Student Development and Learning · 17 min read
How Students Learn
This chapter covers Competency 0002: learning processes. You will review the major learning theories and what each looks like in a secondary classroom, how students construct meaning and build skills, how to make knowledge accessible to all learners, and how to develop independent, reflective, self-regulated students. Exam questions in this area usually describe a lesson or a learner and ask which strategy is most likely to promote understanding, retention, transfer or ownership of learning.
The Big Picture: Five Families of Learning Theory
Learning theories explain how people acquire knowledge, skills and attitudes. No single theory explains everything, and skilled teachers draw from several. The exam expects you to recognize each theory from a classroom description and to know which one best explains or supports a particular practice.
Major Learning Theories at a Glance
| Theory | Key Figures | Core Idea | Classroom Look |
|---|---|---|---|
| Behaviorism | Pavlov, Skinner, Thorndike | Learning is a change in observable behavior shaped by consequences | Reinforcement, practice, clear routines |
| Cognitivism and information processing | Atkinson and Shiffrin, Miller, Sweller | Learning is how the mind encodes, stores and retrieves information | Chunking, retrieval practice, reducing overload |
| Constructivism | Piaget, Bruner, Dewey | Learners build understanding from experience and prior knowledge | Inquiry, problem solving, discovery |
| Social cognitive theory | Bandura | People learn by observing others and believing in their ability | Modeling, self-efficacy, goal setting |
| Sociocultural theory | Vygotsky | Learning is social and mediated by language and culture | Scaffolding, collaboration, discussion |
Behaviorism
Behaviorism focuses on observable behavior rather than internal mental states. In classical conditioning, described by Ivan Pavlov, a neutral stimulus becomes associated with one that naturally produces a response. A student who was humiliated during a math test may begin to feel anxious at the sight of any test paper, a conditioned emotional response. In operant conditioning, developed by B. F. Skinner, behavior is shaped by its consequences.
Operant Conditioning Terms
| Term | What Happens | Effect on Behavior | Example |
|---|---|---|---|
| Positive reinforcement | Something pleasant is added | Increases | Specific praise for a well-supported claim |
| Negative reinforcement | Something unpleasant is removed | Increases | No homework for students who finish the lab in class |
| Positive punishment | Something unpleasant is added | Decreases | Extra cleanup duty after misusing equipment |
| Negative punishment | Something pleasant is removed | Decreases | Losing free-choice time |
Common Trap: Negative reinforcement is not punishment. "Negative" means something is taken away, and "reinforcement" means behavior increases. If a student's behavior is strengthened because an unpleasant condition stops, that is negative reinforcement.
Other behaviorist ideas include shaping (reinforcing successive approximations of a target behavior), extinction (a behavior fades when reinforcement stops) and reinforcement schedules. Continuous reinforcement builds a new behavior quickly, while intermittent (partial) reinforcement makes behavior more resistant to extinction. Behaviorist principles underlie classroom routines, positive behavior supports, drill and practice software and mastery learning with immediate feedback.
Exam Tip: Behaviorism is the best fit when a question is about establishing a routine, increasing a specific observable behavior or explaining why an attention-seeking behavior continues. If a student keeps calling out and the teacher responds each time, the attention is reinforcing the behavior.
Cognitivism and Information Processing
Cognitive theories treat the mind somewhat like a system that takes in, processes, stores and retrieves information. The classic multi-store model includes three components.
Sensory memory briefly holds a large amount of incoming information. Only what receives attention moves on.
Working memory (short-term memory) is where active thinking happens. It has a very limited capacity, classically estimated at about seven items, plus or minus two, and more recent research suggests about four meaningful chunks. Information fades within seconds unless it is rehearsed or processed.
Long-term memory has a vast capacity and stores knowledge organized into schemas, networks of related concepts.
Learning requires encoding information into long-term memory in meaningful, connected ways and later retrieving it. Strategies that support encoding include elaboration (connecting new information to what one already knows), organization (outlines, concept maps, categories), dual coding (combining words with visuals), mnemonics and chunking (grouping information into meaningful units). Retrieval practice, such as low-stakes quizzes and brain dumps, strengthens memory more than rereading. Spaced practice, spreading review over time, produces more durable learning than cramming, and interleaving (mixing problem types) improves the ability to choose the right strategy.
Cognitive load theory, associated with John Sweller, builds on the limits of working memory. Intrinsic load comes from the complexity of the material itself. Extraneous load comes from poor presentation, such as cluttered slides, unclear directions or having to split attention between a diagram and a separate explanation. Germane load is the productive effort of building schemas. Good instruction manages intrinsic load by sequencing and chunking, reduces extraneous load and promotes germane processing.
Classroom Example: A tenth-grade chemistry teacher notices students are overwhelmed when learning to balance equations. She breaks the process into steps, provides a worked example next to each practice problem, labels the diagram directly instead of using a separate key and removes decorative images from her slides. Later, she gradually removes the worked examples as students gain fluency. Each change reduces unnecessary load on working memory.
Memory Aid: Think of working memory as a small kitchen counter and long-term memory as a huge pantry. Clear the clutter off the counter (extraneous load), bring out ingredients a few at a time (chunking) and organize the pantry well (schemas) so you can find things later.
Metacognition, thinking about one's own thinking, also comes from cognitive psychology. It includes knowing which strategies work for you, planning how to approach a task, monitoring understanding while working and evaluating results afterward. It is discussed further later in this chapter.
Constructivism
Constructivism holds that learners actively construct knowledge by connecting new experiences to prior knowledge, rather than passively receiving it. Piaget's ideas of schemas, assimilation, accommodation and disequilibrium form the foundation of cognitive constructivism. Jerome Bruner promoted discovery learning and the spiral curriculum, in which key ideas are revisited at increasing levels of complexity across grades. Bruner also described three modes of representation: enactive (action-based), iconic (image-based) and symbolic (language and symbols). John Dewey championed learning by doing, connecting school to real life and democratic participation.
In a constructivist classroom, the teacher designs problems, investigations and experiences that challenge students' thinking, activates prior knowledge, surfaces misconceptions and guides students to build accurate understanding. Misconceptions are taken seriously because new ideas are interpreted through existing ones. A student who believes heavier objects fall faster will not simply abandon that idea after hearing a correct explanation; the student often needs to predict, observe a contradiction and reconcile it.
Classroom Example: An eighth-grade science teacher asks students to predict whether a large or small ball of clay will sink faster, record their reasoning, test it and then explain any surprises in small groups. The surprising result creates disequilibrium, and discussion helps students accommodate their understanding of density.
Common Trap: Constructivism does not mean leaving students to figure everything out alone. Research shows that pure, unguided discovery is less effective than guided inquiry, especially for novices. The best exam answers pair active student thinking with teacher guidance, feedback and structure.
Social Cognitive Theory
Albert Bandura's social cognitive theory bridges behaviorism and cognitivism. People learn by observing others, a process called observational learning or modeling, and they do not need to be reinforced directly to learn. Observational learning requires four processes: attention (noticing the model), retention (remembering what was seen), reproduction (being able to perform it) and motivation (having a reason to perform it). Vicarious reinforcement occurs when students see a peer rewarded for a behavior and become more likely to perform it themselves.
Bandura's reciprocal determinism describes a three-way interaction among personal factors (beliefs, expectations), behavior and the environment. Each influences the others.
Self-efficacy, a person's belief in their ability to succeed at a specific task, is one of Bandura's most important contributions. It strongly predicts effort, persistence and achievement. Self-efficacy comes from four sources.
Sources of Self-Efficacy
| Source | Description | Classroom Use |
|---|---|---|
| Mastery experiences | Succeeding at challenging tasks | Sequence tasks so students experience real success |
| Vicarious experiences | Seeing similar peers succeed | Use peer models and student exemplars |
| Verbal persuasion | Credible encouragement from others | Give specific, believable feedback |
| Physiological and emotional states | Interpreting anxiety or calm | Teach stress management; reduce test anxiety |
Mastery experiences are the most powerful source. Notice also that models who are similar to the learner, such as peers, are often more persuasive than experts.
Exam Tip: If a question describes a student who says "I'm just not good at writing" and gives up quickly, look for an answer that builds self-efficacy through manageable, successful experiences and specific feedback. General praise ("You're so smart") or simply telling the student to try harder is weaker.
Sociocultural Theory and Scaffolding
Vygotsky's sociocultural theory, introduced in Chapter 1.1, holds that learning is social, shaped by culture and mediated by tools such as language. Its classroom applications are central to this competency.
The zone of proximal development is the range of tasks a learner can complete with support but not yet alone. Scaffolding provides temporary, adjustable support within the ZPD and is gradually withdrawn, a process sometimes called fading. Effective scaffolds include modeling, think-alouds, sentence starters, graphic organizers, worked examples, guiding questions, partial outlines, checklists and peer support. The key feature of a scaffold is that it is temporary; a support that is never removed does not build independence.
The gradual release of responsibility model puts scaffolding into a lesson structure. The teacher moves from focused instruction ("I do") to guided instruction ("We do") to collaborative learning ("You do together") to independent work ("You do alone"). The teacher monitors and can move back a step when students struggle.
Classroom Example: A twelfth-grade English teacher teaching rhetorical analysis first models annotating a speech aloud, explaining her thinking. Next, the class annotates a second paragraph together. Then pairs analyze a short passage with a guide sheet, and finally, each student independently analyzes a new speech. The guide sheet is removed for the final task.
Comparing Theories in Action
Questions sometimes ask which theory best explains a teacher's practice. Look for the key signal in the scenario.
Reinforcement, rewards, consequences, observable behavior, routines: behaviorism.
Memory, attention, chunking, working memory, retrieval, cognitive load: information processing.
Prior knowledge, discovery, misconceptions, inquiry, building understanding: constructivism.
Modeling, observing peers, self-efficacy, vicarious reinforcement: social cognitive theory.
Collaboration, ZPD, scaffolding, more knowledgeable other, language as a tool: sociocultural theory.
How Students Construct Meaning and Acquire Skills
Learning new knowledge depends heavily on prior knowledge. Activating it with anticipation guides, K-W-L charts, quick writes or discussion helps students connect new information to existing schemas. When prior knowledge is missing, teachers build background with visuals, short texts, videos or experiences before the main lesson.
Skill acquisition follows a general progression: an early cognitive phase in which the learner understands what to do and makes many errors, an associative phase in which performance becomes smoother with practice and feedback, and an autonomous phase in which the skill becomes automatic. Automaticity frees working memory for higher-level thinking. A student who must sound out words or calculate basic facts has less capacity left for comprehension or problem solving. Deliberate practice, targeted practice with feedback on specific weaknesses, moves learners through these phases.
Transfer is the ability to apply learning in new situations. Near transfer applies learning to similar contexts, such as solving a new equation of the same type. Far transfer applies it to quite different contexts, such as using statistical reasoning from math class to evaluate a news story. Transfer is promoted by teaching for understanding rather than memorization, using varied examples, explicitly discussing when and why a strategy applies, connecting content to real-world contexts and asking students to explain the underlying principle.
Exam Tip: When a question asks how to help students apply knowledge in new situations, choose the answer that provides varied practice in authentic contexts and asks students to explain their reasoning. Repeated identical drills support fluency but not much transfer.
Higher-Order Thinking: Bloom's Revised Taxonomy and Webb's DOK
Bloom's revised taxonomy classifies cognitive processes from lower to higher order: remember, understand, apply, analyze, evaluate and create. In the revision, the levels became verbs, and "create" moved to the top above "evaluate." Teachers use the taxonomy to write objectives, plan questions and design tasks that move beyond recall.
Webb's Depth of Knowledge (DOK) describes the complexity of the thinking a task requires, not just the verb used.
Bloom's Revised Taxonomy and Webb's DOK
| Framework | Levels | What It Measures |
|---|---|---|
| Bloom's revised taxonomy | Remember, Understand, Apply, Analyze, Evaluate, Create | Type of cognitive process |
| Webb's DOK | 1 Recall and reproduction; 2 Skills and concepts; 3 Strategic thinking; 4 Extended thinking | Depth and complexity of the task |
The two frameworks differ in an important way. A task can use a high-level Bloom's verb but still be shallow. For example, "Analyze the chart by listing the three highest values" sounds like analysis but is really DOK 1 recall. DOK 3 tasks require reasoning, planning and evidence, such as justifying a claim with data. DOK 4 tasks require extended investigation over time, often across sources, such as designing and conducting an experiment and reporting results.
Classroom Example: In an eleventh-grade United States history class, a recall question asks which amendment abolished slavery (DOK 1). A deeper task asks students to compare two primary sources about Reconstruction and evaluate which one offers a more reliable account, citing evidence (DOK 3). A multi-week project asks students to research a local civil rights event using archives and interviews and present conclusions to a community audience (DOK 4).
Common Trap: Do not judge a task's rigor only by its verb. On the exam, the best answer for promoting higher-order thinking requires students to justify, compare, evaluate, design or create with evidence, not just to perform a task labeled with an impressive word.
Metacognition and Self-Regulated Learning
Metacognition includes metacognitive knowledge (knowing about oneself as a learner, about tasks and about strategies) and metacognitive regulation (planning, monitoring and evaluating one's learning). Strong learners ask themselves questions such as "What is this task asking?" "Do I understand this paragraph?" and "What would I do differently next time?"
Self-regulated learning, described in Barry Zimmerman's cyclical model, has three phases.
Teachers develop self-regulation by teaching strategies explicitly, modeling metacognitive thinking aloud, asking students to set and track goals, using exit tickets that ask "What was confusing today?" and having students analyze their errors after a test. Test corrections that require students to identify why an answer was wrong and what strategy would have helped are a classic metacognitive tool.
Classroom Example: After a unit test, a ninth-grade algebra teacher gives students an error analysis sheet. For each missed item, students classify the error as a careless mistake, a misunderstood concept or a missing skill, rework the problem and set one study goal for the next unit. Over the year, students begin to predict which problems they will find hardest and plan accordingly.
Growth Mindset and Attributions
Carol Dweck's research distinguishes a fixed mindset, the belief that ability is static, from a growth mindset, the belief that ability can develop through effort, effective strategies and help from others. Students with a growth mindset tend to embrace challenges and persist after setbacks. Teachers promote it by praising process (effort, strategies, improvement) rather than fixed traits, normalizing mistakes as part of learning, using "not yet" language and showing how the brain strengthens with practice.
Common Trap: Growth mindset is not just praising effort. Praising effort that is not producing progress can be hollow. The best responses combine recognition of effort with guidance on better strategies.
Organization, Time Management and Ownership of Learning
Many adolescents struggle with organization and time management because executive functions are still developing. Teachers can help by teaching students to use planners or digital calendars, breaking long assignments into checkpoints, providing rubrics and exemplars at the start, modeling how to estimate time and post-assessing actual time, and building routines for organizing notes and materials.
Ownership of learning grows when students have voice and choice, set personal goals, track their own progress (for example, on a mastery chart), help create success criteria and reflect on their growth. Ownership is linked to motivation and to the independence students need after high school.
Exam Tip: If a question asks how to promote independence or responsibility, the best answer usually gives students a structured role in planning, monitoring or evaluating their own learning. Choices that keep the teacher in charge of every decision, or that hand over full responsibility with no support, are weaker.
Making Knowledge Accessible for All Learners
Competency 0002 asks how to make knowledge accessible to English learners and students with exceptionalities. Chapter 1.3 covers this in depth, but the learning-process view is important. All students learn by connecting new information to prior knowledge, so building background is essential for students whose experiences differ from the curriculum's assumptions. Reducing extraneous cognitive load helps everyone, especially students with processing or attention challenges. Multiple representations (visuals, models, text, demonstrations) support students with different strengths and language levels. Scaffolds such as graphic organizers, sentence frames, guided notes and audio versions of text allow students to access grade-level content while building skills.
Technology can support varied needs: text-to-speech and speech-to-text tools, captioned videos, digital graphic organizers, adjustable-level texts, simulations that make abstract concepts visible and adaptive practice programs that provide immediate feedback. Technology should serve the learning goal, not replace good instruction.
Teacher and Student Roles
Learning theories imply different roles. In teacher-directed approaches grounded in behaviorism and explicit instruction, the teacher presents information clearly, models and provides structured practice with feedback. In constructivist and sociocultural approaches, the teacher acts as a facilitator or guide who designs experiences, poses questions and supports student thinking, while students take active roles as investigators, discussants and collaborators. Effective secondary teachers move between roles depending on the content and the learners. Novices learning a new skill often benefit from explicit instruction; students with background knowledge benefit from more open inquiry.
Home, School, Community and Classroom Factors
Learning is affected by factors beyond the lesson itself. Home factors include family expectations, language, access to quiet study space and technology, work and caregiving responsibilities, and stress. Community factors include access to libraries, mentors, internships and safe places to study. School and classroom factors include climate, relationships, expectations and grouping practices.
Grouping practices deserve special attention. Long-term, rigid ability grouping (tracking) can limit opportunities for students placed in lower groups and lower teacher expectations. Flexible grouping, in which groups change based on the task, the skill and ongoing assessment, avoids these drawbacks. Heterogeneous cooperative groups with clear roles and individual accountability support both academic and social learning, while short-term skill groups can target specific needs.
Teacher-student interaction matters as well. Warm, respectful relationships, high expectations communicated to all students, adequate wait time after questions and equitable participation strategies (such as randomly selecting students or using response cards) all support learning.
Classroom Example: A seventh-grade social studies teacher uses a pre-assessment on map skills, then forms three short-term groups for a week: one practices latitude and longitude with hands-on maps, one applies skills to a population-density task, and one designs its own thematic map. The following week, the class regroups into mixed teams for a project. Groupings change with the purpose, so no student is locked into a label.
Common Trap: Exam choices that place students in permanent groups based on a single test score are usually wrong. Look for flexible, data-informed grouping.
Key Takeaways
Know the five families of learning theory and the classroom signals for each: behaviorism, information processing, constructivism, social cognitive theory and sociocultural theory.
Working memory is limited; manage cognitive load with chunking, worked examples and clear presentation, and strengthen memory with retrieval and spaced practice.
Self-efficacy grows mainly through mastery experiences; praise process and strategies, not fixed traits.
Higher-order thinking depends on task depth, so use Bloom's revised taxonomy and Webb's DOK to plan rigorous, evidence-based tasks.
Build metacognition and self-regulation explicitly, and use flexible rather than rigid grouping.
Study coach
Ask about this chapter
Answers come only from “How Students Learn”. If the chapter doesn't cover it, the coach will say so.
Finished reading?
Lock it in with a quick Student Development and Learning quiz.