Modelling in Teaching: How to Show Before You Ask
Teacher modelling explained: think-alouds, worked examples, and live demonstrations. How showing the process (not just the product) builds pupil confidence and independence.


Teacher modelling explained: think-alouds, worked examples, and live demonstrations. How showing the process (not just the product) builds pupil confidence and independence.
Modelling shows learners how teachers think or do skills, explaining reasoning (Collins, Brown, & Newman, 1989). Think-alouds and examples reveal cognitive processes. This helps learners tackle problems, spot mistakes, and improve fluency (Anderson, Greeno, Kline, & Neves, 1981; Pirolli & Anderson, 1985).
Modelling is one of the most powerful tools in a teacher's repertoire, yet it is often underutilised or poorly executed. Effective modelling means more than simply showing students what to do: it involves making invisible thinking processes visible through verbal modelling, demonstrating the steps experts take through inquiry-based learning and questioning techniques, and explicitly naming the decisions being made through explicit instruction. When done well, modelling reduces cognitive load, builds confidence, supports collaborative learning, and provides students with a clear template for success alongside clear learning objectives through effective scaffolding techniques. This guide explains different types of modelling and how to implement them effectively.
In education, modelling as instruction is used by educators as an instructional strategy to save time for teaching while improving their teaching skills. Each time an instructor explains a concept for a student, the instructor is modelling. This collaborative approach is strengthened when teachers work together in professional learning communities to share and refine their modelling techniques.
According to Albert Bandura's Social Learning Theory, pure behaviourism cannot explain why the learning process occurs in absence of external reinforcement. Albert Bandura felt that inner mental state or cognitive processes must also play a role in learning efficiency and that the modelling process takes into account much more than imitation. In the case of imitation, a person barely copies what is done by the model.
Mental modelling in education involves making students' thinking processes visible and explicit so they can understand, examine, and improve how they learn and solve problems. This involves children in the model creation of their thought processes. By using our block building methodology, a child can get the inside picture of human learning and how it happens. The pedagogy is predominantly based on the idea of organising our thoughts. This process of modelling allows a child to see their thoughts and at the same time have an opportunity to modify them. This experience provides opportunities for the positive reinforcement of key learning behaviours. At Structural Learning, we encourage the active learning principles of metacognition. This involves children in the model creation of their thought processes. By using our block building methodology, a child can get the inside picture of human learning and how it happens. The pedagogy is predominantly based on the idea of organising our thoughts. This process of modelling allows a child to see their thoughts and at the same time have an opportunity to modify them. This experience provides opportunities for the positive reinforcement of key learning behaviours.
Allowing time for teaching methodologies like this gives children room to play with their new ideas. The social behaviours that come through these activities enable children to articulate their thinking to one another. This acts as a launchpad for better writing as learners are given time to rehearse what they are going to write. This approach aligns with constructivism, where students actively build their understanding through hands-on experiences.

According to Albert Bandura's Social Learning Theory, learning efficiency may occur while watching others' social behaviours and then modelling what others say or do. These cognitive processes involve not just imitation but also how information is stored in working memory. Bandura explained particular steps in the process of modelling that must be followed to make learning successful:


Here are some examples of how modelling can be used in the classroom:

In mathematics lessons, effective modelling might involve working through a complex word problem whilst verbalising your thought process: 'I notice this problem mentions rate and time, which suggests I might need to think about distance. Let me re-read to identify what information I have and what I'm trying to find.' You demonstrate the calculation steps and the reasoning and problem-solving
During writing instruction, model the entire composition process rather than just showing finished examples. Think aloud as you plan your writing: 'I need to consider my audience here, they won't know much about this topic, so I should define this term.' Show students how you revise your work, cross out sections, and rethink your approach. This demystifies the writing process and shows that good writing involves multiple drafts and revisions.
In science lessons, model scientific thinking by demonstrating how to make observations, form hypotheses, and draw conclusions. When conducting an experiment, verbalise your reasoning: 'I'm going to control this variable because..' or 'This unexpected result makes me wonder if..' This explicit instruction helps students understand that science is about thinking processes, not just fo llowing procedures. Similarly, in history lessons, model how historians analyse sources by questioning authenticity, considering bias, and cross-referencing evidence whilst working through primary documents with your class.
Modelling is a highly effective teaching strategy for several reasons:
Ultimately, effective modelling helps students to become more independent and successful learners.
Research consistently demonstrates that explicit modelling significantly improves student learning outcomes across all subject areas. When teachers model effectively, they reduce cognitive load by providing students with clear examples of expert performance before expecting independent practise. This approach is particularly beneficial for novice learners who lack the background knowledge to infer
Modelling also builds student confidence by demystifying complex processes. Many students feel overwhelmed when asked to complete tasks they've never seen demonstrated properly. By showing the step-by-step process, including how to handle difficulties and mistakes, teachers help students develop a roadmap for success. John Hattie's research on visible learning shows that modelling has an effect size of 0.69, indicating a high impact on student achievement.
Modelling aids inclusive learning by offering learners various access routes. Visual learners see the process; auditory learners hear explanations. Kinaesthetic learners benefit from structured approaches. Learners with difficulties gain from explicit modelling, reducing guesswork. This helps when teaching abstract ideas like maths problems or essay planning.
The long-term benefits extend beyond immediate task completion. When students observe expert thinking processes repeatedly, they begin to internalise these approaches and apply them independently in new situations. This transfer of learning is the ultimate goal of education, helping students become autonomous, strategic learners who can tackle unfamiliar challenges with confidence and systematic thinking.
Despite its proven effectiveness, modelling frequently falls short due to several predictable mistakes that undermine student learning. The most common error is rushing through demonstrations, where teachers move too quickly without allowing students to process each step. This violates John Sweller's cognitive load theory, which demonstrates that learners can only handle limited new information simultaneously. When teachers skip seemingly "obvious" steps or fail to verbalise their thinking processes, they create gaps that leave students confused and unable to replicate the demonstrated skill.
Teachers often assume learners have knowledge they lack. Skipping steps creates understanding barriers (Kirschner, 2002). Many model tasks without showing pitfalls or better methods (Bjork, 1994). This reduces learner independence (Brown, 1987).
This builds on the foundational work of John Flavell (1979), who first identified metacognitive knowledge, and Barry Zimmerman (2002), whose self-regulated learning model provides the framework for teaching these skills.
Model deliberately: slow demos, say decisions, and check learners understand. Record your modelling to spot shortcuts. Think aloud constantly to show your thought process (Clark, 1983; Kirschner, 2006). This makes modelling a powerful learning support.
Effective modelling must be followed by a carefully structured transition that gradually shifts responsibility from teacher to student. Pearson and Gallagher's gradual release of responsibility model provides a proven framework: "I do, we do, you do together, you do alone." This progression ensures students receive appropriate support at each stage whilst building towards independent mastery of the skill or concept.
The guided practise phase proves particularly crucial, as students attempt the task with immediate teacher feedback and support. During this stage, teachers should circulate actively, observing student attempts and providing specific, corrective guidance. Common misconceptions often emerge here, offering valuable teaching moments that reinforce the original modelling. John Sweller's cognitive load theory demonstrates why this scaffolded approach works: by maintaining appropriate challenge levels, we prevent cognitive overload whilst building student confidence.
The final transition to independent practise should only occur when students demonstrate consistent success during guided work. Teachers can assess readiness through techniques such as exit tickets, peer explanations, or brief individual conferences. Remember that different students will progress at varying rates, so consider providing additional modelling or extended guided practise for those who need it, whilst allowing ready students to progress independently.
Modelling in teaching involves showing students how to approach a task or concept by thinking aloud, demonstrating steps, and making invisible processes visible. It helps reduce cognitive load, builds confidence, and provides clear learning objectives.
To implement modelling, first demonstrate a task or concept step-by-step while thinking aloud. Then, guide students through the process, encouraging them to participate and ask questions. Finally, provide opportunities for independent practise.
Modelling helps students understand complex tasks by breaking them down into manageable steps. It reduces cognitive load, builds confidence, and supports collaborative learning, providing a clear template for success.
Visible thinking processes are key, research shows (Fisher & Frey, 2018). Teachers should explain demonstrations fully. Learners need sufficient independent practice (Hattie, 2012). Ensure learners are paying attention in class (Wiliam, 2017).
To determine if modelling is effective, observe students' engagement and understanding during the demonstration. Check for retention by asking them to repeat or explain the steps. Additionally, assess their performance on independent tasks to see if they have successfully applied what was modelled.
Modelling is more than just showing; it's about illuminating the often-hidden pathways of thought and action. By consciously demonstrating our processes, we provide students with a tangible framework for their own learning process. It’s about explicitly verbalising the 'how' and 'why' behind our actions, turning abstract concepts into concrete, understandable steps. When we, as educators, embrace modelling, we're not just teaching; we're helping students with the tools to become confident, capable, and independent thinkers.
Therefore, integrating modelling as a core teaching strategy can significantly enhance learning outcomes and creates a classroom environment where students feel supported and encouraged to take risks, experiment, and ultimately, succeed. It is a powerful investment in their future, equipping them with skills and understanding that extend far beyond the classroom walls.
Begin implementing effective modelling by selecting a specific lesson where you can demonstrate the complete thinking process from start to finish. Focus on making your internal dialogue explicit, explaining not just what you are doing but why you are making particular choices. For instance, when modelling essay writing, verbalise how you select evidence, structure arguments, and revise sentences for clarity. This explicit instruction helps students understand the cognitive steps involved in complex tasks.
Collaborate with colleagues to observe each other's modelling techniques and share successful strategies across your department or school. Consider creating a brief reflection checklist to evaluate your modelling sessions: Did students understand the key steps? Were thinking processes made visible? What questions arose that suggest areas for further modelling? Regular practise and adjustment of your approach will strengthen this essential classroom practise.
Ultimately, effective modelling transforms teaching from telling students what to do to showing them how expert practitioners think and work. This teaching strategy bridges the gap between teacher knowledge and student understanding, creating clearer pathways for learning success.
Consider learner needs and prior knowledge to build a helpful framework. This framework should gradually remove support as learners gain mastery. Researchers like Vygotsky (1978) and Wood et al (1976) inform this process. Focus on moving learners towards independent work.
Download this free Metacognition, Planning, Monitoring & Self-Regulation resource pack for your classroom and staff room. Includes printable posters, desk cards, and CPD materials.
These peer-reviewed studies explore the role of modelling in education, from teacher demonstration and worked examples to cognitive apprenticeship. Each paper offers evidence for how and when modelling improves learner learning.
Modelling-Based Teaching in Science Education View study ↗
226 citations
Gilbert, J. and Justi, R. (2016)
Gilbert and Justi (2016) offer guidance on using models in science. Teach with models by explaining ideas using representations. Teach about models, helping learners see them as tools. Modelling works best when learners build, test, and change models (Gilbert & Justi, 2016). Avoid passive observation of teacher examples.
The Meaning of Role Modelling in Moral and Character Education View study ↗
217 citations
Sanderse, W. (2013)
Sanderse (2015) looked at role modelling in character education. Unintentional modelling is learners watching teacher behaviour. Intentional modelling involves teachers demonstrating values, like thinking skills. The research shows intentional modelling is more effective. Teachers should narrate their reasoning, not just expect learners to absorb habits. This applies across subjects, not just PSHE.
Mediated Modelling in Science Education View study ↗
175 citations
Halloun, I. A. (2007)
Halloun develops the concept of "mediated modelling," where teachers use structured sequences of models to bridge the gap between learners' existing understanding and target scientific concepts. His approach involves presenting a simplified model, testing it against evidence, identifying its limitations, and then introducing a more sophisticated version. For teachers, this iterative modelling process mirrors how scientists actually work, making it a powerful approach for developing both content knowledge and scientific thinking skills.
The Influence of Principal Leadership on Classroom Instruction and Student Learning View study ↗
360 citations
Sebastian, J. and Allensworth, E. (2012)
Sebastian and Allensworth investigate how school leadership shapes classroom instruction, finding that principals who model effective teaching practices, observe lessons regularly, and provide specific feedback have the greatest impact on teaching quality. Their research shows that modelling is not just a learner-facing strategy; it is equally effective in professional development. For school leaders, this means that demonstrating lessons, co-teaching, and sharing their own pedagogical reasoning is more effective than simply telling teachers what to do.
Multimedia learning improves outcomes. Research shows learners gain more from words and images (Mayer, 2009). Reviews by researchers explore these benefits (Hattie, 2009; Schroeder et al., 2010). This meta-meta-analysis gives teachers an overview of findings.
Noetel, M. and Griffith, S. (2021)
Researchers analysed multimedia learning principles (Mayer, 2021). Worked examples are effective strategies, research shows. For teachers, modelling a process helps learners more than just giving instructions. Narration is key when modelling (Sweller, 1988; Clark & Mayer, 2016).
Modelling shows learners how teachers think or do skills, explaining reasoning (Collins, Brown, & Newman, 1989). Think-alouds and examples reveal cognitive processes. This helps learners tackle problems, spot mistakes, and improve fluency (Anderson, Greeno, Kline, & Neves, 1981; Pirolli & Anderson, 1985).
Modelling is one of the most powerful tools in a teacher's repertoire, yet it is often underutilised or poorly executed. Effective modelling means more than simply showing students what to do: it involves making invisible thinking processes visible through verbal modelling, demonstrating the steps experts take through inquiry-based learning and questioning techniques, and explicitly naming the decisions being made through explicit instruction. When done well, modelling reduces cognitive load, builds confidence, supports collaborative learning, and provides students with a clear template for success alongside clear learning objectives through effective scaffolding techniques. This guide explains different types of modelling and how to implement them effectively.
In education, modelling as instruction is used by educators as an instructional strategy to save time for teaching while improving their teaching skills. Each time an instructor explains a concept for a student, the instructor is modelling. This collaborative approach is strengthened when teachers work together in professional learning communities to share and refine their modelling techniques.
According to Albert Bandura's Social Learning Theory, pure behaviourism cannot explain why the learning process occurs in absence of external reinforcement. Albert Bandura felt that inner mental state or cognitive processes must also play a role in learning efficiency and that the modelling process takes into account much more than imitation. In the case of imitation, a person barely copies what is done by the model.
Mental modelling in education involves making students' thinking processes visible and explicit so they can understand, examine, and improve how they learn and solve problems. This involves children in the model creation of their thought processes. By using our block building methodology, a child can get the inside picture of human learning and how it happens. The pedagogy is predominantly based on the idea of organising our thoughts. This process of modelling allows a child to see their thoughts and at the same time have an opportunity to modify them. This experience provides opportunities for the positive reinforcement of key learning behaviours. At Structural Learning, we encourage the active learning principles of metacognition. This involves children in the model creation of their thought processes. By using our block building methodology, a child can get the inside picture of human learning and how it happens. The pedagogy is predominantly based on the idea of organising our thoughts. This process of modelling allows a child to see their thoughts and at the same time have an opportunity to modify them. This experience provides opportunities for the positive reinforcement of key learning behaviours.
Allowing time for teaching methodologies like this gives children room to play with their new ideas. The social behaviours that come through these activities enable children to articulate their thinking to one another. This acts as a launchpad for better writing as learners are given time to rehearse what they are going to write. This approach aligns with constructivism, where students actively build their understanding through hands-on experiences.

According to Albert Bandura's Social Learning Theory, learning efficiency may occur while watching others' social behaviours and then modelling what others say or do. These cognitive processes involve not just imitation but also how information is stored in working memory. Bandura explained particular steps in the process of modelling that must be followed to make learning successful:


Here are some examples of how modelling can be used in the classroom:

In mathematics lessons, effective modelling might involve working through a complex word problem whilst verbalising your thought process: 'I notice this problem mentions rate and time, which suggests I might need to think about distance. Let me re-read to identify what information I have and what I'm trying to find.' You demonstrate the calculation steps and the reasoning and problem-solving
During writing instruction, model the entire composition process rather than just showing finished examples. Think aloud as you plan your writing: 'I need to consider my audience here, they won't know much about this topic, so I should define this term.' Show students how you revise your work, cross out sections, and rethink your approach. This demystifies the writing process and shows that good writing involves multiple drafts and revisions.
In science lessons, model scientific thinking by demonstrating how to make observations, form hypotheses, and draw conclusions. When conducting an experiment, verbalise your reasoning: 'I'm going to control this variable because..' or 'This unexpected result makes me wonder if..' This explicit instruction helps students understand that science is about thinking processes, not just fo llowing procedures. Similarly, in history lessons, model how historians analyse sources by questioning authenticity, considering bias, and cross-referencing evidence whilst working through primary documents with your class.
Modelling is a highly effective teaching strategy for several reasons:
Ultimately, effective modelling helps students to become more independent and successful learners.
Research consistently demonstrates that explicit modelling significantly improves student learning outcomes across all subject areas. When teachers model effectively, they reduce cognitive load by providing students with clear examples of expert performance before expecting independent practise. This approach is particularly beneficial for novice learners who lack the background knowledge to infer
Modelling also builds student confidence by demystifying complex processes. Many students feel overwhelmed when asked to complete tasks they've never seen demonstrated properly. By showing the step-by-step process, including how to handle difficulties and mistakes, teachers help students develop a roadmap for success. John Hattie's research on visible learning shows that modelling has an effect size of 0.69, indicating a high impact on student achievement.
Modelling aids inclusive learning by offering learners various access routes. Visual learners see the process; auditory learners hear explanations. Kinaesthetic learners benefit from structured approaches. Learners with difficulties gain from explicit modelling, reducing guesswork. This helps when teaching abstract ideas like maths problems or essay planning.
The long-term benefits extend beyond immediate task completion. When students observe expert thinking processes repeatedly, they begin to internalise these approaches and apply them independently in new situations. This transfer of learning is the ultimate goal of education, helping students become autonomous, strategic learners who can tackle unfamiliar challenges with confidence and systematic thinking.
Despite its proven effectiveness, modelling frequently falls short due to several predictable mistakes that undermine student learning. The most common error is rushing through demonstrations, where teachers move too quickly without allowing students to process each step. This violates John Sweller's cognitive load theory, which demonstrates that learners can only handle limited new information simultaneously. When teachers skip seemingly "obvious" steps or fail to verbalise their thinking processes, they create gaps that leave students confused and unable to replicate the demonstrated skill.
Teachers often assume learners have knowledge they lack. Skipping steps creates understanding barriers (Kirschner, 2002). Many model tasks without showing pitfalls or better methods (Bjork, 1994). This reduces learner independence (Brown, 1987).
This builds on the foundational work of John Flavell (1979), who first identified metacognitive knowledge, and Barry Zimmerman (2002), whose self-regulated learning model provides the framework for teaching these skills.
Model deliberately: slow demos, say decisions, and check learners understand. Record your modelling to spot shortcuts. Think aloud constantly to show your thought process (Clark, 1983; Kirschner, 2006). This makes modelling a powerful learning support.
Effective modelling must be followed by a carefully structured transition that gradually shifts responsibility from teacher to student. Pearson and Gallagher's gradual release of responsibility model provides a proven framework: "I do, we do, you do together, you do alone." This progression ensures students receive appropriate support at each stage whilst building towards independent mastery of the skill or concept.
The guided practise phase proves particularly crucial, as students attempt the task with immediate teacher feedback and support. During this stage, teachers should circulate actively, observing student attempts and providing specific, corrective guidance. Common misconceptions often emerge here, offering valuable teaching moments that reinforce the original modelling. John Sweller's cognitive load theory demonstrates why this scaffolded approach works: by maintaining appropriate challenge levels, we prevent cognitive overload whilst building student confidence.
The final transition to independent practise should only occur when students demonstrate consistent success during guided work. Teachers can assess readiness through techniques such as exit tickets, peer explanations, or brief individual conferences. Remember that different students will progress at varying rates, so consider providing additional modelling or extended guided practise for those who need it, whilst allowing ready students to progress independently.
Modelling in teaching involves showing students how to approach a task or concept by thinking aloud, demonstrating steps, and making invisible processes visible. It helps reduce cognitive load, builds confidence, and provides clear learning objectives.
To implement modelling, first demonstrate a task or concept step-by-step while thinking aloud. Then, guide students through the process, encouraging them to participate and ask questions. Finally, provide opportunities for independent practise.
Modelling helps students understand complex tasks by breaking them down into manageable steps. It reduces cognitive load, builds confidence, and supports collaborative learning, providing a clear template for success.
Visible thinking processes are key, research shows (Fisher & Frey, 2018). Teachers should explain demonstrations fully. Learners need sufficient independent practice (Hattie, 2012). Ensure learners are paying attention in class (Wiliam, 2017).
To determine if modelling is effective, observe students' engagement and understanding during the demonstration. Check for retention by asking them to repeat or explain the steps. Additionally, assess their performance on independent tasks to see if they have successfully applied what was modelled.
Modelling is more than just showing; it's about illuminating the often-hidden pathways of thought and action. By consciously demonstrating our processes, we provide students with a tangible framework for their own learning process. It’s about explicitly verbalising the 'how' and 'why' behind our actions, turning abstract concepts into concrete, understandable steps. When we, as educators, embrace modelling, we're not just teaching; we're helping students with the tools to become confident, capable, and independent thinkers.
Therefore, integrating modelling as a core teaching strategy can significantly enhance learning outcomes and creates a classroom environment where students feel supported and encouraged to take risks, experiment, and ultimately, succeed. It is a powerful investment in their future, equipping them with skills and understanding that extend far beyond the classroom walls.
Begin implementing effective modelling by selecting a specific lesson where you can demonstrate the complete thinking process from start to finish. Focus on making your internal dialogue explicit, explaining not just what you are doing but why you are making particular choices. For instance, when modelling essay writing, verbalise how you select evidence, structure arguments, and revise sentences for clarity. This explicit instruction helps students understand the cognitive steps involved in complex tasks.
Collaborate with colleagues to observe each other's modelling techniques and share successful strategies across your department or school. Consider creating a brief reflection checklist to evaluate your modelling sessions: Did students understand the key steps? Were thinking processes made visible? What questions arose that suggest areas for further modelling? Regular practise and adjustment of your approach will strengthen this essential classroom practise.
Ultimately, effective modelling transforms teaching from telling students what to do to showing them how expert practitioners think and work. This teaching strategy bridges the gap between teacher knowledge and student understanding, creating clearer pathways for learning success.
Consider learner needs and prior knowledge to build a helpful framework. This framework should gradually remove support as learners gain mastery. Researchers like Vygotsky (1978) and Wood et al (1976) inform this process. Focus on moving learners towards independent work.
Download this free Metacognition, Planning, Monitoring & Self-Regulation resource pack for your classroom and staff room. Includes printable posters, desk cards, and CPD materials.
These peer-reviewed studies explore the role of modelling in education, from teacher demonstration and worked examples to cognitive apprenticeship. Each paper offers evidence for how and when modelling improves learner learning.
Modelling-Based Teaching in Science Education View study ↗
226 citations
Gilbert, J. and Justi, R. (2016)
Gilbert and Justi (2016) offer guidance on using models in science. Teach with models by explaining ideas using representations. Teach about models, helping learners see them as tools. Modelling works best when learners build, test, and change models (Gilbert & Justi, 2016). Avoid passive observation of teacher examples.
The Meaning of Role Modelling in Moral and Character Education View study ↗
217 citations
Sanderse, W. (2013)
Sanderse (2015) looked at role modelling in character education. Unintentional modelling is learners watching teacher behaviour. Intentional modelling involves teachers demonstrating values, like thinking skills. The research shows intentional modelling is more effective. Teachers should narrate their reasoning, not just expect learners to absorb habits. This applies across subjects, not just PSHE.
Mediated Modelling in Science Education View study ↗
175 citations
Halloun, I. A. (2007)
Halloun develops the concept of "mediated modelling," where teachers use structured sequences of models to bridge the gap between learners' existing understanding and target scientific concepts. His approach involves presenting a simplified model, testing it against evidence, identifying its limitations, and then introducing a more sophisticated version. For teachers, this iterative modelling process mirrors how scientists actually work, making it a powerful approach for developing both content knowledge and scientific thinking skills.
The Influence of Principal Leadership on Classroom Instruction and Student Learning View study ↗
360 citations
Sebastian, J. and Allensworth, E. (2012)
Sebastian and Allensworth investigate how school leadership shapes classroom instruction, finding that principals who model effective teaching practices, observe lessons regularly, and provide specific feedback have the greatest impact on teaching quality. Their research shows that modelling is not just a learner-facing strategy; it is equally effective in professional development. For school leaders, this means that demonstrating lessons, co-teaching, and sharing their own pedagogical reasoning is more effective than simply telling teachers what to do.
Multimedia learning improves outcomes. Research shows learners gain more from words and images (Mayer, 2009). Reviews by researchers explore these benefits (Hattie, 2009; Schroeder et al., 2010). This meta-meta-analysis gives teachers an overview of findings.
Noetel, M. and Griffith, S. (2021)
Researchers analysed multimedia learning principles (Mayer, 2021). Worked examples are effective strategies, research shows. For teachers, modelling a process helps learners more than just giving instructions. Narration is key when modelling (Sweller, 1988; Clark & Mayer, 2016).
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