Teaching Methods for Doctors: A Practical Guide to Clinical Teaching Techniques

• Start with what you want the learner to achieve rather than with the teaching method you happen to prefer.
• Bloom’s taxonomy helps you think about the type and complexity of thinking you are asking the learner to undertake, while Miller’s pyramid helps distinguish knowledge from clinical performance.
• Constructive alignment means that the objective, teaching activity and assessment should be addressing the same capability.
• Experience does not automatically produce learning. Learners need opportunities to examine experience, make sense of it and use what they discover next time.
• Cognitive load matters because novices have to think consciously about many things that experts have long since automated.
• Scaffolding means giving enough support to allow development, then deliberately reducing that support as competence increases.
• Cognitive apprenticeship is particularly valuable in medicine because much of expert clinical reasoning is invisible unless we choose to explain it.
• Repetition is not the same as deliberate practice. Improvement requires focus on specific aspects of performance, useful feedback and another opportunity to try.
• Simulation is valuable when learners need to integrate skills or make decisions under pressure, but greater realism or technology does not automatically make it better teaching.
• Questioning can test knowledge, but its greater value often lies in revealing reasoning, judgement and uncertainty.
• Learning-style frameworks such as Honey and Mumford can encourage variety and self-awareness, but should not be used to place learners into rigid categories.
• Good teachers develop a repertoire. They know when to explain, question, demonstrate, facilitate, observe, challenge and step back.

Doctors often begin planning teaching by thinking about content. You are asked to teach acute kidney injury, heart failure, safeguarding or sepsis, so you begin thinking about everything you know about the subject. Before you know it, PowerPoint is open and the problem becomes deciding what to put on the slides. There is nothing wrong with that, but it will lead to an important mistake: starting with the question ‘What do I need to tell them?’ rather than ‘What do they need to be able to do?’

Imagine that you are teaching foundation doctors about the deteriorating patient. They certainly need some knowledge. They need to understand physiological deterioration, recognise important observations and know the principles of an ABCDE assessment. But if the real objective is for them to recognise deterioration and respond safely, knowing those things is only part of the task. They need to decide what matters, prioritise competing problems, communicate, act and recognise when senior help is required.

A presentation may contribute to that learning. A clinical case may allow them to apply it. Simulation may allow you to see what happens when several demands arrive at once.

Now imagine that the objective is simply to help the same group understand why lactate rises in shock. A clear explanation, diagram and worked example may be exactly what they need.

The clinical subject may be similar, but the educational outcome is completely different. That distinction runs throughout effective medical education. The method should follow the learning need rather than the other way around.

One of the easiest mistakes for an experienced doctor to make is to teach from where you are rather than from where the learner is.

The more familiar a subject becomes, the harder it is to remember which parts were once difficult. Concepts become obvious, steps disappear from conscious thought and terminology that feels completely ordinary to you may still require considerable processing from somebody seeing it for the first time.

This is closely related to what is often called the curse of knowledge. Once we understand something well, it becomes surprisingly difficult to reconstruct what it felt like not to know it. In teaching, that can produce explanations that move too quickly, depend on assumptions the learner does not share or dive into sophisticated detail before the foundations are secure.

There is also a natural tendency to design teaching for people who think like us. We imagine what we would find interesting, how we would like something explained and what we would probably already know at that stage. But a medical student, foundation doctor, specialist registrar and consultant can approach exactly the same subject from very different starting points.

Before choosing a teaching method, therefore, find out who is actually in front of you. What have they encountered before? What do they already understand? What are they expected to be able to do? Where are they struggling? The answers may completely change the teaching you had planned.

Audience analysis, including the risks of assuming that learners share our own knowledge and preferences, is one of the areas explored explicitly within ISC Medical’s Teach the Teacher programme.

One of the most useful concepts in educational design is constructive alignment, associated particularly with John Biggs. The terminology sounds rather academic, but the principle is extremely practical: what you want learners to achieve, what you ask them to do during the learning and how you subsequently judge whether they have achieved it should all fit together.

Suppose your objective is for a doctor to communicate effectively with an angry relative. You could deliver an excellent presentation on communication theory, covering listening, empathy, de-escalation and responding to emotion. You could then give the learner a written test and they might score 100%.

They may have learnt something useful, but neither the teaching nor the assessment has required them to communicate with anybody.

If communication is the intended outcome, at some stage they need to communicate. You might briefly discuss principles, but then ask the learner to manage a realistic scenario while you observe. Afterwards, you can explore what happened and provide feedback.

The same principle applies throughout clinical education. If the objective is to perform a procedure, learners eventually need to perform it. If the objective is to interpret ECGs, they need to interpret ECGs rather than simply hear somebody explain them. If the objective is clinical reasoning, they need to reason through clinical problems. If the objective is leadership, they need an opportunity to lead.

Constructive alignment therefore exposes a common educational problem: sometimes we teach something related to the outcome rather than the outcome itself. A lecture about communication is related to communication, but it is not communicating. A presentation about leadership is related to leadership, but it is not leading.

Once you begin thinking this way, it changes how you design teaching. Instead of starting with everything you would like to cover, you start with what the learner should be able to do differently afterwards.

Choosing the right teaching method is only part of the design. The order in which learners encounter information and activities also matters.

A common mistake is to begin with a large amount of explanation because the teacher feels the learner needs to know everything before they can participate. Sometimes that is necessary, but often people engage more readily once they understand why the subject matters and have a problem against which the new information can be organised.

A well-designed session therefore has some sense of movement. You might begin by establishing relevance or presenting a problem, give learners enough explanation to make sense of it, allow them to apply what they have learnt and then help them consider how they would use it elsewhere. Different subjects require different sequences, but the important thing is that the session has been designed around learning rather than around the order in which the teacher happened to build the slides.

This is particularly relevant in adult learning because new knowledge rarely arrives in isolation. Learners continually connect what you teach with previous experience, existing assumptions and the situations in which they expect to use it.

Structured design models, including approaches such as 4MAT, can help teachers think more deliberately about that sequencing. ISC Medical’s course uses such models as practical tools for session design rather than simply as theory to memorise.

Bloom’s taxonomy is useful because it reminds us that not all learning requires the same kind of thinking. The original taxonomy was developed in the 1950s and has subsequently been revised. In the commonly used revised version, cognitive activity includes remembering, understanding, applying, analysing, evaluating and creating.

These categories should not be treated as a rigid staircase that every learner must climb in precisely the same order. In medical education, their real value is in helping us distinguish possessing information from doing something increasingly sophisticated with it.

At the most basic level, a learner may need to remember information. A medical student may need to recall the causes of hyperkalaemia, the features of cauda equina syndrome or the immediate treatment of anaphylaxis. There is nothing unsophisticated about needing factual knowledge. Medicine contains a large amount of information that simply has to be available when required.

The learner then needs to understand what that information means. Can they explain why hyperkalaemia affects cardiac conduction? Can they explain why saddle anaesthesia matters? Can they describe why intramuscular adrenaline is used in anaphylaxis rather than merely remember that it is?

The next challenge is application. Can they use the knowledge when the clinical problem is no longer presented as a neat textbook question? A doctor may know the criteria for acute kidney injury, but can they recognise it among several abnormal blood results, identify likely causes and decide what needs to happen next?

More complex clinical work requires analysis. The learner has to break a problem down, separate relevant information from distraction, recognise patterns and identify relationships. A patient presenting with breathlessness may have several plausible diagnoses. The learner needs to decide which findings support heart failure, pulmonary embolism, infection or another explanation and which possibilities deserve greatest attention.

At a higher level, learners need to evaluate. This involves weighing evidence, comparing options and making judgements where the answer is not necessarily obvious. Should this patient be admitted? Does this abnormal result justify further investigation? Do the risks of treatment outweigh the likely benefits? Is the evidence strong enough to change management?

The final level is commonly described as creating, where the learner brings information together to produce something new, such as a coherent management strategy, solution to an unfamiliar problem, service proposal or research plan.

Doctors move between these types of thinking constantly. The educational problem is that we sometimes teach at one level and expect performance at another.

Take chest pain. Asking a learner to list differential diagnoses tests recall. Asking why acute coronary syndrome is more likely in one patient than another requires understanding and application. Giving them an equivocal presentation and asking them to identify the important information, compare competing diagnoses and decide whether the patient can safely go home requires analysis and evaluation. The subject remains chest pain, but the intellectual task is completely different.

Bloom’s taxonomy therefore gives the clinical teacher a useful question to ask: what kind of thinking am I actually asking this learner to practise? If the answer is analysis, judgement or application, factual recall alone will not get them there.

Miller’s pyramid is particularly important in medical education because it addresses the progression from knowledge towards clinical performance. The framework distinguishes four broad levels, usually described as knows, knows how, shows how and does. These are not simply four labels to remember. They represent genuinely different levels of competence.

At the first level, the learner knows the relevant information. Consider a lumbar puncture. A learner may know the indications, contraindications, anatomy, complications and sequence of the procedure. That knowledge is essential, but it does not mean they can perform one.

At the next level, they know how. They can explain how they would prepare the patient, obtain consent, position them, maintain asepsis, identify the landmarks and respond if the procedure becomes difficult. They are now applying knowledge to the task rather than merely recalling facts, but they still have not actually performed it.

The next level is shows how. The learner demonstrates the procedure, perhaps on a model, in simulation or under close supervision. You can now observe things a written examination could never reveal. Can they handle the equipment? Do they position themselves correctly? Can they maintain asepsis? Can they translate the sequence they described into coordinated action?

Finally comes does, where the task is performed in real clinical practice. This introduces complexities that controlled environments tend to remove. The patient may be anxious, anatomically difficult or unable to position themselves easily. The first attempt may fail. The learner needs to recognise when to alter their technique, when to stop and when to ask for help.

The difference between demonstration and real-world performance matters enormously in medicine.

The same model applies to communication. A learner may know the principles of breaking bad news, explain how they would structure the conversation and perform very well with a simulated patient. But can they do it when sitting with a distressed family discussing an uncertain prognosis, with interruptions, competing priorities and genuine emotion in the room?

The model also applies to prescribing, clinical reasoning, examination, leadership and countless other aspects of practice.

This has direct implications for teaching. If the learner needs foundational knowledge, reading, explanation and retrieval may be appropriate. If they need to learn how knowledge is applied, cases and discussion become more important. If they need to demonstrate performance, simulation, role-play or supervised practice may be necessary. If the intended outcome is competent real-world performance, there eventually needs to be workplace experience.

Miller also sharpens the way we think about assessment. A written examination may tell us whether somebody knows something, but it cannot tell us whether they can perform a procedure safely. An OSCE or simulation allows us to observe performance under controlled conditions, but even that cannot reproduce every complexity of actual clinical practice. Workplace-based assessment exists for a reason.

The practical lesson from Miller is straightforward but fundamental: knowing about something is not the same as being able to do it. Our teaching and assessment should recognise the difference.

Medicine gives doctors an extraordinary amount of experience. You see patients, manage emergencies, perform procedures, make decisions, have difficult conversations and encounter situations that no classroom could reproduce completely. It is tempting to assume that more experience naturally makes you better. Often it does, but not always.

Kolb’s model of experiential learning is useful because it describes learning as more than simply having an experience. In broad terms, the learner encounters something, considers what happened, develops or modifies their understanding and then uses that understanding in a future situation.

Consider a registrar who has a consultation that goes badly. The patient becomes increasingly angry. The registrar feels challenged and responds by explaining their position in greater detail. The patient becomes more frustrated and the conversation eventually ends badly.

The registrar has certainly gained experience, but that does not guarantee learning. They may leave thinking, “That was a difficult patient,” and approach the next similar consultation in exactly the same way.

Alternatively, they may discuss the consultation with a supervisor and realise that every time the patient challenged them, they responded by providing more information. What felt like clarification to the doctor was being experienced as argument by the patient. The registrar decides that next time they will explore the concern more fully before trying to correct anything.

When a similar situation occurs, they try the different approach and notice that the interaction develops differently. Now the original experience has become part of a learning process.

This distinction matters because clinical education can sometimes equate volume with development. Seeing 500 patients gives you more exposure than seeing 50, but it does not necessarily mean that you have learnt ten times as much.

Experience can reinforce good habits, but it can also reinforce poor ones. If a clinician repeatedly does something ineffective and nobody challenges it, repetition may simply make the behaviour more established and makes people start cutting corners. Supervision, reflection and feedback are important because they help turn experience into learning rather than assuming that transformation happens automatically.

Donald Schön’s work on reflective practice adds another useful dimension. He distinguished between reflection after an event and reflection that happens while we are actually working.

Experienced clinicians do both. You may finish a difficult case and later consider why you made a particular decision and whether you would approach it differently. But you may also notice during a consultation that the patient is becoming increasingly withdrawn, realise that your approach is not working and change direction immediately.

The same happens when a procedure is not progressing as expected and you alter your technique, or when a learner looks completely lost and you abandon the explanation you had planned and try another.

This capacity to notice what is happening and adapt during the work itself is an important part of professional expertise.

Clinical teachers can help learners develop it by exploring the points at which their thinking changed. Asking when they first became concerned, what made them revise a diagnosis, when they realised their original plan was failing or what triggered the decision to escalate reveals far more than simply asking, “How do you think that went?”

Reflection becomes useful when it sharpens future judgement. It becomes much less useful when it is reduced to a compulsory paragraph written because a portfolio requires one.

One of the reasons experienced doctors sometimes struggle to teach beginners is that they forget how much of our own practice has become automatic.

Consider a cardiovascular examination. To an experienced clinician, the sequence feels relatively straightforward. You position the patient, observe, examine the hands and pulse, assess the JVP, move to the precordium, listen and interpret what you find as you go.

For a medical student, almost none of that is automatic. They may simultaneously be trying to remember the sequence, recall the anatomy, position the patient, communicate appropriately, remember what they have already done, interpret findings and listen to the teacher.

If the teacher then adds another stream of instructions, the student may suddenly appear unable to do something they seemed to understand five minutes earlier.

That may not be a knowledge problem. They may simply be overloaded.

Cognitive load theory is based partly on the recognition that working memory has limited capacity. We can consciously process only a certain amount of unfamiliar information at one time. Existing knowledge changes this because experienced clinicians organise familiar material into larger mental structures and automated routines. The novice does not yet possess those structures.

This explains why experts can accidentally make teaching harder. We underestimate how many separate things the learner is processing because those things no longer feel separate to us.

The practical implications are significant. Complex tasks may initially need to be broken down. Instructions need to be clear. Irrelevant information should be reduced. Demonstrations may need to be slower than the teacher’s normal clinical performance.

It may also be counterproductive to correct everything simultaneously. Suppose a learner attempting a procedure for the first time makes five minor errors. Providing five pieces of feedback while they are still performing may simply create another source of cognitive load. It may be more useful to decide which one or two issues matter most now and return to the others later.

Cognitive load also matters in presentations. A slide containing several paragraphs of text while the teacher simultaneously explains something else creates competing demands. A complex diagram presented in its entirety may be completely obvious to its designer and almost meaningless to somebody seeing it for the first time.

Good teaching therefore manages attention. This does not mean making everything easy. Learners eventually need to cope with genuine clinical complexity. The challenge is to introduce complexity at a level they can use and progressively increase it as competence develops.

Scaffolding is closely associated with Vygotsky’s ideas about learning with support. In practical terms, it means providing enough assistance for a learner to tackle something they could not yet manage independently, then reducing that support as competence develops.

Clinical supervision provides countless examples. Imagine a junior doctor learning to manage acute admissions. Initially, you may help structure the assessment, prompt them towards important information and discuss the management plan before anything happens. Later, you ask them to assess the patient independently and present their findings and proposed plan. Eventually, they manage most cases themselves and involve you when something is genuinely complex.

As the learner develops, they should progressively take on more of the thinking and decision-making while the supervisor does less. The difficult part is often not giving support. Most conscientious teachers are good at that. The real challenge is recognising when the support has become unnecessary and starting to withdraw it.

Doctors often rescue learners very quickly. The trainee pauses and we prompt. They hesitate and we suggest the next step. They take a route different from the one we would have chosen and we redirect them.

The encounter goes smoothly, but how much of the thinking belonged to the learner? A trainee can appear competent while the supervisor is quietly doing a substantial amount of the cognitive work. There is therefore a point at which helping becomes educationally unhelpful.

Provided patient safety is protected, learners need some space to hesitate, make decisions and occasionally take a less elegant route than an expert would. The purpose of scaffolding is not permanent supported performance, but increasing independence.

Malcolm Knowles’ work on adult learning has had considerable influence on medical education. Among the ideas associated with it are the importance of relevance, previous experience, practical problems and some degree of learner autonomy.

These principles often fit medicine very well. Doctors generally engage more readily when they understand why something matters to their work. A registrar may be much more interested in discussing a difficult case encountered yesterday than listening to an abstract lecture apparently disconnected from clinical practice.

Previous experience also matters. Doctors do not arrive at teaching sessions as blank slates. They bring earlier cases, successes, mistakes and established ways of thinking. Good teachers use that experience rather than simply delivering information over it.

However, adult learning principles can become oversimplified. Learners do not always know what they need. If somebody is unaware of a weakness in their performance, they are unlikely to request teaching about it. People also naturally prefer activities they feel comfortable doing.

A trainee who dislikes being observed may say they learn better through discussion. That preference does not necessarily mean direct observation should be avoided if the capability that needs development is their actual performance.

Learner-centred teaching therefore does not mean allowing the learner to dictate every educational decision. It means taking their experience, goals and perspective seriously while retaining appropriate professional judgement about what they need to develop.

A great deal of medical education happens outside formal teaching sessions.

Learners observe how senior clinicians conduct ward rounds, manage uncertainty, speak to patients, respond to errors, challenge colleagues and behave under pressure. They gradually take on more responsibility and participate more fully in clinical work.

Situated learning emphasises that learning is shaped by the environment in which knowledge and skills are actually used. Lave and Wenger’s work on communities of practice is particularly relevant here because it describes how newcomers initially participate in limited but genuine activities and progressively move towards fuller participation as they develop.

Medicine provides obvious examples. A student may initially observe a consultation before taking part of the history. Later they assess patients and present their findings. As junior doctors, they begin making decisions with senior support. Over time, they take responsibility for increasingly difficult situations and eventually become the people supervising somebody else.

This is more than accumulating knowledge. The learner is gradually becoming a functioning member of the profession.

It also means the clinical environment teaches continuously, whether we intend it to or not. A department may formally teach that patient safety depends on speaking up, but if junior staff repeatedly see colleagues dismissed for raising concerns, they learn something quite different. We may say that uncertainty is normal while senior clinicians behave as though admitting it represents weakness.

This is often described as part of the ‘hidden curriculum’: the behaviours, assumptions and values absorbed from the surrounding culture rather than from the formal programme.

Clinical teachers therefore need to recognise that role modelling is itself a form of teaching. Learners pay attention to what we do, not only to what we tell them.

Traditional apprenticeship works naturally when the expert’s skill can be seen. You watch somebody perform a task, imitate it, practise and gradually improve.

Medicine is more difficult because much of clinical expertise happens internally. A learner watching an experienced consultant assess a patient can see the questions, examination and final plan. What they cannot necessarily see is why one symptom suddenly attracted attention, why one abnormal result was considered relatively unimportant, why the consultant changed direction or why an apparently reasonable investigation was deliberately not requested.

Expert judgement can therefore look almost intuitive.

Cognitive apprenticeship attempts to make some of that invisible thinking accessible. Imagine reviewing a patient with headache and deciding that urgent imaging is not required. If you simply tell the learner, “I wouldn’t scan this patient,” they know your decision but not necessarily how you reached it.

A more useful approach is to explain which features are reassuring, which possibilities you considered, why particular findings reduced your concern and what would have changed the decision. You can then reverse the process and ask the learner to articulate their own reasoning. What are they most concerned about? Which findings are reassuring? What does not fit their preferred diagnosis? What would make them investigate or admit?

This matters because two learners can arrive at the same answer through very different reasoning. One may have reasoned carefully while another guessed correctly. Looking only at the final diagnosis makes them appear identical.

Cognitive apprenticeship also incorporates modelling, coaching, scaffolding and progressively increasing independence. Early in development, the teacher may demonstrate extensively. Later, the learner performs while the teacher observes and intervenes selectively. Eventually, the learner acts independently and the discussion happens afterwards.

This is particularly relevant to medicine because one of the most valuable things an experienced clinician possesses is not simply more knowledge, but a more sophisticated way of using it.

Bedside teaching has an authenticity that is difficult to reproduce elsewhere. Real patients do not present like examination questions. Their histories may be unclear, their findings subtle and their priorities different from those of the clinical team. The learner therefore has to integrate communication, knowledge, examination, professionalism and judgement, which is precisely what makes workplace teaching so valuable. But the presence of a patient does not automatically create good teaching. The learner needs a meaningful role.

With a medical student, you might ask them to focus on a particular part of the history or examination. A foundation doctor might assess the patient and identify immediate priorities. A registrar might formulate the management plan and explain which risks they are prepared to tolerate. The level of responsibility should change with the learner.

Observation is particularly useful. Rather than interrupting constantly, allow the learner to perform enough of the task for you to see what they actually do. Obviously, if patient safety or dignity is at risk, intervene. But if every pause is filled and every imperfection corrected immediately, you may never see the learner’s independent performance.

The discussion afterwards can then focus on thinking as well as behaviour. Why did they ask a particular question? What were they considering when the patient said something important? Why did they decide against an investigation? Was there a concern they had but did not pursue?

Those questions can turn an ordinary clinical encounter into a much richer educational experience.

Patient consent, comfort and dignity remain fundamental. Patients are participants in care, not teaching props, and the educational value of workplace learning never overrides their right to decline involvement.

Case-based teaching is one of the most versatile methods available to clinical educators. It allows learners to use knowledge in context and can be pitched from undergraduate teaching through to sophisticated specialist discussion.

At its weakest, however, case teaching becomes a guessing game. The teacher presents a carefully selected history and asks, “What’s the diagnosis?” while the learners try to identify the answer already sitting in the teacher’s head. That may test recognition, but it does not necessarily develop much reasoning.

A stronger approach allows the case to unfold. Give enough information for the learner to form an initial view and ask what they think is happening and why. Explore what they are most concerned about and what information they would want next. Then introduce another piece of information and see whether their interpretation changes appropriately. This is much closer to clinical practice because information arrives over time and our thinking should evolve with it.

Case teaching can also help learners develop illness scripts, increasingly organised mental representations that incorporate typical presentations, mechanisms, risk factors and contextual features. Experts do not usually work through vast undifferentiated lists of facts every time they see a patient. Experience allows information to become organised into recognisable patterns.

But pattern recognition has limitations. Sometimes a case looks familiar because most of the features fit a common diagnosis while one important detail does not. Good teaching therefore asks not only, “What do you think this is?” but also, “What would make you reconsider?”

The objective is not merely to produce the right diagnosis. It is to develop judgement about why the diagnosis is plausible, when the pattern may be misleading and how the learner should respond to uncertainty.

Clinical skills are often taught through demonstration. The teacher performs the procedure, the learner watches and then has a go. That is a reasonable beginning, but effective skills teaching requires more.

Experienced clinicians have automated much of what they do. Consider venepuncture. An experienced practitioner selects a vein, positions the arm, adjusts their grip and responds to what they feel without consciously narrating every decision.

The learner sees the movements but may have little idea what judgement sits underneath them. Why did you choose that vein? What are you feeling? Why did you change the angle? What made you decide that this attempt should stop? A useful demonstration therefore needs to slow down some of the expertise and make the important decisions visible.

There is also a danger of over-explaining. A novice performing a procedure may already be concentrating intensely on equipment, asepsis, sequencing, patient communication and their own hand movements. Ten simultaneous instructions are unlikely to help. The teacher therefore needs to decide what matters on this attempt. Perhaps positioning is the main problem. Work on that, let the learner try again and then move to the next issue.

That is where skills teaching starts to become deliberate practice rather than simple repetition.

Doctors often use numbers as a proxy for experience. Someone has performed 50 lumbar punctures, inserted 100 lines or chaired dozens of MDT meetings. Those numbers tell us something about exposure. They tell us much less about how much improvement occurred between the first and most recent attempt.

Deliberate practice is more purposeful than repetition. It involves identifying a specific aspect of performance that needs development, working on it with appropriate challenge, receiving useful information about the performance and then attempting to improve it.

Suppose a learner repeatedly struggles with hand positioning during a procedure. Asking them simply to perform another ten procedures may eventually help. A more deliberate approach identifies the specific problem, explores or demonstrates an alternative, allows the learner to practise that component and then observes whether the performance changes.

The same principle applies beyond procedures. A doctor who gives excessively long handovers might practise delivering the same information in two minutes. Someone whose differentials are consistently narrow might deliberately practise generating alternatives before committing to a diagnosis. A clinician who dominates difficult conversations might work specifically on pausing and eliciting the other person’s perspective.

Improvement becomes intentional rather than merely hoped for. This is one reason practical teaching tasks, observation and coaching form an important part of ISC Medical’s longer Teach the Teacher programme rather than simply adding another day of lectures.

Simulation has become an important part of medical education because it allows learners to practise situations that may be uncommon, high-risk or difficult to reproduce safely in real care.

It is particularly valuable when several capabilities need to come together. Managing a deteriorating patient may involve assessment, prioritisation, communication, leadership, teamwork and escalation. A learner can understand each of those individually and still struggle when they all happen simultaneously.

Simulation allows us to observe that integration. However, greater technological sophistication does not automatically produce better learning. A highly realistic manikin may be valuable when physical examination findings or procedural performance matter. If the objective is leadership, prioritisation or escalation, the most important features may be uncertainty and competing demands rather than physical realism.

The appropriate level of fidelity therefore depends on the educational objective. The question is not simply how realistic the simulation can be, but which parts of reality the learner needs in order to practise the capability.

The debrief afterwards is often at least as important as the scenario itself. Suppose a junior doctor failed to escalate a deteriorating patient. It would be easy to say they should have called for senior help earlier, but that tells us nothing about why they did not. Perhaps they failed to recognise deterioration. Perhaps they recognised it but thought they were expected to cope independently. Perhaps they became so focused on one task that they lost situational awareness. Perhaps the hierarchy made them reluctant to call.

The visible behaviour may be identical, but the educational problem is completely different. A useful debrief therefore explores the learner’s thinking rather than simply correcting the action.

Clinical education cannot always be comfortable. Learners need to expose gaps, attempt unfamiliar tasks, receive corrective feedback and occasionally discover that their judgement was wrong.

Psychological safety does not mean removing challenge. It means creating an environment in which learners can expose uncertainty without unnecessary fear of humiliation. This matters because people adapt quickly to unsafe environments. If every wrong answer is ridiculed, learners stop volunteering. If asking for help is interpreted as weakness, they conceal uncertainty. If feedback becomes personal, they become defensive. The teacher then loses access to the very information required for effective teaching.

In medicine, this has implications beyond education. You want junior colleagues to admit when they are unsure, escalate when they are worried and challenge decisions when patient safety may be compromised. Teaching environments that punish uncertainty can inadvertently train the opposite behaviour. Psychological safety and high standards are therefore not competing ideas. You can tell somebody clearly that a decision was unsafe, challenge poor reasoning and expect better performance. The educational skill lies in doing so without turning a correctable behaviour into a judgement about the learner’s identity.

Creating rapport and psychological safety is part of ISC Medical’s teaching programme precisely because it affects how willing learners are to participate, practise and expose uncertainty.

Questioning is one of the most flexible teaching methods available to doctors. It requires no equipment, can be used almost anywhere and can transform an ordinary clinical encounter into a learning opportunity.

Different questions, however, serve different purposes. A question such as “What are the causes of hypercalcaemia?” tests retrieval. Asking why malignancy causes hypercalcaemia tests understanding. Asking which causes are most plausible in the patient in front of you requires application. You can then move further into reasoning and judgement. Which finding concerns you most? What would make you admit this patient? What would make you revise the diagnosis? These questions reveal much more about how the learner is using their knowledge.

Questions can also develop metacognition, the learner’s awareness of their own thinking. Asking how confident they are, which part of the case they are least certain about or what assumption they are making encourages them to consider the limits of their own judgement.

The way questioning is conducted matters enormously. Medicine has a long tradition of asking increasingly difficult questions until the learner eventually fails. Used badly, this becomes an exercise in demonstrating the teacher’s superior knowledge rather than helping the learner think. Once the learner believes the purpose is to catch them out, they become more interested in protecting themselves than exposing their reasoning.

Wait time matters too. Experts retrieve familiar information quickly, while learners may need several seconds to assemble an answer. If the teacher answers their own question almost immediately, the learner rapidly discovers that there is little reason to think. Sometimes one of the most useful things you can do after asking a difficult question is simply give the learner time.

One sign of successful teaching is that learners begin asking questions. Unfortunately, those questions do not always arrive in the form or at the time the teacher would have chosen.

Some take you beyond your expertise. Others are highly specialised and relevant to only one person in the room. Occasionally, somebody asks something that threatens to pull the whole session in another direction. There are also questions that are really challenges: the learner has read a different guideline, disagrees with your interpretation or wants to know why local practice differs from what they have been taught elsewhere.

A confident teacher does not need to know every answer. The first judgement is what sort of question you are dealing with. If it matters to the group, it may be worth exploring. If it is useful but tangential, you may acknowledge it and return later. If you genuinely do not know the answer, saying so is usually much safer than improvising.

The second judgement is how much of the session to allow the question to consume. One interesting discussion can easily take ten minutes and leave the teacher rushing through what everybody else actually needed.

Difficult questions can also improve your teaching. They reveal areas where your explanation was unclear, challenge assumptions and occasionally send you back to evidence you have not considered recently. The aim is not to prevent difficult questions, but to become comfortable enough with them that you do not become defensive or lose control of the teaching when they arise.

ISC Medical’s course includes a specific technique for handling difficult questions and challenging teaching situations; the value of structured training here is practising the response rather than merely being told to “stay calm”.

A learner understands your explanation, answers your questions correctly and leaves the session feeling confident. It is tempting to conclude that the learning has worked. The more interesting question is what happens a week later. Can they still retrieve the information? Can they use it in a different situation? There is an important difference between something feeling familiar and being able to generate and apply it independently.

Retrieval practice involves requiring learners to bring information back to mind rather than simply exposing them to it again. Instead of repeating last week’s explanation, ask learners what they remember. Before revealing the answer on a slide, ask them to commit to one. Give them another case and require them to use the same principle in a new context. Retrieval can feel harder than listening again because the learner has to generate the information themselves, but that effort is educationally valuable.

Spacing means revisiting important learning over time rather than concentrating it into a single event. A concept taught intensively once and never encountered again may disappear surprisingly quickly. If it reappears in later cases, questions and activities, the learner repeatedly has to retrieve and reapply it. This has important implications for programme design. Teaching does not need to treat every session as a self-contained island. Important concepts can deliberately recur.

Clinical work naturally creates some of this spacing because similar problems appear repeatedly. Good teachers can take advantage of that by linking a new case back to something discussed previously.

Small-group teaching is often described as interactive and learner-centred. It can be, but putting eight people around a table does not automatically make it either. A small group can easily become a lecture with closer seating.

Effective small-group teaching depends on facilitation. Learners need something meaningful to work with, and cases, dilemmas, decisions and problems often provide a better starting point than a vague request for people to “share their thoughts”.

The facilitator also needs to pay attention to how the group is functioning. Are two confident learners doing all the talking? Are quieter participants thinking but reluctant to contribute? Has the group accepted something inaccurate because nobody challenged it? Has a useful disagreement emerged that deserves exploration? The teacher has to judge when an explanation would help and when it would simply close down a productive discussion too early.

Sometimes you should explain. Sometimes you should ask another question. Sometimes you should draw somebody else into the conversation. Occasionally, the best thing you can do is remain quiet and allow the group to work something out.

Peer learning is one of the major strengths of small groups because learners hear how colleagues approach the same problem and may explain concepts to one another in language that is particularly accessible at their stage of development. But collaboration does not guarantee accuracy. The facilitator still needs enough subject knowledge and educational judgement to recognise when the group is heading somewhere unhelpful.

Good facilitation therefore involves doing less of the intellectual work yourself while paying more attention to the intellectual work happening in the room.

Presentations are sometimes portrayed as inherently old-fashioned, with anything described as interactive assumed to be educationally superior. That distinction is too crude. There are times when an experienced teacher can organise a difficult subject, identify what matters and explain it far more efficiently than asking learners to discover everything themselves. A clear explanation can be extremely powerful.

The problem with presentations is often not that the teacher talks, but what happens to the learner while they are talking. Doctors frequently know too much about the subjects they teach. Everything feels relevant. Slides become dense, interesting exceptions creep in and the presentation gradually becomes an attempt to transfer the contents of the teacher’s head to the audience.

Cognitive load theory helps explain why this fails. The learner may be trying to listen, read, interpret diagrams, make notes and decide which information matters at the same time. If the slide contains one message while the teacher explains something slightly different, attention becomes divided.

Good presentations manage that attention. What does the learner need to look at now? What is the main point? Does this visual actually clarify the idea? Is this detail necessary at this stage? Could an example do more than another bullet point?

Presentations can also involve active learning. You might explain a principle and then ask the group to apply it to a case, predict what happens next, compare two management strategies or explain the idea back in their own words. The session remains a presentation, but the learner is no longer simply receiving information.

Good teaching is not demonstrated by how much material you can cover. Often it is demonstrated by what you are prepared to leave out.

A technically accurate presentation can still fail because attention is not constant. Learners do not process sixty minutes of teaching at a uniform level of concentration. Attention fluctuates, particularly when the format remains unchanged for long periods. A teacher who speaks continuously, even extremely well, may gradually lose the group without realising it.

This is why changes in activity can help. A question, short case, demonstration, visual example or brief discussion can require learners to re-engage. These changes are sometimes described as ‘pattern interrupts’ because they break a prolonged period of predictable activity.

The important point is not to turn teaching into entertainment. Constant gimmicks can become as distracting as a monotonous lecture. The change in activity should give the learner something educationally worthwhile to do: retrieve information, make a decision, predict an outcome, discuss an alternative or apply the principle you have just explained.

The beginning of a session matters too. Learners make surprisingly rapid judgements about whether something is relevant and how much attention it deserves. A good introduction therefore does more than announce the title and list a series of objectives. It gives people a reason to care about what follows and helps them understand where the teaching is going.

Engagement, retention, introductions and pattern interrupts are deliberately taught as practical skills within ISC Medical’s Teach the Teacher course. Candidates also specifically report applying these techniques after the course, which is a useful reminder that the value lies in what happens to subsequent teaching rather than simply recognising the terminology.

Some medical ideas are difficult to communicate through words alone. Anatomy, physiology, pathways, spatial relationships and changes over time may become much clearer when verbal explanation is supported by an appropriate visual representation.

Ideas around dual coding are relevant here. Broadly, verbal and visual representations can complement one another and help learners create richer mental representations of a concept.

The important point is that the visual needs to do actual explanatory work. A decorative photograph of a doctor beside a slide about sepsis contributes very little. A diagram that genuinely clarifies the relationship between preload, stroke volume and cardiac output may contribute a great deal.

The design of the visual also matters. Experts can look at a complicated diagram and know immediately where to focus. Novices may have no idea. If a diagram contains twenty labels and several relationships, presenting the whole thing at once may simply create another cognitive-load problem. Building it progressively can be much more effective because the learner understands each element before seeing the complete complexity.

Visual teaching works best when the visual makes the idea easier to understand rather than simply making the teaching look more polished.

Online teaching is now a routine part of medical education, but a session designed for a physical room cannot always simply be transmitted through a webcam unchanged.

The environment alters the interaction. You lose many of the cues available in person. It can be harder to identify confusion, hesitation or disengagement, and long periods of passive listening can become particularly difficult. At the same time, online teaching creates opportunities. Chat allows several learners to contribute at once. Polls can make everybody commit to a decision rather than waiting for the most confident person to answer. Breakout rooms can create smaller discussions, and case-based teaching can work extremely well online.

The technology, however, should serve the educational objective. A poll is not good teaching simply because everybody clicked something. A breakout room is not useful simply because it is interactive. The important question remains: what useful intellectual or practical work is the learner doing?

Hybrid teaching (i.e. a situation where some participants are with you in the room, and others are following the proceedings remotely) can be even harder because remote learners can easily become spectators of a conversation happening in the room. If hybrid teaching is necessary, somebody needs to pay deliberate attention to those learners, monitor their contributions and ensure that they have genuine opportunities to participate.

Technology changes the teaching environment. It does not remove the need for educational judgement.

Learning styles are one of the more controversial areas of educational theory, and it is worth being clear about what that controversy actually concerns.

Frameworks such as Honey and Mumford have been widely used in professional education because they provide a simple language for thinking about how people approach learning. Learners may recognise that they tend to want to try something quickly, prefer to observe and think before acting, want to understand the underlying theory first or focus particularly on how an idea can be applied.

That kind of reflection can be useful because it reminds us that people do not all approach an educational experience in exactly the same way. Perhaps even more importantly, it can help teachers recognise their own preferences.

Most of us naturally gravitate towards particular ways of teaching. A teacher who loves theory may spend a great deal of time explaining. Someone who prefers practical learning may move rapidly towards exercises. Someone who enjoys reflection may build much of their teaching around discussion.

None of those approaches is inherently wrong. The difficulty comes when we assume that because a method works well for us, it must work equally well for everybody else.

This is one reason frameworks such as Honey and Mumford can remain useful. They provide a prompt to examine whether our own preferences are narrowing the learning experience and encourage us to think about variety. Honey and Mumford is explicitly included within ISC Medical’s Teach the Teacher programme for this reason.

There is, however, an important controversy. The stronger claim that people possess fixed learning styles and learn better when teaching is specifically matched to an identified style is much harder to support. Research has challenged this so-called matching or meshing hypothesis, and the evidence does not justify routinely categorising learners and then designing all teaching around those categories.

That distinction matters because it allows us to retain what is useful without overstating what the model tells us.

If a learner identifies strongly as someone who likes reflection, I would not conclude that everything should therefore be taught reflectively. The nature of the task matters just as much as the learner’s preference. A practical procedure eventually requires practice. Clinical reasoning requires opportunities to reason through cases. A difficult physiological concept may benefit particularly from explanation and visual representation. Communication skills eventually require communication.

A learner’s preference is therefore useful information, but it is not a prescription for how everything should be taught.

Used thoughtfully, learning-style frameworks become a reflective tool rather than a diagnostic test. They encourage teachers to ask whether they rely too heavily on their own preferred method and whether learners are receiving an appropriate mixture of explanation, experience, application and reflection.

The sensible position lies between two extremes. We do not need to treat learning styles as fixed categories that dictate instruction, but nor do we need to pretend that learners have no preferences or that everybody engages with every educational activity identically.

For clinical teachers, their greatest value may be the questions they make us ask about our own teaching.

Doctors often concentrate so heavily on their own performance that they underestimate how much can be learnt from watching other teachers. Peer observation allows you to notice choices that are difficult to see while you are teaching yourself. How does somebody regain the attention of a quiet group? What happens when an answer is wrong? How long do they tolerate silence? How do they introduce an activity or bring a wandering discussion back to the main point?

Watching several people tackle the same teaching task can be particularly instructive because you begin to see that there is rarely one correct teaching personality. One person may engage through energy and humour, another through excellent questions and another through exceptionally clear explanation.

Being observed yourself can be equally useful because other people notice habits you may no longer see. You may discover that you answer your own questions, move too quickly through examples, repeatedly focus on the same learners or use terminology you assumed everybody understood.

This is why teaching practice and peer review are difficult to reproduce simply by reading about education. Teaching has a performance element, and at some point somebody needs to see you do it.

The practical teaching tasks, peer observation, feedback and coaching offered within ISC Medical’s two-day teach the teacher course are intended to provide precisely that opportunity.

Teaching rarely unfolds exactly as planned. The technology fails. The group is much more experienced than expected. The speaker before you runs over. One learner dominates the conversation. Nobody answers the opening question. Half the audience is called away to deal with a clinical emergency.

These situations reveal another aspect of teaching expertise: situational awareness. Teachers can become so focused on delivering what they prepared that they fail to notice what is happening in front of them. If the group already understands something, move on. If an activity has clearly failed, persisting with it simply because it appeared in the lesson plan is rarely helpful. If time has disappeared, decide what genuinely matters rather than simply speaking twice as quickly.

A difficult participant also requires judgement. Somebody who asks repeated questions may be highly engaged, anxious, trying to demonstrate knowledge or simply unaware of how much space they are occupying. Managing that interaction means protecting the wider group while preserving the individual’s dignity.

Preparation helps because it gives you options, but flexibility matters just as much. Good teachers have a plan. Experienced teachers also know when the plan needs to change.

Situational awareness, managing challenging interactions and anticipating the things that can disrupt teaching are deliberately included within ISC Medical’s course because these are hard to learn from theory alone.

The same teaching method can be extremely helpful for a novice and irritating for an expert. Novices generally need more structure because they have fewer established mental frameworks. They may benefit from explicit explanation, worked examples, clear sequences and more guidance. Advanced learners need progressively less structure.

Consider teaching clinical assessment. A medical student may benefit from a systematic framework because it reduces the chance of forgetting important elements. A senior registrar should not need to approach every patient through the same rigid sequence. They need to identify what matters, tolerate uncertainty and adapt the assessment to the situation.

If you continue giving an advanced trainee detailed step-by-step instructions, you may actually interfere with the development of the judgement you are trying to encourage. This is sometimes described as the expertise reversal effect, where instructional support that helps novices becomes unnecessary or even counterproductive as knowledge and competence increase.

Good clinical teaching therefore evolves. Early on, the teacher may explain more, structure more and intervene more. Later, they may question more, observe more and tolerate greater independence. Eventually, the learner may need the teacher mainly as somebody who challenges assumptions and discusses the genuinely difficult cases.

The educational judgement lies in finding the right balance. Too much challenge with too little support produces overload, while too much support with too little challenge produces dependence or boredom.

That balance changes with both the learner and the task.

Teaching methods are separated in articles and textbooks because that makes them easier to discuss. Real clinical teaching is rarely so tidy.

Imagine supervising a junior doctor assessing somebody with acute breathlessness. You observe the history, ask what they think is happening, challenge one assumption, demonstrate a part of the examination they are struggling with and then let them repeat it. They formulate a plan and you resist giving them the answer immediately because you want them to decide. Afterwards, you discuss what happened.

A few days later, you see a similar patient and ask whether anything from the previous case changes their approach. Across those encounters you have used workplace learning, questioning, cognitive apprenticeship, demonstration, scaffolding, deliberate practice, retrieval and feedback. There is no need to name each theory while you are teaching. The value of understanding them is that they help explain why the different interventions may be useful.

Experienced teachers develop a repertoire. They explain when explanation is needed, demonstrate when something needs to be seen, ask questions when reasoning needs to become visible, simplify when the learner is overloaded, step back when greater independence is needed and intervene when safety requires it.

That flexibility is far more valuable than loyalty to any single teaching method.

When deciding how to teach something, begin with the outcome and ask what the learner should be able to do afterwards that they cannot do now.

Then consider the type of learning involved. Do they need to remember information, understand a concept, apply knowledge, analyse a problem, make a judgement, demonstrate a skill or perform independently in practice? Bloom and Miller are particularly useful here because they force you to distinguish the level of thinking from the level of clinical performance.

Next, consider the learner’s starting point. A novice may need explanation, modelling and structure, whereas an advanced learner may need uncertainty, independence and challenge. Think about cognitive load and whether the whole task is manageable yet or whether some complexity needs to be reduced.

Then consider authenticity. Can a case achieve the objective, or does the learner need simulation or real clinical practice? Think about the support they need and, equally importantly, when that support should begin to disappear.

Finally, decide how you will recognise whether the teaching worked. If the objective is performance, observe performance. If the objective is reasoning, ask the learner to reason. If the objective is communication, observe communication. If the objective is knowledge, test whether they can retrieve and use it.

These questions sound obvious, and that is partly why they are useful. They stop us choosing a method simply because it is familiar, fashionable or convenient.

Medical education is vulnerable to fashions. Lectures become unfashionable because they are described as passive. Simulation becomes attractive because it is immersive. Small groups are assumed to be learner-centred. Experiential learning sounds inherently superior because it is authentic. None of those descriptions tells us whether the teaching is actually good.

A lecture can provide a brilliantly clear explanation that transforms somebody’s understanding. A simulation can consume enormous resources and teach very little. Eight people can sit passively in a small group while one person talks. A learner can spend months in clinical practice and learn surprisingly little if nobody helps them make sense of what they are experiencing.

The method itself does not determine quality. What matters is how well the learner, objective, activity, level of challenge, support, feedback and eventual performance fit together. Educational theory helps us understand those relationships. It should not become another ideology.

Most doctors develop some teaching ability through experience. We watch people whose teaching we admire, copy some of what they do, reject other approaches and gradually discover methods that work for us. That can produce excellent teachers, but experience can reinforce habits just as easily as it improves them.

A doctor can deliver the same polished teaching session for years without ever asking whether another approach might serve the learner better. Structured training creates an opportunity to examine those habits more deliberately.

Concepts such as constructive alignment, Bloom’s taxonomy, Miller’s pyramid, cognitive load, experiential learning, scaffolding and cognitive apprenticeship give us different ways of looking at situations we have probably already encountered. Sometimes the theory simply gives a name to something we discovered intuitively. Sometimes it explains why a session that seemed perfectly sensible failed. Occasionally, it makes us recognise that something we have done for years could be improved.

Formal training can also address things that are difficult to develop simply by reading about teaching: managing the room, handling difficult questions, responding when a planned activity fails, observing other teachers and being observed yourself.

ISC Medical’s Teach the Teacher Course for Doctors combines educational frameworks with practical work on audience engagement, session design, presentation skills, difficult questions, psychological safety, teaching practice, observation and feedback. The one-day Essentials programme covers the core principles, while the two-day Comprehensive programme provides substantially greater opportunity for practice, feedback and coaching.

For the wider question of how doctors develop confidence and capability as teachers over time, see How to Develop Your Teaching Skills as a Doctor: From Imposter Syndrome to Confident Clinical Teaching.

Understanding teaching methods is not about accumulating an ever-larger collection of techniques. It is about becoming more deliberate in the decisions you make when you teach.

Bloom’s taxonomy makes you think about the intellectual work you are asking learners to undertake, while Miller’s pyramid reminds you that knowing and doing are not the same thing. Constructive alignment asks whether your activity genuinely matches the intended outcome. Cognitive load makes you think about what the learner is trying to process. Scaffolding makes you consider how much support to give and when to withdraw it. Experiential learning reminds you that experience only becomes useful when something is learnt from it, while cognitive apprenticeship encourages you to make expert reasoning visible rather than expecting learners to absorb it by watching.

Over time, these ideas become less like separate theories and more like ordinary teaching judgement. You begin to ask whether the learner needs another explanation or needs to try, whether you are helping too much, whether you have given them so much information that they can no longer see what matters, and whether another teaching method would work better.

That is where educational theory earns its place: not when we can recite it, but when it changes what we do.

For the broader developmental journey, read How to Develop Your Teaching Skills as a Doctor: From Imposter Syndrome to Confident Clinical Teaching. For a deeper exploration of one of the most important skills running through almost every method in this guide, continue with Giving Effective Feedback in Medical Education: A Guide for Doctors.

If you would like structured practical training in these areas, ISC Medical’s Teach the Teacher Course for Doctors is available as a one-day Essentials programme and a two-day Comprehensive programme.