Getting Started with Metacognition
New to metacognition? A step-by-step guide for teachers introducing metacognitive thinking to learners, with lesson starters and planning frameworks.


New to metacognition? A step-by-step guide for teachers introducing metacognitive thinking to learners, with lesson starters and planning frameworks.
Getting Started with Metacognition shows how teachers can help learners plan, monitor, and evaluate their thinking in real classroom tasks. Metacognition means being aware of your own thinking and managing it. This includes choosing a strategy, checking if it works, and changing approach when needed (Flavell, 1979). The EEF guidance report links metacognition and self-regulation with about seven months' extra progress when schools teach these strategies clearly and carefully (Quigley et al., 2018).
In a Year 8 history lesson, this might mean asking learners to choose evidence before writing, pause halfway to check whether each paragraph answers the question, then write one sentence explaining what they will change next time. The aim is not extra reflection paperwork. It is better judgement during the task, so learners can spot confusion early and ask for the right support.
Metacognition means awareness and regulation of one's own thinking: learners notice how they are approaching a task, judge whether the strategy is working, and change course when needed (Flavell, 1979). A learner with metacognitive skills can say, 'I am rereading but still not remembering this vocabulary, so I need to test myself instead.'
The strongest classroom claim is not that metacognition guarantees higher GCSE grades. The EEF Teaching and Learning Toolkit reports a more careful finding. Metacognition and self-regulation are linked with about seven months' additional progress when teachers teach them clearly and use them well (Quigley et al., 2018).
| Metacognitive Phase | Key Questions | Learner Actions |
|---|---|---|
| Planning | What do I need to do? What do I already know? | Set goals, activate prior knowledge, choose strategies |
| Monitoring | Is this working? Do I understand? | Check comprehension, adjust strategies, identify difficulties |
| Evaluating | Did I achieve my goal? What worked well? | Review outcomes, reflect on strategies, plan improvements |
Metacognition can improve teaching. Leaders need to raise awareness so it supports education more clearly. Self-regulated learners thrive (Brown, 1987). They plan, think about their progress, and change tactics when needed (Flavell, 1979; Metcalfe & Shimamura, 1994).
Reflection is a key component of metacognition, but it should change what learners do next. In a mathematics lesson, ask learners to identify which step failed, which cue they missed, and what they will check first in the next problem. This keeps reflection tied to strategy use rather than a general comment about confidence.
Metacognitive strategies help learners self-regulate in lessons. This means they learn how to manage their own thinking and actions. Goal-oriented teaching keeps learners engaged and can improve their attainment. show that awareness and reflection can help learners achieve more.
Metacognition helps learners understand their own thinking. It also benefits teachers and leaders. Educators can create supportive spaces through reflection and self-regulation. This boosts learning and improves results (Flavell, 1979). Teaching practice can improve when metacognition is linked to clear feedback and careful strategy choice (Hattie, 2009; Dunlosky & Rawson, 2012).
Metacognition is knowing how you think (Flavell, 1979). Self-regulated learning means managing your learning through goals, strategy choice, monitoring, and evaluation (Zimmerman, 2002). In simple terms, metacognition is about thinking, while self-regulated learning is about managing the whole learning process. Teachers need to know the difference so they can support better learner outcomes.
Self-regulation and metacognition are often used as if they mean the same thing. However, teachers need to understand the difference between them.
Self-regulation is an important skill for academic success and life beyond school. Zimmerman (2002) shows that it works in a cycle of planning, monitoring, and reflecting. Pintrich (2000) also stresses the key role of motivation. When learners direct their own learning, self-regulation can improve outcomes (Paris & Winograd, 1990).
Metacognition helps learners regulate themselves. Flavell (1979) showed that planning, monitoring, and evaluating help learners reach goals. Brown (1987) and Zimmerman (2000) found that regulating behaviour is also key for learners.
The other key strategies that contribute to self-regulation are:
Self-regulated learners have the learning knowledge and self-awareness to build good study habits. When they complete assignments, they often think back to similar tasks they have done before. They use the techniques that worked well for those tasks. They also set and meet their own deadlines.
The most effective metacognitive strategies follow a three-stage framework: planning (setting goals and choosing strategies), monitoring (checking progress during learning), and evaluating (reflecting on what worked and what didn't). Learners learn to ask themselves questions like 'Do I understand this?' and 'What should I do differently next time?' These strategies help struggling learners into self-regulated learners who know when and how to seek help.

Planning, monitoring, and evaluating are key metacognitive strategies. Researchers have shown that teaching these strategies clearly can improve learner achievement (Hattie et al., 2017). They also help learners regulate, or manage, their own learning (Flavell, 1979). Teachers need to explain these processes and model them well (Bandura, 1977). This helps learners build a fuller understanding of how they learn (Zimmerman, 2000).
Metacognitive learners plan ahead. They set goals before learning (Flavell, 1979). Learners identify what matters most. They organise resources for the task (Zimmerman, 2002; Pintrich, 2000).
They will use the metacognitive knowledge they have developed during previous learning experiences to determine the most appropriate plan for the task they are faced with.
For example, they may have learnt that reading before class is an effective strategy for them to absorb new material during the lesson.
As the teacher is talking, they may start to form a mental model of the new topic and make associations with previous learning. In turn, this helps them to identify which techniques may be most useful to them during the lesson based on what techniques worked well when they were learning the related topics.
"What do I already know?", "What am I being asked to do?", and "What strategies do I have available?" As learners face tough topics, they use metacognitive questions to plan, (Flavell, 1979). Researchers, Nelson and Narens (1994), found learners check their understanding during tasks. Brown (1987) noted they also evaluate learning after task completion.
This type of questioning helps learners to identify the priorities for the activity and plan how to use their time most effectively.
They also monitor their progress, meticulously editing their work as they go. This helps them to spot errors early. Research indicates that learners who self-regulate their writing produce better work (Zimmerman & Risemberg, 1997). Metacognitive learners plan writing, setting deadlines for each section. They check progress and edit carefully, finding errors early. Learners complete work on time more often. Flavell (1979) showed metacognition helps learners understand and solve problems.
They will also have the self-awareness to know what time of the day they work most efficiently and utilise this knowledge to make the most effective use of their time.
Metacognitive learners use strategy knowledge during memory tasks. For vocabulary, they are more likely to test themselves with retrieval practice than to rely on rereading or highlighting (Karpicke, 2008; Dunlosky et al., 2013). In class, this means learners cover the word list, recall definitions, then mark which words need another attempt.

While learners are completing a learning task they will continually monitor their performance with the intention of adapting their approach if they are not on track to achieve their learning goals. They will use the following metacognitive strategies to monitor their performance:
In response to the ongoing monitoring, learners are likely to revisit and modify their plan quite regularly. They may decide to change the cognitive processes they are using or adjust the time limit assigned to each stage of their plan.
If they were working independently, they may realise that they need a period of explicit instructionfrom their teacher before they can progress in their learning. When learners have the metacognitive knowledge to identify when they need additional help, they will feel helped in their learning even when they are finding it difficult.
Metacognitive reflection helps learners understand the material more clearly. It also helps them spot weak areas or misunderstandings (Flavell, 1979). Learners look at the whole task, not just the final piece of work. They review each stage, from early planning to final submission (Zimmerman, 2000). This builds self-awareness and can make future learning more effective (Hattie, 2009). It can also shift learners into a more active role in their education (Biggs, 1985). In this way, reflection links the learner, the task, and the learning setting. This can support better academic outcomes and a deeper grasp of the subject (Vygotsky, 1978).
Most importantly, they will reflect on the mental processes and study strategies they used as well as what the overall outcome was.
As part of this reflection, they will make a plan for how they will approach similar tasks in the future and may choose to write this down in a learning journal to provide quick access to their new plan when they need it.
Learners will add to their metacognitive knowledge by identifying the strengths and weaknesses to the approach they used and consider whether these would apply to different learning contexts.
For example, they will want to determine whether the same strategy would have the same strengths with different subject matter.

The strongest classroom claim should use the EEF's measured effect, not a guaranteed grade rise. Quigley et al. (2018) report that metacognition and self-regulation can add about seven months' progress when strategies are taught explicitly, modelled, and practised in subject tasks.
The evidence is promising but not automatic. EEF evaluations of ReflectED show that metacognition programmes can lose impact when scaled into everyday classrooms without enough time, training, or subject fit (Motteram et al., 2016; EEF, 2022). Treat the Toolkit headline as a reason to teach the approach well, not as a promise that worksheets will raise attainment.
Veenman and Beishuizen (2004) found that metacognitive regulation explains 17% of learner achievement. This means how learners plan, check and control their thinking matters. They also reported that innate cognitive ability only accounts for 10%. So, self-control of thinking skills is important.

Research shows learners who use metacognitive strategies achieve better marks (EEF, 2021). Planning, monitoring, and evaluating help learners succeed, and these skills enable lifelong learning (Zimmerman, 2002).
Responding to learners' metacognitive knowledge boosts learning during the evaluation stage (Black & Wiliam, 1998). Lessons can end with metacognitive prompts for the learner.
Metacognitive prompts helped learners more than lesson summaries (Veenman et al., 2006). Learners using prompts scored higher on two knowledge tests (Zimmerman, 2000; Dunlosky & Rawson, 2012). Prompts support better learning, according to research by Hattie (2008).
Guo and Wei (2019) also showed that teacher feedback can raise the attainment of metacognitive learners. They found that learners' metacognitive processes increased when teachers gave regular verification feedback (telling learners if their answers were right or wrong), scaffolding (breaking complex tasks into small and manageable steps), and praise.
Metacognition measures help researchers. Flavell (1979) and Schraw and Dennison (1994) need these tools. They support learners' thinking about thinking. Brown (1987) showed this improves learning outcomes.
Pintrich and De Groot (1990) made the MSLQ to measure learner metacognition. Teachers still use it often. Research by Zimmerman (2002) highlights self regulation as vital for success. Dweck (2006) showed growth mindset boosts learner achievement.
The Metacognitive Awareness Inventory developed by Schraw and Dennison (1994) measures learner metacognitive awareness accurately. It contains 52 statements. Learners show how much they agree on a Likert scale.

Flavell (1979) showed that metacognition matters. Metcalfe & Shimamura (1994) found that learners gain when they know their own thinking. Zimmerman (2000) said teaching metacognition helps learners plan more clearly. Pintrich (2000) noted that self-regulation helps learners manage hard tasks.
They are better at making decisions, managing stress during learning, and using their time effectively. These skills persist outside of their educational settings and support the learners to become lifelong learners.
Mastering a range of metacognitive approaches also gives learners greater ownership over their learn ing and helps them to make changes to their learning environment.
Learners achieve more when schools let them share views on learning. Research by Whitebread et al (2009) and Hattie (2012) shows this boosts learner metacognition. Greater metacognition improves cognitive outcomes for learners and classmates.
Metacognition helps learners to articulate their learning needs and actively participate in their education. When learners understand how they learn best, they can communicate more effectively with teachers about what support they need. This leads to increased engagement because learners feel heard and take ownership of their learning process.
Student voice refers to any opportunity that learners are given to express their opinions. This could be done formally through a school council, focus group, plenary activity or questionnaire, or informally by giving feedback to teachers during a lesson or at the end of a series of lessons.
Metacognitive learners easily give feedback, as noted by researchers (e.g. Flavell, 1979). They understand thinking about learning, as described by Nelson (1996). This helps them engage with initiatives promoting pupil voice, as Zimmerman (2002) explained.
Learners are often able to provide valuable insights to teachers about learner learning, which allows teachers to adapt their teaching to best meet the needs of their learners.
Nelson (1996) and Flavell (1979) found that learners build metacognition when they take an active role. Teachers can support this by giving learners chances to share their voice. These opportunities help learners develop their thinking and skills.
Bjork (1994) found teacher feedback improves with learner reflection. Learners link topics to previous knowledge, say Chi et al. (1981). Hattie & Timperley (2007) say learners name useful activities. This builds learner metacognitive awareness, (Flavell, 1979).
Researchers Kuhn (1999) and Costa (1991) suggest teachers should reflect on what works. Leaders can develop this with professional development. Modeling this thinking helps teachers equip learners, according to Flavell (1979).
For leaders, the main risk is a whole-school rollout that turns metacognition into extra worksheets. Keep the system small: agree one shared planning-monitoring-evaluating language, model it in departments, and check whether learners use it in real tasks. A Year 10 science team, for example, might use one common monitoring question during practical write-ups rather than a new reflection sheet for every lesson.
Research shows that metacognition matters in teacher training. (Flavell, 1979; Dunlosky & Metcalfe, 2009). Teachers can help learners think about their own thinking. Professional development should cover this clearly (Hattie, 2012; Costa & Kallick, 2015).
Teachers need to understand metacognition, which means thinking about learning. They also need to know how to help learners use it. Planning, monitoring, and evaluation skills benefit learners (Flavell, 1979). Dunlosky and Metcalfe (2009) provide useful strategies, and Nelson and Narens (1990) offer further insight.
The nature of these skills is determined by the subject matter and learning context, which means subject specialists are best placed to teach the cognitive moves in their discipline. A history teacher teaches learners how to check a source claim; a mathematics teacher teaches them how to test whether a method fits the problem.
Flavell (1979) showed learners achieve more when teachers use metacognition. Studies by Hattie (2008) and Marzano (1998) support this. Teachers who develop these skills positively impact learner outcomes.
Modelling metacognition helps learners (Flavell, 1979). Teachers also reflect on their lessons and adjust them (Schön, 1983). This boosts confidence and helps monitor impact during teaching (Hattie, 2012).

Teachers should model metacognition by showing learners how to plan, monitor, and evaluate their work. Lessons should include short reflection tasks. These help learners check what they understand and decide what to do next. With regular practice and feedback, learners slowly take more responsibility for their thinking (Flavell, 1979).
As mentioned above, metacognition can be taught implicitly during lessons by teachers modelling planning, monitoring and evaluating as part of the teaching process. The simplest way to do this is for teachers to verbalise their thought process to the class:
Alternatively, metacognitive thinking can be taught explicitly by subject specialists. In this case, teachers would introduce the concept of metacognition to their learners and explain how each of the three strategies can be applied to their subject.
The learning context is very important; planning an essay in English requires different thinking from planning an answer to an exam question in mathematics. Generic reflection prompts can overload novices if they have not yet secured the subject knowledge needed for the task (Tricot & Sweller, 2014). Teach the content first, then ask learners to plan, monitor, or evaluate the specific disciplinary move they are making.
Researchers suggest simple strategies help learners. Encourage journal use, as recommended by Hattie (2009). Exam wrappers help learners reflect, a point made by Ambrose et al. (2010). During lessons, use prompts to strengthen planning, monitoring, and evaluation, as proposed by Flavell (1979).

A document for learners to record their thoughts and reflections following a lesson or series of lessons.
It is normally used to reflect on the process of learning rather than specific learning outcomes, but it may be useful to highlight links between topics or to draw parallels between the current tasks and ones they have completed before.
Learners should also identify their strengths and weaknesses and what they would do the same or differently for a similar task in the future.
A set of questions that can be completed before and after an assessment to reflect on the revision strategies (before) and the outcome of the assessment (after).
The purpose of an exam wrapper is to help learners identify which revision techniques were most helpful to them and whether their exam technique was effective.
If a learner struggled with time-management during the exam, they would record this on the wrapper and formulate a plan to help manage their time better in future assessments.
These questions, or question starters, help learners build metacognitive awareness before, during, and after a task. Keep prompts short. Offer choices that do not rely on spoken think-alouds, such as drawing, ticking, colour coding, or choosing from two strategy cards. This is important for SEND and neurodivergent learners, because executive function differences can make step-by-step verbal reflection look weaker than their real self-awareness.
1. Planning:
How much time should I spend on this task?
How can I ensure that I stay on track?
Have I completed a task like this before?
What do I know that will help me do this task?
2. Monitoring:
Am I on track to complete the task on time?
Have I understood what is required? How can I be sure?
Is there a more effective way for me to complete this task?
3. Evaluating:
Did I achieve what I wanted to achieve?
What approach will I take if I need to do a similar task in the future?
What do I want to learn more about?

The Education Endowment Foundation provides resources on metacognitive strategies. Academic journals and courses offer insights on using these approaches well. Many schools share case studies and examples via networks (e.g. Higgins et al., 2018) and online groups.
Here are five studies on metacognition and their implications, accompanied by a 50-word summary for each. Whilst this is not an extensive list, these studies should be useful for teachers who are doing research in the area of metacognition.
1. Perry, J., Lundie, D., & Golder, G. (2018). Metacognition in schools: what does the literature suggest about the effectiveness of teaching metacognition in schools? Educational Review, 71, 483-500.
Researchers argue that learner outcomes improve when teachers teach metacognition directly. These outcomes include better grades and stronger well-being (e.g., Flavell, 1979; Dunlosky & Metcalfe, 2009; Hattie, 2012).
2. Kuhn, D., & Dean, Jr., D. (2004). Metacognition: A Bridge Between Cognitive Psychology and Educational Practise. Theory Into Practise, 43, 268-273.
Metacognition links how learners think and how we teach, say researchers (Brown, 1987; Flavell, 1979). Metacognition helps learners become skilled thinkers in classrooms, according to theories (Efklides, 2008; Kruger & Dunning, 1999). We should use this knowledge to improve learning strategies.

Download a one-page study note for Metacognition, with the key ideas, limitations and classroom links in one place.
3. Gunstone, R., & Northfield, J. (1994). Metacognition and learning to teach. International Journal of Science Education, 16, 523-537.
Teacher training must focus on metacognition development. Flavell (1979) found that it helps learners and teachers. Hattie (2012) suggested research for UK classroom applications.
4. Wall, K., & Hall, E. (2016). Teachers as metacognitive role models. European Journal of Teacher Education, 39, 403-418.
This link benefits learners. Teachers who develop learner metacognition also boost their own skills (Schraw, 1998). Effective teaching strategies improve learner outcomes and teacher knowledge (Hattie, 2012). This creates shared growth for teachers and learners (Veenman, 1990).
Metacognition alone does not ensure success for the learner. (Nelson & Narens, 1990; Flavell, 1979). What matters is behaviour change driven by metacognition. This behaviour change affects learner progress. (Nelson & Narens, 1990; Flavell, 1979).
Free for teachers. The platform builds a classroom-ready lesson plan from your topic in under two minutes.
Metacognition is simply thinking about your own thinking, where learners become aware of how they learn and what strategies work for them. Research shows learners with metacognitive skills make significant gains in academic performance, equivalent to several months of additional progress per year (EEF, 2021).
Research into the feeling of knowing (Hart, 1965) shows why learners can mistake familiarity for secure recall. Build calibration into the lesson: before a short quiz, ask learners to predict their score, complete the retrieval task, then compare prediction with result. This corrects the illusion of knowing without shaming the learner, because the evidence comes from the task rather than from the teacher's judgement.
Flavell (1979) said metacognitive experiences are feelings during tasks. Learners might suddenly know they don't understand something. Teachers can use these "aha" and "stuck" moments to build learner awareness.
Metacognition means that learners understand their own thinking. Flavell (1979) found that it gives learners knowledge about how they think and learn. Self-regulated learning means that learners guide their own actions. Zimmerman (2002) showed that learners do this by setting goals and changing their strategies when needed.
Flavell (1979) described metacognition. Ann Brown (1987) separated regulation from knowledge. She showed that even young learners can plan with support. Learners also monitor and evaluate their thinking (Brown, 1987).
Metacognitive knowledge has three parts: declarative, procedural, and conditional. Paris et al. (1983) found conditional knowledge, or knowing when and why, hardest to teach. They noted it is also the most high-use for knowledge transfer.
Teachers can begin by introducing the three-stage framework of planning, monitoring, and evaluating to their learners. Start by teaching students to ask themselves questions like 'Do I understand this?' during lessons and 'What should I do differently next time?' after completing tasks.
The most effective strategies follow the planning-monitoring-evaluating cycle, where learners set goals and choose strategies, check their progress during learning, and reflect on what worked. This includes metacognitive questioning such as 'What do I already know about this topic?' and 'What has worked well for me in the past?'
Metacognitive skills help struggling learners into self-regulated learners who can identify when they're having difficulties and know specific strategies to help themselves improve. Learners with these skills feel helped even when struggling because they know exactly when and how to seek help.
Reflection helps learners judge the quality of their thinking, not just describe how they felt (Flavell, 1979). This matters more when learners use AI tools: they need to test whether an output is accurate, relevant, and based on evidence before accepting it (Lodge et al., 2023; Fan et al., 2024). In class, ask learners to annotate one AI answer with 'accurate', 'unsupported', and 'needs checking' before writing their own response.
Researchers (Bjork et al., 2013) showed clear differences. Metacognition gives the learner self-awareness. Self-regulation (Zimmerman, 2000) needs strategies. Retrieval practice and motivation (Duckworth et al., 2019) help self-regulation, researchers found. Learners must know when to ask for help (Winne, 2018).
Generate an 8-week metacognition roadmap tailored to your key stage, subject, and current practice level. Use it as a starting point for professional discussion: identify the learner's current need, record evidence from more than one lesson, and agree the next classroom adjustment with the SENCO or family.
Flavell, J. (1979). Metacognition and cognitive monitoring.
Hattie, J. (2009). Visible learning.
Karpicke, J. (2008). The critical importance of retrieval for learning.
Vygotsky, L. (1978). Mind in society: The development of higher psychological processes.
Zimmerman, B. (2002). Becoming a self-regulated learner.
These peer-reviewed studies provide the research foundation for the strategies discussed in this article:
Scaffolding L2 Academic Reading and Self‐Regulation Through Task and Feedback View study ↗
26 citations
Špela Mežek et al. (2021)
This research demonstrates how teachers can help students develop better reading strategies and monitor their own comprehension through carefully designed tasks and feedback, even when students are studying independently outside the classroom. The study shows that successful readers know how to choose the right reading strategies and check their understanding as they go. For teachers working with students learning in a second language, this research provides practical insights into building reading skills that students can use on their own.
Teachers' metacognition impacts learners' self-regulation in maths. Studies by Veenman et al. (2006) and Dignath et al. (2008) show this. PLC enhances teacher reflection, according to studies like Grossman et al. (2001). Research by White and Mitchelmore (2009) supports this view.
(2023)
Learner groups improved teacher thinking skills using self-regulation. This shows teacher self-awareness affects teaching independent learners. Mathematics teachers can use group work to boost teacher and learner abilities. (Research by unnamed author/s).
Flavell (1979) suggests metacognition helps learners tackle classroom challenges. Dunlosky et al. (2013) confirm this with improved outcomes. Bjork (1994) shows these techniques boost learner understanding and retention.
Teachers who reflect before, during, and after lessons lower classroom conflicts. Zimmerman (2000) showed effective management helps learners. Flavell (1979) and Costa & Kallick (2009) noted metacognition helps teachers make good choices. Schön (1983) found reflective teaching helps with classroom management issues.
Flipped learning in STEM may improve learner thinking skills (metacognition). A study explored this with buffer solutions (View, study ↗). Researchers (unspecified) investigated if it boosted learning outcomes. The research focused on a flipped classroom approach.
STEM with flipped learning helps learners think about their learning. They grasp tough science, like buffer solutions, better. When learners study at home, then do STEM activities in class, metacognition improves. This approach gives teachers reasons to move past lectures.
Metacognition helps learners control their maths learning. Flavell (1979) said it involves knowledge and regulation. Research by Schoenfeld (1985, 1992) shows problem-solving strategies improve with it. Effective teaching uses these processes, said researchers such as Polya (1945).
Eberto Pablo Gutiérrez Morales et al. (2025)
Teaching learners problem-solving strategies can boost their thinking skills (Polya, 1945). Strategies like working backwards help learners solve problems better (Schoenfeld, 1985). Learners become more aware of their thinking and learning (Flavell, 1979; Bransford, 2000). Teachers can improve problem-solving and build independent learning.
Scaffolded. Self-regulated. Free for teachers.