Chapter 5: Learning
More than a hundred years ago, crowds gathered in a Berlin courtyard to watch a horse do arithmetic. The horse was called Clever Hans, and his owner, a retired mathematics teacher, would ask him a question such as, “What is four plus three?” Hans would tap his hoof on the ground — one, two, three, four, five, six, seven — and stop. The answer was correct. He could tap out dates, count the people in the crowd, even work through small fractions. Newspapers were astonished. Had an animal truly learned mathematics?
A young psychologist named Oskar Pfungst was not convinced, so he designed a careful test. He discovered that Hans answered correctly only when the questioner already knew the answer and stood where the horse could see them. Remove either condition, and the clever horse was suddenly wrong. Hans had not learned arithmetic at all. He had learned something far subtler — to read tiny, unnoticed movements in the questioner’s posture that signalled the exact moment to stop tapping. For getting it right, he earned a carrot and warm praise.
So Hans really had learned. But what he learned, and how he learned it, is the puzzle this whole chapter sets out to unravel.
Diagram
Fig. 5.0-1 – illustration: a horse tapping its hoof before an astonished early-1900s crowd in a town courtyard, with the well-dressed questioner standing close by; a small pointer highlighting the questioner’s slight change in posture that the horse is watching
As you work through this chapter, keep these five questions in mind — by the end, you will be able to answer every one of them.
5.1 What Is Learning?
Think about everything you could not do on your first day of school and can do easily now — read a paragraph, cycle to the bus stop, greet a teacher politely, solve an equation. Almost none of this came built into you at birth. You picked it up, bit by bit, through doing, trying, and being corrected. That gradual picking-up is what psychologists mean by learning.
Learning matters enormously in psychology, because so much of what we do is not fixed. It is shaped by what happens to us. A large part of this chapter is about the different ways that shaping takes place — but first we need to be clear about what learning is, and, just as importantly, what it is not.
5.1.1 Defining Learning
In everyday speech, “learning” usually means gaining information — learning a poem, learning a formula. Psychologists use the word more broadly. For them, learning is any relatively lasting change in behaviour, or in the capacity to behave, that comes about through experience or practice.
Here, behaviour means anything an organism does that can, in principle, be observed or measured — a word spoken, a hand raised, even a fear felt inside.
Three ideas sit inside this definition, and each one matters:
- Change — learning always shows up as some difference in what a person can do, feel, or think.
- Experience or practice — the change must come from encountering the world, through doing, observing, or being taught, and not from bodily growth alone.
- Relatively permanent — the change lasts. A fact held in mind for a moment and then gone has not really been learned.
The learning psychologist Ernest Hilgard made the same point in a useful way: a change counts as learning only when it cannot be explained by inborn response tendencies, by maturation, or by temporary states of the body. We will look at those exclusions in a moment.
5.1.2 Characteristics of Learning
Several features follow from the definition. Knowing them helps you spot learning when it happens — and recognise when a change in behaviour is not learning at all.
- Learning is a process, not a finished product. It is the ongoing activity of changing, not a single result you reach and then stop.
- Learning is continuous and lifelong. It begins in infancy and never truly ends; a person keeps acquiring and adjusting behaviour from birth to death.
- Learning is a change in behaviour, and that change is not always an improvement. We learn helpful habits, but also unhelpful ones — a child may learn cooperation, and may equally learn to lie or to smoke.
- Learning depends on experience and practice. Something must happen — an action, an observation, a consequence — for learning to take place.
- Learning is universal. It occurs across ages, cultures, and species; a pigeon, a puppy, and a professor all learn, though not the same things.
- Learning is usually purposive. Most learning is directed towards a goal — gaining a reward, avoiding a harm, or solving a problem.
- Learning is usually active. It requires the learner’s own effort and participation, not merely passive exposure.
One further feature deserves care: learning is not always visible straight away. A student may take in a great deal from a lesson yet show none of it until an examination or a real situation calls for it. Behaviour that has been learned can stay hidden until there is a reason to display it. This idea will matter when we compare the theories later in the chapter.
5.1.3 Learning, Maturation, and Temporary States
The definition deliberately rules out certain changes in behaviour. Two of these exclusions are worth understanding clearly, because both are easy to mistake for learning.
Learning versus maturation
Many changes in what a child can do arrive simply through maturation — the natural unfolding of the body and nervous system as the child grows. A baby does not learn to sit up, and later to walk, mainly through practice. These abilities appear when the muscles and brain are ready, in much the same order for children everywhere. Maturation is driven largely by heredity and time, not by experience.
In real life, learning and maturation are woven together. A child cannot be taught to write until the hand muscles have matured enough to grip a pencil. So maturation often prepares the ground, and learning then builds upon it. Yet the two remain different: maturation comes from within, through growth, while learning comes from without, through experience.
Learning versus temporary states
A change in behaviour also fails to count as learning if it is merely temporary. Fatigue, illness, and certain drugs can all alter how a person behaves — a tired student reads slowly, a feverish child turns irritable — but these changes fade once the cause is removed. Learned changes, in contrast, are relatively lasting; they stay part of the person even after the situation has passed. This is exactly why the definition insists on a “relatively permanent” change.
5.2 How Learning Takes Place: Two Approaches
We now know what learning is. The harder question is how it happens. What actually goes on when a horse comes to tap on cue, or a child comes to read? Psychologists have answered this in strikingly different ways, and their answers are gathered into theories of learning — organised explanations, each built on careful experiments.
These theories fall into two broad families. It helps to meet the families first, before meeting the theories one by one, because the disagreement between them runs right through the chapter.
The behaviourist approach
The first family, the behaviourist approach, insists that learning should be studied only through what can be observed from the outside — the situations an organism meets, and the actions it produces in return. Behaviourists describe learning as the building of links, or associations, between a stimulus and a response.
A stimulus is any event or object that prompts a reaction — a bell, a smell, a question. A response is the reaction the organism makes — salivating, tapping, answering. Because everything is described in these terms, behaviourist accounts are also called stimulus–response (S–R) theories. For a strict behaviourist, if no change in behaviour can be seen, there is nothing to measure, and so nothing to call learning.
Three of the theories in this chapter belong to this family: Thorndike’s trial-and-error learning, Pavlov’s classical conditioning, and Skinner’s operant conditioning.
The cognitive approach
The second family, the cognitive approach, replies that this cannot be the whole story. A great deal of learning goes on inside the mind — in perceiving, thinking, remembering, and understanding — and it may not show up in behaviour at once, or at all. As we noted earlier, a learner can absorb something and keep it ready, unused, until a reason to display it arrives.
For cognitive theorists, the learner is an active processor of information, not merely a passive link joining a stimulus to a response. What the learner already knows, notices, and works out matters as much as the stimulus in front of them.
Two theories here belong to this family: Köhler’s insight learning and Bandura’s observational learning.
The map below shows how the five theories divide between the two families. Keep it in view as you read; each theory is, in part, an argument with the family across the divide.
Diagram
Fig. 5.2-1 – classification chart: “Theories of Learning” branching into two groups — “Behaviourist (S–R) theories: Thorndike (trial and error), Pavlov (classical conditioning), Skinner (operant conditioning)” and “Cognitive theories: Köhler (insight learning), Bandura (observational learning)”
5.3 Trial-and-Error Learning: Thorndike
The first of our behaviourist theories comes from Edward Lee Thorndike, an American psychologist working around the year 1900 and one of the founders of educational psychology. Thorndike asked a simple question: when an animal or a person meets a problem it has never faced before, how does it arrive at the answer?
His reply was trial and error. Faced with a fresh problem and no obvious solution, the learner tries out many responses, more or less at random. Most fail and are gradually dropped. The one that works is kept and, with repetition, becomes the reliable response to that situation. Thorndike described this as forming a bond, or connection, between a stimulus and a response — which is why his theory is also called connectionism or bond theory.
5.3.1 The Puzzle-Box Experiment
To study learning under controlled conditions, Thorndike built a set of “puzzle boxes.” He placed a hungry cat inside a box that was latched shut. A piece of fish lay just outside, in plain view but out of reach. The door could be opened only by the right action — pulling a loop of string, or pressing a lever inside the box, as shown in Fig. 5.3-1.
Diagram
Fig. 5.3-1 – labelled drawing of Thorndike’s puzzle box: a caged hungry cat inside, a string/lever that opens the trapdoor, and a piece of fish placed just outside the box
At first the cat behaved much as you would expect a trapped, hungry animal to behave. It clawed at the bars, pushed at the walls, squeezed at gaps, and mewed. These early movements were frantic and unplanned. Then, by chance, the cat happened to strike the string. The door opened, and it reached the fish. The fish was the reward that followed the successful response.
Thorndike returned the cat to the box, again and again, and timed each escape. On the second trial the cat still made many useless movements, but slightly fewer, and it escaped a little sooner. Trial after trial, the wasted movements dropped away and the escape time shortened. Eventually the cat pulled the string the moment it was placed inside.
When Thorndike plotted the time taken to escape against the number of trials, he obtained a learning curve — a line that falls steeply at first and then levels off, as you can see in Fig. 5.3-2. The shape of this curve was his central finding. The decline was gradual and smooth, not a sudden drop.
Diagram
Fig. 5.3-2 – learning curve: x-axis “successive trials”, y-axis “time taken to escape”; the plotted line falls steeply at first and then flattens
That smooth, gradual fall told Thorndike something important. If the cat had suddenly grasped how the latch worked, the curve would have plunged all at once, from many minutes to a few seconds, the instant understanding dawned. It did not. The gentle decline suggested that the cat was not reasoning its way out. It was slowly stamping in the successful response and weeding out the useless ones — learning by trial and error, not by insight.
5.3.2 Thorndike’s Laws of Learning
From his experiments Thorndike drew a set of laws describing when connections form and strengthen. Three of these are the primary laws and carry the weight of the theory.
The three primary laws
The law of readiness states that learning happens best when the learner is prepared — physically and mentally — to act. When a person is ready to do something and does it, the action brings satisfaction; forcing action when the person is not ready brings annoyance. A child who is ready and eager to read takes to it far more easily than one who is pushed before they are willing.
The law of exercise states that a connection is strengthened by practice and weakened by neglect. It has two sides: by the law of use, repeating a response to a stimulus strengthens the bond; by the law of disuse, letting a response go unpractised weakens it. In everyday terms, a skill improves with rehearsal and rusts without it.
The law of effect is the most important of the three, and the one with the longest future. It states that a response followed by a satisfying outcome becomes more likely to be repeated, while a response followed by a discomforting outcome becomes less likely. The cat pulled the string more readily because pulling it led to fish. This simple idea — that consequences shape behaviour — became the seed of Skinner’s later work.
The five secondary laws
Alongside the primary laws, Thorndike listed five supporting ones, which describe finer details of trial-and-error learning: the law of multiple responses (the learner makes varied attempts until one succeeds); the law of attitude (the learner’s mental set, mood, and motivation shape which responses appear); the law of prepotency of elements (the learner responds to the significant parts of a situation, ignoring the rest); the law of response by analogy (a response learned in one situation is carried over to a new but similar one); and the law of associative shifting (a response attached to one stimulus can be gradually shifted to a new stimulus).
5.3.3 Evaluation and Educational Implications
Thorndike’s theory was among the first to study learning experimentally, and its influence has been enormous. Even so, it has drawn serious criticism.
The main objection is that it explains learning as a purely mechanical stitching-together of stimulus and response, leaving no room for understanding, insight, or reasoning. Gestalt psychologists, whom we meet in section 5.6, argued that learners often grasp a problem as a whole rather than blundering into the answer. A second objection is that trial and error is wasteful: it spends time and energy on errors and suits simple problems far better than complex, higher-order ones such as mathematical proof or creative writing. A third came from Edward Tolman, who showed that learning can occur even without reward — a direct challenge to the strict law of effect.
Despite these limits, the theory offers practical guidance that classrooms still use.
Several teaching ideas follow directly from the laws. Because readiness matters, a topic is best introduced when learners are developmentally and motivationally prepared for it. Because exercise matters, drill and repeated practice help fix a skill. Because effect matters, feedback and reward — a word of praise, a good mark, visible progress — strengthen the behaviours that earned them. And because young children naturally explore by trying things out, trial and error remains a sound first strategy for early, simple learning, even if it is a poor tool for the most demanding tasks.
5.4 Classical Conditioning: Pavlov
Our second behaviourist theory begins with an accident. Ivan Petrovich Pavlov, a Russian physiologist, was not studying learning at all. He was studying digestion in dogs, and measuring how much they salivated when given food. In the course of this work he noticed something odd: the dogs began to salivate before any food reached them — at the sound of the attendant’s footsteps, or the sight of the feeding bowl. A reaction that should have needed food was now being triggered by a mere signal. Pavlov set his digestion work aside and spent years investigating why.
What he uncovered is classical conditioning — also called respondent conditioning. It is a reflexive, automatic kind of learning in which a signal that once meant nothing comes to trigger a response that another stimulus used to trigger.
5.4.1 Pavlov’s Experiment and the Steps of Conditioning
Pavlov placed a trained dog in a harness and used a tube to collect and measure its saliva, as shown in Fig. 5.4-1. This let him record salivation precisely, drop by drop.
Diagram
Fig. 5.4-1 – Pavlov’s apparatus: a dog held in a harness, a tube leading from its salivary gland to a device that measures and records the amount of saliva
He began with two facts. Food placed in a hungry dog’s mouth makes it salivate automatically. Because neither the food nor the salivation had to be learned, Pavlov called the food an unconditioned stimulus (UCS) and the salivation an unconditioned response (UCR). Separately, a bell rung near the dog produced no salivation at all; it was simply a neutral stimulus, meaningless to the dog’s mouth.
Pavlov then paired the two. Just before feeding the dog, he rang the bell; then the food followed. He repeated this pairing many times. After enough repetitions, he rang the bell alone, without food — and the dog salivated. The once-meaningless bell had become a signal for food. At this point Pavlov renamed it the conditioned stimulus (CS), and the salivation it now produced the conditioned response (CR).
It helps to see the process in three stages, drawn in Fig. 5.4-2:
- Before conditioning: the food (UCS) produces salivation (UCR) on its own, while the bell (neutral stimulus) produces nothing.
- During conditioning: the bell and the food are presented together, over and over, so the dog experiences the two as linked.
- After conditioning: the bell alone (now the CS) produces salivation (now the CR). A new, learned reflex has been built.
Diagram
Fig. 5.4-2 – three panels showing the steps of conditioning: (Before) food → salivation, bell → no salivation; (During) bell + food → salivation; (After) bell alone → salivation
The four terms are worth fixing firmly, because they return throughout the chapter. The UCS and UCR are the natural, unlearned pair. The CS and CR are the learned pair, built by pairing. Notice that the salivation looks the same either way — what changes is what triggers it.
5.4.2 Principles of Classical Conditioning
From his experiments Pavlov drew out several principles that describe how a conditioned response is built up, lost, and refined.
Acquisition is the first stage, in which the response is established and gradually strengthened as the CS and UCS are paired again and again. Timing matters here: conditioning works best when the signal comes just before the stronger stimulus — the bell shortly before the food — so that the bell genuinely predicts what follows. Ringing the bell after the food, or at the same instant, produces weak learning or none.
Extinction is the fading of the response. If the CS is presented over and over without the UCS — the bell rung repeatedly with no food — the conditioned response grows weaker and finally disappears. The dog stops salivating to a bell that no longer predicts anything.
Spontaneous recovery is a surprising return. After extinction, if the dog is given a rest and the bell is rung again later, the salivation reappears, though in a weaker form. The learned connection was not wiped out by extinction; it was suppressed, and it can briefly resurface. Fig. 5.4-3 shows these three phases together.
Diagram
Fig. 5.4-3 – graph of the strength of the conditioned response over time: rising during acquisition, falling to near zero during extinction, a smaller rise after a rest (spontaneous recovery), then falling again
Stimulus generalisation is the spread of the response to similar signals. A dog conditioned to a bell may also salivate to a buzzer or a whistle of roughly the same pitch. Stimuli resembling the CS can draw out the same CR.
Stimulus discrimination is the opposite, sharper skill: learning to respond only to the exact CS and not to others. If food follows a bell but never a drumbeat, the dog comes to salivate to the bell and to ignore the drum. Generalisation lets learning spread; discrimination keeps it precise.
5.4.3 Evaluation and Educational Implications
Classical conditioning rests on solid, repeatable experiments, and it explains an important slice of learning. But critics have pointed out its limits.
The chief criticism is that it treats the learner as passive — a body in which reflexes are wired together by events in the environment, with no thinking involved. It explains involuntary, reflex-like responses well, but not the many things we learn deliberately, by choice, or by understanding. Skinner, whom we meet next, objected that a stimulus need not always be present for learning to occur, since people often act on their own initiative. Gestalt psychologists added that much learning is directed towards a goal and grasped as a whole, not stamped in signal by signal.
Even so, classical conditioning shines a light on parts of everyday learning that other theories miss — especially our emotions and attitudes.
This gives teachers and learners practical footholds. Pairing learning with pleasant experiences — success, encouragement, an interesting example — helps a subject become a signal for positive feelings rather than fear. A mild fear or stage-fright can be eased by gently pairing the frightening situation with relaxed, supportive conditions, so the fear response weakens over time. And the twin principles of generalisation and discrimination describe real classroom learning: generalisation lets a skill such as arithmetic carry over from the classroom to the shop and the kitchen, while discrimination lets a learner tell apart concepts, sounds, or symbols that look or sound alike.
5.5 Operant Conditioning: Skinner
Pavlov’s dog was, in a sense, a passenger. Something was done to it — a bell rung, food given — and a reflex followed. Burrhus Frederic Skinner, an American psychologist, was struck by how much of our behaviour is not like this at all. We do not wait for a stimulus to pull a reflex out of us; we act first, on our own, and then meet the results of what we did. Skinner built a whole theory of learning around those results.
He called it operant conditioning — also instrumental conditioning — because the learner operates on the environment, and its behaviour is instrumental in producing an outcome. The core claim is simple and powerful: behaviour is shaped by its consequences. Actions that lead to good outcomes are repeated; actions that lead to bad outcomes are dropped.
Skinner drew a useful line between two kinds of behaviour. Respondent behaviour is reflexive and automatic — jerking your hand from a hot pan — and this is the territory of classical conditioning. Operant behaviour is voluntary and freely emitted — writing, cycling, raising a hand to answer — and this is what operant conditioning explains. His theory took Thorndike’s law of effect and turned it into a precise, testable science.
5.5.1 The Skinner Box Experiment
To study operant behaviour precisely, Skinner designed the operant chamber, better known as the Skinner box. It was a small box containing a lever, a food dispenser, and sometimes a light or a floor grid, as shown in Fig. 5.5-1. Each press of the lever could release a food pellet, and the apparatus recorded every press automatically.
Diagram
Fig. 5.5-1 – labelled drawing of the Skinner box: a rat inside, a lever on one wall, a food dispenser, a signal light, and a grid floor
A hungry rat was placed inside. At first it explored, sniffed, and moved about at random, much like Thorndike’s cat. Sooner or later it pressed the lever by accident, and a food pellet dropped in. Nothing forced the rat to press again — but the food had changed the odds. On later trials the rat pressed sooner and more often, until it was pressing the lever steadily and deliberately. The food was the consequence that had strengthened the action.
The difference from Pavlov is worth noticing. Pavlov’s dog salivated because a stimulus was placed before it. Skinner’s rat pressed the lever because pressing had paid off. In classical conditioning the response follows the stimulus; in operant conditioning the response comes first, and the consequence decides its future.
5.5.2 Reinforcement and Punishment
The two great tools of operant conditioning are reinforcement and punishment. Everything else in the theory is built from them.
Reinforcement is any consequence that increases the likelihood of the behaviour it follows. The stimulus that does this is a reinforcer. Reinforcement comes in two forms, and the words positive and negative here mean “adding” and “removing”, not “good” and “bad”.
Positive reinforcement strengthens a behaviour by adding something pleasant after it — praise for a good answer, a treat, a good mark. Negative reinforcement strengthens a behaviour by removing something unpleasant after it. When you fasten a seatbelt and the car’s irritating beep stops, the relief makes you more likely to buckle up next time. Both kinds of reinforcement make a behaviour more frequent; they simply do it by opposite routes.
Reinforcers themselves are of two types. Primary reinforcers satisfy a basic biological need and work without any learning — food for a hungry animal, water for a thirsty one. Secondary reinforcers are learned; they gain their power by being linked, over time, with primary ones. Money, marks, praise, and stars on a chart are secondary reinforcers — a coin means nothing to a newborn, yet it comes to reinforce a great deal of adult behaviour once we learn what it can buy.
Punishment is the opposite of reinforcement: any consequence that decreases the likelihood of the behaviour it follows. It, too, has two forms. Positive punishment adds something unpleasant — a scolding, extra chores. Negative punishment removes something pleasant — taking away screen time after a child misbehaves. Figure 5.5-2 lays out all four possibilities at a glance.
Diagram
Fig. 5.5-2 – a two-by-two grid: rows “Add a stimulus / Remove a stimulus”, columns “Pleasant / Unpleasant”, giving the four cells positive reinforcement, negative punishment, positive punishment, negative reinforcement; arrows noting reinforcement increases behaviour and punishment decreases it
The single most common confusion in this whole topic is between negative reinforcement and punishment, so it is worth pinning down.
5.5.4 Schedules of Reinforcement
Behaviour does not have to be reinforced every single time. In fact, when and how often reinforcement is given — the schedule of reinforcement — strongly affects how the behaviour is learned and how long it lasts.
Under a continuous reinforcement schedule, every correct response is reinforced. Learning is fast, but so is extinction: once the reinforcement stops, the behaviour drops away quickly, because its absence is noticed at once. Under a partial (intermittent) reinforcement schedule, only some responses are reinforced. Learning is slower, but the behaviour becomes far more stubborn — it resists extinction, because the learner is used to rewards not coming every time.
Partial schedules divide into four types, along two lines: whether reinforcement depends on a number of responses (ratio) or on the passage of time (interval), and whether that requirement is fixed or varying.
Of the four, the variable-ratio schedule produces the highest, steadiest rate of responding and is the hardest to extinguish. This is exactly why games of chance are so gripping: the reward could come on the very next try, so the person keeps going.
5.5.5 Evaluation and Educational Implications
Operant conditioning is one of the most widely applied theories in all of psychology. Its principles run through classrooms, clinics, animal training, and behaviour-change programmes. It has still drawn firm criticism.
The linguist Noam Chomsky argued that operant principles, drawn from animals pressing levers in bare boxes, cannot explain rich human achievements such as language, which children acquire far too quickly and creatively to be built up reinforcement by reinforcement. Critics add that Skinner largely ignored hereditary and biological factors — some responses are far easier to condition in a given species than others — and that the theory has little to say about creativity, insight, or a person’s own intentions. There is also a practical catch: a reinforcer only works if it truly matters to the learner, and choosing the wrong one leaves behaviour unchanged.
Even with these limits, the theory offers guidance that schools use every day.
Because reinforced behaviour grows stronger, rewarding good work — with praise, marks, or encouragement — is more effective than relying on punishment to stamp out bad work. Skinner himself argued strongly for reinforcement over punishment. Shaping and chaining guide the teaching of any complex skill, broken into small, rewarded steps. Secondary reinforcers make classroom systems such as star charts and token rewards work. And Skinner’s idea of breaking material into small steps, each followed by immediate feedback, gave rise to programmed learning and the teaching machines that are ancestors of today’s self-paced learning apps.
Finally, it is worth placing the two conditioning theories side by side, since students often blur them.
5.6 Insight Learning: Köhler
With Köhler we cross the divide from the behaviourist family to the cognitive one. Wolfgang Köhler, a German psychologist, belonged to the Gestalt school of psychology — from the German word for “form” or “whole” — which he helped found alongside Max Wertheimer and Kurt Koffka. Its guiding idea was that the mind naturally grasps whole patterns, and that the whole is more than the sum of its parts.
Applied to learning, this idea produced a sharp challenge to Thorndike. Where Thorndike saw slow, blind trial and error, Köhler saw something quite different in his animals: a pause, a moment of apparent thought, and then a sudden, complete solution. He called this insight — a flash of understanding in which the learner suddenly perceives how the parts of a problem fit together. Learning of this kind is insight learning.
5.6.1 Köhler’s Experiments with Chimpanzees
During the First World War, Köhler was stranded on the island of Tenerife in the Canary Islands, where a research station kept chimpanzees. He spent those years setting the apes problems and watching how they solved them, and later described the work in his book The Mentality of Apes.
His best-known subject was a bright chimpanzee named Sultan. In one problem, a bunch of bananas hung outside the cage, beyond arm’s reach. Sultan had two hollow sticks, each too short to reach the fruit, but one of which could be pushed into the end of the other to make a single long stick. Sultan first tried each stick on its own and failed. Then he sat, seeming to give up. Suddenly he picked up the two sticks, joined them into one long pole, and raked in the bananas — the solution arriving whole, in a single move.
In another problem, the bananas hung from the roof of the cage, out of jumping reach, while several wooden boxes lay in a corner. After some fruitless efforts, Sultan again paused — and then stacked the boxes one on top of another, climbed up, and seized the fruit, as shown in Fig. 5.6-1.
Diagram
Fig. 5.6-1 – Sultan the chimpanzee stacking wooden boxes to reach a bunch of bananas hanging from the roof of the cage
What struck Köhler was the manner of the solving. Sultan did not inch towards the answer through hundreds of small errors, as Thorndike’s cats had. He appeared to work on the problem in his mind, and then the answer came at once, cleanly, and could be repeated straight away. This is the aha experience — the feeling of a solution suddenly clicking into place.
5.6.2 Features of Insight Learning
Köhler’s observations point to several features that mark insight learning off from the behaviourist kinds.
- The learner responds to the whole situation, not to isolated parts. Insight depends on seeing how all the elements of a problem relate to one another.
- The solution appears suddenly and completely — the aha moment — rather than being built up gradually.
- It follows a period of mental manipulation, in which the learner reorganises how the problem is perceived before acting.
- Once reached, the solution is immediately repeatable and can be transferred to new but similar problems.
- It draws on higher mental processes — perception, memory, and thinking — rather than mechanical connection.
- It does not depend on reward; Sultan solved his problems for their own sake, not for a pellet given press by press.
5.6.3 Evaluation and Educational Implications
Insight learning restored something the behaviourists had left out — the role of understanding — and it remains influential. It, too, has honest limits.
Critics note that not all learning happens by insight; a great deal of simple, everyday learning really does proceed by trial and error or by conditioning. There is also a subtler point: insight is rarely as “pure” as it looks. A learner usually solves a problem by insight only after gaining relevant experience — even Sultan had handled sticks and boxes before. Some hidden trial and error may lie behind the sudden leap. And because it is hard to predict when insight will strike, or why it comes more easily to some people than others, the theory explains the flash better than it explains the differences between learners.
For teaching, the message is clear and valuable.
Because insight depends on grasping wholes, material is best presented in a way that reveals relationships rather than as disconnected facts to be memorised. Understanding should be prized over rote repetition. Well-designed problems, discovery-based tasks, and learning materials arranged so that learners can see how ideas connect all make insight more likely. And because the aha experience is deeply satisfying, encouraging learners to work problems out for themselves builds curiosity and a genuine appetite for learning.
5.7 Observational Learning: Bandura
Think of how much you have learned without ever being trained, rewarded, or conditioned — how to knot a tie, use a new slang word, react to a spider — simply by watching other people. This everyday truth is the starting point of Albert Bandura’s theory. Bandura, an American psychologist, argued that a great deal of human learning happens through observational learning: watching what others do, and what happens to them as a result.
His approach is often called social learning theory, because it puts other people at the centre of learning. It sits neatly between the two families we have met. Like the behaviourists, Bandura took reinforcement seriously; like the cognitive theorists, he insisted that attention, memory, and thinking stand between what we see and what we do. Three ideas anchor the theory: people can learn by observation; inner mental states matter for learning; and learning does not always show up immediately in behaviour.
5.7.1 The Bobo Doll Experiment
In 1961, Bandura, together with Dorothea Ross and Sheila Ross, carried out one of the most famous studies in psychology. They worked with 72 nursery-school children, aged about three to six years, to test whether children would copy aggression they had merely watched.
The children were divided into three groups, as shown in Fig. 5.7-1. One group watched an adult model behave aggressively towards a large inflatable clown doll called a Bobo doll — striking it, kicking it, and throwing it, with several distinctive actions. A second group watched a model play quietly and gently, ignoring the doll. A third, the control group, saw no model at all.
Diagram
Fig. 5.7-1 – the Bobo doll study design: 72 children split into three groups — an aggressive-model group, a non-aggressive-model group, and a no-model control group — each later placed in a room containing a Bobo doll
Each child was then, in turn, left in a room with a range of toys, including a Bobo doll. The children who had watched the aggressive model were far more likely to attack the doll themselves — and, tellingly, they reproduced the model’s specific, unusual actions, which they could only have picked up by watching. Children in the other two groups showed much less such aggression.
The finding was striking: the children had learned a new pattern of behaviour purely by observation, without any reward for doing so. Bandura also examined the influence of the model’s gender and, in later studies, of the consequences the model received — points we return to below. Because the study suggested that watching aggression can teach aggression, it carries obvious implications for the effects of violent media on children.
5.7.2 The Four Processes of Modelling
Watching a model does not guarantee learning. Bandura identified four processes that must all occur for modelling — learning from a model — to succeed. They form an ordered sequence, shown in Fig. 5.7-2.
Diagram
Fig. 5.7-2 – flow: attention (notice the model) → retention (remember the behaviour) → reproduction (be able to perform it) → motivation (have a reason to perform it)
First comes attention. The observer must actually notice the model. Attention is drawn more strongly to models who are attractive, skilled, of high status, or similar to the observer, and it depends too on the observer’s own interest.
Second is retention. The observer must store the observed behaviour in memory, so that it can be recalled later, even after the model has gone.
Third is reproduction. The observer must be physically able to carry out the behaviour. A child may watch a gymnast closely and remember every move, yet lack the strength and coordination to reproduce it.
Fourth is motivation. The observer must have a reason to perform the behaviour. This reason often comes from vicarious reinforcement — seeing the model rewarded for the behaviour makes the observer more likely to copy it, while seeing the model punished makes imitation less likely. We are influenced by other people’s consequences, not only our own.
This fourth process makes a deeply cognitive point. A child may learn a behaviour by watching, yet not perform it until there is a reason to. Learning and performance are not the same thing — the learning can sit ready, unseen, exactly as the cognitive theorists claimed.
Bandura also noted that models come in different forms: a live model (a real person acting in front of us), a verbal-instructional model (spoken descriptions and instructions), and a symbolic model (characters in books, films, television, and online media). Each can shape what we learn.
5.7.3 Evaluation and Educational Implications
Bandura’s theory filled an important gap. Conditioning could not easily explain how we acquire whole new behaviours we have never performed, and insight said little about the social world; observational learning covers both. Yet it has its critics.
The theory pays little attention to biological factors — the brain and genetic make-up that make some behaviours easier to learn than others. Critics also point out that behaviours such as aggression do not arise only from imitation; circumstances and personal temperament play their part. And the theory does not fully explain why harmful behaviours from media seem to be copied more readily than the many good and moral behaviours also on show.
The Bobo doll study itself invites scrutiny. A Bobo doll is designed to be knocked about, so hitting it may reflect play as much as genuine aggression, and behaviour towards a doll may not predict behaviour towards a person. There is also an ethical question in deliberately exposing very young children to modelled aggression.
For education and daily life, the theory is rich with lessons.
In the classroom, teachers and parents are themselves powerful models, so demonstrating the behaviour and attitudes they wish to see works better than merely describing them. Skills are efficiently taught by demonstration and worked examples that learners can watch and copy. Peers make effective models, especially when they are similar in age and background. And vicarious reinforcement can be used deliberately: praising one student for good work encourages the others who are watching to behave the same way.
5.8 Learning Styles
The theories so far describe how learning happens in general. But sit in any classroom and you will notice that the same lesson lands differently on different students. One follows best when the teacher draws a diagram; another remembers most from the discussion; a third only really grasps a topic once she has done it with her own hands. These differences point to what psychologists call a learning style — the particular way an individual prefers to take in and process information.
A widely used framework is the VAK model, which sorts learners by their preferred sense: visual (learning by seeing), auditory (learning by hearing), and kinaesthetic (learning by doing). A related version, associated with Neil Fleming, adds a reading-and-writing preference. In truth, we all use every one of these channels; the point is that most people lean on one of them more than the others.
Diagram
Fig. 5.8-1 – three simple icons side by side representing the learning styles: an eye (visual, “see it”), an ear (auditory, “hear it”), and a hand (kinaesthetic, “do it”)
One caution belongs here. People genuinely differ in what they prefer, but the stronger claim — that teaching each student only in their “own” style makes them learn better — has surprisingly little evidence behind it. The most effective learners tend to use all three channels together. Treat your style as a useful starting habit, not a fixed limit.
5.8.1 Visual Learning
A person with a visual learning style learns best when information is presented to the eye — in pictures, diagrams, charts, maps, written notes, and colour. Several regions of the brain work together to store information as images, and visual learners draw on this readily.
Visual learners tend to think in pictures and to remember what they have seen rather than heard. They usually like to sit where they can see clearly, take detailed and often neatly organised notes, and follow written instructions well. A page of dense speech may lose them, but a good diagram makes the idea click.
Such learners are helped by turning ideas into something to look at: converting notes into charts and mind-maps, colour-coding important points, using symbols and highlighting, and studying from illustrations and flowcharts rather than long unbroken text.
5.8.2 Auditory Learning
A person with an auditory learning style learns best through hearing and speaking. This learner needs to listen to information — and often to say it aloud — in order to take it in.
Auditory learners typically follow spoken explanations easily, enjoy discussion, and remember names, instructions, and conversations in detail. They may read aloud or move their lips while reading silently, and they can find a noisy room especially distracting, since sound is their main channel. They often learn well simply by listening, without needing to write much down.
They are helped by discussion and explanation: joining group discussions, reciting key points aloud, teaching the material to someone else, recording lessons to replay later, and using rhythm or a tune to fix facts in memory.
5.8.3 Kinaesthetic Learning
A person with a kinaesthetic learning style learns best by doing and moving — by touching, handling, building, and physically taking part. Because it relies so much on touch and movement, it is also called tactile learning.
Kinaesthetic learners struggle with long stretches of sitting still and listening, and come alive when they can act. They like hands-on tasks, experiments, and role-play, tend to have good physical coordination, and often learn practical skills — cycling, cooking, a sport — quickly by trying them. They frequently understand an idea only once they have connected it to a real activity.
They are helped by activity built into learning: doing experiments and projects, making models, acting out or dramatising material, using objects they can handle, and studying in short, active bursts rather than one long sitting.
5.9 Learning Disabilities
For most learners, the theories in this chapter describe learning that, with effort, goes reasonably smoothly. But for some children, one particular kind of learning — reading, or writing, or arithmetic — remains stubbornly hard, no matter how bright and capable they are in every other way. This is the world of learning disabilities, and understanding it is part of understanding learning as a whole.
A learning disability is a difficulty in acquiring a specific academic skill that is not explained by low intelligence, by a sensory handicap, or by a lack of opportunity to learn. It arises from differences in the way the brain processes certain information. Because these children are usually of average or above-average intelligence, and their struggle is confined to one skill, learning disabilities are often called “hidden disabilities”: nothing about the child looks disabled, yet a real gap sits between their ability and their achievement.
5.9.1 The Nature of Learning Disability
It is important to separate a learning disability from what is often loosely called a “learning problem”. A learning problem may be caused by poor eyesight or hearing, by a motor handicap, by intellectual disability, by emotional disturbance, or by environmental, cultural, and economic disadvantage. A learning disability is none of these. The child can see and hear normally, is of ordinary or high intelligence, and has had a fair chance to learn — and still finds one specific skill exceptionally difficult.
A few features define these conditions. They are specific, affecting a particular skill while leaving general ability intact. They involve a gap between the child’s clear potential and their actual achievement. They are neurological in origin, rooted in how information is processed rather than in effort or attitude. And they are lifelong, though with the right support the person can learn to manage and succeed.
One point must be stated plainly. The signs described in this section are what trained professionals look for; they are not a checklist for judging yourself or anyone else. A learning disability can only be identified through careful assessment by qualified specialists — never from a book, a quiz, or an online test.
5.9.2 Types of Learning Disability
Learning disabilities are grouped by the skill they affect. The four discussed here are the most commonly recognised, and each has its own pattern of difficulty, summarised in Fig. 5.9-1.
Diagram
Fig. 5.9-1 – a chart of the four learning disabilities with the area each affects: Dyslexia → reading, Dysgraphia → writing, Dyscalculia → mathematics, Dyspraxia → movement and coordination
As you read the signs that follow, keep the earlier caution in mind: these are indicators that specialists weigh up together, not items to tick off about oneself or a classmate.
5.9.2.1 Dyslexia
Dyslexia is a specific learning disability that affects reading. A child with dyslexia has difficulty with accurate and fluent word recognition, with spelling, and with decoding — sounding out — written words, despite having normal intelligence.
At its heart often lies a difficulty with phonological awareness — the ability to hear and work with the individual sounds in words, and to link those sounds to letters. Professionals look for signs such as slow and effortful reading, trouble matching letters to their sounds, mixing up similar-looking letters such as ‘b’ and ‘d’ or ‘p’ and ‘q’, losing one’s place on the page, difficulty blending sounds into words, and spelling the same word differently on the same page. Reversing the occasional letter is common in all young children, so it is the overall pattern, not a single sign, that matters. Figure 5.9-2 shows the kind of letter confusion sometimes seen.
Diagram
Fig. 5.9-2 – an example of letter reversal and confusion in dyslexia, showing letters such as b/d and p/q written the wrong way round
Because dyslexia responds well to the right teaching, several remedial approaches are widely used. Structured, multisensory instruction — in which children learn letter-sound links through seeing, hearing, saying, and tracing them together, as in the well-known Orton-Gillingham approach — is especially effective, and it deliberately builds phonological awareness step by step. Assistive technology helps a great deal: text-to-speech software, audiobooks, word-prediction and spell-check tools all let the child work around the reading barrier. Specially designed fonts and larger, well-spaced text ease the strain on the page. Alongside these, additional patient training focused on reading and spelling, the removal of anxiety-provoking pressure, and a warm, encouraging learning environment all help a child with dyslexia build skill and confidence.
5.9.2.2 Dysgraphia
Dysgraphia is a specific learning disability that mainly affects writing. The word comes from the Greek dys, meaning “impaired”, and graphia, meaning “writing”. It shows up in handwriting, in spelling, and in the effort of turning thoughts into written words. (The DSM-IV does not use the word “dysgraphia” itself, but recognises it under an “impairment in written expression”.)
Specialists look for signs such as an awkward or overtight pencil grip, unusually messy or illegible handwriting, difficulty forming letters and spacing them evenly, trouble keeping to a line or arranging words on the page, frequent spelling errors, difficulty organising thoughts into sentences, and tiring quickly during writing. A child with dysgraphia may have a great deal to say, yet find the physical and organisational act of writing it down exhausting and frustrating.
5.9.2.3 Dyscalculia
Dyscalculia is a specific learning disability that mainly affects mathematics — the understanding of numbers, mathematical operations, and calculation. It affects a child’s ability to do maths at school and, just as much, in daily life.
Signs that professionals consider include difficulty grasping basic number ideas such as quantity, or “bigger than” and “smaller than”; trouble recognising numerals and connecting them to their names; difficulty recalling number facts and tables; weakness in simple mental arithmetic; trouble reading a clock and judging the passing of time; difficulty understanding mathematical symbols; and difficulty applying maths to everyday matters such as handling money or measuring ingredients. A child with dyscalculia may follow the logic of a problem yet be unable to carry out the ordered steps that solve it.
5.9.2.4 Dyspraxia
Dyspraxia is a specific learning disability that affects movement and coordination — the planning and carrying out of physical actions. It can also affect the muscle movements involved in speech.
Signs that professionals look for include general clumsiness, poor balance and posture, and difficulty with everyday physical tasks such as buttoning a shirt, tying shoelaces, using cutlery, or riding a bicycle. A child with dyspraxia may bump into things and trip often, struggle with tasks that need smooth coordination, and find it hard to sequence a series of movements. Where speech is affected, articulation may be unclear. As with the other disabilities, these difficulties appear despite ordinary intelligence, and they call for understanding rather than blame.
5.10 Summary
Learning is a relatively permanent change in behaviour, or in the capacity for behaviour, that results from experience or practice — and not from maturation, fatigue, drugs, or illness.
Learning is a continuous, lifelong, and usually active and purposive process. The change it produces is not always an improvement, and it is not always shown at once; learned behaviour can stay hidden until there is a reason to display it.
Learning must be distinguished from maturation, which is behavioural change through biological growth, and from temporary changes caused by fatigue, drugs, or illness, which fade once their cause is removed.
Theories of learning fall into two families. Behaviourist (stimulus–response) theories study observable behaviour and explain learning as the building of associations between a stimulus and a response. Cognitive theories add that learning also involves inner mental processes and need not be visible.
Thorndike’s trial-and-error learning (connectionism) holds that learning is the gradual strengthening of a stimulus–response connection. In his puzzle-box experiment, a cat escaped faster over repeated trials along a smoothly declining learning curve — showing gradual learning, not sudden insight.
Thorndike proposed three primary laws — the law of readiness, the law of exercise (strength through use, weakness through disuse), and the law of effect (satisfying outcomes strengthen a response, discomforting ones weaken it) — supported by five secondary laws.
Pavlov’s classical conditioning is a reflexive kind of learning in which a neutral stimulus, repeatedly paired with an unconditioned stimulus (UCS), comes to trigger the response on its own. The food (UCS) caused salivation (UCR); after pairing with a bell, the bell alone (CS) caused salivation (CR).
Classical conditioning follows key principles: acquisition (building the response), extinction (its fading when the CS is unpaired), spontaneous recovery (its brief return after rest), stimulus generalisation (responding to similar stimuli), and stimulus discrimination (responding only to the exact CS).
Skinner’s operant conditioning explains voluntary behaviour, which is controlled by its consequences. In the Skinner box, a rat pressed a lever more often once pressing was followed by food.
Reinforcement increases a behaviour: positive reinforcement by adding something pleasant, negative reinforcement by removing something unpleasant. Punishment decreases a behaviour. Negative reinforcement is not punishment — it still strengthens behaviour. Primary reinforcers (food, water) are unlearned; secondary reinforcers (money, marks, praise) are learned.
Operant conditioning also uses shaping (reinforcing successive approximations towards a target), chaining (linking responses into a sequence), and cueing (signals that a response will be reinforced).
Schedules of reinforcement govern when reinforcement is given. Continuous reinforcement gives fast learning but fast extinction; partial (intermittent) schedules — fixed-ratio, variable-ratio, fixed-interval, and variable-interval — resist extinction, with the variable-ratio schedule producing the highest, most persistent rate of responding.
Classical and operant conditioning differ chiefly in the type of behaviour (reflexive versus voluntary) and the order of events (stimulus then response, versus response then consequence).
Köhler’s insight learning, from the Gestalt school, holds that learning can occur suddenly, through a reorganisation of how the whole problem is perceived. His chimpanzee Sultan solved reaching problems abruptly and completely — the “aha” experience — rather than by gradual trial and error.
Bandura’s observational learning (social learning theory) shows that people learn by watching and imitating models. In the Bobo doll experiment, children copied aggression they had only observed, without being rewarded for it.
Observational learning succeeds only when four processes occur in order — attention, retention, reproduction, and motivation. Motivation often comes from vicarious reinforcement (seeing the model rewarded), and the theory highlights that learning and performance are not the same.
Learning styles describe an individual’s preferred way of taking in information. The VAK model identifies visual (learning by seeing), auditory (learning by hearing), and kinaesthetic or tactile (learning by doing) preferences, though the most effective learners draw on all three.
A learning disability is a neurologically based difficulty in acquiring a specific academic skill in a person of normal intelligence. It is marked by a gap between clear ability and actual achievement, is not caused by low intelligence or disadvantage, and can be diagnosed only by qualified professionals.
The four common types are dyslexia (reading), dysgraphia (writing), dyscalculia (mathematics), and dyspraxia (movement and coordination), each with its own characteristic difficulties.
For dyslexia, remedial support — planned by trained special educators — works best when it is structured and multisensory, strengthens the sound structure of words, uses assistive technology, and provides a supportive, low-anxiety environment.
5.11 Key Terms
- Acquisition — the initial stage of classical conditioning, in which the conditioned response is established and strengthened through repeated pairing.
- Aha experience — the feeling of a solution suddenly clicking into place during insight learning.
- Association — a learned link between a stimulus and a response.
- Attention (in observational learning) — noticing and focusing on a model; the first process of modelling.
- Auditory learning — a learning style in which a person learns best through hearing and speaking.
- Behaviour — anything an organism does that can, in principle, be observed or measured.
- Behaviourist approach — the view that learning should be studied only through observable stimulus–response associations.
- Chaining — linking a series of responses into a sequence, each one cueing the next.
- Classical conditioning (respondent conditioning) — learning in which a neutral stimulus, paired with an unconditioned stimulus, comes to trigger the response by itself.
- Cognitive approach — the view that learning also involves inner mental processes and need not be visible.
- Conditioned response (CR) — the learned response produced by a conditioned stimulus.
- Conditioned stimulus (CS) — a once-neutral stimulus that, after pairing, comes to produce a conditioned response.
- Connectionism (bond theory) — Thorndike’s view of learning as the strengthening of stimulus–response bonds.
- Continuous reinforcement — a schedule in which every correct response is reinforced.
- Cueing — giving a signal or hint that a particular response will be reinforced.
- Decoding — matching written letters to the sounds they represent when reading.
- Dyscalculia — a specific learning disability that mainly affects the understanding of numbers and mathematics.
- Dysgraphia — a specific learning disability that mainly affects writing.
- Dyslexia — a specific learning disability that mainly affects reading.
- Dyspraxia — a specific learning disability that mainly affects movement and coordination.
- Extinction — the fading of a conditioned response when the conditioned stimulus is no longer paired with the unconditioned stimulus.
- Imitation — copying the behaviour of another person.
- Imprinting — a rapid, near-permanent attachment formed by some young animals within a short critical period.
- Insight — a sudden understanding of how the parts of a problem fit together.
- Insight learning — learning that occurs suddenly, through a reorganisation of how the whole problem is perceived.
- Kinaesthetic learning — a learning style in which a person learns best through movement and hands-on activity.
- Law of effect — Thorndike’s law that responses followed by satisfaction are strengthened and those followed by discomfort weakened.
- Law of exercise — Thorndike’s law that a connection strengthens with practice and weakens with disuse.
- Law of readiness — Thorndike’s law that learning happens best when the learner is prepared to act.
- Learning — a relatively permanent change in behaviour resulting from experience or practice.
- Learning curve — a graph of performance across trials; in Thorndike’s work, a smoothly declining line.
- Learning disability — a neurologically based difficulty acquiring a specific academic skill in a person of normal intelligence.
- Learning style — an individual’s preferred way of taking in and processing information.
- Maturation — behavioural change that comes from biological growth rather than from experience.
- Model — a person whose behaviour is observed and imitated.
- Modelling — learning by observing and imitating a model.
- Motivation (in observational learning) — having a reason or incentive to perform an observed behaviour.
- Negative punishment — decreasing a behaviour by removing something pleasant after it.
- Negative reinforcement — increasing a behaviour by removing something unpleasant after it.
- Neutral stimulus — a stimulus that, before conditioning, produces no relevant response.
- Observational learning — learning by watching the behaviour of others and its consequences.
- Operant behaviour — voluntary behaviour that is freely emitted and shaped by its consequences.
- Operant conditioning (instrumental conditioning) — learning in which voluntary behaviour is controlled by its consequences.
- Partial (intermittent) reinforcement — a schedule in which only some responses are reinforced.
- Phonological awareness — the ability to notice and work with the individual sounds in spoken words.
- Positive punishment — decreasing a behaviour by adding something unpleasant after it.
- Positive reinforcement — increasing a behaviour by adding something pleasant after it.
- Primary reinforcer — an unlearned reinforcer that satisfies a basic biological need, such as food or water.
- Punishment — any consequence that decreases the likelihood of the behaviour it follows.
- Reflex — an automatic, unlearned response to a stimulus.
- Reinforcement — any consequence that increases the likelihood of the behaviour it follows.
- Reinforcer — a stimulus that strengthens the behaviour it follows.
- Reproduction (in observational learning) — being physically able to carry out an observed behaviour.
- Respondent behaviour — reflexive, involuntary behaviour, as seen in classical conditioning.
- Response — the reaction an organism makes to a stimulus.
- Retention (in observational learning) — remembering an observed behaviour so that it can be reproduced later.
- Schedule of reinforcement — the rule governing how often and when reinforcement is given.
- Secondary reinforcer — a learned reinforcer, such as money or praise, that gains its power through association with primary reinforcers.
- Shaping — reinforcing successive approximations until a target behaviour is achieved.
- Social learning theory — Bandura’s theory that people learn by observing and imitating others.
- Spontaneous recovery — the brief return of an extinguished conditioned response after a rest period.
- Stimulus — any event or object that prompts a reaction.
- Stimulus discrimination — responding only to the specific conditioned stimulus and not to similar ones.
- Stimulus generalisation — responding in the same way to stimuli similar to the conditioned stimulus.
- Stimulus–response (S–R) theories — behaviourist theories that explain learning through stimulus–response associations.
- Successive approximations — closer and closer versions of a target behaviour, reinforced during shaping.
- Tactile learning — another name for kinaesthetic learning, emphasising learning through touch and doing.
- Trial and error — learning by trying varied responses until a successful one is found and kept.
- Unconditioned response (UCR) — the natural, unlearned response to an unconditioned stimulus.
- Unconditioned stimulus (UCS) — a stimulus that naturally and automatically triggers a response.
- VAK model — a framework classifying learners as visual, auditory, or kinaesthetic.
- Variable-ratio schedule — reinforcement after a varying number of responses; the schedule most resistant to extinction.
- Vicarious reinforcement — being influenced to imitate a behaviour by seeing the model rewarded for it.
- Visual learning — a learning style in which a person learns best through seeing.
5.12 Points to Ponder
If a person learns something but never once shows it in behaviour, can we honestly say learning has taken place? How would a behaviourist and a cognitive theorist each answer — and which answer convinces you?
Many of our likes, dislikes, and fears were conditioned into us long ago, often without our noticing. How much of what we call our “personal taste”, then, is genuinely our own choice?
Skinner argued that reinforcement changes behaviour more effectively than punishment. Yet families, schools, and whole societies still lean heavily on punishment. Why might that be, and is it wise?
If children learn a great deal simply by watching, what responsibility does that place on the makers of films, games, and social media — and on the adults around them?
Gambling machines and the “likes” on a social-media post both deliver their rewards on a variable-ratio schedule. What does this reveal about why some habits are so hard to break?
A learning disability is defined by a gap from what is considered “normal” achievement. Who decides what counts as normal, and does drawing that line help the learner or risk labelling them?
5.13 Objective Questions
A relatively permanent change in behaviour that results from experience is called: [1 mark]
- maturation
- learning
- reflex
- fatigue
In Pavlov’s experiment, the salivation produced by food before any conditioning is the: [1 mark]
- conditioned response
- unconditioned response
- neutral stimulus
- conditioned stimulus
The smooth, gradual fall of Thorndike’s learning curve suggests that the cat learned mainly by: [1 mark]
- sudden insight
- observation
- trial and error
- imitation
Removing an unpleasant stimulus in order to increase a behaviour is: [1 mark]
- positive reinforcement
- negative reinforcement
- positive punishment
- negative punishment
The schedule of reinforcement that produces the most persistent responding and is most resistant to extinction is: [1 mark]
- fixed interval
- continuous
- variable ratio
- fixed ratio
Köhler demonstrated insight learning through his experiments on: [1 mark]
- dogs
- cats
- chimpanzees
- pigeons
Becoming more likely to imitate a model after seeing that model rewarded is known as: [1 mark]
- direct reinforcement
- vicarious reinforcement
- negative reinforcement
- shaping
A specific learning disability that mainly affects the understanding of numbers and mathematics is: [1 mark]
- dyslexia
- dysgraphia
- dyscalculia
- dyspraxia
Reinforcing closer and closer versions of a target behaviour until the full behaviour appears is called: [1 mark]
- chaining
- shaping
- cueing
- generalisation
The brief reappearance of an extinguished conditioned response after a rest period is called __________. [1 mark]
In classical conditioning, the once-neutral stimulus that comes to trigger a learned response is called the __________ stimulus. [1 mark]
State whether True or False: Negative reinforcement and punishment have the same effect on behaviour. [1 mark]
State whether True or False: A learning disability usually occurs only in people of below-average intelligence. [1 mark]
Read the Assertion (A) and Reason (R) and choose the correct option. Assertion (A): In operant conditioning, the response occurs before the consequence. Reason (R): Operant behaviour is voluntary and is shaped by whatever follows it. [1 mark]
- Both A and R are true, and R is the correct explanation of A.
- Both A and R are true, but R is not the correct explanation of A.
- A is true but R is false.
- A is false but R is true.
Read the Assertion (A) and Reason (R) and choose the correct option. Assertion (A): Insight learning appears suddenly and completely. Reason (R): In insight learning, the learner responds to isolated parts of a problem one at a time. [1 mark]
- Both A and R are true, and R is the correct explanation of A.
- Both A and R are true, but R is not the correct explanation of A.
- A is true but R is false.
- A is false but R is true.
Match each psychologist in Column A with the theory or concept in Column B. [1 mark]
| Column A | Column B |
|---|---|
| a. Pavlov | i. Insight learning |
| b. Thorndike | ii. Operant conditioning |
| c. Skinner | iii. Observational learning |
| d. Köhler | iv. Classical conditioning |
| e. Bandura | v. Law of effect |
5.14 Check Your Concepts
Define learning. State any two of its characteristics. [2 marks]
What is a learning curve? What did the shape of this curve reveal in Thorndike’s puzzle-box experiment? [2 marks]
What is meant by shaping? Give one everyday example. [2 marks]
Name the three learning styles of the VAK model, and state briefly what each one relies on. [2 marks]
Differentiate between learning and maturation. [3 marks]
Explain the difference between stimulus generalisation and stimulus discrimination, using an example. [3 marks]
Why is negative reinforcement not the same as punishment? Explain the difference. [3 marks]
Differentiate between primary and secondary reinforcers, giving one example of each. [3 marks]
State the three primary laws of learning proposed by Thorndike, and explain any one of them briefly. [3 marks]
Describe the steps involved in classical conditioning, using Pavlov’s experiment as your example. [4 marks]
Explain the four processes that must occur for observational learning to succeed, according to Bandura. [4 marks]
Explain, with an example, how a person might come to fear a particular school subject through classical conditioning. [4 marks]
“All learning happens through slow trial and error.” Evaluate this claim, drawing on more than one theory. [4 marks]
Describe Skinner’s operant conditioning theory. In your answer, refer to his experiment, the roles of reinforcement and punishment, and one criticism of the theory. [6 marks]
Compare and contrast classical conditioning and operant conditioning, referring to the type of behaviour involved and the order of events in each. [6 marks]
Describe Köhler’s insight learning theory. Include the evidence from his work with chimpanzees, its main features, and its educational implications. [6 marks]
What is a learning disability? Explain how it differs from a general learning problem, and describe the characteristic difficulties of any two types of learning disability. [6 marks]
5.15 Case-Based Questions
- Riya used to enjoy her science lessons. Last year, a teacher repeatedly scolded her in front of the class during the science period. Now, months later, her stomach tightens with anxiety the moment the science period begins, even with a new and kind teacher.
- Which type of learning best explains Riya’s anxiety? [1 mark]
- Identify the conditioned stimulus and the conditioned response in this situation. [2 marks]
- Suggest, with reasons, how this conditioned anxiety might gradually be reduced. [2 marks]
- Meena wants her ten-year-old son, Kabir, to build a habit of finishing his homework on time. Each evening he completes it, she praises him warmly and lets him have some extra play time. Over a few weeks, Kabir begins finishing his homework without being reminded.
- Name the principle of learning Meena is using. [1 mark]
- Is the extra play time an example of positive or negative reinforcement? Justify your answer. [2 marks]
- If Kabir also needed to learn to organise his whole study routine, explain how shaping could help. [3 marks]
- Eight-year-old Arjun greatly admires his elder cousin, a popular sportsperson in their town. Without being taught, Arjun has picked up his cousin’s way of speaking, his gestures, and even the way he celebrates a win — copying him closely after seeing him praised and cheered by others.
- Which learning theory explains Arjun’s behaviour? [1 mark]
- Identify any two of the four processes of modelling at work here, with reference to the situation. [2 marks]
- Explain the role that vicarious reinforcement plays in Arjun copying his cousin. [2 marks]
- Nine-year-old Tara speaks confidently, reasons well, and loves being read to. Yet when she reads herself, she reads far below her class level, confuses similar-looking letters, and reads very slowly and with great effort. Her parents are puzzled, because she is clearly a bright child.
- Which learning disability do Tara’s difficulties most closely point to? [1 mark]
- Explain why such a disability is sometimes described as a “hidden disability”. [2 marks]
- Why must a diagnosis be made by a qualified professional rather than from a list of signs, and what kinds of support could help a child like Tara? [3 marks]