"Learning & Pedagogy" — Practice

Question 1

In Pavlov's experiment, once the bell alone (with no food present) reliably produces salivation, the bell is now correctly called the:
(a) Unconditioned stimulus  (b) Conditioned stimulus  (c) Unconditioned response  (d) Neutral stimulus

Accepted Answer

After repeated pairing with food (the UCS), the bell has become the conditioned stimulus (CS) — it now elicits salivation on its own, without food present.

Answer: (b) Conditioned stimulus. Trap (a) Unconditioned stimulus confuses the bell with food, which is the actual UCS — the bell was never naturally salivation-triggering. Trap (c) Unconditioned response confuses the stimulus (bell) with the response (salivation), and mislabels which one is 'unconditioned' at this stage of the process. Trap (d) Neutral stimulus describes the bell's status BEFORE conditioning, when it produced no relevant response at all — after successful pairing, it is no longer neutral.

Question 2

A teacher always dims the classroom lights briefly before a loud fire-drill siren sounds. After several such pairings, students begin to feel anxious as soon as the lights dim, even on days when no siren follows. The anxiety to the dimmed lights is best classified as a:
(a) Conditioned response  (b) Unconditioned response  (c) Operant response shaped by reinforcement  (d) Case of stimulus discrimination

Accepted Answer

The siren (loud, sudden) is the UCS naturally producing anxiety (UCR). The dimmed lights, originally neutral, have been repeatedly paired with the siren and now produce anxiety on their own — the defining structure of a conditioned response to a conditioned stimulus.

Answer: (a) Conditioned response. Trap (b) Unconditioned response wrongly treats the learned reaction to lights as if it were the original, unlearned reaction to the siren itself. Trap (c) mislabels this as operant conditioning — there is no behaviour being followed by a consequence here, only two stimuli being paired, which is the signature of classical, not operant, conditioning. Trap (d) stimulus discrimination is the opposite process — responding only to the exact CS and not to similar stimuli — whereas this scenario describes acquisition of a new CR, not a discrimination test.

Question 3

A teacher praises a student warmly every time the student helps a classmate, and the helping behaviour becomes more frequent. This is an example of:
(a) Positive reinforcement  (b) Negative reinforcement  (c) Positive punishment  (d) Negative punishment

Accepted Answer

Something pleasant (praise) is ADDED, and the target behaviour (helping) INCREASES — the 'add + increase' cell of the grid.

Answer: (a) Positive reinforcement. Trap (b) Negative reinforcement wrongly assumes 'negative' applies here just because reinforcement is involved, but negative reinforcement specifically requires something unpleasant being REMOVED, not something pleasant added. Trap (c) Positive punishment confuses the direction of the behaviour change — punishment decreases a behaviour, but helping is increasing here. Trap (d) Negative punishment gets both the addition/removal and the increase/decrease dimensions wrong simultaneously.

Question 4

A teacher repeatedly reminds a student about an overdue assignment. The reminders stop the moment the assignment is submitted, and the student begins submitting assignments on time more often. This illustrates:
(a) Positive punishment  (b) Negative reinforcement  (c) Negative punishment  (d) Extinction

Accepted Answer

An unpleasant stimulus (the reminders) is REMOVED once the desired behaviour occurs, and the desired behaviour (timely submission) INCREASES as a result — the 'remove + increase' cell, which is negative reinforcement by definition.

Answer: (b) Negative reinforcement. Trap (a) Positive punishment wrongly assumes 'reminders' were a punishment being added, but the actual mechanism here is their removal, and the behaviour is increasing, not decreasing. Trap (c) Negative punishment gets the increase/decrease direction backwards — punishment always decreases a behaviour, but submission behaviour is increasing here. Trap (d) Extinction describes a reinforced behaviour gradually fading when reinforcement is withheld, which is the opposite of what's happening in this scenario, where a behaviour is strengthening.

Question 5

A dog conditioned to salivate at a bell stops salivating after the bell is rung many times with no food following. After the dog is left undisturbed for a few days and the bell is rung again, salivation briefly reappears even though food still doesn't follow. This reappearance is best explained by:
(a) Acquisition  (b) Stimulus discrimination  (c) Spontaneous recovery  (d) Negative reinforcement

Accepted Answer

The conditioned response had weakened through extinction (repeated CS presentations without the UCS), but its unexpected reappearance after a rest period, with no further pairing, is precisely what defines spontaneous recovery — proof that extinction had suppressed the response rather than erasing the underlying learned association.

Answer: (c) Spontaneous recovery. Trap (a) Acquisition describes the ORIGINAL learning phase, when the CS-UCS pairing was first being built — not a reappearance after extinction and a rest period. Trap (b) Stimulus discrimination describes learning to respond only to the exact CS and not to similar stimuli, an unrelated process from this scenario, which involves only one stimulus (the same bell) across time. Trap (d) Negative reinforcement is an operant-conditioning concept about behaviour-consequence pairing, not a classical-conditioning phenomenon at all — it doesn't apply here.

Question 6

A teacher hands out surprise reward tokens for good classroom behaviour, but not after a fixed number of good deeds — sometimes after 3, sometimes after 8, unpredictably. Compared to rewarding every single good deed, this unpredictable pattern will most likely produce behaviour that is:
(a) Learned faster but forgotten faster once rewards stop  (b) Slower to learn but far more resistant to extinction once rewards stop  (c) Identical in both learning speed and persistence  (d) Impossible to establish without a fixed schedule

Accepted Answer

This is a variable ratio schedule. Compared to continuous reinforcement (rewarding every instance), VR schedules typically take somewhat longer to establish the behaviour initially, but because the learner can never predict exactly which instance will be rewarded, the resulting behaviour is markedly more resistant to extinction — students keep behaving well well past the point where rewards have actually become rare.

Answer: (b). Trap (a) describes continuous reinforcement's actual profile (fast learning, fast extinction), not variable ratio's — it reverses which schedule does what. Trap (c) ignores the well-established difference in extinction-resistance between the two schedule types. Trap (d) is simply false — variable ratio schedules are a standard, effective way to establish and sustain behaviour; they are not somehow incompatible with learning.

Question 7

Students in a class consistently study very little in the days right after a monthly test, then sharply increase their study effort only in the day or two just before the next monthly test. This 'scalloped' pattern of effort is characteristic of which reinforcement schedule?
(a) Fixed Ratio  (b) Variable Ratio  (c) Fixed Interval  (d) Variable Interval

Accepted Answer

Reinforcement (the test, and its results) arrives after a fixed, predictable time interval, and responding (studying) is low right after the previous reinforcement and rises sharply as the next fixed interval's end approaches — exactly the scalloped pattern that defines a fixed interval schedule.

Answer: (c) Fixed Interval. Trap (a) Fixed Ratio depends on a response COUNT, not elapsed time, and produces a steady rate with only a brief pause, not this build-up-then-drop pattern. Trap (b) Variable Ratio would produce a high, steady response rate throughout, with no predictable low-then-spike pattern, since the payoff count is unpredictable. Trap (d) Variable Interval would produce a slow, steady rate without scalloping, precisely because an unpredictable interval gives no reliable cue for when to ramp up effort.

Question 8

A student is told a nine-digit registration number and forgets it within about twenty seconds unless they actively repeat it to themselves. This limitation is best explained by the capacity and duration of:
(a) Sensory memory  (b) Short-term/working memory  (c) Long-term memory  (d) Procedural memory

Accepted Answer

Short-term (working) memory holds information for roughly 15-30 seconds without active rehearsal, and has a limited capacity of about 7±2 items — a nine-digit number exceeds this comfortably, explaining the rapid forgetting without rehearsal.

Answer: (b) Short-term/working memory. Trap (a) Sensory memory holds raw sensory input for only a fraction of a second — far too brief to be the relevant store for a number someone consciously heard and attended to. Trap (c) Long-term memory is the effectively unlimited, relatively permanent store information reaches only AFTER adequate rehearsal — this scenario describes a failure to reach that stage, not a retrieval failure from within it. Trap (d) Procedural memory refers to memory for skills and 'how to' knowledge (like riding a bicycle), an unrelated category from a different memory classification altogether.

Question 9

Before starting a new chapter on photosynthesis, a teacher spends five minutes reviewing what students already know about how plants need sunlight and water to stay healthy. This opening activity is best described as Ausubel's:
(a) Reinforcement schedule  (b) Advance organizer  (c) Zone of Proximal Development  (d) Operant shaping

Accepted Answer

Introductory material presented before a lesson, at a broader conceptual level, to connect new content to what a learner already knows is precisely Ausubel's advance organizer — the classroom tool behind meaningful, rather than rote, learning.

Answer: (b) Advance organizer. Trap (a) Reinforcement schedule belongs to Skinner's operant conditioning, an entirely different theory family with no connection to this pre-lesson bridging activity. Trap (c) Zone of Proximal Development is Vygotsky's concept describing the gap between what a learner can do alone versus with guidance — a genuinely different construct from Ausubel's prior-knowledge-anchoring tool. Trap (d) Operant shaping refers to reinforcing successive approximations toward a target behaviour, an unrelated behaviourist mechanism, not a cognitivist teaching technique.

Question 10

Rather than stating Archimedes' Principle and having students memorise it, a Class VIII teacher lets students immerse different objects in water, observe the displaced volume themselves, and arrive at the principle through guided discussion. This approach is best described as:
(a) A behaviourist approach relying on reinforcement  (b) A constructivist approach  (c) Classical conditioning applied to science teaching  (d) Rote learning supported by repetition

Accepted Answer

Students actively build their own understanding through observation and exploration, with the teacher facilitating rather than transmitting a ready-made fact to be memorised — exactly constructivism's core claim that knowledge is constructed by the learner, not delivered to them.

Answer: (b) Constructivist approach. Trap (a) is the reverse pedagogical philosophy — behaviourism relies on external reinforcement and repetition to install a fixed correct response, not on learner-driven exploration. Trap (c) misapplies classical conditioning, a theory about paired stimuli producing involuntary responses, to a scenario that involves neither stimulus pairing nor an involuntary response. Trap (d) rote learning is precisely what this scenario avoids — the whole point of the activity is connecting new understanding to direct, meaningful experience rather than memorising an announced fact.

Question 11

Which of the following best represents the pedagogical shift NCF 2005 recommends for Indian classrooms?
(a) Knowledge should be transmitted efficiently through structured lectures and repeated drilling
(b) Knowledge is constructed by the learner and should connect to life outside school
(c) Assessment should rely more heavily on a single annual written examination
(d) Learning is most effective when it is teacher-centred and uniformly paced

Accepted Answer

NCF 2005's central, oft-quoted claim is that knowledge is actively constructed by the learner, not transmitted — and this constructivist stance is explicitly linked to connecting classroom learning with life outside school.

Answer: (b). Trap (a) describes the transmission-and-drill model NCF 2005 explicitly moves AWAY from, not toward. Trap (c) is the opposite of NCF 2005's recommendation for more flexible, continuous assessment integrated into classroom life rather than concentrated in a single high-stakes exam. Trap (d) describes teacher-centred pedagogy, which NCF 2005's learner-centred, constructivist stance is a direct departure from.

Question 12

A ten-month-old baby begins standing and taking a few unsupported steps once their leg muscles and balance have developed sufficiently, without anyone specifically 'teaching' them to walk. This change is best attributed to:
(a) Learning  (b) Maturation  (c) Conditioning  (d) Training

Accepted Answer

The capacity to walk emerges once the underlying neuromuscular and skeletal structures are biologically ready, largely independent of deliberate teaching or practice — the defining signature of maturation, not learning.

Answer: (b) Maturation. Trap (a) Learning would require the change to result mainly from experience or deliberate practice, but no one is specifically teaching or rehearsing this skill with the infant. Trap (c) Conditioning would require a stimulus-response association built through pairing or reinforcement, which is absent here. Trap (d) Training would require deliberate, repetition-based skill instruction, which also doesn't apply to a capacity that emerges on its own biological schedule.

Question 13

A physical education instructor has students repeat the same free-throw shooting motion hundreds of times until it becomes smooth and automatic, without spending much time explaining the biomechanics of why the motion works. This activity is best classified as:
(a) Teaching  (b) Training  (c) Conditioning  (d) Meaningful learning

Accepted Answer

Deliberate, repetition-based development of a specific skill to a level of fluency, with the emphasis on practised performance rather than on explaining underlying reasoning, is the defining feature of training.

Answer: (b) Training. Trap (a) Teaching would require an emphasis on reasoning, understanding and broader conceptual development, which the scenario explicitly says is being skipped ('without spending much time explaining'). Trap (c) Conditioning is too narrow a label — conditioning describes a bare stimulus-response link with no skill development involved, whereas this scenario clearly involves a complex, deliberately practised motor skill. Trap (d) Meaningful learning is Ausubel's cognitivist concept about anchoring new information to existing knowledge structures, unrelated to this purely behavioural-repetition scenario.

Question 14

A teacher introduces formal, symbolic algebraic notation to a group of Class VI students who are still consolidating basic arithmetic operations, and most of the class struggles significantly despite the teacher's clear explanations. The most likely underlying factor is:
(a) Low motivation among the students  (b) Insufficient readiness for the level of abstraction being introduced  (c) A failure of classical conditioning  (d) The teacher's use of negative reinforcement

Accepted Answer

The struggle described stems from the content being pitched beyond the students' current developmental and academic readiness — the concept was introduced before adequate preparedness for that level of abstraction existed, regardless of how clear the teaching itself was.

Answer: (b) Insufficient readiness. Trap (a) Low motivation isn't indicated anywhere in the scenario — the students are described as struggling despite clear teaching, not as disengaged or uninterested. Trap (c) misapplies classical conditioning, a theory about paired stimuli and involuntary responses, to what is really a readiness/developmental-level issue with no stimulus pairing involved. Trap (d) is simply not present in the scenario — no reinforcement of any kind, negative or otherwise, is described.

Practice — "Learning & Pedagogy"

Sign in to save attempts to your dashboard and track your accuracy over time

Find a verified tutor

Join a live course

Browse coaching centres

About

Categories

Support

Documentation

Get Study Tips & Updates

Download Our App

Download for iOS

Download for Android

Popular Cities