Enriched experience and recovery from amblyopia in adult rats: Impact of motor, social and sensory components

Amblyopia is one of the most common forms of visual impairment, arising from an early functional imbalance between the two eyes. It is currently accepted that, due to a lack of neural plasticity, amblyopia is an untreatable pathology in adults. Environmental enrichment (EE) emerged as a strategy hig...

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Published inNeuropharmacology Vol. 62; no. 7; pp. 2387 - 2396
Main Authors Baroncelli, Laura, Bonaccorsi, Joyce, Milanese, Marco, Bonifacino, Tiziana, Giribaldi, Francesco, Manno, Ilaria, Cenni, Maria Cristina, Berardi, Nicoletta, Bonanno, Giambattista, Maffei, Lamberto, Sale, Alessandro
Format Journal Article
LanguageEnglish
Published England Elsevier Ltd 01.06.2012
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ISSN0028-3908
1873-7064
1873-7064
DOI10.1016/j.neuropharm.2012.02.010

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Abstract Amblyopia is one of the most common forms of visual impairment, arising from an early functional imbalance between the two eyes. It is currently accepted that, due to a lack of neural plasticity, amblyopia is an untreatable pathology in adults. Environmental enrichment (EE) emerged as a strategy highly effective in restoring plasticity in adult animals, eliciting recovery from amblyopia through a reduction of intracortical inhibition. It is unknown whether single EE components are able to promote plasticity in the adult brain, crucial information for designing new protocols of environmental stimulation suitable for amblyopic human subjects. Here, we assessed the effects of enhanced physical exercise, increased social interaction, visual enrichment or perceptual learning on visual function recovery in adult amblyopic rats. We report a complete rescue of both visual acuity and ocular dominance in exercised rats, in animals exposed to visual enrichment and in animals engaged in perceptual learning. These effects were accompanied by a reduced inhibition/excitation balance in the visual cortex. In contrast, we did not detect any sign of recovery in socially enriched rats or in animals practicing a purely associative visual task. These findings could have a bearing in orienting clinical research in the field of amblyopia therapy. ► Visual or motor enrichment induced recovery from amblyopia in adult amblyopic rats. ► Visual perceptual learning induced recovery from amblyopia in adult amblyopic rats. ► Visual function recovery was accompanied by a reduced inhibitory tone in V1. ► Active use of the amblyopic eye was necessary for the recovery process.
AbstractList Amblyopia is one of the most common forms of visual impairment, arising from an early functional imbalance between the two eyes. It is currently accepted that, due to a lack of neural plasticity, amblyopia is an untreatable pathology in adults. Environmental enrichment (EE) emerged as a strategy highly effective in restoring plasticity in adult animals, eliciting recovery from amblyopia through a reduction of intracortical inhibition. It is unknown whether single EE components are able to promote plasticity in the adult brain, crucial information for designing new protocols of environmental stimulation suitable for amblyopic human subjects. Here, we assessed the effects of enhanced physical exercise, increased social interaction, visual enrichment or perceptual learning on visual function recovery in adult amblyopic rats. We report a complete rescue of both visual acuity and ocular dominance in exercised rats, in animals exposed to visual enrichment and in animals engaged in perceptual learning. These effects were accompanied by a reduced inhibition/excitation balance in the visual cortex. In contrast, we did not detect any sign of recovery in socially enriched rats or in animals practicing a purely associative visual task. These findings could have a bearing in orienting clinical research in the field of amblyopia therapy. ► Visual or motor enrichment induced recovery from amblyopia in adult amblyopic rats. ► Visual perceptual learning induced recovery from amblyopia in adult amblyopic rats. ► Visual function recovery was accompanied by a reduced inhibitory tone in V1. ► Active use of the amblyopic eye was necessary for the recovery process.
Amblyopia is one of the most common forms of visual impairment, arising from an early functional imbalance between the two eyes. It is currently accepted that, due to a lack of neural plasticity, amblyopia is an untreatable pathology in adults. Environmental enrichment (EE) emerged as a strategy highly effective in restoring plasticity in adult animals, eliciting recovery from amblyopia through a reduction of intracortical inhibition. It is unknown whether single EE components are able to promote plasticity in the adult brain, crucial information for designing new protocols of environmental stimulation suitable for amblyopic human subjects. Here, we assessed the effects of enhanced physical exercise, increased social interaction, visual enrichment or perceptual learning on visual function recovery in adult amblyopic rats. We report a complete rescue of both visual acuity and ocular dominance in exercised rats, in animals exposed to visual enrichment and in animals engaged in perceptual learning. These effects were accompanied by a reduced inhibition/excitation balance in the visual cortex. In contrast, we did not detect any sign of recovery in socially enriched rats or in animals practicing a purely associative visual task. These findings could have a bearing in orienting clinical research in the field of amblyopia therapy.
Amblyopia is one of the most common forms of visual impairment, arising from an early functional imbalance between the two eyes. It is currently accepted that, due to a lack of neural plasticity,amblyopia is an untreatable pathology in adults. Environmental enrichment (EE) emerged as a strategy highly effective in restoring plasticity in adult animals, eliciting recovery from amblyopia through a reduction of intracortical inhibition. It is unknown whether single EE components are able to promote plasticity in the adult brain, crucial information for designing new protocols of environmental stimulation suitable for amblyopic human subjects. Here, we assessed the effects of enhanced physical exercise,increased social interaction, visual enrichment or perceptual learning on visual function recovery in adult amblyopic rats. We report a complete rescue of both visual acuity and ocular dominance in exercised rats, in animals exposed to visual enrichment and in animals engaged in perceptual learning.These effects were accompanied by a reduced inhibition/excitation balance in the visual cortex. In contrast, we did not detect any sign of recovery in socially enriched rats or in animals practicing a purely associative visual task. These findings could have a bearing in orienting clinical research in the field of amblyopia therapy.Amblyopia is one of the most common forms of visual impairment, arising from an early functional imbalance between the two eyes. It is currently accepted that, due to a lack of neural plasticity,amblyopia is an untreatable pathology in adults. Environmental enrichment (EE) emerged as a strategy highly effective in restoring plasticity in adult animals, eliciting recovery from amblyopia through a reduction of intracortical inhibition. It is unknown whether single EE components are able to promote plasticity in the adult brain, crucial information for designing new protocols of environmental stimulation suitable for amblyopic human subjects. Here, we assessed the effects of enhanced physical exercise,increased social interaction, visual enrichment or perceptual learning on visual function recovery in adult amblyopic rats. We report a complete rescue of both visual acuity and ocular dominance in exercised rats, in animals exposed to visual enrichment and in animals engaged in perceptual learning.These effects were accompanied by a reduced inhibition/excitation balance in the visual cortex. In contrast, we did not detect any sign of recovery in socially enriched rats or in animals practicing a purely associative visual task. These findings could have a bearing in orienting clinical research in the field of amblyopia therapy.
Author Bonifacino, Tiziana
Cenni, Maria Cristina
Bonanno, Giambattista
Milanese, Marco
Berardi, Nicoletta
Sale, Alessandro
Baroncelli, Laura
Bonaccorsi, Joyce
Giribaldi, Francesco
Manno, Ilaria
Maffei, Lamberto
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  fullname: Bonanno, Giambattista
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  email: sale@in.cnr.it
  organization: Institute of Neuroscience CNR, Pisa I-56100, Italy
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Keywords Perceptual learning
Environmental stimulation
GABAergic inhibition
Amblyopia
Plasticity
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Snippet Amblyopia is one of the most common forms of visual impairment, arising from an early functional imbalance between the two eyes. It is currently accepted that,...
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SubjectTerms Acuity
Age Factors
Amblyopia
Amblyopia - physiopathology
Amblyopia - psychology
Amblyopia - rehabilitation
Animals
Brain
Cortex (visual)
Enrichment
Environment
Environmental stimulation
GABAergic inhibition
Interpersonal Relations
Learning
Learning - physiology
Motor Activity - physiology
Neural Inhibition - physiology
Ocular dominance
Perceptual learning
Photic Stimulation - methods
Physical Conditioning, Animal - methods
Physical Conditioning, Animal - physiology
Physical training
Plasticity
Plasticity (neural)
Rats
Rats, Long-Evans
Recovery of Function - physiology
Sensory Deprivation - physiology
Social interactions
Visual discrimination learning
Visual perception
Visual Perception - physiology
Title Enriched experience and recovery from amblyopia in adult rats: Impact of motor, social and sensory components
URI https://dx.doi.org/10.1016/j.neuropharm.2012.02.010
https://www.ncbi.nlm.nih.gov/pubmed/22532989
https://www.proquest.com/docview/1009803114
https://www.proquest.com/docview/1011215636
Volume 62
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