The Neuronal Base of Perceptual Learning and Skill Acquisition
Procedural and perceptual learning are important processes involved in skill acquisition and the formation of expertise. This chapter provides an overview of recent research on the neuroscientific investigation of these different learning forms underlying the acquisition of skills. We focus on low-level processes in perception and motor control and how these low-level processes are improved by learning. Other forms of neural plasticity like adaptation, habituation, sensitization, conditioning and extinction are differentiated from procedural and perceptual learning. A brief introduction to the neuroanatomical basis of visual function is given. We next review the research on the cognitive neuroscience of these forms of learning with a focus on studies that use functional magnetic resonance imaging (fMRI). Recent results on dopaminergic and cholinergic processes underlying learning are discussed in the context of a top-down attention-gated model of perceptual learning. Finally an overview is given of research on skill acquisition and the implications of this research on the design of learning environments.
KeywordsPerceptual learning Procedural learning Skill acquisition Functional magnetic resonance imaging (fMRI) Implicit memory Brain function Visual system
The author would like to thank Sebastian M. Frank (Dartmouth College) for his critical and helpful comments. The author also acknowledges funding support from the Federal Ministry for Education and Research (BMBF, Project “Brain Plasticity and Perceptual Learning”) and the German Research Council (DFG, FOR 1075, Project GR988/22-2).
A brain imaging technique involving the radioactive isotope 11C combined with raclopride to label dopaminergic brain regions.
Cortical area in medial prefrontal cortex thought to process various aspects of attention and executive control.
A component of the subcortical basal ganglia involved in motor control, learning, memory and other forms of cognition.
Or acetylcholinesterase inhibitor is a chemical substance that inhibits acetylcholinesterase enzyme from breaking down acetylcholine thereby increasing cholinergic transmission.
Secondary visual cortex beyond the striate (stripped) cortex representing area 17 (containing primary visual cortex).
Functional magnetic resonance imaging, a non-invasive, in-vivo brain imaging technique.
Part of the ventral visual cortex involved in object and face recognition.
Lateral geniculate nucleus of the thalamus involved in visual processing with magno-, parvo- and koniocellular layers.
Six layers of the neocortex, where lamina I borders the pia mater and lamina VI the white matter.
Parts of the cingular cortex in the medial neocortex.
A dopaminergic structure in the midbrain thought to be involved in reward processing.
Nucleus basalis of Meynert: a group of neurons in the substantia innominate in the basal forebrain involved in cholinergic innervation of the cortex.
Part of the ventral visual pathway at the junction between the occipital and temporal lobes.
Optic chiasma, a location in the brain where the optic nerves partially bifurcate.
A cholinesterase inhibitor that acts by interfering with the metabolism of acetylcholine.
Rapid-eye-movement sleep, a form of paradoxical sleep in which the person executes rapid eye movements during dream-like states.
Rapid serial presentation task, a visual task involving the presentation of a rapid sequence of images containing two or more targets that require a motor response from the participant.
Substantia nigra, a brain structure in the midbrain involved in motor control and reward processing.
Slow-wave sleep, stage 3 to 4 of (deep) sleep that is associated of low frequency EEG delta waves.
Voxel-based morphometry, a data analysis technique that determines statistical differences in grey and white matter voxel intensities. Used to measure cortical grey and white matter thickness.
Part of the basal ganglia involving the nucleus accumbens, the olfactory tubercle, as well as the caudate nucleus and putamen.
Ventral tegmentum area, a dopaminergic structure in the midbrain involved in dopaminergic innervation and control of attention.
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