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Measurement of Neurophysiological Signals of Ignoring and Attending Processes in Attention Control
Published on: July 5, 2015
Neural Markers of Attention at 6 Months Associate With Later Attentional Control Performance
Alexandra Hendry1, Manuela Stets2, Pasco Fearon3
1Department of Experimental Psychology, University of Oxford, Oxford, UK.
Insights
Infant brain activity, specifically 3-6 Hz power, at 6 months predicts later attentional control and executive function. This neural marker is linked to how well babies manage distractions and maintain focus.
Area of Science:
- Neuroscience
- Developmental Psychology
- Cognitive Science
Background:
- Attentional control is crucial for developing executive functions.
- Individual differences in attentional control may be stable from 6 months of age.
- Understanding infant neural processes of attention is vital.
Purpose of the Study:
- To investigate neural processes underlying attentional control in 6-month-old infants using electroencephalogram (EEG).
- To examine neural activity preceding looking behaviors in an attentional control task.
- To determine if 6-month neural markers predict 9-month behavioral measures of attentional control and executive function.
Main Methods:
- Analyzed EEG data from 59 6-month-old infants during an attentional control task.
- Examined neural activity (3-6 Hz and 6-9 Hz power, P1 ERP component) preceding looking behaviors.
- Correlated 6-month EEG markers with 9-month behavioral assessments (Freeze-Frame and A-not-B tasks).
Main Results:
- Frontal 3-6 Hz power was greater in trials where infants looked to a distractor versus not looking.
- Higher 3-6 Hz power (when not looking at distractor) at 6 months predicted less distractibility at 9 months.
- Higher 3 Hz power (when looking at distractor) at 6 months strengthened the prediction of 9-month behavior.
Conclusions:
- Frontal 3-6 Hz activity is implicated in infant attentional control.
- This neural activity may reflect processes like anticipatory attention and attention maintenance.
- 6-month EEG markers of attentional control show predictive validity for later cognitive development.
Abstract:
Attentional control is key to the development of executive functions. Previous research indicates that individual differences in attentional control behaviour may be stable from 6 months. Here, we analyse electroencephalogram data collected from 59 6-month-olds to gain insights into the neural processes underlying attentional control in infancy. First, we examine the neural activity preceding distinct looking behaviours in an attentional control task at 6 months. Second, we test whether those neural markers show predictive associations to behavioural measures of attentional control (Freeze-Frame task) and executive function (A-not-B task) in the same infants at 9 months. Whilst our data do not show evidence that 6-9 Hz power is implicated in attentional control at 6 months, or that the P1 ERP component plays a role in our attentional control task, we do find evidence that corroborates and extends research linking 3-6 Hz power to attentional control. At the group level, frontal 3-6 Hz power recorded whilst looking to a central target before the onset of a peripheral distractor was greater during trials where infants subsequently looked to the distractor, compared with trials where they did not look. Higher 3-6 Hz power in trials where the infant did not look to a peripheral distractor was predictive of less distractibility at 9 months, and higher 3 Hz power in trials where infants did look to the distractor strengthened the predictive association from 6-month EEG to 9-month behaviour. We suggest 3-6 Hz activity may be sensitive to multiple processes, such as anticipatory attention, and the ability to maintain attention on a target.
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