How we learn


ICT has been shown to be an effective support of a number of teaching strategies which promote learning (Bransford et al. 2000). Informed use of ICT involves an understanding of the learning theories behind the different methods of instruction. There has been considerable research on learning theories and how they apply to the use of ICT in teaching and learning.

As practicing educators it is highly likely that you have eclectic views on the learning process. Your conclusions are likely to be a blend of the diverse theories on learning, motivation, instruction, intellectual development, and effective teaching practices, largely as a result of your own personal experience. You may thus be drawing from behavioural theories, cognitive theories, social cognition theories, attribution theory, achievement motivation theory, as well as using concepts from Piaget or Vygotsky. We will not go into a great deal of detail here but provide you with a brief overview of some relevant theories (the links in the following text will take you to short summaries of the theories) and provide you with some online resources if you wish to go further.

Until the late 1950s the dominant theory of learning was behaviourism which saw learning as a process of forming connections between stimuli and responses. This had limitations due to its focus on observable behaviour and not the underlying phenomena such as understanding, reasoning and thinking. Some of the principles of behaviourism however are still widely used in today’s classrooms and many online and computer-based drill and practice exercises use the behaviourist principle of positive reinforcement.

Cognitive psychology developed in the late 1950s as a way of dealing with behaviourism’s inability to adequately explain complex behaviours such as language acquisition. This branch of learning theories is concerned with the things that happen inside our heads as we learn. The developmental theories of Piaget and Vygotsky, also known as cognitive-developmental theories emphasise thought processes such as thinking, understanding, and perceiving. Cognitive theories take the perspective that students actively process information and learning takes place through the efforts of the student as they organise, store and then find relationships between information, linking new to old knowledge, schema and scripts. Over the last fifteen years, cognitive psychology, and in particular the information processing model, has become dominant partly because of the insights the model gives us in describing and explaining cognitive (mental) processes, such as thinking and problem solving.

Robert Gagné built upon behaviourist and cognitive theories to recommend approaches to instruction. His work played a key role in the systematic design of instruction which is still widely used in the development of training material.

Continuing research into learning rejected the idea that learning is a process where knowledge is transmitted to and acquired by learners. Contemporary theorists suggest that learning is a process where knowledge is constructed either individually or socially and is based on a person’s previous knowledge. Though there are a number of theories that come under the label constructivism they all have a similar view of learners as being actively engaged in a process of integrating new experiences and information with existing concepts. They suggest that learners’ pre-existing knowledge, skills, beliefs and concepts influence what they notice about the world they live in and how they organise and interpret it. As a consequence rather than simply absorbing ideas communicated to them by teachers, students take those ideas and assimilate them with their pre-existing notions and experience to modify their knowledge and understanding in a more complex, complete and refined way. Teaching therefore is the process which supports this construction and reconstruction of new knowledge rather than the communication of knowledge. Research suggests that educational technology is most effective when used to enhance constructivist or student-centered instructional strategies because they emphasise interactivity, learner control and student engagement.

So where does that leave us? Drawing on the variety of theoretical perspectives on learning can be useful when developing effective teaching practices. Flexibility in our theoretical position allows us to use a number of methods in our teaching in order to cater to the diversity of learners and the kind of information and skills they need.


References:


Bransford, J. D., Brown, A. L., & Cocking, R. R. (eds). 2000. How People Learn: Brain, Mind, Experience, and School: Expanded Edition. The National Academy Press. Washington, D.C. (Available online) http://www.nap.edu/catalog/9853.html [19 October 2001]

Behaviourism


B. F. Skinner’s text, The Technology of Learning (1968), was immensely influential and his classroom management and instructional techniques based on behaviourist principles are still widely used today. Skinner developed the theory of ‘operant conditioning’, the idea that we behave the way we do because this kind of behaviour has had certain consequences in the past. Skinner’s reinforcement principles are the basis of many drill and practice exercises – that is, students receive praise or a positive image when they get the correct answer.

Behaviourists focus on behaviour and the external environment’s influence on it. They believe that learning can be measured by observable behaviours that are influenced by antecedents and reinforcements. Teachers shape a student’s behaviour by gradually and carefully adjusting contingencies to encourage them to behave in ways that are progressively closer to a goal. A behaviour will be repeated depending upon the consequences that follow it. Learning is seen as nothing more than the acquisition of new behaviour, which can thus be evaluated through the examination of this same behaviour.

An example using ICT in teaching and learning could be an online “gap fill” tutorial in a foreign language: students have to enter a word or phrase to complete the sentence (behaviour) and they receive an immediate response from the computer telling them if they were right or wrong (consequence). If they are incorrect the students will receive a hint or direction to the content where they can review the task. When they have consistently completed the exercise correctly they will be said to have learned and achieved the goal of the lesson.

These sorts of tutorials can be very useful in learning vocabulary or verb conjugations in language classes. A constructivist approach could be added to these sorts of exercises by not only asking for a demonstration of knowledge of verb structures but by also asking students to indicate an understanding of why those verb structures are appropriate in a given phrase.

An advantage of these types of tutorials is that they allow students of varying ability to work on exercises in their own time and at their own pace – this way all students can achieve a similar level of competence and the teacher’s time is spent on teaching more complex knowledge and skills or focussing on students with particular needs.

The exercises can be more motivating than a simple exercise book as they may contain visual (still and moving images) and audio aids and are pleasing to look at and interact with. The variety of written, visual and verbal clues can aid students with different learning styles.

Further reading:


B. F. Skiller Foundation
http://www.bfskinner.org

Behaviourism as a learning theory
http://129.7.160.115/inst5931/Behaviorism.html

Operant conditioning and Behaviorism: an historical outline
http://www.biozentrum.uni-wuerzburg.de/genetics/behavior/learning/behaviorism.html

Operant conditioning
http://www.gwu.edu/~tip/skinner.html

Developmental theories of learning


The developmental theories of Piaget and Vygotsky, also known as cognitive-developmental theories emphasise thought processes such as thinking, understanding, and perceiving.

Piaget


Piaget’s cognitive developmental theory explores changes that take place in thinking abilities over time. Piaget was interested in how individuals develop knowledge from birth. He considered cognition as a biological process whereby intelligence develops in specific growth stages. He believed that conceptual development may be likened to a building process i.e. a series of qualitative intellectual advancements. It is this aspect of the theory that has proved most popular with educators.

Piaget argued that cognitive growth occurs through a series of stages, known as 'stages in development'. These are:


The stages are discrete and in a strictly linear path. These 'stages in development' have been adopted by many teachers and it could be argued that they are the reason for the separation of schools into levels such as pre-school, primary and secondary. Piaget was a biologist and drew his theory from his studies of living organisms and their adaptation to changes. His research sample was rather small since his primary observations were drawn from close study of his own three children.

However, the existence of separate stages, each with its own characteristic mode of thinking, and the limitations involved, has been refuted by a large body of research. The most permanent remainder from Piaget’s lifetime of studying cognitive development is the constructivist view of development. This theoretical position argues that each individual constructs their own understanding of the world and is primarily responsible for the development of their own intelligence as a result of experience. It is from this aspect that further ideas on learning have developed.

Important concepts of Piaget include schemes, assimilation, accommodation and equilibration.


Further reading:

Piaget
http://www.gwu.edu/~tip/piaget.html

Piaget and intellectual development
http://129.7.160.115/inst5931/piaget1.html

Cognitive psychology and its application to education
http://129.7.160.115/inst5931/COGNTIVE.PSY


Vygotsky


Vygotsky began his academic journey with a law degree from Moscow University in 1917. His studies included philosophy, psychology and literature. His life took a new direction when he was invited to join the Psychological Institute of Moscow University after delivering a brilliant paper at the Russian Psycho–neurological Congress in 1924. His work was banned for political reasons and was not to emerge until the 1950’s.

Vygotsky tried to understand cognitive processes. He attempted to understand the formation of intellect by focusing on its process of development. He believed that individual development could not be understood without reference to the social and cultural context within which development occurs.

Vygotsky is best known for his:

  1. stress on the importance of language in learning development

  1. focus on development across the whole lifespan rather than stages

  1. zone of proximal development i.e. the gap between what you’re trying to teach and the current state of development in that area. If the gap is too large, instruction won’t be effective; too small and the learner won’t be extended, therefore teachers must have background knowledge of those they teach.

  1. scaffolded instruction involves an instructor or advanced peer working to support the development of the learner. The instructor should guide the learner in such a way that the gap is bridged between the learner’s current skill levels and the desired skill level. As learners become more proficient, able to complete tasks on their own that they could not initially do without assistance, the guidance can be withdrawn. Such instruction needs to take place in a social environment where the interactions reflect mutual respect.(The first reading "Towards maximising learning through online environments can be considered scaffolding).

Vygotsky, who was a contemporary of Piaget's, has had a major influence on developmental psychology. Of importance is his emphasis on the sociocultural nature of learning with a key element being Vygotsky's notion of a zone of proximal development.

The term zone of proximal development may be seen as a visual image of concentric circles, which in another context have been labelled comfort zones. The mental image for the term scaffolding is of an athletic activity such as high jumping where the bar is raised in small increments. This is one factor of scaffolding, however the term also includes elements of guided instruction.

Piaget and Vygotsky hold contrasting views on teacher involvement. On one hand a Piagetian view suggests that direct teacher involvement may inhibit learning while on the other hand, Vygotsky's approach of scaffolding and guided discovery suggests that a guiding hand by the teacher is critical for effective learning.

Further reading:

The role of culture in Vygotskyean-informed psychology.
(http://www.massey.ac.nz/~ALock/virtual/colevyg.htm).
This paper gives an accessible overview of the main ideas of Vygotsky's developmental framework and offers a contrast to the Piagetian approach.

Social Development Theory Vygotsky
http://www.gwu.edu/~tip/vygotsky.html

Vygotskyean theory
(http://www.massey.ac.nz/~ALock/virtual/trishvyg.htm)
This is an introduction to some of the basic concepts (culturally-mediated identity) of by Trish Nicholl.

Virtual Faculty at Massey College, Celebration of the Centenary of the Birth of Vygotsky
http://www.massey.ac.nz/~ALock/virtual/project2.htm

Cognitive theories of learning


Cognitive theories first appeared last century, but were usurped by behavioural theories earlier this century, only to re-emerge as the dominant force again. They are concerned with the things that happen inside our heads as we learn. They take the perspective that students actively process information and learning takes place through the efforts of the student as they organise, store and then find relationships between information, linking new to old knowledge, schema and scripts. Cognitive approaches emphasise how information is processed.

The three researchers Ausubel, Bruner and Gagné take different perspectives but each presents ideas that add to the discussion on how people learn. Ausubel's advanced organiser is a concept that considers the impact of prior learning. This differs from the behaviourists who do not consider the importance of this factor. Bruner's work on categorisation or the forming of concepts provides a possible set of answers to how the learner derives information from the environment. Gagné looks at the events of learning and instruction as a series of phases, using the cognitive steps of coding, storing, retrieving and transferring information.

These three cognitive theorists, Jerome Bruner, David Ausubel and Robert Gagné have not adopted a developmental perspective. Although they have adopted quite different theoretical positions, they share the following features in common.




Bruner


The ideas of Bruner, who advocated discovery learning, probably have had greater acceptance, at least in schools, than those of Ausubel or Gagné. In 1966, Bruner wrote Toward a theory of instruction, in which he explained how his ideas might be translated into practice in the classroom. A further factor which contributed to the popularity of Bruner’s ideas was that they were very much in tune with the mood of the times. His emphasis on discovery and ‘hands on’ learning was in accord with Piaget’s ideas. Certainly the constructivist nature of his theory appealed to teachers and many of his principles are still employed by practising teachers.

Bruner argued that we should teach the ‘structure’ of subjects. He advocated the introduction of the real process of a particular discipline to students. For example, when learning history students should become involved in genuine historical enquiry. This might involve examining a bridge, a building, or even a head stone in a cemetery, then using the information acquired to trace records of various kinds in order to answer the questions generated about the origins, purposes, and history of that structure, or the life of the person concerned.

The three stages in Bruner's theory of intellectual development are:


Bruner's underlying principle for teaching and learning is that a combination of concrete, pictorial then symbolic activities will lead to more effective learning. The progression is: start with a concrete experience then move to pictures and finally use symbolic representation. Is that path familiar to any of the readers? Are there similarities between Bruner's principle and the procedure suggested for teaching numeracy? Have you ever taught algebra using this procedure? It works!

Another aspect of Bruner's theory, which has been enthusiastically included in some teachers' classrooms, is Discovery Learning. This is not an easy teaching strategy to employ.

Further reading:

Bruner
http://www.gwu.edu/~tip/bruner.html


Ausubel


Ausubel’s writings have not attracted the popularity of Bruner’s works. However because much of his theory has been developed from research in mainstream cognitive psychology, many of his ideas have survived as part of information processing theory. Ausubel’s most notable contribution was the notion of the advance organiser. We can think of the advance organiser as simply a device or a mental learning aid to help us ‘get a grip’ on the new information. Put in more difficult language, according to Ausubel, the advance organiser is a means of preparing the learner’s cognitive structure for the learning experience about to take place. It is a device to activate the relevant schema or conceptual pattern so that new information would be more readily ‘subsumed’ into the learner’s existing cognitive structure or mental depiction!

The other major contribution which Ausubel has made, is his emphasis on the active nature of reception learning. The distinction between rote and meaningful learning is an important one, and too often we as educators fail to make reception learning as meaningful as possible. The need to require learners to be active by underlining, by completing missing words, by rewording sentences, or by giving additional examples, cannot be overemphasised in this context. Can you see a link with behaviourism here?
Further reading:

Ausubel
http://www.lincoln.ac.nz/educ/tip/56.htm

Ausubel
http://www.gwu.edu/~tip/ausubel.html

Gagné


Robert Gagné built upon behaviourist and cognitive theories to recommend approaches to instruction. Much of Gagné’s early experience as an instructional psychologist was spent tackling practical problems of training airforce personnel. He dealt particularly with problems in determining just what skills and knowledge are required for someone to be an effective performer at a given job. Once job requirements were identified, the task then became one of determining how those requirements might best be learned by a person in training for the job. He suggested that a task would be best learned by following a specific sequence of nine events:

  1. gaining attention;
  2. informing the learner of the objective;
  3. stimulating recall of prerequisite learning;
  4. presenting new material;
  5. providing learning guidance;
  6. eliciting performance;
  7. providing feedback about correctness;
  8. assessing performance; and
  9. enhancing retention and recall.

In addition he proposed that learning is like to a building process which utilises a hierarchy of skills that increase in complexity. He also identified five major categories of learning:


His notions of task analysis and the importance of the correct sequencing of instruction are followed by most mathematics teachers when designing their programs. Gagné’s approach is really that of an instructional designer and, although his ideas have developed quite remarkably over the last quarter of a century, you can still glimpse the skeletons of the principles used when he was responsible for designing training systems for World War II pilots.

Gagné’s theory of learning hierarchies could be said to be a teaching theory, which is easy to apply in some circumstances, but is not easily applied in other circumstances.

Many of his ideas are readily transferable to computer-assisted instruction and no doubt at least some readers will be familiar with his ideas, even if not with Gagné himself as their advocate.

The concept of Gagné's knowledge hierarchy leads to the assumption that it is important to present all the necessary lower-level facts before proceeding to teach at higher levels. Related to this is the concept that people can reason with higher-level concepts if they have learned all of the prerequisite lower-level information.

Gagné's ideas have received wide acceptance in the training field although teachers have also accepted some of his principles.
Further reading:

Gagné’s conditions of learning
http://www.gwu.edu/~tip/gagne.html

Gagné’s conditions of learning (Stephen Bostock)
http://www.keele.ac.uk/depts/cs/Stephen_Bostock/docs/atid.htm

Influential thinkers: Robert M. Gagné
http://mercury.sfsu.edu/~ccurran/Learning/People/Gagne.html

The PSI Café: Robert Gagné
http://www.psy.pdx.edu/PsiCafe/KeyTheorists/Gagne.htm

Institute for Research in Cognitive Science - University of Pennsylvania
http://www.cis.upenn.edu/~ircs/homepage.html

Cognitive and Psychological Sciences - Stanford University
http://www-psych.stanford.edu:80/cogsci/

Cognitive Science Society
http://www.umich.edu/~cogsci/

School of Cognitive and Computer Sciences - University of Sussex
http://www.cogs.susx.ac.uk/cgi-bin/htmlcogsreps?csrp


Systematic Instructional Design


Gagné’s events of instruction and learning hierarchies have been widely used to develop systematic instructional design principles and are used extensively in planning lessons for instructional software. Lessons are designed carefully by breaking down the knowledge, skill or process into small, well-described components. The learning process is initiated by carefully crafted objectives which are stated in measurable terms. The component parts are taught sequentially, each building on the previous one and students must master activity A before they can go on to activity B. etc. Learning activities are followed by some form of assessment that demonstrates that the objective has been achieved.

While teachers today are concerned with ensuring students develop skills in problem solving, thinking, reflection, and approaches for introducing information in indirect ways and therefore tend to frequently use constructivist approaches in their practice, there are numerous occasions where direct, guided instruction is required. For example, directed instructed may be needed in:


This sort of instruction can be useful for:





Cognitive science began to influence instructional design from the late 1970s. Design models based on behaviourist theories were adapted to include more emphasis on task and learner analysis but the goal of instruction was still the communication or transfer of knowledge to learners. The development of constructivist theories of learning where each of us is individually responsible for our own knowledge construction initially presented instructional designers with problems regarding the systematic design of instruction. However instructional design today is adopting many of the principles of constructivist theories and integrating them in the design of learning materials. David Merrill, for example, illustrates many constructivist strategies in a short video on the elements of effective instructional design.
http://www.id2.usu.edu/5Star/5starins.ram (15 minutes, requires RealPlayer plugin, works over 56K modem)

Further reading


School of Education, University of Colorado at Denver. Instructional Design Models
http://carbon.cudenver.edu/~mryder/itc_data/idmodels.html

Charles Reigeluth’s Instructional-Design Theories website
http://www.indiana.edu/~idtheory/

Information processing


Cognitive psychology developed around the late 1950s at a time when technology was developing computers capable of manipulating large amounts of data more and more rapidly. The group of information processing theorists which came out of cognitive psychology research used the computer as a model for the way humans think. This branch of cognitive psychology looks at the way people take in, process and act on information focussing on attention, perception and memory.

Over the last fifteen years, cognitive psychology, and in particular the information processing model, has become dominant partly because of the insights the model gives us in describing and explaining cognitive (mental) processes, such as thinking and problem solving. These are of course what teachers and trainers are very interested in. Effective use of these cognitive processes depends on our understanding of the information processing model.

Like a computer, the human mind takes information, organises it, stores it for later use and then retrieves it when necessary. In a computer, information (data) is entered into the computer through a keyboard or scanner or another input device. The human corollary for this would be the ears, the eyes or another sensory organ. In the computer the data needs to be processed, i.e. comparisons and logical decisions made. The 'brains' of the computer is the Central Processing Unit (CPU) where the data is processed. The human match for this task is called Working Memory where we think about and process the entered data. To store its information the computer uses hard disks, floppy disks and tapes. Humans store information in Long Term Memory. Having processed the information, computers need to do something with that information. This may be visual display on the screen or hardcopy paper output. The human equivalent is talking, walking, smiling, or shaking hands. Simply put – action.




According to this view there are three kinds of memory:




When people pay attention to information picked up by the sensory registers it goes into the working memory, if they don’t pay attention it is lost. Once in working memory it needs to be processed or practiced within 5 to 20 seconds for it to be transferred to the long-term memory. New information will only be transferred to LTM when it is linked in some way to prior knowledge already in LTM. Information is translated into some meaningful form (encoded) and retrieved through a process of identification and recall for a particular purpose. Learning is the result of individuals successfully encoding new information or recoding existing information in a new way. They can then recall that information from memory and use it.

Encoding


The key factors for effective encoding of information include ensuring that the material is meaningful and that activation of prior knowledge occurs. Strategies for assisting encoding include chunking, rehearsal, imagery, mnemonics, schema activation, and level of processing.


Cognitive strategies enhance learning because the effective use of such strategies minimises the demands on working memory. The problem is that children are not strategic learners. They have to be taught how to use particular strategies. A student who is good at strategic learning may possess the following:



Retrieval


We've looked at encoding where the information is placed in memory and now we need to look at retrieving that information. One of the key factors affecting retrieval is encoding specificity which has been shown to enhance retrieval if the cues present at encoding are present at recall.

Other factors that affect retrieval (remembering) include the structure of the material, practice, relearning, and continued exposure to the content.
Coding and classifying information through concept maps or networking also appear to benefit learning and recall.

Types of long-term memory


There are two type of Long Term Memory: declarative knowledge, which deals with factual knowledge, and procedural knowledge, which deals with knowing how to perform an activity.

The building blocks of cognition


The four building blocks of cognition are:

concepts
grouping objects into meaningful categories
propositions
declarative knowledge : the smallest unit of knowledge that can stand as a separate assertion
productions
procedural knowledge: a way of representing condition-action rules
schemata
hypothesised data structures within which knowledge is stored


The importance of IPT for educators


Information processing theory sits well with educationalists because it deals with intellectual performance including the use of:


Research into information processing theories suggest that:


Information processing refers to the way we handle information. From the information processing viewpoint, people are active learners who can control and manipulate information and devise strategies to deal with particular situations, for example, thinking aloud when completing a complex task. This approach is comfortable for adult learners and vocational educators, as are the concepts of self-directed learning and lifelong learning.

The information processing approach has continued to gain strength with an increasing amount of research related to the senses, encoding, memory, retrieval, problem solving, metacognition, perception, language, attention and so on as evidenced by the large number of recent publications in this field.

During the last two decades, information processing theories have been used widely to explain or provide a major perspective on human learning. The information processing perspective is linked with the development of computers and improved knowledge of the functions and processes of the nervous system. Computers provide an avenue for research on human capabilities and learning processes because they stimulate a number of complex human functions and specifically because information is involved. Most educators would recognise the importance of information processing theory because it emphasises:


USING THE INFORMATION PROCESSING APPROACH IN THE CLASSROOM
Principle
Example
Gain the students' attention.
  • Use cues to signal when you are ready to begin.
  • Move around the room and use voice inflections.
  • Bring to mind relevant prior learning.
  • Review previous day's lesson.
  • Have a discussion about previously covered content.
  • Point out important information.
  • Provide handouts.
  • Write on the board or use transparencies.
  • Present information in an organized manner.
  • Show a logical sequence to concepts and skills.
  • Go from simple to complex when presenting new material.
  • Show students how to categorize (chunk) related information.
  • Present information in categories.
  • Teach inductive reasoning.
  • Provide opportunities for students to elaborate on new information.
  • Connect new information to something already known.
  • Look for similarities and differences among concepts.
  • Show students how to use coding when memorizing lists.
  • Make up silly sentence with first letter of each word in the list.
  • Use mental imagery techniques such as the keyword method.
  • Provide for repetition of learning.
  • State important principles several times in different ways during presentation of information (STM).
  • Have items on each day's lesson from previous lesson (LTM).
  • Schedule periodic reviews of previously learned concepts and skills (LTM).
  • Provide opportunities for overlearning of fundamental concepts and skills.
  • Use daily drills for arithmetic facts.
  • Play form of trivial pursuit with content related to class.

Further reading:

Information Processing Theory
http://www.gwu.edu/~tip/miller.html

Levels of Processing
http://www.gwu.edu/~tip/craik.html

A general theory of cognition
http://www.gwu.edu/~tip/anderson.html

Information Processing Theory:
http://www.educationau.edu.au/archives/cp/04h.htm

Information Process Theory of Learning
http://tiger.coe.missouri.edu/~t377/IPTheorists.html

The Information Processing Approach
http://chiron.valdosta.edu/whuitt/col/cogsys/infoproc.html

Constructivism


In behavioural theories knowledge is viewed as nothing more than passive, largely automatic responses to external factors in the environment. In cognitive theories knowledge is viewed as abstract symbolic representations in the head of individuals. In the constructivistic theories knowledge is viewed as a constructed entity made by each and every learner through a learning process. Knowledge can thus not be transmitted from one person to the other, it will have to be (re)constructed by each person. This means that the view of knowledge differs from the 'knowledge as given and absolute' views of behaviourism and cognitivism.

Learning is therefore not just about memorising facts but the active process of integrating new experiences and information with existing concepts. Rather than simply absorbing ideas communicated to them by teachers, students take those ideas and assimilate them with their pre-existing notions and experience to modify their knowledge and understanding in a more complex, complete and refined way. Teaching is the process which supports this construction and reconstruction of new knowledge rather than the communication of knowledge.

There are a number of theories on how this construction of knowledge occurs however they all focus on either the individual or the group as the means by which we construct knowledge. Some theorists hold that knowledge is constructed by the individual through their own interpretations and others hold that it is constructed through social interaction among individuals where their dialogue leads to a shared interpretation.

Those contributing to constructivism include Dewey (social constructivism), Vygotsky (scaffolding and the zone of proximal development), Piaget (stages of development), Bruner (discovery learning), Papert (microworlds), Seely Brown (cognitive apprenticeships) Vanderbilt’s cognition and technology group (anchored instruction), Spiro and others (flexibility theory and radical constructivism) and Gardner (multiple intelligences).

A constructivist framework based on these theories holds the following principles:






(SEDL 1999, http://www.sedl.org/pubs/tec26/intro2c.html)

As constructivism is a collection of theories of learning and not a method of teaching, the means by which teachers provide environments that support the ways students learn varies. However central to this philosophy is the idea that by placing the focus on the internal construction of knowledge (either individually or socially) the emphasis in the classroom shifts from the teacher to the student. Teachers need to do more than deliver information to students: they need to design activities which facilitate students’ engaging with and making sense of the content. Learners must be given the opportunity to build on prior knowledge, beliefs and experiences and encouraged to be autonomous and take initiative.

A constructivist classroom tends to focus on learning in context and collaboration. Students are asked to solve realistic and meaningful problems which demonstrate real-life connections by associating the concepts being taught with a real-life activity or event. Students are actively involved in the process of gathering information, analysing information, and using information to make informed decisions that relate to life. Because they focus on activities that require students to find solutions to problems the methods used in a constructivist classroom tend to be problem-based learning, project-based learning, cooperative/collaborative learning, discovery learning etc. Students are encouraged to reflect on the process of learning as well as the product of that process.

For suggestions on how to integrate constructivist practices into your teaching you might like to read the TAP into Learning series (http://www.sedl.org/tap/newsletters/). As a start they suggest you:





Alexander and Boud (2001) suggest that one of the most important roles of teachers is designing activities which provide opportunities for students to:




The online environment provides opportunities for exploration and highly creative and individualised self-expression and for individualised learning, allowing students to progress at their own pace. It gives students access to a wide range of raw and real-world data which engages students in authentic learning tasks. It allows the student to be actively engaged with their learning and be at the centre of the process. These features of the online environment suggest that online learning activities designed using constructivist strategies highly effective.


Needs addressed by constructivism

  1. Making skills more relevant to students’ backgrounds and experiences by anchoring learning tasks in meaningful, authentic, highly visual situations
  2. Addressing motivation problems through interactive activities in which students must play active rather than passive roles
  3. Teaching students how to work together to solve problems through group-based, cooperative learning activities
  4. Emphasizing engaging, motivational activities that require higher-level skills and prerequisite lower-level skills at the same time. (Roblyer & Edwards 2000, p. 51)


Constructivist learning models tend to:

  1. Focus on learning through posing problems, exploring possible answers, and developing products and presentations.
  2. Pursue global goals that specify general abilities such as problem solving and research skills
  3. Stress more group work than individualized work
  4. Emphasize alternative learning and assessment methods: exploration of open-ended questions and scenarios, doing research and developing products; assessment by student portfolios, performance checklists, and tests with open-ended questions; and descriptive narratives written by teachers. (Roblyer & Edwards 2000, p. 53)


Further reading


Augmentation of the intellect
http://www.cudenver.edu/~mryder/augment.html

Education.au Limited: Constructivist theory
http://www.educationau.edu.au/archives/cp/04c.htm

emtech: Constructivism, Instructivism, and Related Sites
http://www.emtech.net/links/construc.htm
emtech (emerging technologies) is a bit like a search engine (such as Yahoo) which has over 15,000 resources organised by topics for teachers, students, parents, and others. This link will take you directly to the constructivism resources (but we suggest you might like to go to the home page and browse through some of the other resources when you have time).

Faculty of Education, University of Alberta: Constructivism Links
http://www.quasar.ualberta.ca/edit573/Links/constructivism.htm

School of Education, University of Colorado at Denver. Constructivism
http://carbon.cudenver.edu/~mryder/itc_data/constructivism.html
This webpage is essentially a list of links to others websites/webpages dealing with constructivism. Compiled by Martin Ryder at the School of Education, University of Colorado at Denver.

SEDL. 1999. Connecting Student Learning and Technology. Southwest Educational Development Laboratory (SEDL)
http://www.sedl.org/pubs/tec26/
This resources is also from SEDL and gives a brief look at connecting student learning and technology with an emphasis on constructivism.

SEDLETTER. 1996. Constructivism. Volume IX, Number 3, August 1996
http://www.sedl.org/pubs/sedletter/v09n03/

SEDLETTER. 1996. The practice implications of constructivism. Volume IX, Number 3, August 1996
http://www.sedl.org/pubs/sedletter/v09n03/practice.html

Tap into Learning series.
http://www.sedl.org/tap/newsletters/
The TAP into Learning on-line newsletters are part of the Technology Assistance Program at Southwest Educational Development laboratory (SEDL). The newsletter offers information for K-12 educators wishing to use technology to support more constructivist learning approaches.

The Case for Constructivist Classrooms.
http://129.7.160.115/INST5931/Constructivist.html
Jacqueline Grennon Brooks and Martin Brooks offer a constructivist view that focuses on the learning environment of the students. They consider the activities and approaches between teacher and student interaction.

The Constructivist Theory of Instruction: Constructivism in Science
http://www.caosclub.org/constructivism.html
This is a Chicago Academy of Sciences website which contains 150 science lesson plans and webcasts. You have to join to get access to all the lesson plans and to get full access to the CAoS Club Web site from multiple computers. However there are a number of lesson plans available to have a look at without joining. The Chicago Academy of Sciences' curricula are based on the constructivist theory of instruction

References


Alexander, S. & Boud, D. 2001. Learners still learn from experience when online. In J. Stephenson (ed.) Teaching & Learning Online: Pedagogies for New Technologies. Kogan Page, London.

Burns, M. (ed). 1998. TAP into Learning, vol. 1, no. 1. SEDL. (online)
http://www.sedl.org/pubs/tapinto/v1n1.pdf [11 October 2001]

Roblyer, M. D. & Edwards, J. 2000. Integrating Educational Technology into Teaching. 2nd edn. Prentice-Hall, Upper Saddler River, New Jersey.


LINKS TO BE ATTACHED TO UNDERLINED NAMES ABOVE:

Dewey
http://www.siu.edu/~deweyctr/index2.html

Vygotsky
LINK TO WEBPAGE/TEXT ABOVE

Piaget
LINK TO WEBPAGE/TEXT ABOVE

Bruner
LINK TO WEBPAGE/TEXT ABOVE

Papert
http://papert.www.media.mit.edu/people/papert

Seely Brown
http://www.parc.xerox.com/ops/members/brown/default.html

Vanderbilt’s cognition and technology group
http://www.educationau.edu.au/archives/cp/04a.htm

Spiro
http://www.ilt.columbia.edu/Publications/papers/Spiro.html

Gardner
http://www.newhorizons.org/crfut_gardner.html

So where does this leave us?


Most learning and instruction theories have difficulty in providing for the transfer of learning; that is, the ability to transfer skills and knowledge acquired in one context to a different context. Additionally learning theories and teaching theories have difficulties in accounting for and explaining the effects of individual differences.

You probably use a variety of methods in your own teaching practice to suit the learners’ needs and the subject material being taught. When teaching geography, for example, students may need to learn a certain amount of factual information (such as names and locations of states, cities and towns) as well as the conceptual understanding of why cities are located in certain places in order to be able to transfer the learning to another situation. You may use mnemonics or drill and practices techniques for basic-level learning in order to help your students acquire the necessary factual information and problem-based learning techniques to ensure that they are able to develop a deeper understanding of the subject and transfer what they learn to other situations.

Bransford et al (2000, p. 23) conclude that teaching both the “basics” and thinking and problem-solving skills are necessary.

Students’ abilities to acquire organized sets of facts and skills are actually enhanced when they are connected to meaningful problem-solving activities, and when students are helped to understand why, when, and how those facts and skills are relevant. And attempts to teach thinking skills without a strong base of factual knowledge do not promote problem-solving ability or support transfer to new situations.

Rather than argue that one teaching technique is better than another Bransford et al suggest that the variety of methods used in today’s classrooms remain appropriate if chosen for the right reasons:

Books and lectures can be wonderfully efficient modes of transmitting new information for learning, exciting the imagination, and honing students’ critical faculties – but one would choose other kinds of activities to elicit from students their preconceptions and level of understanding, or to help them see the power of using meta-cognitive strategies to monitor their learning. Hands-on experiments can be a powerful way to ground emergent knowledge, but they do not alone evoke the underlying conceptual understandings that aid generalization. There is no universal best teaching practice. (Italics in original) (Bransford et al 2000, p. 22)

Teachers and instructors should be flexible in respect of the theoretical position they adopt. Being too closely aligned to a particular theoretical position can restrict your options when you encounter an individual who fails to benefit from your instruction. You must be flexible in adopting methods that fit the desired outcome and this may require the use of techniques which are derived from a variety of theoretical perspectives.

References:

Bransford, J. D., Brown, A. L., & Cocking, R. R. (eds). 2000. How People Learn: Brain, Mind, Experience, and School: Expanded Edition. The National Academy Press. Washington, D.C. (Available online) http://www.nap.edu/catalog/9853.html [19 October 2001]