Chapter 1 Notes: Introduction to Motor Behavior and Mind-Body Connection
Chapter 1 Notes: Introduction to Motor Behavior and Mind-Body Connection
Learning Objectives
- Define and explain the scope of motor behavior and motor skills
- Define and differentiate motor control and motor learning
- Explain the concept of psychophysics and the mind–body connection
- Understand the importance of skilled motor performance in everyday life
- Define and explain the differences between skill and ability
- Understand how motor skills become psychomotor skills and why this distinction is important
Defining Motor Behavior, Motor Skill, and Movement
- Motor Behavior: the study of human movement created by muscular actions, including why and how movements are planned, produced, executed, learned, and refined
- Includes both physiological (motor control) and psychological (motor learning) aspects of movement
- Motor Skill: a voluntary and intentional movement with an outcome purpose
- Movement: any voluntary or involuntary, active or passive movement made by the body
The Mind–Body Connection
- Mind–body connection: the bidirectional relationship between the mind’s thoughts and emotions and the body’s physiological functioning
- This connection manifests in sensation, perception, and psychophysics
Sensation, Perception, and Psychophysics
- Sensation: the physiological detection of physical and physiological signals (e.g., temperature, muscle stretch)
- Perception: the brain’s interpretation of sensation
- Psychophysics: the study of the sensitivity and the relationship between detection and interpretation
- Interpretation is crucial and can be as vital as the raw sensory data itself
- Notable psychological factors influencing sensory interpretation include attention, expectation, motivation, emotion, past experiences, and context
Psychophysics and Perceived Exertion
- Applied example: Visual Analog Scales (VAS) for pain are common psychophysical tools
- Perceived exertion (RPE): one’s subjective evaluation of how hard they think they are working
- Based on how hard one is working (e.g., heart rate) and how hard they think they are working (perceived exertion)
- Cognitive factors (e.g., motivation, expectations) influence perception
- Question posed in the material: Are work limits set according to human physiological limits?
- Borg’s RPE scale is the most common one used in exercise settings
- RPE scales can be used to illustrate the relationship between effort and exertion and are accessible for children
Perception–Action Coupling
- Perception–action coupling: motor actions are often tied to what we perceive
- Example: A ball coming toward the head is detected, perceived as a threat, and leads to ducking
- If the ball is not perceived as a threat, the motor response may differ (e.g., raising a hand to catch)
- Perception of ball attributes (speed, weight, size, texture) is influenced by circumstances, experiences, and other factors
Importance of Motor Skills
- Motor skills are important not only for development but also for sports, rehabilitation, independence in daily life, work, play, and social interaction
- A richer motor skill repertoire supports communication, expression of art, and emotion
- Problem solving: a broader set of motor skills provides options in emergency and nonemergency situations
The Nature of Motor Skills
- Motor vs Skill: Motor refers to muscles and movement; motor skills refer to purposeful, skilled, goal-directed movements
- Skill vs Ability/Talent/Coordination:
- Skill: quality of movement
- Ability: general capacity to perform skilled actions; you can have ability without skill, but not skill without ability
- Talent: genetic abilities (terminology varies; often discussed in other chapters)
- Coordination: the specific patterning of body and limbs to the environment
Motor Skills and Psychomotor Skills
- Motor skills come in varieties; those with cognitive elements are called psychomotor skills (perceptual-motor skills)
- Characteristics of psychomotor skills: precision, manual control, cognitive processing/decision making, and reaction time
- Nonpsychomotor skills include actions like running and jumping
In the Lab vs. on the Volleyball Court
- Contexts can shift whether a motor skill is considered psychomotor
- Example: avoiding being tagged can be considered psychomotor running in a game context
Summary of Chapter
- Motor behavior: study of movement, including mental, physiological, and biomechanical aspects
- Motor learning emphasizes the mental aspects; motor control emphasizes physiological and biomechanical aspects
- Motor skills are purposeful and voluntary acts
- Mind–body connection is evident in psychophysical applications and perception–action coupling
- Motor skills with a large mental component are psychomotor skills
Practical and Real-World Implications
- Skilled motor performance enhances independence, problem solving, and adaptability in emergencies
- Understanding the mind–body connection supports rehabilitation, education, and coaching
- Differentiating skill, ability, talent, and coordination helps in assessment, training design, and talent development
Final Takeaways
- The mind–body system functions as an integrated unit: thoughts, emotions, and physiology jointly shape movement
- Perception shapes action through psychophysics and perception–action coupling
- Psychomotor skills reflect the integration of cognitive and motor processes, enabling precise, controlled, and timely actions