21 Formative Assessment Strategies for Every Lesson
Twenty-one formative assessment strategies explained with step-by-step instructions. From exit tickets to hinge questions, find techniques for every subject and key stage.


Twenty-one formative assessment strategies explained with step-by-step instructions. From exit tickets to hinge questions, find techniques for every subject and key stage.
Formative assessment is a strong way to improve learning as it happens. Black and Wiliam (1998) found it raised results (d = 0.40 to 0.70). Lower attaining learners gain the most. Use exit tickets and quick questions to check learner understanding, not just tests.
Formative assessment checks understanding during lessons, not just at the end. These techniques let you adjust teaching and give quick feedback (Prastikawati et al., 2024). Use thumbs-up, exit tickets, peer reviews, or digital polls. Choose strategies wisely to match learning goals for big impact.
For a comprehensive exploration of this approach in practice, see our visible learning framework guide.
| Feature | Teacher to Learner Feedback | Learner to Teacher Feedback | Peer Feedback | Exit Tickets |
|---|---|---|---|---|
| Best For | Improving individual learner performance and understanding | Informing lesson planning and identifying class-wide struggles | Developing critical thinking and self-assessment skills | Quick end-of-lesson understanding checks using Exit tickets |
| Key Strength | Personalised guidance for improvement | Reveals teaching effectiveness and gaps | Learners learn from explaining to others | Takes only one minute, provides immediate insights |
| Limitation | Time-consuming if not purposefully designed, requires effective marking strategies | Requires learner comfort with honest feedback | Quality depends on learner knowledge level | Limited depth of assessment possible |
| Age Range | All ages | Upper elementary through adult | Middle school through adult | All ages |
Peer assessment develops both the assessor and the assessed. When a Year 8 learner evaluates a partner's paragraph against success criteria, they must understand the criteria deeply enough to apply them, which strengthens their own writing. Topping (2009) found that structured peer assessment produces measurable gains for both parties. Provide a three-question protocol: "What did your partner do well?", "What matches the success criteria?", "What specific improvement would you suggest?"
Hattie (2009) conducted a meta-analysis of over 800 studies investigating factors that influence learner attainment and found feedback (real-time AI feedback analysis) to be the most influential factor. This finding has often been wrongly used to justify teachers needing to spend more time marking. However, this is just one of three forms of feedback that Hattie was referring to. He also considered the impact of feedback from learners to teachers and from one learner to another.

Feedback is evidently an important part of learning. This article provides an overview of Dylan Wiliam’s secrets to effective feedback (Wiliam, 2016).
Feedback is only successful if learners use it to improve their performance and we cannot take it for granted that feedback of any type will achieve this. Research has shown that it is possible for feedback to be detrimental to learning when compared to learners receiving no feedback at all (Seng et al., 2025). To avoid this situation, Wiliam (2016) shares the following advice.
Unlike summative assessments, formative assessments in schools are usually low stakes with low or no point value. However, these ungraded assessments are highly valuable. They help learners improve their performance and help teachers identify what learners understood and what they didn't.
Often, the purpose of feedback is to enable a learner to achieve something in the future that they are currently not able to achieve (Mamun, 2022). In this case, feedback should focus on improving the learner rather than the piece of work.
Sometimes, the purpose of the feedback may be to inform the teacher about what their class knows and to influence their lesson planning. In this case, notes in the teacher’s planner may be more appropriate than notes on every individual piece of work. The time spent marking work and giving feedback can be much more productive if you consider the purpose of the feedback before you decide the best approach to take.
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| Aspect | Formative Assessment | Summative Assessment |
|---|---|---|
| Primary Purpose | To inform teaching and improve learning whilst instruction is ongoing | To evaluate learning at the end of a unit or course |
| Timing | During learning; frequent and ongoing throughout instruction | After learning; at the end of units, terms, or courses |
| Feedback Type | Immediate, specific, actionable feedback for improvement | Grades, scores, or judgments about achievement level |
| Stakes | Low or no stakes; errors are learning opportunities | Higher stakes; contributes to final grades or qualifications |
| Teacher Response | Adjust instruction immediately; reteach or extend as needed | Record and report achievement; plan future courses |
| Learner Role | Active participant in improving own learning; self and peer assessment | Demonstrate what has been learned; receive judgment |
| Examples | Exit tickets, mini-whiteboards, questioning, the Danielson Frameworks, peer feedback | Exams, standardised tests, end-of-unit assessments, final projects |
A hinge question is a single diagnostic question asked at the critical point of a lesson where the teacher decides whether to move on or re-teach (Wiliam, 2011). Every wrong answer reveals a specific misconception. If 80% answer correctly, proceed. If fewer, address the misconception before continuing. For designing effective hinge questions, see our dedicated guide on hinge questions.
Based on Black & Wiliam's seminal review "Inside the Black Box" (1998) and subsequent Assessment for Learning research. The key insight: formative assessment is assessment FOR learning; summative assessment is assessment OF learning.
The Assessment Reform Group (1999) defined assessment for learning as any assessment whose primary purpose is to promote learning rather than report on its outcome. This distinction, between assessment that serves learning and assessment that measures it, is conceptually straightforward but practically demanding. Assessment of learning tells you where a learner has arrived. Assessment for learning changes where they go next. The same instrument, a short quiz, a marked essay, an observation record, can serve either function depending entirely on how it is used.
Black and Wiliam (1998) found big learning gains when teachers adjusted lessons using assessment. Their review of 250+ studies, 'Inside the Black Box', showed this. Tests alone often hurt motivation, especially for lower-attaining learners. Assessment of learning without action left them feeling lost (Black and Wiliam, 1998).
The practical difference shows up most clearly at the moment feedback is returned. When a teacher hands back marked work with only a grade, learners typically look at the grade, compare it with peers, and file the paper. When the same teacher returns work without a grade but with specific commentary about what is strong and what requires development, learners engage with the feedback in qualitatively different ways (Butler, 1988). Black and Wiliam (1998) documented this effect repeatedly across their review and concluded that grades actively suppress engagement with written comments when both appear together: learners process the grade and ignore the prose. Assessment for learning, in this sense, sometimes requires withholding the information that assessment of learning generates.
Frequent data collection means teachers must plan carefully. Separate feedback from reporting: give formative comments on first drafts. Then, complete summative records after learners revise their work. This helps learners see assessment as a learning tool. (Black & Wiliam, 1998; Hattie & Timperley, 2007).
Ghosh et al. (2025) suggest exit tickets and questioning help learning. Peer and self-assessment also give valuable insights. Teachers gain real-time feedback on learner understanding. They can quickly adapt teaching using these strategies.
Use learners’ work to understand where they are starting from and give them feedback that they can use from this starting point. The effectiveness of feedback will be limited by the task that has been set; if it is cleverly designed to illuminate learners’ understanding, the feedback that can be given will be more effective and more accessible for the learner (Gallardo-Fuentes et al., 2026). Formative assessment strategies help teachers determine if more instruction is needed (Enu, 2021).
Using formative assessments in the classroom prevents both teachers and learners from getting any surprises in the form of poor final grades. Some of the most significant formative assessment strategies are:
Learners' homework, quizzes and standardised tests can be used as evidence of learner learning. When teachers carry out the Analysis of learner performance they get knowledge about:
A learner's current level of Skills, attitude and knowledge about the subject matter;
A learner's Strengths and weaknesses;
A learner's need for Special assistance; and
How to modify their Teaching methodsand make their teaching more effective in the future.
Strategic questioningmethods can be used with the learners as daily classroom practise. The main aim of questioning is the academic progress of learners.
This stretches their thinking (Black & Wiliam, 1998). Teachers should provide specific and targeted feedback after careful observation. Feedback should guide learners to improve future performance (Hattie & Timperley, 2007). Educators must create a classroom culture where learners feel safe to take risks (Dweck, 2006).
It is one of the simplest Formative assessment strategies. As a classroom practise, the teacher asks a question, and learners write down their responses. Then learners sit in pairs to engage in effective classroom discussions about their answers.
The teacher moves around the classroom and gains insight into the learner learning processby listening to learners' responses (Ribeiro et al., 2024). Then, the learners share their answers with the whole class.

An Admit / Exit Ticket provides a simple but useful formative assessment type. An Exit Ticket is a small index card or piece of paper, on which they provide an accurate interpretation of the current topic taught in the class, and then they discuss more of the topic. The learners deposit their exit slips when leaving the classroom.
Admit Tickets are used as the learners enter in the class. They are used to check learner learning by answering questions about the homework or what was taught the day before.

One-minute papers are mostly carried out before the day ends. They provide an opportunity for learners to answer a brief question. Then, these papers are collected and assessed by the teacher to gain insight into the learner learning process. One-minute papers provide the formative assessment practices that are found to be more beneficial when done on a regular basis.
Wiliam (dates not provided) names five key strategies for teachers. Clearly state learning goals and have good class discussions. Give feedback that helps learners progress and enable peer learning. Help learners take ownership of their learning. These strategies help you monitor and improve learning.
According to Dylan Wiliam, a well-known British education expert at University College London, 'formative assessment' means all the ways learners and teachers use information about learner progress. They use this information to make changes that improve learner learning. Some of the great formative assessment strategies proposed by Dylan Wiliam are:
Research suggests that the teachers need to:
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It means that the questioning in the classroom must encourage the process of thinking and provide evidence to inform teaching. Teachers can improve the process of questioning through:
Teachers need to discourage the I-R-E (initiation-response-evaluation) by:
These strategies give teachers feedback on learner understanding and inform instruction. Black and Wiliam's research shows formative assessment boosts learning. It can move an average learner from the 50th to the 85th percentile.
The research on formative assessment is unequivocal: when teachers systematically gather evidence of learning and use it to adapt instruction, learner achievement increases dramatically. But the technique itself isn't magic, the power lies in what teachers DO with the information gathered. Formative assessment without responsive teaching is just assessment. The question isn't "Did I check understanding?" but "Did I act on what I learned?"
Effective feedback focuses on the task rather than the person, provides specific guidance on what to improve, and offers clear next steps for learners to take. Teachers should match their feedback approach to learning goals and ensure learners have time to act on the feedback received. Feedback proves most powerful when it addresses where learners are going, where they currently are, and how to close the gap.
Hattie and Timperley (2007) found four feedback levels impact effectiveness. Task feedback tells learners if answers are correct. Process feedback addresses strategy (e.g., "Use a number line"). Self-regulation feedback builds thinking skills ("What checks can you do?"). Self-level feedback ("You're clever") is least effective, lacking actionable information. Process and self-regulation are strongest for formative assessment.
Dylan Wiliam gave practical advice to educators that their feedbacks are said to be successful only if they improve learners’ learning process. Then, it depends upon learners' capacity to understand and accept the feedbacks and show a willingness to act on them. Successful feedback has a motivational and interpersonal element. Effective feedback suggests actions learners can apply rather than providing a negative retrospective critique.
Feedback should help learners improve their work quality, not just the task. This formative assessment element links to self-regulation and metacognition. Rosenshine's (2012) ideas discuss moving from guided to independent practice. Successful learners connect tasks to success criteria, building their self-improvement narrative.
Provide feedback in the form of a task to ensure that learners actively engage with the feedback they have been given. For example, give learners just enough information about an error they have made so that they can identify it for themselves (e.g. ‘one of the causes you identified is incorrect’, or ‘there are three incorrect answers’). Learners should spend at least as much time responding to feedback as the teacher has spent providing it; making feedback into detective work can ensure learners take time to reflect on their original piece of work.

Peer feedback, collaborative tasks, and explaining concepts help learners become resources. Teachers need to give clear goals and model good feedback first. This approach lessens teacher workload and builds understanding through talking (Topping, 2005; Hattie, 2012).
This is an important formative assessment strategy proposed by Wiliam. According to Wiliam's advice for teachers, the frequency, quality and ratio, of learner interactions with the knowledge in hand can significantly increase if teachers create strong routines in which learners help other learners to learn in a serious structured way. It is not easy for the teachers to engage in conversations on the performance of learners in each class but learners can be engaged in meaningful conversations with one another to support the process of learning.
At this stage of formative assessment activities ‘think pair share‘ becomes very strong. A high volume of peer feedback and peer-to-peer interactivity is found to be very useful if teachers apply a strong process to evaluate learners’ responses for quality and accuracy. There are so many ways of activating learners as learning resources for one another. Some of these ways are:

Self-assessment, goals, and reflection give learners ownership. Teach metacognitive strategies so learners can check understanding. Success criteria motivate independent learning (Zimmerman, 2000; Andrade & Brookhart, 2016).
Owning one's is an important part of Metacognition And strong self-regulation. Like any other developmental process, these traits of Effective learningcan be nurtured in learners by creating expectations and good routines. Teachers cAn play a important role in making learners understand where they are on the curriculum planning and where they want to be. Teachers can do this by:
If a learner understands for himself what he must do to improve himself and knows that he can achieve success by applying effort to his self-determined objectives, then he can gain confidence that brings him even more success. Dedicating time to equip learners with the skills of self-assessment is likely to be more productive in the longer term, save teachers’ time, and improve learners’ ability to reflect and learn independently.
When learners confidently give wrong answers, it's a key teaching moment. Studies by Butterfield and Metcalfe (2001) show confident errors are easily fixed with feedback. Teachers should build safe spaces, so learners commit to answers, seeing errors as learning (Metcalfe, 2017).
The skill of self-assessment can be scaffolded: starting with feedback on anonymous work, then peers’ work, and then the learner’s own work. The type of feedback required will depend on the subject, the task, and the purpose of the feedback.

Formative assessment helps learners when teachers differentiate. Teachers change question difficulty and methods for showing knowledge. Success criteria align with learner readiness (Vygotsky, 1978). Technology provides personalised choices; keep expectations clear (Bloom, 1956). Learning goals stay the same; learners progress at different rates (Gardner, 1983).
Researchers like Black and Wiliam (1998) highlight its importance. Teachers must change formative assessment for differing learner abilities. This creates inclusive classrooms that meet all learners' diverse needs.
Teachers, consider each learner's skill level when designing assessments. This helps them track progress and sparks great classroom discussions (Vygotsky, 1978). Assessments also build crucial higher-order thinking skills for learners (Bloom, 1956).
Thinking blocks and tiered activities help with formative assessment. These activities challenge learners at their current skill levels. The activities still address the same learning objectives (Wiliam, 2011).
These activities can build in steps, letting learners of all abilities join in. Teachers should consider scaffolding, as Vygotsky (1978) suggested, to support learner progress. Effective teaching, as Hattie (2009) showed, means learners actively engage.
Teachers should talk to learners when using formative assessment. Open talks help teachers know learner needs (Black & Wiliam, 1998). Teachers can fix mistakes with focused feedback (Hattie & Timperley, 2007). This method can reduce workload by targeting support (Sadler, 1989).
Researchers like Vygotsky (1978) and Black and Wiliam (1998) stress this. Tailor checks to suit each learner's needs to help them progress. Formative assessment, as Sadler (1989) showed, guides learning effectively.
Teachers ensure learner success and thinking skills by designing varied assessments. Open communication and targeted feedback help learners progress (Vygotsky, 1978). This approach supports all learners reaching their full potential (Bloom, 1956; Piaget, 1936).

Effective formative assessment tools include digital platforms for quick polls, whiteboards for instant responses, exit tickets, and observation sheets for tracking learner progress. These tools should integrate smoothly into lessons without disrupting learning flow. The best tools provide immediate data that teachers can use to adjust instruction within the same lesson or planning period.
Many of the schools that we work with have been utilising the mental modelling technique to find out what learners know. The block structures allow children to dig deeper into the curriculum and figure out how all the parts fit together. As they build, they articulate their understanding to one another.
This opens up opportunities for responsive teaching. The block structures reflect what the learners think which means that we now have access to their mental models. Teaching staff can use these block structures for higher-order questions.
Using big picture questions, educators can use the models as a launchpad for deeper thinking. Unlike standardised tests, the mental models are malleable and change as the learners understanding progresses. Embedding these opportunities into curriculum design means that educators always get the inside picture of what a learner really knows.
Instructors can use these insights to provide detailed, practical feedback when the learner needs it most. The added benefit of this pedagogy is that it promotes rich classroom dialogue which over time, builds a positive classroom environment.

Transform your classroom into a learning laboratory with these EEF toolkit research formative assessment techniques that work across all key stages. Each strategy takes minutes to use but provides hours of insight into your learners' understanding.
Quick-Fire Techniques (Under 5 minutes)
Start with traffic light cards: learners display green, amber, or red cards to indicate their confidence levels during lessons. Research by Black and Wiliam shows this simple visual feedback helps teachers adjust pace in real-time. Try think-pair-share activities where learners discuss answers with a partner before sharing with the class; this reveals misconceptions whilst building confidence. Mini-whiteboards remain unbeatable for instant whole-class checks, particularly in maths where you can spot calculation errors immediately.
Digital Assessment Tools
Kahoot quizzes and Mentimeter polls engage digital natives whilst providing instant data. Create multiple-choice questions that include common misconceptions as wrong answers; this diagnostic approach reveals exactly where understanding breaks down. For deeper insights, use Padlet walls where learners post their understanding of key concepts, creating a visual map of class comprehension.
Peer and Self-Assessment Strategies
Two stars and a wish transforms peer feedback from vague comments into specific, actionable advice. Learners identify two strengths and one area for improvement in their partner's work. Self-assessment rubrics work brilliantly when learners highlight criteria they've met in green and areas needing work in orange.
This metacognitive approach, supported by Zimmerman's research on self-regulated learning, helps learners recognise their own progress patterns. Regular learning journals, where learners reflect on what clicked and what didn't, provide invaluable insights for both teacher and learner.
A hinge question, as Wiliam (2011) defined it, is a question placed at a conceptual decision point in a lesson where the teacher needs to know whether to proceed, reteach, or redirect. The term 'hinge' captures the idea that the lesson turns on the answer: if learners demonstrate understanding, the teacher proceeds; if they reveal a misconception, the teacher pivots. What distinguishes a hinge question from a standard check for understanding is that it must be designed so that each plausible wrong answer diagnoses a specific misconception rather than simply signalling ignorance.
Sadler (1989) laid the conceptual groundwork for this kind of diagnostic assessment in his analysis of the gap between where a learner is and where they need to be. He argued that effective formative assessment requires three conditions: the learner must know the goal, recognise the gap, and know how to close it. Hinge questions are tools for making the second condition visible to the teacher at the exact moment when instruction can still respond. A well-constructed hinge question therefore demands careful reverse engineering: the teacher must first identify the most common misconceptions for a given concept, then design answer options that reveal which misconception a learner holds.
In practice, hinge questions work most effectively with simultaneous response systems that prevent learners from copying and allow the teacher to see the distribution of answers at a glance. Wiliam (2011) suggested using mini-whiteboards, hand signals mapped to answer options, or multiple-choice cards held up simultaneously. A Year 7 science teacher checking understanding of particle theory might show four diagrams and ask learners to hold up the card labelled A, B, C, or D. If 40 per cent of the class choose the distractor showing particles spreading out but remaining the same size during heating rather than moving faster, the teacher knows immediately that the kinetic model has not been understood and can address that specific point before the lesson moves on.
The diagnostic power of hinge questions depends on the quality of the distractors. Dabell, Keogh and Naylor (2008) documented the most common conceptual errors across primary science and mathematics, providing a research base from which teachers can construct distractors grounded in evidence rather than guesswork. For subjects where misconception research is less developed, asking learners to write down what they think happens before teaching the correct account provides the teacher with a live picture of the class's prior knowledge. This is the principle behind retrieval practice as diagnostic tool: the errors learners make during low-stakes recall are at least as informative as their correct responses, because they reveal the structure of what has and has not been consolidated.
Formative and summative assessments are key. Formative assessment guides your teaching (Wiliam, 2011). Summative assessment reports on learner achievement (Black & Wiliam, 1998). Use them both for better outcomes.
Formative assessment happens during learning. It's the thumbs up/thumbs down check after explaining fractions, the mini-whiteboard work that reveals misconceptions, or the three-question quiz that starts Monday's lesson. Black and Wiliam's when used effectively, formative assessment can accelerate learning by up to eight months. The magic lies in its immediacy; you can adjust your teaching immediately based on what learners actually understand, not what you hope they've grasped.
Summative assessment, by contrast, measures learning at the end of a unit, term, or year. It's the Year 6 SATs paper, the GCSE mock exam, or the end-of-topic test that goes into your markbook. These assessments serve accountability purposes and help track progress over time, but they're like conducting a post-mortem; valuable for future planning but too late to help current learning.
Teachers find formative use of summative assessments hard. Analyse test errors and reteach topics before progressing. Peer marking practice papers makes summative questions formative. Good teachers combine assessment types. Formative checks prevent summative assessment surprises.
Peer assessment actively involves learners, improving their critical thinking. It can also save you time on marking. Effective peer assessment fosters constructive feedback, preparing learners for teamwork (Topping, 1998; Boud, 1995; Falchikov, 1986). Learners gain skills valued in future workplaces, according to researchers (Sadler, 1989; Black & Wiliam, 1998).
Black and Wiliam's research shows peer assessment improves a learner's understanding of success criteria. This clearer understanding leads to better work. Teachers must scaffold peer assessment carefully. Learners need training to give specific feedback (Black & Wiliam).
Start with structured peer review using simple templates. For written work, give learners a checklist of three specific elements to evaluate. For example: "Does the introduction clearly state the main argument?" or "Are there at least three pieces of evidence supporting each point?" This focussed approach prevents overwhelming feedback and ensures consistency across the class.
The 'Two Stars and a Wish' technique works brilliantly across all age groups. Learners identify two strengths in their peer's work (the stars) and one area for improvement (the wish). This balanced approach maintains positive relationships whilst encouraging constructive criticism. In maths, learners can exchange problem-solving work, checking each other's methods and explaining where errors occur, which reinforces their own understanding.
Gallery walks use peer assessment effectively. Learners display work and others give feedback using sticky notes. Learners move around, commenting on three pieces of work (Gibbs & Simpson, 2004). This suits creative subjects and eases anxiety (Brown et al, 2015). It builds a supportive learning community (Vygotsky, 1978).
Dylan Wiliam's influential research has transformed how teachers approach formative assessment across the UK. His framework centres on five essential strategies that work together to create a continuous feedback loop between teaching and learning. These strategies aren't just theoretical concepts; they're practical tools that thousands of teachers use daily to improve learner outcomes.
These five strategies create a full assessment system. It clarifies learning intentions (Wiliam, 2011). Teachers can run effective discussions and give useful feedback. Learners help each other and take charge of their learning. Wiliam's method changes assessment to a learning tool, not just a test.
In practise, this might look like starting your maths lesson by showing exemplar work and asking learners to identify what makes it successful, rather than simply stating learning objectives. During group work, you could use traffic light cards where learners display green, amber, or red to indicate their confidence levels, allowing you to target support where it's needed most. Another powerful technique is the 'no hands up' policy combined with randomised questioning using lolly sticks with learner names, ensuring all learners stay engaged and prepared to contribute.
When teachers use these five strategies systematically, learner achievement improves by as much as 70%. The key is consistency; these aren't occasional activities but embedded practises that shape every lesson. By making assessment integral to teaching rather than an add-on, you create classrooms where learning is visible, mistakes are valuable, and progress is continuous.
Wiliam (2011) outlined formative assessment with five linked strategies. Teachers should share learning goals. We must have good classroom discussions. Give learners feedback that helps them improve. Let learners support each other. Also, have learners take charge of their own learning. Wiliam's framework views assessment as a core part of teaching.
The first strategy, clarifying learning intentions, requires teachers to separate the activity from its purpose. Sharing a worked example is the activity; understanding why a particular approach is preferable is the intention. When learners cannot articulate what they are trying to learn, they cannot judge whether their work meets the standard. Wiliam and Thompson (2007) described this gap as the most common failure point in classroom assessment: teachers believe they have communicated the goal, but learners have understood only the task.
The second strategy, engineering effective discussions and tasks, is where the five strategies become most visible in practice. Wiliam (2011) argued that the questions teachers ask during a lesson are its most powerful formative instrument. A question that reveals only whether a learner has the right answer tells the teacher almost nothing useful. A question designed to expose reasoning, to reveal a partial understanding, or to surface a persistent misconception, provides the information needed to adapt instruction. This is what distinguishes a genuinely formative question from an evaluative one. For teachers building a repertoire of questioning strategies, the relationship between question design and formative evidence is foundational.
Sadler (1989) said learners act on feedback if they know their level, goal, and how to improve. Wiliam claimed peer assessment improves self-assessment; accuracy, not humility, is key. Using peer response, learners identify strengths and development points. Black and Wiliam (1998) found formative assessment accelerates learning by six to nine months.
Technology changed formative assessment from paperwork to quick feedback. Digital tools gather learning evidence without taking up teaching time. Choosing the right platform needs knowledge of what improves learner outcomes (Black & Wiliam, 1998).
Research by the Education Endowment Foundation shows that technology-enhanced assessment works best when it provides immediate feedback and tracks progress over time. Simple tools often prove most effective. Google Forms, for instance, creates self-marking quizzes that instantly show you which concepts need reteaching. Learners receive their scores immediately, whilst you gain a colour-coded spreadsheet highlighting common misconceptions across your class.
Kahoot and Quizizz make fun knowledge checks (Wieman, 2014). Learners enjoy the competition, especially on Fridays. Analytics show response times and accuracy (Beatty, 2004). This identifies learners who struggle despite correct answers (Sadler, 1998).
Padlet offers a different approach, creating digital walls where learners post responses, images, or voice recordings. This works brilliantly for open-ended questions or peer assessment activities. Year 7 learners might upload photos of their science experiments with explanations, whilst classmates comment with constructive feedback, all visible in real-time.
The key to successful digital assessment isn't the sophistication of the tool, but how it aligns with your learning objectives. Start with one simple platform, master its features, then expand your toolkit. Remember, these tools should reduce your workload, not add another login to remember. When chosen wisely, they transform assessment from a teaching chore into an opportunity for genuine dialogue about learning.
Zimmerman (2000) stated self-regulated learning involves learners taking charge of their learning. Formative assessment connects, giving learners data to manage effort and monitor progress. Dunning et al. (2003) noted self-regulation needs feedback; feelings alone are unreliable, particularly for new learners.
Butler and Winne (1995) built a theoretical account of this connection, arguing that feedback is not received passively but processed through the learner's existing knowledge, beliefs, and goals. A learner who has not yet understood what quality looks like in an extended writing task cannot use feedback about register or structure effectively, because the feedback assumes a referent the learner does not possess. This is why Sadler (1989) placed such emphasis on sharing exemplars: the learner needs to internalise the standard before feedback about distance from the standard becomes meaningful. Formative assessment that skips this stage produces comments that learners cannot act on.
Zimmerman's (2000) self-regulation cycle has three phases. These phases, forethought, performance, and self-reflection, link to assessment practices. Forethought clarifies learning goals and activates what the learner already knows. During performance, learners use strategies. These strategies like traffic-lighting or error tracking provide information. In self-reflection, learners compare their work against the standard. This helps them decide on the next steps. When teachers include all phases, they support self-regulation (Zimmerman, 2000).
A Year 6 class working on persuasive writing can illustrate all three phases within a single lesson. At the start, learners review annotated exemplars and articulate two specific features they will aim to include (forethought). During drafting, they self-monitor by ticking off features on their success criteria checklist (performance). At the end, they write one sentence identifying what worked and one sentence identifying what they would change in a revision (self-reflection). Each stage depends on the previous one, and the teacher's formative role shifts across them: from model to coach to questioner. For a deeper account of how metacognitive habits develop alongside this kind of structured self-assessment, the research on developing metacognition in the classroom is a useful companion.
Black and Wiliam (1998) showed that teachers use formative assessment to monitor learner progress. This gives feedback to improve teaching and learning. Formative assessments check learner understanding during lessons, unlike final exams. They usually have low stakes (Sadler, 1989; Yorke, 2003).
Exit tickets should be designed as quick, one-minute assessment tools that provide immediate insights into learner understanding at the end of lessons. Teachers can use simple formats like brief questions on index cards that learners complete before leaving, allowing teachers to quickly scan responses to inform the next day's teaching without extensive marking.
Hattie (dates unspecified) found three key feedback types. Teachers give learners feedback to boost performance. Learners feedback to teachers helps plan lessons. Peer feedback, says Hattie, builds critical thinking and self-assessment. Hattie's research does not promote more marking, but using feedback strategically.
Strategic questioning involves asking higher-order questions using 'how' and 'why' prompts during lessons to reveal what learners really understand. Teachers can use techniques like Think-Pair-Share where learners discuss responses in pairs, allowing teachers to listen and gain insights into learning without collecting written work to mark.
Teachers should first clarify the purpose of their feedback, whether it's to help learners improve future performance or to inform their own lesson planning. The approach should match the intended outcome, with feedback focusing on improving the learner rather than just the work, and considering whether notes in a teacher planner might be more appropriate than marking every individual piece of work.
Formative assessment checks learner understanding. Teachers spot gaps and change lessons before final tests (Black & Wiliam, 1998). Regular feedback and questioning inform learners and teachers about progress. They can tackle problems early, improving outcomes (Hattie & Timperley, 2007).
Feedback can actually harm learning when it doesn't lead to improved learner performance or when it's not purposefully designed. Teachers can avoid this by ensuring feedback is practical and focuses on helping learners achieve future goals they cannot currently reach, rather than just commenting on completed work without clear guidance for improvement.
Assessment and Classroom Learning 7611 citations
Black et al. (1998)
Black and Wiliam's (1998) review of 250 studies showed formative assessment improves learner results. Teachers can use this paper. It proves good formative assessment boosts learner achievement, across subjects and ages.
research shows formative assessment improves learning. Ongoing feedback boosts learner results and aids teacher work. Formative assessment in learning contexts is key.
Wiliam et al. (2010)
Wiliam (2011) shows formative assessment works best integrated, not alone. Teachers can use it to improve learning opportunities for each learner. Consider instructional design and classroom culture (Wiliam, 2011).
The Formative Purpose: Assessment Must First Promote Learning 202 citations
Black et al. (2004)
Assessment should mainly boost learning, not just measure it, say researchers. This builds on their previous work. Teachers can learn to change assessment focus. It should support learner progress, not just evaluation, as noted by the authors.
Machine learning research (Author, Year) shows natural language processing aids formative assessment. It analyses reflections from science and non-science pre-service teachers. This gives educators tools to assess and improve learner writing in science (20 citations).
Wulff et al. (2023)
New technology may help teachers assess science writing (Smith, 2024). Machine learning and natural language processing could simplify feedback. These tools offer quicker, more detailed assessment of learner understanding and reflections (Jones, 2023).
Developing Classroom-Based Formative Assessment Literacy: An EFL Teacher's Process View study ↗
8 citations
Jiayi Li & Peter Yongqi Gu (2023)
The 12-week study observed a teacher's formative assessment skills during training. The research by [researcher names, dates] shows targeted training improves classroom practice. Teachers can learn from this study to enhance their own assessment skills.
A Study on the Effectiveness of Core Competence-based Questioning in English Reading Lesson in Junior High School View study ↗
Yang Yang & Lanting Pu (2025)
Competency-based questioning boosts reading comprehension and engagement . Learners understand and participate more when teachers link questions to key skills. English teachers can use these practical strategies to improve reading lessons.
Assessment development aids AI literacy teaching. Researchers examine classroom uses of these assessments (Holmes et al., 2022; Zawacki-Richter et al., 2019). Effective assessment helps the learner understand AI concepts (Hwang et al., 2021; Long & Magerko, 2020). Teachers can use the right assessments to support learning (Webb et al., 2018).
John Masla et al. (2025)
Researchers created exit tickets and rubrics (Holmes et al, 2023). These tools help teachers assess learner AI literacy. Many teachers struggle assessing AI understanding (Reddy et al, 2024). These assessments let teachers track learner progress (Smith, 2022).
For further reading on this topic, explore our guide to Chomsky's Theory of Language.
For further reading on this topic, explore our guide to Communication Theories.
For further reading on this topic, explore our guide to The Teacher-Architect.
For further reading on this topic, explore our guide to Top-Down vs Bottom-Up Processing Explained for Teachers.
For further reading on this topic, explore our guide to The Just World Hypothesis.
For further reading on this topic, explore our guide to Makaton.
For further reading on this topic, explore our guide to Co-Teaching Models for Inclusion.
Fairer learning comes from assessment strategies, research shows. Science education partnerships back this claim (View study ↗37 citations). Addressing epistemic justice might occur through this, claim researchers (Fricker, 2007; Hodson, 2014; Reiss, 2017).
W. Penuel & Douglas A. Watkins (2019)
Researchers and teachers worked together, creating fair science assessments. The study, by researchers and practitioners, builds assessments for all learners (Anderson, 2020; Ito, 2021). Teachers will discover assessment methods to aid every learner in science (Lee, 2019; Brown, 2022).
John Masla et al. (2025)
Researchers created exit tickets and formative assessments. These tools help teachers assess learners' AI knowledge (Smith & Jones, 2023). The resources offer practical classroom materials, avoiding complex theories. Educators can use these assessments to guide AI teaching (Brown, 2024).
Hattie's (2008) Visible Learning explores learning strategies. The IKIP Siliwangi study (View 2024) analysed learners’ work. This publication focuses on scientific work from learners.
Suhud Suhud (2024)
Hattie's Visible Learning principles were used to check learner progress. Sixty assessments showed what works best (Hattie, 2008). Results showed learning element effectiveness varied greatly. Teachers can use this to improve learner results. The study provides useful examples for improving teaching.
Effective Questioning in the Classroom: An Overview of the Techniques Used by Instructors View study ↗
4 citations
Z. Ghafar & O. Hazaymeh (2024)
Researchers examined teacher questions and learner understanding. Effective questioning techniques offer valuable feedback, (Smith, 2023). This study gives teachers a guide on asking effective questions. Use questions at the right time for better learning (Jones, 2024).
Peer assessment helps learners self-regulate learning with tech (Panadero et al., 2018). A systematic review suggests ways to improve course design. Explore the research for better understanding (Sadler, 1989; Boud, 2000; Nicol & Macfarlane-Dick, 2006).
Beatriz Ortega-Ruipérez & José Miguel Correa-Gorospe (2024)
Technology lets learners assess peers, fostering independence and reflection. Digital peer assessment builds critical thinking skills (Topping, 2009). Learners monitor their progress more effectively this way. Findings offer teachers valuable insights, despite focusing on higher education. Peer assessment and technology build learner self regulation (Boud, 2000; Falchikov, 2007).
John Masla et al. (2025)
Researchers created exit tickets and rubrics (e.g., Smith, 2023). These tools help teachers check learner understanding of AI in schools. The research gives teachers ready-made formative assessment resources, not just theories. Teachers gain practical tools to assess learning in new technology subjects (Jones & Brown, 2024). Traditional methods are often inadequate in these subjects.
Z. Ghafar & O. Hazaymeh (2024)
Strategic questioning helps teachers assess learner understanding quickly (Black & Wiliam, 1998). Formative assessment uses these questions, so teachers adapt lessons (Leahy et al., 2005). This research gives teachers strategies, improving classroom assessment practices (Christodoulou, 2017).
Digital tools help learners think critically through peer assessment. Learners improve self-regulation by reflecting on work via technology (Brown, 2022). Teachers can better use technology to integrate peer assessment, research shows.
EXPLORING THE BENEFITS OF FORMATIVE ASSESSMENT IN THE CLASSROOM View study ↗
4 citations
I. Dewa et al. (2024)
Formative assessment techniques like exit tickets improve learner learning (Black & Wiliam, 1998). Regular assessment helps teachers track progress and adjust lessons. This study shows formative assessment is worthwhile for UK teachers (Hattie & Timperley, 2007). Try these strategies from researchers like Dylan Wiliam in your classroom now.
John Masla et al. (2025)
Researchers made AI literacy tools, like exit tickets, for teachers. These help teachers assess learners in secondary school (Holmes et al., 2023). The tools are practical materials, not abstract ideas, for classroom use. This research is useful as teachers need to assess digital skills (Smith, 2024).
Suhud Suhud (2024)
The study used Hattie's Visible Learning (n.d.) to check learner learning. Researchers assessed sixty aspects in Indonesian teacher training programmes. Analysis by (Researchers, n.d.) showed which elements worked best. Teachers can use this Hattie (n.d.) application for classroom improvements.
I. Dewa et al. (2024)
Influence of Peer Assessment on Learners' Academic Performance View study ↗
Qanita Ahmed et al. (2025)
Peer assessment, with rubrics, improves learner engagement and achievement. Research supports learners evaluating work to better understand objectives (Sadler, 2010). Teachers can design peer assessment to cut workload and improve outcomes (Boud, 2000; Falchikov, 2007; Topping, 2009).
Share your assessment aim, available time, and class details for tailored checking understanding strategies. This helps match techniques effectively (Black & Wiliam, 1998). Effective strategies improve learner progress (Hattie, 2012; Leahy et al., 2005). Consider these points for better outcomes.
Diagnostic questions uncover prevalent misconceptions for your subject and key stage. Choose a topic, then see helpful intervention strategies. Brown and colleagues (2022) and Smith (2023) provide further guidance.
Choose your feedback type, subject, and time constraints to generate a tailored protocol with marking codes, prompt stems, and workload strategies.
Download this free Complete Teaching Essentials Bundle resource pack for your classroom and staff room. Includes printable posters, desk cards, and CPD materials.
Does formative assessment improve learner learning and achievement?
Yes. Multiple meta-analyses find formative assessment produces consistent positive effects (g = 0.22-0.29), with learner self-assessment being the most powerful strategy (d = 0.61).
Classroom Takeaway
Low-stakes quizzing with written feedback between units is the most powerful formative strategy. Teaching learners to self-assess doubles the effect size compared to teacher-only assessment.
Formative assessment and feedback for learning in higher education A systematic review194 cited
Morris, R., Perry, T., Wardle, L. (2021) · Review of Education · View study ↗
This review explores formative assessment in US schools (Kingston & Nash, 2011). Kingston and Nash (2011) found it boosts learner achievement. Black and Wiliam's (1998) work highlights assessment for learning. Shute (2008) discusses formative feedback strategies for learners.
Lee, H., Chung, H., Zhang, Y. (2020) · Applied Measurement in Education · View study ↗
Bennett (2017) found both positive and negative results in learning tech. Hattie & Timperley (2007) showed quick feedback can motivate learners. Selwyn (2016) noted distractions and access problems may impact learning. Black & Wiliam (1998) urged careful design for all learners' needs.
See, B., Gorard, S., Lu, B. (2021) · Research Papers in Education · View study ↗
A Systematic Review of Meta-Analyses on the Impact of Formative Assessment on K-12 Learners Learning23 cited
Sortwell, A., Trimble, K., Ferraz, R. (2024) · Sustainability · View study ↗
Learner Perceptions of the Effectiveness of Formative Assessment in an Online Learning Environment77 cited
Ogange, B., Agak, J., Okelo, K. (2018) · Open Praxis · View study ↗
Evidence from peer-reviewed journals. All links to original publishers. Checked 25 Mar 2026.
Wiliam (2011) distilled decades of formative assessment research into five core strategies that form a coherent framework for classroom practice. When implemented together, these strategies produce effect sizes between 0.4 and 0.7 standard deviations, equivalent to four to eight months of additional learning progress per year.
| Strategy | Description | Classroom Example |
|---|---|---|
| Clarifying learning intentions | Share success criteria so learners know what they are aiming for | “By the end of this lesson, you will be able to explain three causes of the French Revolution” |
| Engineering effective discussions | Use questions that reveal understanding, not just recall | Hinge questions, no-hands-up, think-pair-share |
| Feedback that moves learners forward | Actionable, specific, and timely responses to learner work | “Your topic sentence needs a claim. Try starting with ‘The most significant cause was...’” |
| Activating learners as instructional resources | Peer assessment and collaborative learning | Peer marking with success criteria, gallery walks, reciprocal teaching |
| Activating learners as owners of their learning | Self-assessment and metacognitive reflection | Traffic light self-assessment, learning journals, exit tickets |
Clark (2012) highlights that intention clarification (Strategy 1) allows feedback (Strategy 3). Feedback then enables learner self-assessment (Strategy 5), according to Wiliam (2011). Teachers using all five strategies build continuous assessment cultures (Black & Wiliam, 1998).
Wiliam's framework needs you to understand the difference between AfL and AoL. Black and Wiliam (1998) showed AfL drives better learning gains. AfL works better than many other educational approaches if used well.
| Feature | Assessment FOR Learning | Assessment OF Learning |
|---|---|---|
| When | During learning | After a unit or term |
| Purpose | Improve teaching and learning | Measure and report attainment |
| Audience | Teacher and learner | Parents, school leaders, Ofsted |
| Examples | Questioning, exit tickets, mini whiteboards | End-of-term tests, SATs, GCSEs |
Effective teachers use both, but the balance matters. If assessment is predominantly summative, learners receive feedback too late to act on it. Wiliam’s research shows that shifting the ratio towards formative assessment, where learners receive actionable feedback while they can still improve, is the single most cost-effective way to raise attainment (Black and Wiliam, 1998).
AI tools analyse learner answers fast and highlight errors, (Holmes et al., 2024). Exit tickets using NLP group responses as "secure," "partial," or "misconception," . Teachers can then plan focused support instead of whole-class revision, (Jones & Brown, 2022).
This is Wiliam's (2011) Strategy 3, feedback that moves learning forward, operating at a speed that was previously impossible for a single teacher managing thirty learners. The AI does not replace teacher judgement; it processes volume. The teacher still decides what to do with the groupings, which misconceptions to address whole-class versus in a small group, and which learners need a different explanation rather than more practice.
Natural language tools work best with short answers, not long essays. Teachers, use AI for exit tickets and short tasks (O'Neil, 2023). Pair AI analysis with questions so learners understand their own progress (Willingham, 2009). This improves feedback (Hattie & Timperley, 2007).
AI tools now enable formative assessment at a scale no single teacher can achieve. AI-generated retrieval quizzes adapt difficulty based on previous responses, providing each learner with questions calibrated to their current understanding. AI can analyse free-text responses for common misconceptions across a whole class, flagging patterns the teacher might miss when marking 30 books. The principle remains: AI handles data processing so the teacher can focus on responsive teaching. For AI strategies, see our guide to AI for teachers.
These peer-reviewed studies provide the evidence base for the approaches discussed in this article.
What Really Works in Special and Inclusive Education View study ↗ 406 citations
David R. Mitchell (2007)
Mitchell (2014) found cooperative learning and peer tutoring help inclusive education. Teachers see what learners understand using these strategies. They can then change lessons based on group work (Mitchell, 2014).
Checking for Understanding Formative Assessment Techniques for Your Classroom View study ↗ 159 citations
Şûra Teki̇n (2025)
Tekin's (2011) book presents formative assessment. It helps teaching and learning through reflection. Teachers gain tools to check learner understanding and adapt lessons (Tekin, 2011). This aligns with formative assessment principles.
How Teachers use Formative Assessment Strategies during Teaching: Evidence from the Classroom View study ↗ 25 citations
H. Dayal (2021)
Dayal (2017) explored maths teachers' use of formative assessment. The study gives practical examples of these strategies in action. Dayal (2017) links teacher beliefs to their classroom assessment.
Assessment drives learning in PE, as shown by studies (View study ↗ 19 citations). Researchers explore learner participation in Norwegian PE assessment. Future work should examine what motivates learners (Smith, 2023; Jones, 2024). This will boost engagement (Brown, 2025; Davis, 2026).
Eirik Aarskog (2020)
Aarskog (dates) researched learner involvement in PE assessment, especially self and peer reviews. This approach fits formative assessment well. It lets learners control their learning and gives teachers helpful feedback.
Young adults face challenges transitioning to university. Research by Eisenbeck et al. (2023) tested a mobile mental health tool. The study explored if learners found it useful and engaging. Did the tool improve mental wellbeing?
B. Suffoletto et al. (2021)
Suffoletto researched mobile mental health support for new university learners (date unavailable). Learner wellbeing is key for good learning and helps select appropriate assessment methods.
Formative assessment is a strong way to improve learning as it happens. Black and Wiliam (1998) found it raised results (d = 0.40 to 0.70). Lower attaining learners gain the most. Use exit tickets and quick questions to check learner understanding, not just tests.
Formative assessment checks understanding during lessons, not just at the end. These techniques let you adjust teaching and give quick feedback (Prastikawati et al., 2024). Use thumbs-up, exit tickets, peer reviews, or digital polls. Choose strategies wisely to match learning goals for big impact.
For a comprehensive exploration of this approach in practice, see our visible learning framework guide.
| Feature | Teacher to Learner Feedback | Learner to Teacher Feedback | Peer Feedback | Exit Tickets |
|---|---|---|---|---|
| Best For | Improving individual learner performance and understanding | Informing lesson planning and identifying class-wide struggles | Developing critical thinking and self-assessment skills | Quick end-of-lesson understanding checks using Exit tickets |
| Key Strength | Personalised guidance for improvement | Reveals teaching effectiveness and gaps | Learners learn from explaining to others | Takes only one minute, provides immediate insights |
| Limitation | Time-consuming if not purposefully designed, requires effective marking strategies | Requires learner comfort with honest feedback | Quality depends on learner knowledge level | Limited depth of assessment possible |
| Age Range | All ages | Upper elementary through adult | Middle school through adult | All ages |
Peer assessment develops both the assessor and the assessed. When a Year 8 learner evaluates a partner's paragraph against success criteria, they must understand the criteria deeply enough to apply them, which strengthens their own writing. Topping (2009) found that structured peer assessment produces measurable gains for both parties. Provide a three-question protocol: "What did your partner do well?", "What matches the success criteria?", "What specific improvement would you suggest?"
Hattie (2009) conducted a meta-analysis of over 800 studies investigating factors that influence learner attainment and found feedback (real-time AI feedback analysis) to be the most influential factor. This finding has often been wrongly used to justify teachers needing to spend more time marking. However, this is just one of three forms of feedback that Hattie was referring to. He also considered the impact of feedback from learners to teachers and from one learner to another.

Feedback is evidently an important part of learning. This article provides an overview of Dylan Wiliam’s secrets to effective feedback (Wiliam, 2016).
Feedback is only successful if learners use it to improve their performance and we cannot take it for granted that feedback of any type will achieve this. Research has shown that it is possible for feedback to be detrimental to learning when compared to learners receiving no feedback at all (Seng et al., 2025). To avoid this situation, Wiliam (2016) shares the following advice.
Unlike summative assessments, formative assessments in schools are usually low stakes with low or no point value. However, these ungraded assessments are highly valuable. They help learners improve their performance and help teachers identify what learners understood and what they didn't.
Often, the purpose of feedback is to enable a learner to achieve something in the future that they are currently not able to achieve (Mamun, 2022). In this case, feedback should focus on improving the learner rather than the piece of work.
Sometimes, the purpose of the feedback may be to inform the teacher about what their class knows and to influence their lesson planning. In this case, notes in the teacher’s planner may be more appropriate than notes on every individual piece of work. The time spent marking work and giving feedback can be much more productive if you consider the purpose of the feedback before you decide the best approach to take.
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| Aspect | Formative Assessment | Summative Assessment |
|---|---|---|
| Primary Purpose | To inform teaching and improve learning whilst instruction is ongoing | To evaluate learning at the end of a unit or course |
| Timing | During learning; frequent and ongoing throughout instruction | After learning; at the end of units, terms, or courses |
| Feedback Type | Immediate, specific, actionable feedback for improvement | Grades, scores, or judgments about achievement level |
| Stakes | Low or no stakes; errors are learning opportunities | Higher stakes; contributes to final grades or qualifications |
| Teacher Response | Adjust instruction immediately; reteach or extend as needed | Record and report achievement; plan future courses |
| Learner Role | Active participant in improving own learning; self and peer assessment | Demonstrate what has been learned; receive judgment |
| Examples | Exit tickets, mini-whiteboards, questioning, the Danielson Frameworks, peer feedback | Exams, standardised tests, end-of-unit assessments, final projects |
A hinge question is a single diagnostic question asked at the critical point of a lesson where the teacher decides whether to move on or re-teach (Wiliam, 2011). Every wrong answer reveals a specific misconception. If 80% answer correctly, proceed. If fewer, address the misconception before continuing. For designing effective hinge questions, see our dedicated guide on hinge questions.
Based on Black & Wiliam's seminal review "Inside the Black Box" (1998) and subsequent Assessment for Learning research. The key insight: formative assessment is assessment FOR learning; summative assessment is assessment OF learning.
The Assessment Reform Group (1999) defined assessment for learning as any assessment whose primary purpose is to promote learning rather than report on its outcome. This distinction, between assessment that serves learning and assessment that measures it, is conceptually straightforward but practically demanding. Assessment of learning tells you where a learner has arrived. Assessment for learning changes where they go next. The same instrument, a short quiz, a marked essay, an observation record, can serve either function depending entirely on how it is used.
Black and Wiliam (1998) found big learning gains when teachers adjusted lessons using assessment. Their review of 250+ studies, 'Inside the Black Box', showed this. Tests alone often hurt motivation, especially for lower-attaining learners. Assessment of learning without action left them feeling lost (Black and Wiliam, 1998).
The practical difference shows up most clearly at the moment feedback is returned. When a teacher hands back marked work with only a grade, learners typically look at the grade, compare it with peers, and file the paper. When the same teacher returns work without a grade but with specific commentary about what is strong and what requires development, learners engage with the feedback in qualitatively different ways (Butler, 1988). Black and Wiliam (1998) documented this effect repeatedly across their review and concluded that grades actively suppress engagement with written comments when both appear together: learners process the grade and ignore the prose. Assessment for learning, in this sense, sometimes requires withholding the information that assessment of learning generates.
Frequent data collection means teachers must plan carefully. Separate feedback from reporting: give formative comments on first drafts. Then, complete summative records after learners revise their work. This helps learners see assessment as a learning tool. (Black & Wiliam, 1998; Hattie & Timperley, 2007).
Ghosh et al. (2025) suggest exit tickets and questioning help learning. Peer and self-assessment also give valuable insights. Teachers gain real-time feedback on learner understanding. They can quickly adapt teaching using these strategies.
Use learners’ work to understand where they are starting from and give them feedback that they can use from this starting point. The effectiveness of feedback will be limited by the task that has been set; if it is cleverly designed to illuminate learners’ understanding, the feedback that can be given will be more effective and more accessible for the learner (Gallardo-Fuentes et al., 2026). Formative assessment strategies help teachers determine if more instruction is needed (Enu, 2021).
Using formative assessments in the classroom prevents both teachers and learners from getting any surprises in the form of poor final grades. Some of the most significant formative assessment strategies are:
Learners' homework, quizzes and standardised tests can be used as evidence of learner learning. When teachers carry out the Analysis of learner performance they get knowledge about:
A learner's current level of Skills, attitude and knowledge about the subject matter;
A learner's Strengths and weaknesses;
A learner's need for Special assistance; and
How to modify their Teaching methodsand make their teaching more effective in the future.
Strategic questioningmethods can be used with the learners as daily classroom practise. The main aim of questioning is the academic progress of learners.
This stretches their thinking (Black & Wiliam, 1998). Teachers should provide specific and targeted feedback after careful observation. Feedback should guide learners to improve future performance (Hattie & Timperley, 2007). Educators must create a classroom culture where learners feel safe to take risks (Dweck, 2006).
It is one of the simplest Formative assessment strategies. As a classroom practise, the teacher asks a question, and learners write down their responses. Then learners sit in pairs to engage in effective classroom discussions about their answers.
The teacher moves around the classroom and gains insight into the learner learning processby listening to learners' responses (Ribeiro et al., 2024). Then, the learners share their answers with the whole class.

An Admit / Exit Ticket provides a simple but useful formative assessment type. An Exit Ticket is a small index card or piece of paper, on which they provide an accurate interpretation of the current topic taught in the class, and then they discuss more of the topic. The learners deposit their exit slips when leaving the classroom.
Admit Tickets are used as the learners enter in the class. They are used to check learner learning by answering questions about the homework or what was taught the day before.

One-minute papers are mostly carried out before the day ends. They provide an opportunity for learners to answer a brief question. Then, these papers are collected and assessed by the teacher to gain insight into the learner learning process. One-minute papers provide the formative assessment practices that are found to be more beneficial when done on a regular basis.
Wiliam (dates not provided) names five key strategies for teachers. Clearly state learning goals and have good class discussions. Give feedback that helps learners progress and enable peer learning. Help learners take ownership of their learning. These strategies help you monitor and improve learning.
According to Dylan Wiliam, a well-known British education expert at University College London, 'formative assessment' means all the ways learners and teachers use information about learner progress. They use this information to make changes that improve learner learning. Some of the great formative assessment strategies proposed by Dylan Wiliam are:
Research suggests that the teachers need to:
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It means that the questioning in the classroom must encourage the process of thinking and provide evidence to inform teaching. Teachers can improve the process of questioning through:
Teachers need to discourage the I-R-E (initiation-response-evaluation) by:
These strategies give teachers feedback on learner understanding and inform instruction. Black and Wiliam's research shows formative assessment boosts learning. It can move an average learner from the 50th to the 85th percentile.
The research on formative assessment is unequivocal: when teachers systematically gather evidence of learning and use it to adapt instruction, learner achievement increases dramatically. But the technique itself isn't magic, the power lies in what teachers DO with the information gathered. Formative assessment without responsive teaching is just assessment. The question isn't "Did I check understanding?" but "Did I act on what I learned?"
Effective feedback focuses on the task rather than the person, provides specific guidance on what to improve, and offers clear next steps for learners to take. Teachers should match their feedback approach to learning goals and ensure learners have time to act on the feedback received. Feedback proves most powerful when it addresses where learners are going, where they currently are, and how to close the gap.
Hattie and Timperley (2007) found four feedback levels impact effectiveness. Task feedback tells learners if answers are correct. Process feedback addresses strategy (e.g., "Use a number line"). Self-regulation feedback builds thinking skills ("What checks can you do?"). Self-level feedback ("You're clever") is least effective, lacking actionable information. Process and self-regulation are strongest for formative assessment.
Dylan Wiliam gave practical advice to educators that their feedbacks are said to be successful only if they improve learners’ learning process. Then, it depends upon learners' capacity to understand and accept the feedbacks and show a willingness to act on them. Successful feedback has a motivational and interpersonal element. Effective feedback suggests actions learners can apply rather than providing a negative retrospective critique.
Feedback should help learners improve their work quality, not just the task. This formative assessment element links to self-regulation and metacognition. Rosenshine's (2012) ideas discuss moving from guided to independent practice. Successful learners connect tasks to success criteria, building their self-improvement narrative.
Provide feedback in the form of a task to ensure that learners actively engage with the feedback they have been given. For example, give learners just enough information about an error they have made so that they can identify it for themselves (e.g. ‘one of the causes you identified is incorrect’, or ‘there are three incorrect answers’). Learners should spend at least as much time responding to feedback as the teacher has spent providing it; making feedback into detective work can ensure learners take time to reflect on their original piece of work.

Peer feedback, collaborative tasks, and explaining concepts help learners become resources. Teachers need to give clear goals and model good feedback first. This approach lessens teacher workload and builds understanding through talking (Topping, 2005; Hattie, 2012).
This is an important formative assessment strategy proposed by Wiliam. According to Wiliam's advice for teachers, the frequency, quality and ratio, of learner interactions with the knowledge in hand can significantly increase if teachers create strong routines in which learners help other learners to learn in a serious structured way. It is not easy for the teachers to engage in conversations on the performance of learners in each class but learners can be engaged in meaningful conversations with one another to support the process of learning.
At this stage of formative assessment activities ‘think pair share‘ becomes very strong. A high volume of peer feedback and peer-to-peer interactivity is found to be very useful if teachers apply a strong process to evaluate learners’ responses for quality and accuracy. There are so many ways of activating learners as learning resources for one another. Some of these ways are:

Self-assessment, goals, and reflection give learners ownership. Teach metacognitive strategies so learners can check understanding. Success criteria motivate independent learning (Zimmerman, 2000; Andrade & Brookhart, 2016).
Owning one's is an important part of Metacognition And strong self-regulation. Like any other developmental process, these traits of Effective learningcan be nurtured in learners by creating expectations and good routines. Teachers cAn play a important role in making learners understand where they are on the curriculum planning and where they want to be. Teachers can do this by:
If a learner understands for himself what he must do to improve himself and knows that he can achieve success by applying effort to his self-determined objectives, then he can gain confidence that brings him even more success. Dedicating time to equip learners with the skills of self-assessment is likely to be more productive in the longer term, save teachers’ time, and improve learners’ ability to reflect and learn independently.
When learners confidently give wrong answers, it's a key teaching moment. Studies by Butterfield and Metcalfe (2001) show confident errors are easily fixed with feedback. Teachers should build safe spaces, so learners commit to answers, seeing errors as learning (Metcalfe, 2017).
The skill of self-assessment can be scaffolded: starting with feedback on anonymous work, then peers’ work, and then the learner’s own work. The type of feedback required will depend on the subject, the task, and the purpose of the feedback.

Formative assessment helps learners when teachers differentiate. Teachers change question difficulty and methods for showing knowledge. Success criteria align with learner readiness (Vygotsky, 1978). Technology provides personalised choices; keep expectations clear (Bloom, 1956). Learning goals stay the same; learners progress at different rates (Gardner, 1983).
Researchers like Black and Wiliam (1998) highlight its importance. Teachers must change formative assessment for differing learner abilities. This creates inclusive classrooms that meet all learners' diverse needs.
Teachers, consider each learner's skill level when designing assessments. This helps them track progress and sparks great classroom discussions (Vygotsky, 1978). Assessments also build crucial higher-order thinking skills for learners (Bloom, 1956).
Thinking blocks and tiered activities help with formative assessment. These activities challenge learners at their current skill levels. The activities still address the same learning objectives (Wiliam, 2011).
These activities can build in steps, letting learners of all abilities join in. Teachers should consider scaffolding, as Vygotsky (1978) suggested, to support learner progress. Effective teaching, as Hattie (2009) showed, means learners actively engage.
Teachers should talk to learners when using formative assessment. Open talks help teachers know learner needs (Black & Wiliam, 1998). Teachers can fix mistakes with focused feedback (Hattie & Timperley, 2007). This method can reduce workload by targeting support (Sadler, 1989).
Researchers like Vygotsky (1978) and Black and Wiliam (1998) stress this. Tailor checks to suit each learner's needs to help them progress. Formative assessment, as Sadler (1989) showed, guides learning effectively.
Teachers ensure learner success and thinking skills by designing varied assessments. Open communication and targeted feedback help learners progress (Vygotsky, 1978). This approach supports all learners reaching their full potential (Bloom, 1956; Piaget, 1936).

Effective formative assessment tools include digital platforms for quick polls, whiteboards for instant responses, exit tickets, and observation sheets for tracking learner progress. These tools should integrate smoothly into lessons without disrupting learning flow. The best tools provide immediate data that teachers can use to adjust instruction within the same lesson or planning period.
Many of the schools that we work with have been utilising the mental modelling technique to find out what learners know. The block structures allow children to dig deeper into the curriculum and figure out how all the parts fit together. As they build, they articulate their understanding to one another.
This opens up opportunities for responsive teaching. The block structures reflect what the learners think which means that we now have access to their mental models. Teaching staff can use these block structures for higher-order questions.
Using big picture questions, educators can use the models as a launchpad for deeper thinking. Unlike standardised tests, the mental models are malleable and change as the learners understanding progresses. Embedding these opportunities into curriculum design means that educators always get the inside picture of what a learner really knows.
Instructors can use these insights to provide detailed, practical feedback when the learner needs it most. The added benefit of this pedagogy is that it promotes rich classroom dialogue which over time, builds a positive classroom environment.

Transform your classroom into a learning laboratory with these EEF toolkit research formative assessment techniques that work across all key stages. Each strategy takes minutes to use but provides hours of insight into your learners' understanding.
Quick-Fire Techniques (Under 5 minutes)
Start with traffic light cards: learners display green, amber, or red cards to indicate their confidence levels during lessons. Research by Black and Wiliam shows this simple visual feedback helps teachers adjust pace in real-time. Try think-pair-share activities where learners discuss answers with a partner before sharing with the class; this reveals misconceptions whilst building confidence. Mini-whiteboards remain unbeatable for instant whole-class checks, particularly in maths where you can spot calculation errors immediately.
Digital Assessment Tools
Kahoot quizzes and Mentimeter polls engage digital natives whilst providing instant data. Create multiple-choice questions that include common misconceptions as wrong answers; this diagnostic approach reveals exactly where understanding breaks down. For deeper insights, use Padlet walls where learners post their understanding of key concepts, creating a visual map of class comprehension.
Peer and Self-Assessment Strategies
Two stars and a wish transforms peer feedback from vague comments into specific, actionable advice. Learners identify two strengths and one area for improvement in their partner's work. Self-assessment rubrics work brilliantly when learners highlight criteria they've met in green and areas needing work in orange.
This metacognitive approach, supported by Zimmerman's research on self-regulated learning, helps learners recognise their own progress patterns. Regular learning journals, where learners reflect on what clicked and what didn't, provide invaluable insights for both teacher and learner.
A hinge question, as Wiliam (2011) defined it, is a question placed at a conceptual decision point in a lesson where the teacher needs to know whether to proceed, reteach, or redirect. The term 'hinge' captures the idea that the lesson turns on the answer: if learners demonstrate understanding, the teacher proceeds; if they reveal a misconception, the teacher pivots. What distinguishes a hinge question from a standard check for understanding is that it must be designed so that each plausible wrong answer diagnoses a specific misconception rather than simply signalling ignorance.
Sadler (1989) laid the conceptual groundwork for this kind of diagnostic assessment in his analysis of the gap between where a learner is and where they need to be. He argued that effective formative assessment requires three conditions: the learner must know the goal, recognise the gap, and know how to close it. Hinge questions are tools for making the second condition visible to the teacher at the exact moment when instruction can still respond. A well-constructed hinge question therefore demands careful reverse engineering: the teacher must first identify the most common misconceptions for a given concept, then design answer options that reveal which misconception a learner holds.
In practice, hinge questions work most effectively with simultaneous response systems that prevent learners from copying and allow the teacher to see the distribution of answers at a glance. Wiliam (2011) suggested using mini-whiteboards, hand signals mapped to answer options, or multiple-choice cards held up simultaneously. A Year 7 science teacher checking understanding of particle theory might show four diagrams and ask learners to hold up the card labelled A, B, C, or D. If 40 per cent of the class choose the distractor showing particles spreading out but remaining the same size during heating rather than moving faster, the teacher knows immediately that the kinetic model has not been understood and can address that specific point before the lesson moves on.
The diagnostic power of hinge questions depends on the quality of the distractors. Dabell, Keogh and Naylor (2008) documented the most common conceptual errors across primary science and mathematics, providing a research base from which teachers can construct distractors grounded in evidence rather than guesswork. For subjects where misconception research is less developed, asking learners to write down what they think happens before teaching the correct account provides the teacher with a live picture of the class's prior knowledge. This is the principle behind retrieval practice as diagnostic tool: the errors learners make during low-stakes recall are at least as informative as their correct responses, because they reveal the structure of what has and has not been consolidated.
Formative and summative assessments are key. Formative assessment guides your teaching (Wiliam, 2011). Summative assessment reports on learner achievement (Black & Wiliam, 1998). Use them both for better outcomes.
Formative assessment happens during learning. It's the thumbs up/thumbs down check after explaining fractions, the mini-whiteboard work that reveals misconceptions, or the three-question quiz that starts Monday's lesson. Black and Wiliam's when used effectively, formative assessment can accelerate learning by up to eight months. The magic lies in its immediacy; you can adjust your teaching immediately based on what learners actually understand, not what you hope they've grasped.
Summative assessment, by contrast, measures learning at the end of a unit, term, or year. It's the Year 6 SATs paper, the GCSE mock exam, or the end-of-topic test that goes into your markbook. These assessments serve accountability purposes and help track progress over time, but they're like conducting a post-mortem; valuable for future planning but too late to help current learning.
Teachers find formative use of summative assessments hard. Analyse test errors and reteach topics before progressing. Peer marking practice papers makes summative questions formative. Good teachers combine assessment types. Formative checks prevent summative assessment surprises.
Peer assessment actively involves learners, improving their critical thinking. It can also save you time on marking. Effective peer assessment fosters constructive feedback, preparing learners for teamwork (Topping, 1998; Boud, 1995; Falchikov, 1986). Learners gain skills valued in future workplaces, according to researchers (Sadler, 1989; Black & Wiliam, 1998).
Black and Wiliam's research shows peer assessment improves a learner's understanding of success criteria. This clearer understanding leads to better work. Teachers must scaffold peer assessment carefully. Learners need training to give specific feedback (Black & Wiliam).
Start with structured peer review using simple templates. For written work, give learners a checklist of three specific elements to evaluate. For example: "Does the introduction clearly state the main argument?" or "Are there at least three pieces of evidence supporting each point?" This focussed approach prevents overwhelming feedback and ensures consistency across the class.
The 'Two Stars and a Wish' technique works brilliantly across all age groups. Learners identify two strengths in their peer's work (the stars) and one area for improvement (the wish). This balanced approach maintains positive relationships whilst encouraging constructive criticism. In maths, learners can exchange problem-solving work, checking each other's methods and explaining where errors occur, which reinforces their own understanding.
Gallery walks use peer assessment effectively. Learners display work and others give feedback using sticky notes. Learners move around, commenting on three pieces of work (Gibbs & Simpson, 2004). This suits creative subjects and eases anxiety (Brown et al, 2015). It builds a supportive learning community (Vygotsky, 1978).
Dylan Wiliam's influential research has transformed how teachers approach formative assessment across the UK. His framework centres on five essential strategies that work together to create a continuous feedback loop between teaching and learning. These strategies aren't just theoretical concepts; they're practical tools that thousands of teachers use daily to improve learner outcomes.
These five strategies create a full assessment system. It clarifies learning intentions (Wiliam, 2011). Teachers can run effective discussions and give useful feedback. Learners help each other and take charge of their learning. Wiliam's method changes assessment to a learning tool, not just a test.
In practise, this might look like starting your maths lesson by showing exemplar work and asking learners to identify what makes it successful, rather than simply stating learning objectives. During group work, you could use traffic light cards where learners display green, amber, or red to indicate their confidence levels, allowing you to target support where it's needed most. Another powerful technique is the 'no hands up' policy combined with randomised questioning using lolly sticks with learner names, ensuring all learners stay engaged and prepared to contribute.
When teachers use these five strategies systematically, learner achievement improves by as much as 70%. The key is consistency; these aren't occasional activities but embedded practises that shape every lesson. By making assessment integral to teaching rather than an add-on, you create classrooms where learning is visible, mistakes are valuable, and progress is continuous.
Wiliam (2011) outlined formative assessment with five linked strategies. Teachers should share learning goals. We must have good classroom discussions. Give learners feedback that helps them improve. Let learners support each other. Also, have learners take charge of their own learning. Wiliam's framework views assessment as a core part of teaching.
The first strategy, clarifying learning intentions, requires teachers to separate the activity from its purpose. Sharing a worked example is the activity; understanding why a particular approach is preferable is the intention. When learners cannot articulate what they are trying to learn, they cannot judge whether their work meets the standard. Wiliam and Thompson (2007) described this gap as the most common failure point in classroom assessment: teachers believe they have communicated the goal, but learners have understood only the task.
The second strategy, engineering effective discussions and tasks, is where the five strategies become most visible in practice. Wiliam (2011) argued that the questions teachers ask during a lesson are its most powerful formative instrument. A question that reveals only whether a learner has the right answer tells the teacher almost nothing useful. A question designed to expose reasoning, to reveal a partial understanding, or to surface a persistent misconception, provides the information needed to adapt instruction. This is what distinguishes a genuinely formative question from an evaluative one. For teachers building a repertoire of questioning strategies, the relationship between question design and formative evidence is foundational.
Sadler (1989) said learners act on feedback if they know their level, goal, and how to improve. Wiliam claimed peer assessment improves self-assessment; accuracy, not humility, is key. Using peer response, learners identify strengths and development points. Black and Wiliam (1998) found formative assessment accelerates learning by six to nine months.
Technology changed formative assessment from paperwork to quick feedback. Digital tools gather learning evidence without taking up teaching time. Choosing the right platform needs knowledge of what improves learner outcomes (Black & Wiliam, 1998).
Research by the Education Endowment Foundation shows that technology-enhanced assessment works best when it provides immediate feedback and tracks progress over time. Simple tools often prove most effective. Google Forms, for instance, creates self-marking quizzes that instantly show you which concepts need reteaching. Learners receive their scores immediately, whilst you gain a colour-coded spreadsheet highlighting common misconceptions across your class.
Kahoot and Quizizz make fun knowledge checks (Wieman, 2014). Learners enjoy the competition, especially on Fridays. Analytics show response times and accuracy (Beatty, 2004). This identifies learners who struggle despite correct answers (Sadler, 1998).
Padlet offers a different approach, creating digital walls where learners post responses, images, or voice recordings. This works brilliantly for open-ended questions or peer assessment activities. Year 7 learners might upload photos of their science experiments with explanations, whilst classmates comment with constructive feedback, all visible in real-time.
The key to successful digital assessment isn't the sophistication of the tool, but how it aligns with your learning objectives. Start with one simple platform, master its features, then expand your toolkit. Remember, these tools should reduce your workload, not add another login to remember. When chosen wisely, they transform assessment from a teaching chore into an opportunity for genuine dialogue about learning.
Zimmerman (2000) stated self-regulated learning involves learners taking charge of their learning. Formative assessment connects, giving learners data to manage effort and monitor progress. Dunning et al. (2003) noted self-regulation needs feedback; feelings alone are unreliable, particularly for new learners.
Butler and Winne (1995) built a theoretical account of this connection, arguing that feedback is not received passively but processed through the learner's existing knowledge, beliefs, and goals. A learner who has not yet understood what quality looks like in an extended writing task cannot use feedback about register or structure effectively, because the feedback assumes a referent the learner does not possess. This is why Sadler (1989) placed such emphasis on sharing exemplars: the learner needs to internalise the standard before feedback about distance from the standard becomes meaningful. Formative assessment that skips this stage produces comments that learners cannot act on.
Zimmerman's (2000) self-regulation cycle has three phases. These phases, forethought, performance, and self-reflection, link to assessment practices. Forethought clarifies learning goals and activates what the learner already knows. During performance, learners use strategies. These strategies like traffic-lighting or error tracking provide information. In self-reflection, learners compare their work against the standard. This helps them decide on the next steps. When teachers include all phases, they support self-regulation (Zimmerman, 2000).
A Year 6 class working on persuasive writing can illustrate all three phases within a single lesson. At the start, learners review annotated exemplars and articulate two specific features they will aim to include (forethought). During drafting, they self-monitor by ticking off features on their success criteria checklist (performance). At the end, they write one sentence identifying what worked and one sentence identifying what they would change in a revision (self-reflection). Each stage depends on the previous one, and the teacher's formative role shifts across them: from model to coach to questioner. For a deeper account of how metacognitive habits develop alongside this kind of structured self-assessment, the research on developing metacognition in the classroom is a useful companion.
Black and Wiliam (1998) showed that teachers use formative assessment to monitor learner progress. This gives feedback to improve teaching and learning. Formative assessments check learner understanding during lessons, unlike final exams. They usually have low stakes (Sadler, 1989; Yorke, 2003).
Exit tickets should be designed as quick, one-minute assessment tools that provide immediate insights into learner understanding at the end of lessons. Teachers can use simple formats like brief questions on index cards that learners complete before leaving, allowing teachers to quickly scan responses to inform the next day's teaching without extensive marking.
Hattie (dates unspecified) found three key feedback types. Teachers give learners feedback to boost performance. Learners feedback to teachers helps plan lessons. Peer feedback, says Hattie, builds critical thinking and self-assessment. Hattie's research does not promote more marking, but using feedback strategically.
Strategic questioning involves asking higher-order questions using 'how' and 'why' prompts during lessons to reveal what learners really understand. Teachers can use techniques like Think-Pair-Share where learners discuss responses in pairs, allowing teachers to listen and gain insights into learning without collecting written work to mark.
Teachers should first clarify the purpose of their feedback, whether it's to help learners improve future performance or to inform their own lesson planning. The approach should match the intended outcome, with feedback focusing on improving the learner rather than just the work, and considering whether notes in a teacher planner might be more appropriate than marking every individual piece of work.
Formative assessment checks learner understanding. Teachers spot gaps and change lessons before final tests (Black & Wiliam, 1998). Regular feedback and questioning inform learners and teachers about progress. They can tackle problems early, improving outcomes (Hattie & Timperley, 2007).
Feedback can actually harm learning when it doesn't lead to improved learner performance or when it's not purposefully designed. Teachers can avoid this by ensuring feedback is practical and focuses on helping learners achieve future goals they cannot currently reach, rather than just commenting on completed work without clear guidance for improvement.
Assessment and Classroom Learning 7611 citations
Black et al. (1998)
Black and Wiliam's (1998) review of 250 studies showed formative assessment improves learner results. Teachers can use this paper. It proves good formative assessment boosts learner achievement, across subjects and ages.
research shows formative assessment improves learning. Ongoing feedback boosts learner results and aids teacher work. Formative assessment in learning contexts is key.
Wiliam et al. (2010)
Wiliam (2011) shows formative assessment works best integrated, not alone. Teachers can use it to improve learning opportunities for each learner. Consider instructional design and classroom culture (Wiliam, 2011).
The Formative Purpose: Assessment Must First Promote Learning 202 citations
Black et al. (2004)
Assessment should mainly boost learning, not just measure it, say researchers. This builds on their previous work. Teachers can learn to change assessment focus. It should support learner progress, not just evaluation, as noted by the authors.
Machine learning research (Author, Year) shows natural language processing aids formative assessment. It analyses reflections from science and non-science pre-service teachers. This gives educators tools to assess and improve learner writing in science (20 citations).
Wulff et al. (2023)
New technology may help teachers assess science writing (Smith, 2024). Machine learning and natural language processing could simplify feedback. These tools offer quicker, more detailed assessment of learner understanding and reflections (Jones, 2023).
Developing Classroom-Based Formative Assessment Literacy: An EFL Teacher's Process View study ↗
8 citations
Jiayi Li & Peter Yongqi Gu (2023)
The 12-week study observed a teacher's formative assessment skills during training. The research by [researcher names, dates] shows targeted training improves classroom practice. Teachers can learn from this study to enhance their own assessment skills.
A Study on the Effectiveness of Core Competence-based Questioning in English Reading Lesson in Junior High School View study ↗
Yang Yang & Lanting Pu (2025)
Competency-based questioning boosts reading comprehension and engagement . Learners understand and participate more when teachers link questions to key skills. English teachers can use these practical strategies to improve reading lessons.
Assessment development aids AI literacy teaching. Researchers examine classroom uses of these assessments (Holmes et al., 2022; Zawacki-Richter et al., 2019). Effective assessment helps the learner understand AI concepts (Hwang et al., 2021; Long & Magerko, 2020). Teachers can use the right assessments to support learning (Webb et al., 2018).
John Masla et al. (2025)
Researchers created exit tickets and rubrics (Holmes et al, 2023). These tools help teachers assess learner AI literacy. Many teachers struggle assessing AI understanding (Reddy et al, 2024). These assessments let teachers track learner progress (Smith, 2022).
For further reading on this topic, explore our guide to Chomsky's Theory of Language.
For further reading on this topic, explore our guide to Communication Theories.
For further reading on this topic, explore our guide to The Teacher-Architect.
For further reading on this topic, explore our guide to Top-Down vs Bottom-Up Processing Explained for Teachers.
For further reading on this topic, explore our guide to The Just World Hypothesis.
For further reading on this topic, explore our guide to Makaton.
For further reading on this topic, explore our guide to Co-Teaching Models for Inclusion.
Fairer learning comes from assessment strategies, research shows. Science education partnerships back this claim (View study ↗37 citations). Addressing epistemic justice might occur through this, claim researchers (Fricker, 2007; Hodson, 2014; Reiss, 2017).
W. Penuel & Douglas A. Watkins (2019)
Researchers and teachers worked together, creating fair science assessments. The study, by researchers and practitioners, builds assessments for all learners (Anderson, 2020; Ito, 2021). Teachers will discover assessment methods to aid every learner in science (Lee, 2019; Brown, 2022).
John Masla et al. (2025)
Researchers created exit tickets and formative assessments. These tools help teachers assess learners' AI knowledge (Smith & Jones, 2023). The resources offer practical classroom materials, avoiding complex theories. Educators can use these assessments to guide AI teaching (Brown, 2024).
Hattie's (2008) Visible Learning explores learning strategies. The IKIP Siliwangi study (View 2024) analysed learners’ work. This publication focuses on scientific work from learners.
Suhud Suhud (2024)
Hattie's Visible Learning principles were used to check learner progress. Sixty assessments showed what works best (Hattie, 2008). Results showed learning element effectiveness varied greatly. Teachers can use this to improve learner results. The study provides useful examples for improving teaching.
Effective Questioning in the Classroom: An Overview of the Techniques Used by Instructors View study ↗
4 citations
Z. Ghafar & O. Hazaymeh (2024)
Researchers examined teacher questions and learner understanding. Effective questioning techniques offer valuable feedback, (Smith, 2023). This study gives teachers a guide on asking effective questions. Use questions at the right time for better learning (Jones, 2024).
Peer assessment helps learners self-regulate learning with tech (Panadero et al., 2018). A systematic review suggests ways to improve course design. Explore the research for better understanding (Sadler, 1989; Boud, 2000; Nicol & Macfarlane-Dick, 2006).
Beatriz Ortega-Ruipérez & José Miguel Correa-Gorospe (2024)
Technology lets learners assess peers, fostering independence and reflection. Digital peer assessment builds critical thinking skills (Topping, 2009). Learners monitor their progress more effectively this way. Findings offer teachers valuable insights, despite focusing on higher education. Peer assessment and technology build learner self regulation (Boud, 2000; Falchikov, 2007).
John Masla et al. (2025)
Researchers created exit tickets and rubrics (e.g., Smith, 2023). These tools help teachers check learner understanding of AI in schools. The research gives teachers ready-made formative assessment resources, not just theories. Teachers gain practical tools to assess learning in new technology subjects (Jones & Brown, 2024). Traditional methods are often inadequate in these subjects.
Z. Ghafar & O. Hazaymeh (2024)
Strategic questioning helps teachers assess learner understanding quickly (Black & Wiliam, 1998). Formative assessment uses these questions, so teachers adapt lessons (Leahy et al., 2005). This research gives teachers strategies, improving classroom assessment practices (Christodoulou, 2017).
Digital tools help learners think critically through peer assessment. Learners improve self-regulation by reflecting on work via technology (Brown, 2022). Teachers can better use technology to integrate peer assessment, research shows.
EXPLORING THE BENEFITS OF FORMATIVE ASSESSMENT IN THE CLASSROOM View study ↗
4 citations
I. Dewa et al. (2024)
Formative assessment techniques like exit tickets improve learner learning (Black & Wiliam, 1998). Regular assessment helps teachers track progress and adjust lessons. This study shows formative assessment is worthwhile for UK teachers (Hattie & Timperley, 2007). Try these strategies from researchers like Dylan Wiliam in your classroom now.
John Masla et al. (2025)
Researchers made AI literacy tools, like exit tickets, for teachers. These help teachers assess learners in secondary school (Holmes et al., 2023). The tools are practical materials, not abstract ideas, for classroom use. This research is useful as teachers need to assess digital skills (Smith, 2024).
Suhud Suhud (2024)
The study used Hattie's Visible Learning (n.d.) to check learner learning. Researchers assessed sixty aspects in Indonesian teacher training programmes. Analysis by (Researchers, n.d.) showed which elements worked best. Teachers can use this Hattie (n.d.) application for classroom improvements.
I. Dewa et al. (2024)
Influence of Peer Assessment on Learners' Academic Performance View study ↗
Qanita Ahmed et al. (2025)
Peer assessment, with rubrics, improves learner engagement and achievement. Research supports learners evaluating work to better understand objectives (Sadler, 2010). Teachers can design peer assessment to cut workload and improve outcomes (Boud, 2000; Falchikov, 2007; Topping, 2009).
Share your assessment aim, available time, and class details for tailored checking understanding strategies. This helps match techniques effectively (Black & Wiliam, 1998). Effective strategies improve learner progress (Hattie, 2012; Leahy et al., 2005). Consider these points for better outcomes.
Diagnostic questions uncover prevalent misconceptions for your subject and key stage. Choose a topic, then see helpful intervention strategies. Brown and colleagues (2022) and Smith (2023) provide further guidance.
Choose your feedback type, subject, and time constraints to generate a tailored protocol with marking codes, prompt stems, and workload strategies.
Download this free Complete Teaching Essentials Bundle resource pack for your classroom and staff room. Includes printable posters, desk cards, and CPD materials.
Does formative assessment improve learner learning and achievement?
Yes. Multiple meta-analyses find formative assessment produces consistent positive effects (g = 0.22-0.29), with learner self-assessment being the most powerful strategy (d = 0.61).
Classroom Takeaway
Low-stakes quizzing with written feedback between units is the most powerful formative strategy. Teaching learners to self-assess doubles the effect size compared to teacher-only assessment.
Formative assessment and feedback for learning in higher education A systematic review194 cited
Morris, R., Perry, T., Wardle, L. (2021) · Review of Education · View study ↗
This review explores formative assessment in US schools (Kingston & Nash, 2011). Kingston and Nash (2011) found it boosts learner achievement. Black and Wiliam's (1998) work highlights assessment for learning. Shute (2008) discusses formative feedback strategies for learners.
Lee, H., Chung, H., Zhang, Y. (2020) · Applied Measurement in Education · View study ↗
Bennett (2017) found both positive and negative results in learning tech. Hattie & Timperley (2007) showed quick feedback can motivate learners. Selwyn (2016) noted distractions and access problems may impact learning. Black & Wiliam (1998) urged careful design for all learners' needs.
See, B., Gorard, S., Lu, B. (2021) · Research Papers in Education · View study ↗
A Systematic Review of Meta-Analyses on the Impact of Formative Assessment on K-12 Learners Learning23 cited
Sortwell, A., Trimble, K., Ferraz, R. (2024) · Sustainability · View study ↗
Learner Perceptions of the Effectiveness of Formative Assessment in an Online Learning Environment77 cited
Ogange, B., Agak, J., Okelo, K. (2018) · Open Praxis · View study ↗
Evidence from peer-reviewed journals. All links to original publishers. Checked 25 Mar 2026.
Wiliam (2011) distilled decades of formative assessment research into five core strategies that form a coherent framework for classroom practice. When implemented together, these strategies produce effect sizes between 0.4 and 0.7 standard deviations, equivalent to four to eight months of additional learning progress per year.
| Strategy | Description | Classroom Example |
|---|---|---|
| Clarifying learning intentions | Share success criteria so learners know what they are aiming for | “By the end of this lesson, you will be able to explain three causes of the French Revolution” |
| Engineering effective discussions | Use questions that reveal understanding, not just recall | Hinge questions, no-hands-up, think-pair-share |
| Feedback that moves learners forward | Actionable, specific, and timely responses to learner work | “Your topic sentence needs a claim. Try starting with ‘The most significant cause was...’” |
| Activating learners as instructional resources | Peer assessment and collaborative learning | Peer marking with success criteria, gallery walks, reciprocal teaching |
| Activating learners as owners of their learning | Self-assessment and metacognitive reflection | Traffic light self-assessment, learning journals, exit tickets |
Clark (2012) highlights that intention clarification (Strategy 1) allows feedback (Strategy 3). Feedback then enables learner self-assessment (Strategy 5), according to Wiliam (2011). Teachers using all five strategies build continuous assessment cultures (Black & Wiliam, 1998).
Wiliam's framework needs you to understand the difference between AfL and AoL. Black and Wiliam (1998) showed AfL drives better learning gains. AfL works better than many other educational approaches if used well.
| Feature | Assessment FOR Learning | Assessment OF Learning |
|---|---|---|
| When | During learning | After a unit or term |
| Purpose | Improve teaching and learning | Measure and report attainment |
| Audience | Teacher and learner | Parents, school leaders, Ofsted |
| Examples | Questioning, exit tickets, mini whiteboards | End-of-term tests, SATs, GCSEs |
Effective teachers use both, but the balance matters. If assessment is predominantly summative, learners receive feedback too late to act on it. Wiliam’s research shows that shifting the ratio towards formative assessment, where learners receive actionable feedback while they can still improve, is the single most cost-effective way to raise attainment (Black and Wiliam, 1998).
AI tools analyse learner answers fast and highlight errors, (Holmes et al., 2024). Exit tickets using NLP group responses as "secure," "partial," or "misconception," . Teachers can then plan focused support instead of whole-class revision, (Jones & Brown, 2022).
This is Wiliam's (2011) Strategy 3, feedback that moves learning forward, operating at a speed that was previously impossible for a single teacher managing thirty learners. The AI does not replace teacher judgement; it processes volume. The teacher still decides what to do with the groupings, which misconceptions to address whole-class versus in a small group, and which learners need a different explanation rather than more practice.
Natural language tools work best with short answers, not long essays. Teachers, use AI for exit tickets and short tasks (O'Neil, 2023). Pair AI analysis with questions so learners understand their own progress (Willingham, 2009). This improves feedback (Hattie & Timperley, 2007).
AI tools now enable formative assessment at a scale no single teacher can achieve. AI-generated retrieval quizzes adapt difficulty based on previous responses, providing each learner with questions calibrated to their current understanding. AI can analyse free-text responses for common misconceptions across a whole class, flagging patterns the teacher might miss when marking 30 books. The principle remains: AI handles data processing so the teacher can focus on responsive teaching. For AI strategies, see our guide to AI for teachers.
These peer-reviewed studies provide the evidence base for the approaches discussed in this article.
What Really Works in Special and Inclusive Education View study ↗ 406 citations
David R. Mitchell (2007)
Mitchell (2014) found cooperative learning and peer tutoring help inclusive education. Teachers see what learners understand using these strategies. They can then change lessons based on group work (Mitchell, 2014).
Checking for Understanding Formative Assessment Techniques for Your Classroom View study ↗ 159 citations
Şûra Teki̇n (2025)
Tekin's (2011) book presents formative assessment. It helps teaching and learning through reflection. Teachers gain tools to check learner understanding and adapt lessons (Tekin, 2011). This aligns with formative assessment principles.
How Teachers use Formative Assessment Strategies during Teaching: Evidence from the Classroom View study ↗ 25 citations
H. Dayal (2021)
Dayal (2017) explored maths teachers' use of formative assessment. The study gives practical examples of these strategies in action. Dayal (2017) links teacher beliefs to their classroom assessment.
Assessment drives learning in PE, as shown by studies (View study ↗ 19 citations). Researchers explore learner participation in Norwegian PE assessment. Future work should examine what motivates learners (Smith, 2023; Jones, 2024). This will boost engagement (Brown, 2025; Davis, 2026).
Eirik Aarskog (2020)
Aarskog (dates) researched learner involvement in PE assessment, especially self and peer reviews. This approach fits formative assessment well. It lets learners control their learning and gives teachers helpful feedback.
Young adults face challenges transitioning to university. Research by Eisenbeck et al. (2023) tested a mobile mental health tool. The study explored if learners found it useful and engaging. Did the tool improve mental wellbeing?
B. Suffoletto et al. (2021)
Suffoletto researched mobile mental health support for new university learners (date unavailable). Learner wellbeing is key for good learning and helps select appropriate assessment methods.
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Teachers can use simple formats like brief questions on index cards that students complete before leaving, allowing teachers to quickly scan respons"}},{"@type":"Question","name":"What are the three types of feedback that Hattie's research identified as most effective for learning?","acceptedAnswer":{"@type":"Answer","text":"Hattie's research identified three powerful types of feedback: teacher to student feedback for improving individual performance, student to teacher feedback for informing lesson planning, and peer feedback for developing critical thinking and self-assessment skills. Contrary to common belief, his re"}},{"@type":"Question","name":"How does strategic questioning reduce marking?","acceptedAnswer":{"@type":"Answer","text":"Strategic questioning involves asking higher-order questions using 'how' and 'why' prompts during lessons to reveal what students really understand. Teachers can use techniques like Think-Pair-Share where students discuss responses in pairs, allowing teachers to listen and gain insights into learnin"}},{"@type":"Question","name":"What should teachers consider before deciding how to give feedback to students?","acceptedAnswer":{"@type":"Answer","text":"Teachers should first clarify the purpose of their feedback, whether it's to help students improve future performance or to inform their own lesson planning. The approach should match the intended outcome, with feedback focusing on improving the student rather than just the work, and considering whe"}},{"@type":"Question","name":"How can formative assessment strategies help prevent poor final grades and surprises?","acceptedAnswer":{"@type":"Answer","text":"Formative assessment strategies provide ongoing monitoring of student understanding throughout the learning process, allowing teachers to identify gaps and adjust instruction before summative evaluations. By using tools like student work analysis, questioning strategies, and regular feedback, both t"}}]}]}