Thinking Frameworks: A Teacher's Guide to 42 Models

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July 20, 2026

Thinking Frameworks: A Teacher's Guide to 42 Models

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July 18, 2026

A teacher's guide to 42 thinking frameworks: the four families, the three models research recommends, and how to choose the right one for your classroom.

A thinking framework is a structured model that classifies types of thinking so that teachers can plan, teach and assess it deliberately. Bloom's taxonomy is the most famous example, but it is far from the only one. When Moseley and colleagues at Newcastle University reviewed the field for their landmark handbook Frameworks for Thinking, they weighed up 42 models of thinking (Moseley et al., 2005). Their conclusion surprises most teachers: only three of the 42 were singled out as broadly useful for everyday teaching. The rest were judged too narrow, too complex or too thin on evidence for daily use.

This guide maps all 42 frameworks into the four families the handbook identified. It shows you which models are worth your planning time, which serve specialist purposes, and which are best left in the archive. The stakes are real: the Education Endowment Foundation rates metacognition and self-regulation, the engine room of most thinking frameworks, among the highest-impact, lowest-cost approaches it has tested. It is worth around eight months of extra progress in a school year.

Key Takeaways

  1. Moseley et al. (2005) reviewed 42 thinking frameworks and recommended only three for general classroom use. The revised Bloom's taxonomy, Halpern's critical thinking model and Pintrich's self-regulated learning framework earned that endorsement.
  2. The 42 frameworks fall into four families. Instructional design, productive thinking, cognitive structure and development, and all-embracing models each serve a different classroom job.
  3. No single framework covers planning, questioning and assessment equally well. Strong departments pair one planning taxonomy with one assessment model rather than adopting every framework at once.
  4. Newer tools such as Webb's Depth of Knowledge and visible thinking routines extend the handbook's map. They answer questions the 2005 review left open, especially about task demand and classroom talk.
A framework infographic showing the four families of thinking frameworks identified by Moseley et al. (2005).
The four families of thinking frameworks identified by Moseley et al. (2005)

What Is a Thinking Framework?

A thinking framework is a model that names and organises types of thinking, such as recall, analysis, evaluation and creation, so that teachers can design tasks, questions and assessments on purpose rather than by instinct. Frameworks make invisible cognitive work visible, giving schools a shared language for cognitive skills across subjects and phases.

Some frameworks describe a hierarchy of difficulty. Others describe stages of development, dispositions of good thinkers, or the conditions that produce inventive ideas. That variety is why the label covers everything from Bloom's taxonomy to De Bono's Six Thinking Hats.

Used well, a framework supports metacognition: learners begin to recognise the kind of thinking a task demands and to monitor whether they are doing it. Used badly, it becomes wall art. The difference lies in choosing a model that fits the job you need it to do.

The Four Families of Thinking Frameworks

Moseley and colleagues sorted the 42 frameworks into four families: instructional design models built for planning teaching, productive thinking models focused on critical and creative thought, theories of cognitive structure and development, and all-embracing frameworks that attempt to map the whole territory of thinking and learning in one scheme.

The team also proposed an integrated model of their own. It groups thinking into information gathering, building understanding and productive thinking, all overseen by strategic and reflective thinking. That is their term for the metacognitive layer that plans, checks and judges the rest. That simple lens is a useful test for any framework a school considers adopting: does it cover all four of those functions, or only some?

Family 1: Instructional Design Frameworks

Instructional design frameworks sort learning goals into levels. Teachers use them to sequence lessons, write questions and build assessments at the right level of demand. This family contains the models most teachers already know, including the original and revised Bloom's taxonomy and the SOLO taxonomy, alongside several historical schemes that never reached mainstream classrooms.

  • Bloom's taxonomy (1956). Six levels of cognitive objectives, from knowledge to evaluation. Still the most used planning tool in education. Our guide to Bloom's taxonomy verbs turns each level into question stems and observable actions.
  • Anderson and Krathwohl's revision (2001). Recasts Bloom as a matrix: six cognitive processes crossed with four knowledge types, including metacognitive knowledge. One of the handbook's three recommended frameworks.
  • SOLO taxonomy, Biggs and Collis (1982). Five levels of response quality, from prestructural to extended abstract. Strong for assessment and feedback. See our full SOLO taxonomy guide.
  • Gagné's conditions of learning (1965). Eight types of learning and nine events of instruction that still shape lesson design. Explored in our Gagné guide.
  • Ausubel and Robinson's categories (1969). Meaningful reception learning and the advance organiser, covered in our Ausubel guide.
  • Feuerstein's Instrumental Enrichment (1980). A content-free programme for teaching learners how to learn through mediated learning experiences. Influential in SEND settings, though the handbook notes the transfer evidence is not strong.
  • Williams' thinking and feeling model (1970). Pairs cognitive and affective outcomes for creative learners.
  • Hannah and Michaelis (1977). An early attempt to integrate cognitive, affective and psychomotor objectives.
  • Stahl and Murphy's taxonomic system (1981). Twenty-one mental processes; judged impractical for classroom use.
  • Quellmalz's framework (1987). Separates recall from higher-order processes; its McRAT programme showed moderate effect sizes.
  • Presseisen's models (1991). Essential, complex and metacognitive thinking skills; a clear theoretical introduction with few worked examples.
  • Merrill's instructional transaction theory (1992). Built for computer-based instruction rather than classroom teaching.
  • Gouge and Yates' ARTS taxonomies (2000). Cognitive acceleration applied to visual art, music and drama.

Family 2: Productive Thinking Frameworks

Productive thinking frameworks describe critical thinking, creative thinking and everyday reasoning. They matter most when a school wants to teach argument, judgement and idea generation directly, whether through discrete thinking lessons or through subjects such as English, science and questioning-rich humanities teaching.

  • Halpern's critical thinking framework (1998). Skills grouped by area, plus dispositions and a four-question metacognitive check. One of the handbook's three recommended models and the most classroom-ready account of transferable critical thinking.
  • Richard Paul's model (1993). Elements of reasoning crossed with intellectual standards and traits, now known as the Paul-Elder framework. Distinguishes weak-sense from strong-sense critical thinking.
  • Ennis' taxonomy (1987). Three dispositions and fifteen abilities that read like a curriculum outline for critical thinking.
  • De Bono's lateral and parallel thinking tools (1985). The Six Thinking Hats and CoRT programme; hugely popular, though the handbook questions the evidence base.
  • Lipman's modes of thinking (1991). Critical, creative and caring thinking developed through Philosophy for Children.
  • Altshuller's TRIZ (1956). A systematic invention method drawn from patent analysis, better suited to design and engineering than general teaching.
  • Allen, Feezel and Kauffield's taxonomy (1967). Twelve critical abilities for evaluating verbal arguments; historically interesting, practically dormant.
  • Baron's model of the good thinker (1985). Thinking as search and inference; its lasting idea is thinking and learning as enquiry.
  • Jewell's reasoning taxonomy (1996). Reasoning objectives for gifted education, never widely adopted.
  • Petty's six-phase creative process (1997). Inspiration to evaluation, each phase paired with a working mindset. Practical for teaching, light on research support.
  • Bailin's intellectual resources (1999). A philosopher's case that critical thinking depends on knowledge and standards rather than generic skills.

Family 3: Cognitive Structure and Development

This family describes how thinking itself is organised and how it matures, from Piaget's stages to models of intelligence and epistemic development. These frameworks rarely tell a teacher what to do on Monday morning, but they explain why learners of different ages and starting points respond so differently to the same task.

  • Piaget's stage model (1952). Sensorimotor to formal operations; the foundation of developmental psychology. Our guide to Piaget's theory of cognitive development covers the classroom implications.
  • Pintrich's self-regulated learning framework (2000). Cognition, motivation, behaviour and context across four phases of learning. One of the three recommended frameworks; see our guide to self-regulation of learning.
  • Gardner's multiple intelligences (1983). Eight intelligences that widened what schools count as ability. Widely used, widely critiqued; our multiple intelligences guide covers both sides.
  • Guilford's Structure of Intellect (1956). A statistical model that crosses operations, content and products. It gave us the idea of divergent thinking.
  • Carroll's three-stratum theory (1993). The layered model of ability behind modern CHC intelligence tests.
  • Perry's developmental scheme (1970). How students move from black-and-white certainty to committed relativism.
  • King and Kitchener's reflective judgement model (1994). Seven stages of reasoning about ill-structured problems.
  • Belenky's Women's Ways of Knowing (1986). Five ways of knowing, from silence to constructed knowledge.
  • Koplowitz's adult development theory (1984). Post-formal stages beyond Piaget; little classroom influence.
  • Demetriou's integrated model (1993). A neo-Piagetian model with strong research support but heavy jargon.
  • Theories of executive function. Working memory, inhibition and flexibility as the control system of thinking; see our executive function guide.

Family 4: All-Embracing Frameworks

All-embracing frameworks try to map knowledge, skills and dispositions in a single scheme. They are ambitious by design, which makes them useful for whole-school curriculum thinking and risky as day-to-day planning tools. Two of the most valuable modern taxonomies for teachers sit in this family.

  • Marzano's New Taxonomy (2007). Three systems, self, metacognitive and cognitive, operating on a domain of knowledge. Built with John Kendall as a deliberate successor to Bloom, and arguably the most complete modern taxonomy of educational objectives.
  • Sternberg's model of developing expertise (1998). Intelligence as expertise in the making: analytical, creative and practical abilities growing through deliberate practice and motivation.
  • Wallace and Adams' TASC wheel (1993). Thinking Actively in a Social Context: an eight-stage problem-solving cycle designed with disadvantaged learners in mind and warmly endorsed by the handbook for primary classrooms.
  • Romiszowski's knowledge and skills analysis (1981). A four-stage skill cycle praised for its simplicity and plain language.
  • Jonassen and Tessmer's taxonomy (1996). Thirty-five categories of learning outcomes for higher-order, technology-rich learning.
  • Hauenstein's conceptual framework (1998). Unites cognitive, affective and psychomotor domains in five levels, completing Bloom's original vision on paper if not in practice.
  • Vermunt and Verloop's learning activities (1999). Cognitive, affective and regulative activities; better as a research agenda than a classroom tool.

Which Thinking Framework Should You Use?

Match the framework to the job. Use a planning taxonomy to design objectives and questions, an assessment model to judge response quality, a critical thinking framework to teach reasoning directly, and a metacognitive model to build self-regulated learners. The table below pairs common classroom jobs with the strongest tools for each.

Classroom jobStrongest frameworksStart here
Writing objectives and questionsRevised Bloom's taxonomyBloom's taxonomy verbs
Judging depth of understandingSOLO taxonomySOLO taxonomy
Auditing task demandWebb's Depth of KnowledgeDOK levels
Teaching critical thinkingHalpern; Ennis; Paul-ElderHigher-order thinking
Building self-regulationPintrich; executive functionMetacognition in the classroom
Problem-solving lessonsTASC wheelSchool-wide thinking strategies
Classroom dialogueLipman; De BonoPhilosophy for Children

A workable school policy rarely needs more than two or three of these. The handbook's warning still stands: adopting many frameworks at once produces display work, not thinking.

The Three Frameworks the Handbook Recommends

Of the 42 models reviewed, Moseley et al. (2005) picked out three as the most useful for general teaching: the revised Bloom's taxonomy, Halpern's critical thinking framework and Pintrich's model of self-regulated learning. Each one covers a different layer. Together they form a compact toolkit: objectives, reasoning and self-regulation.

Anderson and Krathwohl's revision earns its place through the knowledge dimension. It lets teachers plan what learners should know about their own thinking, not just the content they should master. Halpern's model treats critical thinking as skills you can teach plus habits you can grow. Her four-question checklist transfers across subjects.

Pintrich's framework completes the set by describing how learners plan, monitor and evaluate their own learning. The EEF's guidance on metacognition now covers this ground in depth. It remains the highest-impact layer for most schools. Our guides to thinking skills assessments and higher-order questioning show what these three look like in practice.

Beyond the Handbook: What Teachers Use Today

The 2005 review predates several tools that now dominate classroom practice. Webb's Depth of Knowledge reframes demand around the complexity of the task rather than the verb, which makes it a sharper audit tool than Bloom for assessment design. Visible thinking routines from Project Zero turn single thinking moves into repeatable classroom habits.

Costa and Kallick's Habits of Mind shifted attention from skills to dispositions, and whole-school approaches now treat frameworks as shared language for learning theory rather than as posters. The direction of travel since the handbook is clear: fewer frameworks, used more deliberately, with metacognition doing the heavy lifting.

Four more models earn a place in that modern toolkit, and we cover each in its own guide. Guy Claxton's Building Learning Power turns dispositions into a whole-school language. Fink's taxonomy of significant learning replaces the ladder with six interacting categories. Sandra Kaplan's depth and complexity prompts give teachers a practical route into harder thinking on any topic. John Biggs' constructive alignment ties outcomes, activities and assessment into one design discipline.

Limitations and Critiques

Thinking frameworks attract three recurring criticisms. First, hierarchy creep: models such as Bloom's get read as strict ladders. The levels were never meant to be climbed in order, and knowledge ends up undervalued. Second, labels can harden into ceilings. Stage models describe learners; they should never cap them.

Third, the evidence base is uneven. The handbook itself judged most of the 42 frameworks weakly evidenced for classroom impact. Feuerstein's programme shows limited transfer, De Bono's tools rest heavily on anecdote, and Gardner's intelligences are routinely misapplied as learning styles. Frameworks describe thinking; they do not replace subject knowledge, retrieval or deliberate practice.

A 2005 review also cannot speak to today's questions. Cognitive load theory, generative AI and the evidence movement have reshaped how schools think about thinking. Treat the map in this guide as a starting inventory, then test any framework you adopt against your own assessment data.

References

Anderson, L. W., & Krathwohl, D. R. (Eds.). (2001). A taxonomy for learning, teaching, and assessing: A revision of Bloom's taxonomy of educational objectives. Longman.

Biggs, J. B., & Collis, K. F. (1982). Evaluating the quality of learning: The SOLO taxonomy. Academic Press.

Bloom, B. S. (Ed.). (1956). Taxonomy of educational objectives: The classification of educational goals. Handbook I: Cognitive domain. David McKay.

De Bono, E. (1985). Six thinking hats. Little, Brown.

Ennis, R. H. (1987). A taxonomy of critical thinking dispositions and abilities. In J. B. Baron & R. J. Sternberg (Eds.), Teaching thinking skills: Theory and practice. W. H. Freeman.

Feuerstein, R. (1980). Instrumental enrichment: An intervention programme for cognitive modifiability. University Park Press.

Gardner, H. (1983). Frames of mind: The theory of multiple intelligences. Basic Books.

Halpern, D. F. (1998). Teaching critical thinking for transfer across domains. American Psychologist, 53(4), 449-455.

Marzano, R. J., & Kendall, J. S. (2007). The new taxonomy of educational objectives (2nd ed.). Corwin Press.

Moseley, D., Baumfield, V., Elliott, J., Gregson, M., Higgins, S., Miller, J., & Newton, D. P. (2005). Frameworks for thinking: A handbook for teaching and learning. Cambridge University Press.

Piaget, J. (1952). The origins of intelligence in children. International Universities Press.

Pintrich, P. R. (2000). The role of goal orientation in self-regulated learning. In M. Boekaerts, P. R. Pintrich, & M. Zeidner (Eds.), Handbook of self-regulation. Academic Press.

Sternberg, R. J. (1998). Abilities are forms of developing expertise. Educational Researcher, 27(3), 11-20.

Wallace, B., & Adams, H. B. (1993). TASC: Thinking Actively in a Social Context. AB Academic Publishers.

Further Reading

Paul Main, Founder of Structural Learning
About the Author
Paul Main
Founder & Metacognition Researcher

Paul Main is an educator and metacognition researcher who founded Structural Learning in 2002. With a psychology degree from the University of Sunderland and 22+ years helping schools embed thinking skills, he bridges the gap between educational research and classroom practice. Fellow of the RSA and Chartered College of Teaching, with 128+ Google Scholar citations.

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