-Assisted | Adolescent | Brain Mapping | Polymorphism, Single Nucleotide - genetics | Valine - genetics | Methionine - genetics | Cohort Studies | cortex | fMRI | plasticity | genetics | genotype
Journal Article
Cerebral Cortex, ISSN 1047-3211, 04/2011, Volume 21, Issue 4, pp. 865 - 876
The organization of forelimb representation areas of the monkey, cat, and rat motor cortices has been studied in depth, but its characterization in the mouse...
motor map | intracortical microstimulation | forelimb representation | cytoarchitecture | primary motor cortex | LABORATORY MICE | MOVEMENT REPRESENTATIONS | HOUSING CONDITIONS | CORTICAL REPRESENTATION | MAP EXPANSION | FUNCTIONAL REORGANIZATION | NEUROSCIENCES | MUS-MUSCULUS | SENSORIMOTOR CORTEX | DUCHENNE MUSCULAR-DYSTROPHY | ADULT SQUIRREL-MONKEYS | Mice - anatomy & histology | Motor Cortex - anatomy & histology | Animals | Electric Stimulation | Mice, Inbred C57BL | Brain Mapping | Male | Forelimb - innervation
motor map | intracortical microstimulation | forelimb representation | cytoarchitecture | primary motor cortex | LABORATORY MICE | MOVEMENT REPRESENTATIONS | HOUSING CONDITIONS | CORTICAL REPRESENTATION | MAP EXPANSION | FUNCTIONAL REORGANIZATION | NEUROSCIENCES | MUS-MUSCULUS | SENSORIMOTOR CORTEX | DUCHENNE MUSCULAR-DYSTROPHY | ADULT SQUIRREL-MONKEYS | Mice - anatomy & histology | Motor Cortex - anatomy & histology | Animals | Electric Stimulation | Mice, Inbred C57BL | Brain Mapping | Male | Forelimb - innervation
Journal Article