- •Contents
- •Authors
- •Foreword
- •Acknowledgments
- •Introduction
- •Selection of frameworks
- •Description and evaluation of individual frameworks
- •How to use this handbook
- •Overview of what follows
- •Chapter 1 The nature of thinking and thinking skills
- •Chapter 2 Lists, inventories, groups, taxonomies and frameworks
- •Chapter 3 Frameworks dealing with instructional design
- •Chapter 4 Frameworks dealing with productive thinking
- •Chapter 5 Frameworks dealing with cognitive structure and/or development
- •Chapter 6 Seven ‘all-embracing’ frameworks
- •Chapter 7 Moving from understanding to productive thinking: implications for practice
- •Perspectives on thinking
- •What is thinking?
- •Metacognition and self-regulation
- •Psychological perspectives
- •Sociological perspectives
- •Philosophical perspectives
- •Descriptive or normative?
- •Thinking skills and critical thinking
- •Thinking skills in education
- •Teaching thinking: programmes and approaches
- •Developments in instructional design
- •Bringing order to chaos
- •Objects of study
- •Frameworks
- •Lists
- •Groups
- •Taxonomies
- •Utility
- •Taxonomies and models
- •Maps, charts and diagrams
- •Examples
- •Bloom’s taxonomy
- •Guilford’s structure of intellect model
- •Gerlach and Sullivan’s taxonomy
- •Conclusion
- •Introduction
- •Time sequence of the instructional design frameworks
- •Bloom’s taxonomy of educational objectives (cognitive domain) (1956)
- •Feuerstein’s theory of mediated learning through Instrumental Enrichment (1957)
- •Ausubel and Robinson’s six hierarchically-ordered categories (1969)
- •Williams’ model for developing thinking and feeling processes (1970)
- •Hannah and Michaelis’ comprehensive framework for instructional objectives (1977)
- •Stahl and Murphy’s domain of cognition taxonomic system (1981)
- •Biggs and Collis’ SOLO taxonomy (1982)
- •Quellmalz’s framework of thinking skills (1987)
- •Presseisen’s models of essential, complex and metacognitive thinking skills (1991)
- •Merrill’s instructional transaction theory (1992)
- •Anderson and Krathwohl’s revision of Bloom’s taxonomy (2001)
- •Gouge and Yates’ Arts Project taxonomies of arts reasoning and thinking skills (2002)
- •Description and evaluation of the instructional design frameworks
- •Bloom’s taxonomy of educational objectives: cognitive domain
- •Description and intended use
- •Evaluation
- •Description and intended use
- •Evaluation
- •Description and intended use
- •Intellectual skills
- •Cognitive strategies
- •Motor skills
- •Attitudes
- •Evaluation
- •Ausubel and Robinson’s six hierarchically-ordered categories
- •Description and intended use
- •Evaluation
- •Williams’ model for developing thinking and feeling processes
- •Description and intended use
- •Cognitive behaviours
- •Affective behaviours
- •Evaluation
- •Hannah and Michaelis’ comprehensive framework for instructional objectives
- •Description and intended use
- •Evaluation
- •Stahl and Murphy’s domain of cognition taxonomic system
- •Description and intended use
- •Evaluation
- •Biggs and Collis’ SOLO taxonomy: Structure of the Observed Learning Outcome
- •Description and intended use
- •Evaluation
- •Quellmalz’s framework of thinking skills
- •Description and intended use
- •Evaluation
- •Presseisen’s models of essential, complex and metacognitive thinking skills
- •Description and intended use
- •Evaluation
- •Merrill’s instructional transaction theory
- •Description and intended use
- •Evaluation
- •Anderson and Krathwohl’s revision of Bloom’s taxonomy of educational objectives
- •Description and intended use
- •Changes in emphasis
- •Changes in terminology
- •Changes in structure
- •Evaluation
- •Gouge and Yates’ ARTS Project taxonomies of arts reasoning and thinking skills
- •Description and intended use
- •Evaluation
- •Some issues for further investigation
- •Introduction
- •Time sequence of the productive-thinking frameworks
- •Altshuller’s TRIZ Theory of Inventive Problem Solving (1956)
- •Allen, Feezel and Kauffie’s taxonomy of critical abilities related to the evaluation of verbal arguments (1967)
- •De Bono’s lateral and parallel thinking tools (1976 / 85)
- •Halpern’s reviews of critical thinking skills and dispositions (1984)
- •Baron’s model of the good thinker (1985)
- •Ennis’ taxonomy of critical thinking dispositions and abilities (1987)
- •Lipman’s modes of thinking and four main varieties of cognitive skill (1991/95)
- •Paul’s model of critical thinking (1993)
- •Jewell’s reasoning taxonomy for gifted children (1996)
- •Petty’s six-phase model of the creative process (1997)
- •Bailin’s intellectual resources for critical thinking (1999b)
- •Description and evaluation of productive-thinking frameworks
- •Description and intended use
- •Problem Definition: in which the would-be solver comes to an understanding of the problem
- •Selecting a Problem-Solving Tool
- •Generating solutions: using the tools
- •Solution evaluation
- •Evaluation
- •Allen, Feezel and Kauffie’s taxonomy of concepts and critical abilities related to the evaluation of verbal arguments
- •Description and intended use
- •Evaluation
- •De Bono’s lateral and parallel thinking tools
- •Description and intended use
- •Evaluation
- •Halpern’s reviews of critical thinking skills and dispositions
- •Description and intended use
- •Evaluation
- •Baron’s model of the good thinker
- •Description and intended use
- •Evaluation
- •Ennis’ taxonomy of critical thinking dispositions and abilities
- •Description and intended use
- •Dispositions
- •Abilities
- •Clarify
- •Judge the basis for a decision
- •Infer
- •Make suppositions and integrate abilities
- •Use auxiliary critical thinking abilities
- •Evaluation
- •Lipman’s three modes of thinking and four main varieties of cognitive skill
- •Description and intended use
- •Evaluation
- •Paul’s model of critical thinking
- •Description and intended use
- •Elements of reasoning
- •Standards of critical thinking
- •Intellectual abilities
- •Intellectual traits
- •Evaluation
- •Jewell’s reasoning taxonomy for gifted children
- •Description and intended use
- •Evaluation
- •Petty’s six-phase model of the creative process
- •Description and intended use
- •Evaluation
- •Bailin’s intellectual resources for critical thinking
- •Description and intended use
- •Evaluation
- •Some issues for further investigation
- •Introduction
- •Time sequence of theoretical frameworks of cognitive structure and/or development
- •Piaget’s stage model of cognitive development (1950)
- •Guilford’s Structure of Intellect model (1956)
- •Perry’s developmental scheme (1968)
- •Gardner’s theory of multiple intelligences (1983)
- •Koplowitz’s theory of adult cognitive development (1984)
- •Belenky’s ‘Women’s Ways of Knowing’ developmental model (1986)
- •Carroll’s three-stratum theory of cognitive abilities (1993)
- •Demetriou’s integrated developmental model of the mind (1993)
- •King and Kitchener’s model of reflective judgment (1994)
- •Pintrich’s general framework for self-regulated learning (2000)
- •Theories of executive function
- •Description and evaluation of theoretical frameworks of cognitive structure and/or development
- •Piaget’s stage model of cognitive development
- •Description and intended use
- •Evaluation
- •Guilford’s Structure of Intellect model
- •Description and intended use
- •Evaluation
- •Perry’s developmental scheme
- •Description and intended use
- •Evaluation
- •Gardner’s theory of multiple intelligences
- •Description and intended use
- •Evaluation
- •Koplowitz’s theory of adult cognitive development
- •Description and intended use
- •Evaluation
- •Belenky’s ‘Women’s Ways of Knowing’ developmental model
- •Description and intended use
- •Evaluation
- •Carroll’s three-stratum theory of cognitive abilities
- •Description and intended use
- •Evaluation
- •Demetriou’s integrated developmental model of the mind
- •Description and intended use
- •Evaluation
- •King and Kitchener’s model of reflective judgment
- •Description and intended use
- •Evaluation
- •Pintrich’s general framework for self-regulated learning
- •Description and intended use
- •Regulation of cognition
- •Cognitive planning and activation
- •Cognitive monitoring
- •Cognitive control and regulation
- •Cognitive reaction and reflection
- •Regulation of motivation and affect
- •Motivational planning and activation
- •Motivational monitoring
- •Motivational control and regulation
- •Motivational reaction and reflection
- •Regulation of behaviour
- •Behavioural forethought, planning and action
- •Behavioural monitoring and awareness
- •Behavioural control and regulation
- •Behavioural reaction and reflection
- •Regulation of context
- •Contextual forethought, planning and activation
- •Contextual monitoring
- •Contextual control and regulation
- •Contextual reaction and reflection
- •Evaluation
- •Theories of executive function
- •Description and potential relevance for education
- •Evaluation
- •Some issues for further investigation
- •6 Seven ‘all-embracing’ frameworks
- •Introduction
- •Time sequence of the all-embracing frameworks
- •Romiszowski’s analysis of knowledge and skills (1981)
- •Wallace and Adams’‘ Thinking Actively in a Social Context’ model (1990)
- •Jonassen and Tessmer’s taxonomy of learning outcomes (1996/7)
- •Hauenstein’s conceptual framework for educational objectives (1998)
- •Vermunt and Verloop’s categorisation of learning activities (1999)
- •Marzano’s new taxonomy of educational objectives (2001a; 2001b)
- •Sternberg’s model of abilities as developing expertise (2001)
- •Description and evaluation of seven all-embracing frameworks
- •Romiszowski’s analysis of knowledge and skills
- •Description and intended use
- •Evaluation
- •Description and intended use
- •Evaluation
- •Jonassen and Tessmer’s taxonomy of learning outcomes
- •Description and intended use
- •Evaluation
- •Hauenstein’s conceptual framework for educational objectives
- •Description and intended use
- •Evaluation
- •Vermunt and Verloop’s categorisation of learning activities
- •Description and intended use
- •Evaluation
- •Marzano’s new taxonomy of educational objectives
- •Description and intended use
- •Evaluation
- •Sternberg’s model of abilities as developing expertise
- •Description and intended use
- •Evaluation
- •Some issues for further investigation
- •Overview
- •How are thinking skills classified?
- •Domain
- •Content
- •Process
- •Psychological aspects
- •Using thinking skills frameworks
- •Which frameworks are best suited to specific applications?
- •Developing appropriate pedagogies
- •Other applications of the frameworks and models
- •In which areas is there extensive or widely accepted knowledge?
- •In which areas is knowledge very limited or highly contested?
- •Constructing an integrated framework
- •Summary
- •References
- •Index
The nature of thinking and thinking skills |
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On the other hand, other approaches, such as Lipman’s, argue for a separate timetable slot where students learn and apply their thinking within a special pedagogical framework. The ‘community of enquiry’ structure is essential to Lipman’s approach. McPeck, Paul and Ennis do not have published curricula that can be developed for different educational settings. Lipman has such material, and his work has been adapted internationally (Splitter and Sharp, 1995) for learners of different ages, from nursery children (e.g. Murris and Haynes, 2001) to post-16 contexts (e.g. Gregson, 2003).
From both philosophical and psychological perspectives, the assessment of critical thinking is challenging. It is not possible to assess single aspects of critical thinking or discrete skills without the risk of these separate assessments failing to capture either the quality of that thinking or the relation of the identified thinking skill to the task which aims to assess it. An example here might be learning to drive. Whilst it is possible to learn aspects of driving in a classroom or in a practice environment and become skilful, assessment by a qualified tester takes place in a real environment. The tester has criteria, but also needs to make a judgment about how well a learner has fitted together their observational and physical skills and evaluate whether or not their driving is good enough.
A synthesis of descriptive and normative approaches can be proposed. This involves taking in the strengths of each perspective. So a descriptive analysis is useful in identifying how particular aspects of thinking are valuable for a particular subject or in a curriculum in order to ensure that the teaching or elements of the course cover a range of thinking ‘skills’, though these may need to be taught through appropriate and relevant contexts. However the implications for the assessment of such skills from the normative perspective is that it needs to take into account not just whether a student shows such thinking, but that it is appropriate in the context or meets particular requirements to ensure its quality, needing some judgment on the part of an assessor.
Thinking skills in education
In educational discourse, ‘teaching thinking’ or ‘teaching thinking skills’ is often used to refer to pedagogic approaches through which
24 Frameworks for Thinking
specific strategies and procedures may be taught and used by learners in a controlled, conscious way to make their learning more effective. These strategies and procedures may be what some use spontaneously and/or they may be otherwise contrived. Many such skills and abilities have been suggested, specific, broad, or general in nature. Ashman and Conway (1997) conclude that thinking skills programmes typically involve six related types of thinking:
•metacognition
•critical thinking
•creative thinking
•cognitive processes (such as problem-solving and decision-making)
•core thinking skills (such as representation and summarising)
•understanding the role of content knowledge.
For the purposes of this book we have conceptualised ‘thinking skills approaches’ as courses or organised activities which identify for learners translatable mental processes and/or which require learners to plan, describe and evaluate their thinking and learning. This usage of the term ‘thinking skills’ implies that there are learning and teaching situations that can induce processes which produce desired mental activity. It is underpinned by a judgment that thinking can be improved with practice particularly through the skilled intervention of a teacher. It also implies the use of mental processes to plan, describe and evaluate thinking and learning. One way of looking at this metacognitive aspect is to consider thinking skills as ways of managing working memory so that conscious and unconscious processes together are more likely to produce desired outcomes (Newton, 2000).
Without downplaying the importance of unconscious and social processes, we believe that thinking skills approaches or pedagogies which make aspects of thinking explicit to the teacher and learners will focus attention on self-aware goal-directed thinking, in which there can then be strategic management of attention and working memory, supported by various ‘habits of mind’, including critical reflection. The goals of thinking and learning may be concerned with informa- tion-gathering, with building understanding, with thinking that generates productive outcomes, or with dynamic combinations of all three. Directing attention by clarifying the language of thinking as the
The nature of thinking and thinking skills |
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taxonomies and frameworks in this book all attempt will be of help to those who wish to achieve this in their teaching or their learning.
Emphasis upon instruction in cognition is the product of many influences. Some of the main influences can be identified.
On the one hand, not many teachers are enthused by what are widely regarded as simplistic behaviourist models, in which the focus of teaching is primarily observable behaviours rather than mental processing. The behavioural objectives movement has been particularly influential in special education (Ainscow and Tweddle, 1988), and in mainstream practice there has also been a trend towards setting and assessing precise learning goals and targets. The sterility and mechanistic nature of such approaches, however, has resulted in renewed interest in cognitive processes that appear to underpin learning (Elliott, 2000).
There has also been recognition that developmental stage theories, such as those of Piaget, where the individual passes through a series of stages reflecting superior levels of thinking, do not necessarily lead to a ‘deterministic trap’ (Adey and Shayer, 1994, p. 6) in which environmental inputs might be seen as capable of limited influence. Following the widespead interest in Vygotskian theory in recent decades, it has been increasingly accepted that educators should try to help learners engage in thinking at higher levels than might be possible without highly structured assistance. Vygotskian theory has been complemented by Bruner’s work, in particular, the notion of scaffolding (Wood, Bruner and Ross, 1976). Many teachers are attracted by the idea of cognitive apprenticeship, a term that refers to a process whereby the ‘expert’ (teacher) structures the conditions of learning a task in such a fashion that the ‘novice’ (learner) is progressively given less support as he or she gains in the capacity to complete it independently (Rogoff, 1990).
A proliferation of thinking skills programmes, approaches and initiatives have emerged in education, especially for use by teachers in schools. In some cases, these take the form of highly structured and discrete programmes (such as Feuerstein’s Instrumental Enrichment); in others, principles from cognitive education are drawn upon and used with existing curricula (such as Cognitive Acceleration Through Science Education by Adey, Shayer and Yates, 1989). Further educational
26 Frameworks for Thinking
initiatives take ideas from philosophy (such as Matthew Lipman’s Philosophy for Children and can perhaps be better described as a pedagogy to support thinking rather than a thinking skills programme. Many are more eclectic and draw upon diverse perspectives, ranging from psychology to popular neuroscience. Wallace and Adams’ Thinking Actively in a Social Context (TASC) (Wallace et al., 1993) has an eclectic, but coherent, theoretical foundation, drawing on psychological, philosophical, social and pedagogical sources. However, some of these initiatives are based upon such differing theoretical and conceptual perspectives that they bear little relationship to each other. Indeed, the same concept is often used to describe rather different cognitive processes. Given the lack of any unifying or overarching theory, the approaches, models and concepts are frequently adopted with little significant grasp of where these are located within the broader field of (albeit contested) knowledge.
It is hardly surprising that programmes to teach thinking have become plentiful (cf. Hamers and Overtoom, 1997). They often have powerful resonance with teachers and have been shown to have a generally beneficial effect (Higgins et al., 2004). While some maintain that their task is the delivery of a school or college subject, many others emphasise that they are trying to teach more generally applicable or ‘translatable’ skills or processes through the problem-solving elements of the curriculum, as well as encouraging learners to become thoughtful and reflective.
Teaching thinking: programmes and approaches
Widespread publicity is attached to highly charismatic and persuasive advocates of specific thinking skills programmes. One of these is de Bono, whose articulation of a set of thinking strategies, such as those set out in his Cognitive Research Trust (CoRT) programme, has been widely applied in both educational and vocational contexts.
The work of Lipman (see pages 157–164) has also received much attention. A teacher of philosophy in one of the USA’s most prestigious universities, Lipman despaired at what he considered to be the widespread inability of his students to engage in high-quality thinking. As a consequence, he advocates the use of philosophical reasoning and argument with learners from as young as seven. He seeks to
The nature of thinking and thinking skills |
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create ‘communities of enquiry’ in educational contexts that encourage listening carefully to the views of others and setting out and justifying one’s own opinions and responses by recourse to logical argument.
In the 1970s there was a general interest in the field of special education in various ‘psycholinguistic’ programmes which sought to remediate weak or faulty psychological processing in perceptual and cognitive areas, such as visual perception, auditory sequencing, visual– motor processing, and concept formation. The theory behind interventions based upon such analyses was that tackling processing deficits would result in raised academic performance in other areas such as reading and mathematics (Swanson, 1999). However, empirical studies failed to support such notions, with transfer proving particularly problematic (Arter and Jenkins, 1979; Kavale and Forness, 1987). More recent work has focused on specific cognitive processes, such as inductive reasoning, apparently with more positive results (Klauer and Phye, 1994; Bu¨chel, Schlatter and Scharnhorst, 1997).
Proving highly durable over several decades, Feuerstein’s ‘Instrumental Enrichment’ (see pages 55–62 for an analysis) has been largely applied to learners with various forms of special educational need. Feuerstein’s optimistic views of the capacity of all learners to make progress, his highly detailed and comprehensive description of specific cognitive processes that were often deficient in poor learners, together with the articulation of a comprehensive intervention programme, have resulted in much teacher interest across the world and a number of derivatives (e.g. Blagg et al., 1988).
As attractive as such programmes as Feuerstein’s were to many teachers, in the UK there has been an increasing movement to undertake thinking programmes in discrete academic subject areas. The strong subject discipline emphasis of the National Curriculum; a heavy inspection regime in which the appropriateness of ‘esoteric’ courses might be questioned; the costs involved in getting the required training; and inconsistent research findings have limited the take-up of stand-alone programmes. However, approaches that embed thinking skills interventions within a specific curriculum subject, and which appear to result in significant attainment gains in that subject (Adey and Shayer, 1994) have a greater appeal.
28 Frameworks for Thinking
Starting in science with the Cognitive Acceleration through Science Education (CASE) programme (Adey, Shayer and Yates, 1989), a similar approach has been applied in mathematics, technology and the arts (Shayer and Adey, 2002). An innovative curriculum development project called Thinking through Geography (Leat, 1998) was designed around a list of ‘big’ concepts which are important for geography teaching. The approach has been expanded to history, Religious Education, English, Modern Foreign Languages and primary education. It focuses on the use of ‘powerful pedagogical strategies’ (Leat and Higgins, 2002) to support teachers in developing their pupils’ thinking. Another example of the ‘infusion’ approach for developing thinking skills can also be seen in the ACTS project (Activating Children’s Thinking Skills) for upper primary level (McGuinness et al., 1997). As in Swartz and Parks’ infusion approach in the US (1994), teachers trained in the ACTS methodology develop a range of thinking skills across the Northern Ireland curriculum at Key Stage 2 by focusing on specific strategies. Other subject-specific work showing evidence of impact is in the area of collaborative talk and thinking. When primary-age pupils are taught to follow agreed ‘talk rules’, their attainment in mathematics and science (Mercer et al., 2002) has been shown to improve. This ‘Thinking Together’ approach is also being extended to other subjects and age groups. Similar theoretical concerns underpin other programmes such as Wallace’s TASC ‘Thinking Actively in a Social Context’ (Adams and Wallace, 1990; Wallace, 2001).
Also involved in the development of ‘thinking’ approaches to learning and teaching across the curriculum has been a strong orientation to the teaching of strategies for learning in an explicit fashion. Research studies have highlighted the gains that can be achieved when specific cognitive and metacognitive strategies are embedded in the teaching of academic subjects such as reading and mathematics (e.g. de Corte, Verschaffel and van de Ven, 2001; Fuchs et al., 2003). Much early work in this area was undertaken in the fields of memory (Cohen and Nealon, 1979) and reading comprehension (Palincsar and Brown, 1984; Meyer et al., 1989). Such ‘learning to learn’ initiatives were greatly strengthened by increasing teacher familiarity with the constructs of metacognition and self-regulation. As a result, the importance