Every moment of our lives involves change. We adapt, grow, and develop new skills constantly. But what distinguishes genuine learning from simple biological growth or temporary changes? Understanding the nature of learning is fundamental to education and instructional design, helping us create more effective learning environments and experiences.

Table of Contents

What is learning? A foundational definition

Learning is more than just memorizing facts or going through the motions of education. Richard E. Mayer defines learning as a relatively permanent change in a person’s knowledge or behavior that results from experience. This definition might seem straightforward, but it contains three critical elements that distinguish learning from other types of changes we experience throughout life.

The first element emphasizes that learning creates lasting change. When you learn something, it stays with you long-term rather than disappearing after a few minutes or hours. The second element focuses on what changes-either the knowledge stored in your memory or your actual behavior. The third element identifies the source of change: your experience and interaction with the environment, not temporary states like fatigue, motivation, drugs, or physical condition.

Why this definition matters

This precise definition helps educators and instructional designers distinguish between genuine learning outcomes and temporary behavioral shifts. For instance, if a student performs well on a test immediately after cramming but cannot recall the information a week later, true learning may not have occurred. The knowledge wasn’t permanently encoded into long-term memory.

The core components of learning

The learning process involves several interconnected components, each playing a distinct role in how we acquire and retain new knowledge and skills.

Duration and permanence

One of the most important characteristics of learning is its long-term nature. Unlike short-term memory that fades quickly, learned information becomes integrated into our cognitive structure. This doesn’t mean learning is absolutely permanent-we can forget things over time-but the changes should last considerably longer than momentary awareness or attention.

Think about learning to ride a bicycle. Once you’ve mastered this skill, you can typically return to it years later, even if you haven’t practiced. The motor patterns and coordination have been encoded into your long-term memory, demonstrating the permanence that characterizes true learning.

Content and behavior focus

Learning can manifest in two primary ways: changes in knowledge or changes in behavior. Knowledge changes occur in the content and structure of information stored in memory. You might learn historical facts, mathematical formulas, or theoretical concepts that expand your understanding of the world.

Behavioral changes, on the other hand, are observable modifications in how you act or respond to situations. When you learn professional etiquette, conflict resolution strategies, or technical skills, these manifest as different behaviors in appropriate contexts. Both types of learning are valuable and often interconnected-new knowledge frequently leads to behavioral changes, and practicing new behaviors can deepen understanding.

Experience as the catalyst

Perhaps the most defining characteristic of learning is that it results from experience rather than biological processes. Learning occurs through our ongoing interactions with the environment, whether through formal education, personal practice, observation, or trial and error.

This experiential nature is what separates learning from changes caused by drugs, illness, fatigue, or other physiological factors. If your performance declines because you’re exhausted, that’s not a learning issue-it’s a temporary state. Similarly, if medication improves your focus, the improvement isn’t learning; it’s a pharmacological effect.

Learning vs. maturation: Understanding the distinction

One of the most important distinctions in educational psychology is between learning and maturation. While both lead to behavioral changes, they operate through fundamentally different mechanisms.

Maturation refers to biological and developmental processes that unfold automatically as we age, driven primarily by genetic programming. These changes happen without the need for practice, training, or specific environmental input. For example, when infants develop the ability to sit up, stand, or walk, these milestones emerge largely through maturation-the nervous system and muscular system developing according to biological timetables.

Learning, by contrast, requires experience, practice, and interaction with the environment. You cannot learn to play the piano, speak a foreign language, or solve algebraic equations simply by getting older. These abilities require deliberate practice, instruction, and engagement with relevant materials and experiences.

The interplay between learning and maturation

While distinct, learning and maturation are closely interconnected. Maturation provides the biological foundation that makes certain types of learning possible. A toddler cannot learn to read until their brain has matured sufficiently to process written symbols and connect them with sounds and meanings. Similarly, abstract reasoning skills become possible only when the brain develops the necessary cognitive structures.

Understanding this relationship helps educators recognize developmental readiness. Teaching a concept before a learner has the necessary maturation can lead to frustration and ineffective learning. Conversely, waiting too long after readiness has been achieved can mean missing optimal learning windows.

Learning in action: Daily examples

Learning permeates every aspect of our daily lives, often in ways we barely notice. Two common examples-driving and symbol interpretation-illustrate how learning shapes our everyday behaviors and understanding.

Mastering driving skills

Learning to drive demonstrates all three components of Mayer’s definition perfectly. When you first sit behind the wheel, the experience is overwhelming-you must coordinate multiple actions simultaneously while processing visual information and making split-second decisions. Through repeated practice and experience, these separate actions become integrated into smooth, automatic behaviors.

The permanence of driving skills is evident in how long they persist. Even people who haven’t driven for years can typically resume driving after a brief adjustment period. The knowledge-understanding traffic rules, interpreting road signs, judging distances-and the behaviors-steering, braking, accelerating-have been encoded into long-term memory through experience.

Moreover, driving skills are clearly learned rather than maturational. No amount of biological development will teach someone to operate a vehicle; it requires instruction, practice, and experiential learning. New drivers must experience various road conditions, traffic situations, and vehicle responses to develop competence.

Understanding and using symbols

Symbol interpretation is another pervasive form of learning that shapes how we navigate the world. From traffic signs to written language, from mathematical notation to emoji, our lives are filled with symbolic representations that carry meaning.

Consider how you learned to interpret a red traffic light. Initially, someone had to explain that red means stop. Through repeated exposure and reinforcement, you developed an automatic association between the red light and the behavior of stopping. This learned response is now so ingrained that you might feel uncomfortable or anxious if a driver ahead doesn’t stop at a red light.

Similarly, reading involves learning to decode symbolic representations of language. Each letter is an arbitrary symbol that represents specific sounds. Through extensive practice and experience, we learn to recognize these symbols instantly and extract meaning from combinations of them. This skill requires years of learning and doesn’t emerge through maturation alone-children raised without exposure to written language don’t spontaneously develop reading ability.

Implications for education and instructional design

Understanding the true nature of learning has profound implications for how we design educational experiences. Recognizing that learning requires experience and practice means creating opportunities for active engagement rather than passive information reception. Acknowledging the importance of permanence means focusing on deep understanding and long-term retention rather than short-term performance.

The distinction between learning and maturation reminds educators to consider developmental readiness when introducing new concepts and skills. Effective instructional design aligns with how the brain processes and stores information, respecting both maturational limitations and learning potential.

What do you think? How has understanding the difference between learning and maturation influenced your approach to education or training? What examples of learning from your own life best illustrate the permanence and experience-based nature of genuine learning?

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References
  1. https://www.teachwithmrst.com/post/what-is-learning
  2. https://www.mbaknol.com/management-principles/components-of-learning/
  3. https://en.wikipedia.org/wiki/Learning
  4. https://www.psychologydiscussion.net/learning/learning-theory/difference-between-maturation-and-learning-psychology/2497
  5. https://pediaa.com/what-is-the-difference-between-learning-and-maturation/
  6. https://learning-theories.com/cognitive-theory-of-multimedia-learning-mayer.html

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Instructional Design

1 Learning and Instruction

  1. What is Learning?
  2. Learning and Change in Behaviour
  3. Basic Conditions of Learning
  4. Approaches to Learning
  5. Perspectives of Learning
  6. What is Instruction?
  7. Relationship Between Learning and Instruction

2 Behaviouristic School of Thought

  1. What is Behaviourism?
  2. Learning through Stimulus-Response (S-R)
  3. Pavlov and Classical Conditioning
  4. Watson’s Learning Theory
  5. Thorndike and Connectionism
  6. Skinner and Operant Conditioning
  7. Gagne’s Learning Theory
  8. Social Learning Theory
  9. Application of Behaviourism in Instructional Design

3 Cognitivist School of Thought

  1. What is Cognitivism?
  2. Information Processing Theory
  3. Jean Piaget’s View of Cognitive Development
  4. Bruner’s Theory of Instruction
  5. David Ausubel’s Theory of Learning
  6. Humanistic Perspective in Learning
  7. Cognitive Theories and Their Implications

4 Constructivist School of Thought

  1. What is Constructivism?
  2. Constructivism and Instructional Design
  3. Discovery Learning
  4. Zone of Proximal Development (ZPD)
  5. Scaffolding
  6. Cognitive Apprenticeship
  7. Contextual Learning
  8. Anchored Instruction

5 Instructional Design- An Overview

  1. Concept of Instructional Design
  2. Gagne’s Nine Events of Instruction
  3. Banathy’s Design of Instructional Systems
  4. Keller’s Motivational Design of Instruction
  5. Dick and Carey Model
  6. Bergman and Moore Model
  7. Smith and Ragan Model
  8. ASSURE Model
  9. Constructivist Instructional Design Models

6 Component Display Theory (CDT)

  1. Component Display Theory (CDT): An Overview
  2. Dimensions of CDT
  3. CDT and Instructional Strategies
  4. CDT: Recent Developments
  5. Implications of CDT for Designing Instruction

7 Elaboration theory (ET)

  1. Elaboration Theory (ET): An Overview
  2. Components of Elaboration Theory
  3. Developing an Elaboration Sequence
  4. Implications of Elaboration Theory to Instructional Design

8 Cognitive Load Theory (CLT) and Cognitive Flexibility Theory (CFT)

  1. The Changing Trend Between Instructional Psychology and Instructional Design
  2. Cognitive Teaching Model
  3. Types of Cognitive Load
  4. Predictions for Student Learning
  5. The Cognitive Flexibility Theory (CFT)

9 Theory of Multiple Intelligence

  1. What is Intelligence?
  2. Multiple Intelligences: An Overview
  3. Howard Gardner’s Theory of Multiple Intelligences
  4. Components of Multiple Intelligences
  5. Implications of Multiple Intelligences Theory

10 The 4C/ID (The Four Component/Instructional Design) Model

  1. Philosophical and Theoretical Foundations of 4C/ID Model
  2. The Four Components: Blueprint
  3. Ten Steps for 4C/ID Model
  4. Application of 4C/ID: Example of Wiki Skills Training
  5. Educational Implications of 4C/ID Model

11 The ADDIE Approach (Analyze, Design, Develop, Implement and Evaluate)

  1. Instructional Design (ID) Approach: ADDIE
  2. Analysis Phase: Learning Environment Analysis
  3. Design Phase: Designing for Learning
  4. Development Phase
  5. Implementation Phase
  6. Evaluation Phase: Evaluation of Learning
  7. Adaptation to the ADDIE Approach (Rapid Prototyping)

12 Learners’ Characteristics and Learning Styles

  1. The Characteristics of Learners
  2. Learner Centric Approach
  3. Learning Styles: The Concept
  4. Families of Learning Styles
  5. Learning Styles in Distance Education

13 Designing Learning

  1. Need for Designing Learning
  2. Instructional Objectives and Designing Learning
  3. Taxonomies of Learning Objectives
  4. Designing a Blue-Print
  5. Evaluating Learning Objectives

14 Development of Learning Resource

  1. Concept of Learning Resources
  2. Significance and Need of Learning Resources
  3. Universal Design
  4. Features of Learning Resources
  5. Types of Learning Resources
  6. Guidelines for Designing Learning Resources

15 Evaluation of Learning

  1. Purpose of Assessing Learning
  2. Evaluation Measures
  3. Types of Evaluation
  4. Kirkpatrick Model of Assessment
  5. Assessment Techniques in Distance Learning

16 Instructional Design in Classroom

  1. Classroom Instructional Environment
  2. Levels of Instructional Design
  3. Analysis of Syllabus and Unit Design
  4. Lesson Planning
  5. Implementation of the Lesson Plan

17 Instructional Design in Training

  1. Concept of Training and Phases of Designing Training Programmes
  2. Context Analysis
  3. Job Analysis
  4. Task Analysis
  5. Gap Analysis
  6. Cost Analysis
  7. Trainee Analysis
  8. Preparing Training Objectives
  9. Organizing Training Content
  10. Designing Instructional Strategies
  11. Selecting Training Methods and Media
  12. Designing Assessment Strategies
  13. Course Description: Training Plan, Lesson Plans

18 Instructional Design in Distance Education

  1. Need for Designing Instructions in Open and Distance Education
  2. Characteristics of Open and Distance Education Learners
  3. Goals, Aims and Objectives
  4. Course Planning and Sequencing the Curriculum
  5. Developing Assessment Based on Bloom’s Taxonomy
  6. Illustrative Devices

19 Instructional Design in Multimedia

  1. What is Multimedia?
  2. Interactivity and Interaction
  3. Interactive Multimedia (IMM)
  4. Designing of IMM
  5. ADDIE Approach

20 Instructional Design in e-Learning

  1. What is e-Learning?
  2. Designing e-Learning Courses
  3. Phases of Designing e-Learning Courses
  4. Rapid Instructional Design and Rapid e-Learning

21 Portfolios- A Review

  1. Portfolio: Concept and Purpose
  2. Portfolios and Instructional Design
  3. Types of Portfolios

22 Design and Development of ePortfolios

  1. Meaning and Importance of ePortfolios
  2. Components of an ePortfolio
  3. Types of ePortfolios
  4. Steps in Developing an ePortfolio