Motor Learning and Control (study)
Integrative Model for Facilitating Motor Skill Learning and Performance
Determine Intended Outcome
Define the goal or desired skill to be developed.
Create Situation Profile
Analyze the learner, environment/context, task.
Design and Implement the Learning Experience
Make an informed decision on how to develop and execute a structured learning experience.
Observe
Monitor the learner's performance during practice or execution.
Evaluate and Diagnose
Assess performance to identify strengths and areas for improvement.
Select and Implement Intervention for Skill Refinement
Apply targeted strategies to improve weak areas and enhance performance.
Overall idea
An integrative, systematic process to plan, implement, monitor, diagnose, and refine motor skill learning and performance.
Interaction of the Learner, the Task, and the Environment
LEARNER
Does the learner possess the underlying abilities to perform the task?
Is the task developmentally appropriate?
Has he or she had any past experiences that are relevant to the task?
Is he or she motivated to learn the task?
What individual differences might influence the acquisition of this task?
ENVIRONMENT
In what context will the task be performed?
Is that context predictable or unpredictable?
Is there a time limitation?
TASK
Does the task have a high perceptual component?
Is object manipulation required?
What body movements are required?
Must the task be performed under a variety of conditions, or must the learner be able to replicate the movement pattern consistently and accurately?
Motor Learning and Motor Control: Definitions
Motor Learning
Study of the processes involved in acquiring and refining motor skills and of variables that promote or inhibit that acquisition.
A multifaceted set of internal processes through which there is a relatively permanent change in human movement through practice.
Motor Control
The neural, physical, and behavioral aspects that underlie human movement.
Concerned with the execution of these processes that lead to skilled human movement as well as the factors that lead to the breakdown of such skills.
Motor Skill Learning vs Performance: Distinction
What is learning?
A change in the capability of a person to perform a skill that must be inferred from a relatively permanent improvement in performance as a result of practice or experience.
Indicators of learning
Improvement, Consistency, Persistence, Adaptability
What is a Motor Skill?
Performed to achieve an objective; goal oriented.
Require body and limb movements.
Voluntary.
Developed as a result of practice.
Must be learned or relearned.
Different from an Action.
Skill Classifications
Precision of movement
Gross vs Fine
Nature of movement organization
Predictability of the environment
Context in which skills are performed
Action requirements of the skills
Nature of Movement Organization
Discrete skills
Beginning and end points are clearly defined.
Serial skills
Collective sequences of multiple discrete skills.
Continuous skills
Beginning/end points are arbitrary; repetitive in nature.
Open–Closed Skill Continuum
Closed skills
Skills performed in stable, predictable environments.
Open skills
Skills performed in unpredictable, ever-changing environments (external factors may influence performance).
Multidimensional Classification System — Regulatory Conditions
Context in which skills are performed
Environmental factors specify movement characteristics needed for successful performance.
Two questions to classify
Are regulatory conditions stable (stationary vs not stationary)?
Do regulatory conditions remain fixed or change with each trial (low vs high inter-trial response variability)?
Multidimensional Classification System — Action Requirements
Does the performer have to change locations when performing the skill (whole body movement)?
Does the performer have to manipulate objects or opponents?
Multidimensional Classification System, with Task Examples
Regulatory Conditions vs Action Requirements (conceptual guide)
Examples (illustrative, not an exhaustive list):
Stationary and fixed: doing a sit-up; moving a chess piece; climbing a ladder.
Stationary and variable: writing ABCs with the foot (an example of unusual body usage); rehabilitation tasks.
In motion and fixed: following a stationary gesture or pattern; following a dance pattern placed on the floor (static pattern while moving or preparing to move).
In motion and variable: following a dance pattern that has been placed on the floor while moving; with a partner, following a floor-placed dance pattern; riding a bike or vehicle on a moving surface; catching a variety of different sized balls while balancing on one foot.
Additional examples include moving on a conveyor belt (work/industrial context), stepping onto a moving sidewalk with crutches, etc.
Some Individual Differences That Result in a Person’s Uniqueness
Height and body type
Physiological makeup
Learning styles
Type/amount of previous experiences
Motivation
Developmental level
Cultural background
Psychological makeup
Attitude
Confidence
Motor abilities
Differences in Motor Abilities
Genetic traits that are prerequisites for skilled performance
Initial hypothesis: a single general motor ability
Specificity hypothesis: abilities are independent of one another
Categorizing Motor Abilities (Fleishman, 1962)
Two broad categories:
Perceptual motor abilities
Physical proficiency abilities
Cerebral Challenge
Question prompts:
An individual can have abilities but not be skilled. True or False?
An individual can be skilled without ability. True or False?
Perceptual Motor Abilities in Fleishman’s Taxonomy
List of abilities:
Control precision
Multi-limb coordination
Response orientation
Reaction time
Speed of limb movement
Rate control
Manual dexterity
Finger dexterity
Arm-hand steadiness
Wrist-finger speed
Aiming
Definitions (brief):
Control precision: ability for highly controlled movement adjustments, especially involving larger muscle groups.
Multi-limb coordination: coordinate numerous limb movements simultaneously.
Response orientation: rapidly select a response from several alternatives (e.g., choice reaction time).
Reaction time: initiate a rapid response to an unexpected stimulus.
Speed of limb movement: rapid gross limb movements.
Rate control: continuous speed and direction adjustments with precision (e.g., tracking).
Manual dexterity: control of large object manipulations using arms/hands.
Finger dexterity: control of small object manipulations using fingers.
Arm-hand steadiness: precise arm-hand positioning with minimal strength/speed demands.
Wrist-finger speed: rapid wrist and finger movements.
Aiming: precise hand movements toward a small object in space.
Illustrations (typical examples): dribbling a soccer ball, volleyball spike, tailback opening, sprint start in swimming, hockey slap shot, mountain biking, water polo, texting on a phone, dentistry, blackjack dealing, marksmanship.
Physical Proficiency Abilities in Fleishman’s Taxonomy
Abilities:
Muscular endurance (stamina to exert force repeatedly)
Muscular power (maximum effort by combining force and velocity)
Static strength
Dynamic strength
Explosive strength
Trunk strength
Extent flexibility (range of motion)
Dynamic flexibility
Gross body coordination
Gross body equilibrium
Cardiovascular endurance (sustain effort)
Definitions and examples:
Static strength: generate maximum force against a heavy object in a static posture (e.g., pushing against a wall).
Dynamic strength: repeated or sustained movements with a load.
Explosive strength: rapid force production (e.g., jumps, sprint starts).
Trunk strength: strength of abdominal and back muscles for trunk control.
Extent flexibility: large-range motion of joints.
Dynamic flexibility: ability to perform rapid movement through a range.
Gross body coordination: coordinating multiple body parts simultaneously while moving.
Gross body equilibrium: maintain balance without relying on vision.
Endurance-related examples: climbing, diving, slalom skiing, tightrope walking (even under challenging conditions).
Practical Implications
We all have different abilities that can enhance or limit our capacity to become skilled at a task.
There is no guarantee of becoming skillful; we have potential, and practice helps realize that potential.
Children should have many developmentally appropriate movement experiences to support broad motor development.
Task Analysis
Determine the underlying abilities that are important for the successful performance of a specific skill.
Goal: gain a better understanding of a skill’s requirements by linking performance to underlying capabilities.
Task Analysis of a Volleyball Spike
Starting position
Approach
Jump
Underlying Abilities:
Control precision
Multi-limb coordination
Rate control
Aiming
Explosive strength
Trunk strength
Purpose: identify the set of abilities that contribute to optimal performance of the spike and inform training focus.
Cerebral Challenge (Review Questions from the Lecture)
True/False:
An individual can have abilities but not be skilled. True or False?
An individual can be skilled without ability. True or False?