⛹️♂️Motor Learning and Control Unit 6 Review
6.2 Dual-Task Performance and Automaticity
6.2 Dual-Task Performance and Automaticity
Unit & Topic Study Guides
Motor Learning & Control: Introduction
Neuroanatomy of Motor Control
Theories of Motor Learning
Stages of Motor Learning
Sensory–Motor Integration
Attention in Motor Skill Learning
Memory in Motor Learning and Control
Feedback in Motor Learning
Practice Conditions and Schedules
Transfer of Motor Skills
Individual Differences in Motor Learning
Motor Control Theories
Movement Planning in Motor Control
Postural Control and Balance
Gait and Locomotion
Motor Learning and Control in Older Adults
Motor Skill Development in Children
Motor Learning in Rehab
Motor Learning and Control in Sports
Future Directions in Motor Learning Research
Juggling tasks while mastering a new skill can be tricky. Dual-task performance helps us understand how well we've learned something. It's like texting while walking - if you can do both smoothly, you've nailed it!
Automaticity is the holy grail of skill learning. It's when you can do something without thinking, like riding a bike. This chapter digs into how we get there and why it's so important for becoming a pro at any motor skill.
Dual-task Performance and Motor Skills
Definition and Relevance
- Dual-task performance involves executing two tasks simultaneously that demand attention and cognitive processing resources
- Commonly used in motor learning research to evaluate automaticity and efficiency of motor skill execution
- Performing a motor skill while concurrently engaging in a secondary task indicates the skill's automaticity level and the performer's attentional capacity
- Example: Dribbling a basketball while having a conversation
- Helps identify stages of learning and progression towards automaticity in motor skill acquisition
- Performance decrement under dual-task conditions, compared to single-task, reveals attentional demands and cognitive resources required for the motor skill
Assessing Automaticity and Attentional Capacity
- Dual-task paradigms assess the ability to maintain motor skill performance while engaging in a secondary cognitive task
- Example: Typing while reciting a poem
- Minimal performance decrement in the primary motor task under dual-task conditions suggests a high level of automaticity
- Significant performance deterioration indicates the motor skill is not fully automatized and requires substantial attentional resources
- Dual-task performance helps quantify the attentional demands of different stages of motor learning
- Novice stage: High attentional demands, significant dual-task interference
- Autonomous stage: Low attentional demands, minimal dual-task interference
Automaticity in Motor Skill Performance

Characteristics of Automaticity
- Automaticity enables executing a motor skill with minimal conscious attention and cognitive effort
- Automatic processing is characterized by:
- Fast, accurate, and consistent performance
- Resistance to distractions or secondary tasks
- Example: Touch typing without looking at the keyboard
- Develops through extensive practice and repetition, leading to skill consolidation in long-term memory
- Automatic motor skills are less susceptible to interference and performance deterioration under stress or fatigue
Benefits of Automaticity
- Efficient allocation of attentional resources, allowing focus on higher-level strategies, decision-making, or additional tasks
- Example: Experienced drivers can maintain lane position while adjusting the radio
- Optimizes execution of well-learned skills, reducing cognitive load and facilitating multi-tasking in complex environments
- Example: Musicians can play an instrument while reading sheet music and listening to other performers
- Enhances performance consistency and reliability, even under challenging conditions
- Frees up cognitive resources for learning new skills or adapting to changing task demands
Dual-task Interference on Motor Skills

Factors Influencing Dual-task Interference
- Similarity of the tasks: Higher interference when tasks share common processing resources or response modalities
- Example: Talking on the phone while driving is more disruptive than listening to music
- Complexity of the motor skill: More complex skills are more susceptible to dual-task interference
- Example: Juggling while solving math problems is more challenging than walking while counting
- Individual's level of expertise: Novices experience greater dual-task interference compared to experts
- Example: Novice golfers struggle to maintain swing technique while focusing on target alignment
Manifestations of Dual-task Interference
- Increased reaction times, decreased accuracy, or impaired coordination in the primary motor task
- Example: Slower and less accurate tennis serves when simultaneously counting backwards
- Disruption of automatic processing, leading to reversion to more conscious control and less efficient performance
- Example: Experienced typists making more errors when engaged in a conversation
- More pronounced interference in early stages of motor learning when skill is not yet automatized
- Example: Novice dancers struggling to maintain balance when given additional instructions
Minimizing Dual-task Interference vs Enhancing Automaticity
Strategies for Minimizing Dual-task Interference
- Practice under dual-task conditions to develop ability to maintain performance with distractions or concurrent tasks
- Example: Basketball players practicing dribbling while responding to verbal cues
- Gradually increase complexity and attentional demands of secondary task during practice to facilitate automaticity development
- Example: Progressively adding more complex mental arithmetic while practicing a golf swing
- Utilize variable practice schedules involving different contexts or varying secondary tasks to enhance skill generalizability and robustness
- Example: Practicing a tennis serve with different secondary tasks (counting, verbal responses, visual tracking)
Techniques for Enhancing Automaticity
- Incorporate implicit learning techniques (analogy learning, errorless learning) to minimize reliance on explicit knowledge and promote automatic skill execution
- Example: Using a metaphor to convey the key movement pattern of a soccer kick
- Employ attentional focus strategies (external cues, holistic focus) to reduce cognitive load and facilitate automaticity
- Example: Focusing on the sound of the ball striking the racket in tennis serves
- Use mental rehearsal and imagery techniques to strengthen mental representation of the motor skill for more automatic and efficient performance
- Example: Mentally practicing a gymnastics routine before actual execution
- Provide augmented feedback that directs attention to critical aspects of the skill to optimize performance and reduce susceptibility to dual-task interference
- Example: Highlighting key body positions or movement sequences in video feedback of a dance routine