Bridging the gap: teachers cooperating together to implement cooperative learning

Cooperative learning (CL), in spite of extensive research and documented benefits, is not widely used in England. A review of the literature shows that it requires a staged and sustained approach to implementation, which has led to a gap between its potential and actual use. The case study cited here provides one example of bridging that gap through schools working together, with a community of facilitators, or experts, to provide support. As interest grows internationally into teachers cooperating in professional learning communities, this article argues that collaborative cultures provide the key to implementing and sustaining CL. In other words: teachers cooperating together also support pupils learning together.     

A call to come together: why it matters and why it works

This letter to the editor is in response to Barbara Hotelling's column, "Tools for Teaching - The Power of Numbers: Transforming Birth Through Collaborations," published in the Volume 19, Number 2 (Spring 2010) issue of The Journal of Perinatal Education. Hotelling's brief overview of the history of birth activism in the United States and of current collaborations among diverse groups and individuals provides inspiration to continue efforts that improve maternity care and promote natural, safe, and healthy childbirth practices.     

School and out-of-school science: a model for bridging the gap

Contemporary policy statements from government and reforms to science curricula in schools emphasise the importance of educating a scientifically literate public for democratic participation in science and technology. While such an aspiration is seemingly uncontentious and appears consistent with progressive educational thinking, the reality of democratic participation is problematic. I propose four frameworks for describing democratic participation in schools. The first two – deficit and deliberative democracy – fulfil a limited role for democratic participation. ‘Science education as praxis’ and ‘science education for conflict and dissent’ present more radical programmes but reflect tensions with the dominant discourse of scientific literacy and citizenship as reflected in school curricula. To operationalise aspects of democratic participation, teachers need to make explicit the role of scientific knowledge and decision‐making within each framework. While radical change is likely to meet with resistance, this process will in turn generate new discourses about the problems and opportunities of democratic participation.     

The challenges of learning to live together: navigating the global,national, and local

Asia Pacific Education Review - How people are to live together well in society, and learn to live together, have been continuously debated. These are challenging tasks, as the world changes over...     

Inclusion and the special educational needs (SEN) resource base in mainstream schools: physical factors to maximise effectiveness

As a society, we have a responsibility to provide an inclusive built environment. As part of the need to promote inclusion, there is now a growing trend to place pupils with special educational needs (SEN) into a mainstream school setting. This is often facilitated by providing a specialist SEN resource base located within the mainstream school. This article outlines why the whole school should be considered when locating and implementing a SEN resource base. It also highlights the wider opportunities for enhancing inclusion for pupils with SEN when giving holistic thought to the wider context of the resource base. It then indicates a four‐stage approach, using the illustrative example of a pupil with autistic spectrum disorder (ASD), to help evaluate the optimum SEN resource base location within a mainstream school setting. Finally it highlights some benefits and challenges of an enriched school environment for all pupils when considering genuine inclusion.     

A model for bridging the gap between neuroscience and education

As the brain sciences make advances in our understanding of how the human brain functions, many educators are looking to findings from the neurosciences to inform classroom teaching methodologies. This paper takes the view that the neurosciences are an excellent source of knowledge regarding learning processes, but also provides a warning regarding the idea that findings from the laboratory can be directly transposed into the classroom. The article proposes a model of five levels which describe different types of knowledge that must all contribute to new teaching methodologies. These include the levels of neuroscience, cognitive neuroscience, psychology, educational theory and testing, and finally the classroom.     

Engineering design processes in seventh-grade classrooms: bridging the engineering education gap

This paper reports on some findings from the first year of a three-year longitudinal study, in which seventh- to ninth-graders were introduced to engineering education. Specifically, the paper addresses students’ responses to an initial design activity involving bridge construction, which was implemented at the end of seventh grade. This paper also addresses how students created their bridge designs and applied these in their bridge constructions; their reflections on their designs; their reflections on why the bridge failed to support increased weights during the testing process; and their suggestions on ways in which they would improve their bridge designs. The present findings include identification of six, increasingly sophisticated levels of illustrated bridge designs, with designs improving between the classroom and homework activities of two focus groups of students. Students’ responses to the classroom activity revealed a number of iterative design processes, where the problem goals, including constraints, served as monitoring factors for students’ generation of ideas, design thinking and construction of an effective bridge.     

Learning to support learning together: an experience with the soft systems methodology

An action research approach called soft systems methodology (SSM) was used to foster organisational learning in a school regarding the role of the learning support department within the school and its relation with the normal teaching‐learning activities. From an initial situation of lack of coordination as well as mutual misunderstanding and distrust among some of the actors in the situation, eight months of work yielded as a result a better working environment among the participants, the creation of a volunteer discussion group functioning on a permanent basis, and a clarification and modification of some of the learning support activities. This change can also be described as learning by learning support staff, school teachers and administrators on how to work together, as well as on how to support children's learning in a better way. Nevertheless, another event that occurred after the intervention shows the importance of considering a wider system than that limited by the participants in the intervention.     

The challenge of repositioning: Teacher learning in the company of others

In this article, the author uses positioning theory to better understand the complexity of teacher learning about culture in the company of diverse colleagues. Analysis of a yearlong dialogic professional development experience among high school English teachers revealed that although an African American male's storyline informed the group of otherwise white teachers, his position as cultural “expert” limited his and his colleagues ability to reposition themselves. Teacher educators working with increasingly diverse teacher cohorts must consider how best to maximize learning opportunities, open communication, and free participants from subject positions (such as “expert”) that may inhibit overall group learning.     

Rethinking Learner Support: The challenge of collaborative online learning

The use of computer-mediated communication (CMC) as an integral part of the design of distance taught courses raises interesting challenges to our thinking about course design and learner support. These have typically been conceptualised as two complementary but distinct systems in distance education, characterised by different practices often carried out by different groups of staff. Where CMC is designed as an integral part of the course, with collaborative learning as essential to assessment and study, this separation breaks down. The design of online activities is integral to both learner support and the course content, with new possibilities for open and distance learning as a result. Where the learning group itself is a resource for study and personal development, it also becomes feasible to orientate courses and programmes towards local teams and communities. Online tutors play a key role and need to develop 'the technology of conversation' and expertise in the design of activities, as part of their facilitator role.     

Across the great divide: bridging the gap between understanding of toddlers' and older children's thinking

Research on very young children's cognitive development differs greatly from research on cognitive development in older children. The differences include the questions that are asked, the methods that are used to address them, the measures that are employed to provide relevant evidence, and the level of detail at which children's knowledge is represented. The research approaches are so different that they create an impression that infants' and toddlers' thinking differs qualitatively from that of preschoolers and older children. This impression, however, may reflect differences in research approaches rather than differences in children's thinking. In the present study, we attempted to bridge this gap by applying to toddlers a type of process analysis that has proved fruitful in studies of older children. Overlapping waves theory, trial-by-trial strategy assessments, and microgenetic methods were used to analyze 1.5- and 2.5-year-olds' problem solving and learning. The results demonstrated that changes in toddlers' strategies could be assessed reliably on a trial-by-trial basis, that the changes followed the basic form predicted by the overlapping waves model, and that analyses of toddlers' strategies could tell us a great deal about both qualitative and quantitative aspects of their learning. A componential analysis of learning that previously had been applied to older children also proved useful for understanding toddlers' learning. The analysis specified that cognitive change frequently involves five components: acquisition of new strategies; strengthening of the strategies in their original context; improved mapping of strategies onto novel problems; increasingly refined choices among variants of the strategies; and increasingly skillful execution of the strategies. Independent measures of these components indicated that strategic development in toddlers involves improvements in all five components. Analyses of individual differences in learning showed that the effects of distal variables, such as age and sex, could be partially explained in terms of their influence on mastery of the components, but that the distal variables exercised additional direct effects as well. The process of learning in toddlers closely resembled that of older children in other ways as well. Like older children, toddlers use multiple strategies over the course of learning; their choices among strategies are quite adaptive from early on; their choices become progressively more adaptive as they gain experience with the task; they switch strategies not only from trial to trial but within a single trial; their transfer of learning from one problem to the next is primarily influenced by structural relations between problems but also is influenced by superficial features; they show utilization deficiencies early in learning that they gradually overcome; and they show individual differences in learning that fall into a few qualitatively distinct categories. Perhaps most striking, the 1.5- and 2.5-year-olds emerged as active learners, who continued to work out the lessons of previous instruction in the absence of further instruction. That is, they integrated the lessons of their own problem-solving efforts with the previous instruction in ways that magnified the initial effects of the instruction. Overall, the findings indicated that the gap can be bridged; that theories, methods, measures, and representations of knowledge typically used with older children can improve our understanding of toddlers' problem solving and learning as well.     

Hypertext and compact discs: the challenge of multi-media learning

The role of the computer should be organising and representing knowledge to give the user easy access and control, rather than trying to create a model of the learner and seeking to prescribe her route through it. Hypertext is high-level software through which the learner explores and interacts with knowledge. Users can pursue a variety of suggested trails through the material, or they can create new pathways for themselves and others to follow, by forging new links and even by extending the material. Hypertext is inherently multi-user, blurring the distinction between author, editor and reader. Hypermedia is a name sometimes given to the multi-media capability of hypertext, emphasising the way in which users can combine, edit and orchestrate sounds, graphics, moving pictures, texts and computer software, at the click of a mouse.
Compact disc technology provides the perfect partner to hypertext, offering extremely dense, robust and flexible storage. Products such as CD-ROM (compact disc read-only memory) and CD-I (compact disc interactive), and technologies such as DVI (digital video interactive), offer immense scope for multi-media learning. Educational technologists face an urgent challenge to harness the power of this combination.     

Teaching about thermal expansion: investigating the effectiveness of a cognitive bridging approach

Background: It is widely known that for many students it is very difficult to correctly predict how thermal expansion affects the appearance of a metal plate with a circular hole. Interviews with school teachers show that the source of this difficulty could stem from the fact that students’ internal visualizations of an arbitrary object’s thermal expansion often boil down to visualizing changes along one dimension only.

Purpose: In this study, we investigated how students’ mental models about one-dimensional expansion can be extended for purposes of running mental simulations about expansion along two dimensions.

Sample: To that end a pretest-posttest quasi-experiment has been conducted, with 100 students in the control group and 95 students in the experimental group.

Design and methods: Whereas control group students received traditional instruction with a focus on formal representations, in the experimental group the students were led to draw an analogy between heating of a straight rod and a circular rod of same length, whereby the internal structure of the rods was represented by springs.

Results: Eventually, it has been found that students from the experimental group were significantly more successful at predicting the effects of thermal expansion, especially within contexts of objects with holes.

Conclusion: Analogies and extreme case reasoning can be effectively used for helping the students to correctly transfer their mental models about one-dimensional expansion to situations that require reasoning about expansion along two dimensions.     

机遇与挑战:与时俱进的高等教育大众化

21世纪初的前十年,是我国高等教育实现大众化的机遇与挑战并存的关键阶段。本文认为,高等教育大众化的关键是要确立多样化和整体化的质量观。只有这样,才能正确认识和处理我国高等教育大众化发展过程中的一些具体问题。为建设高等教育强国,必须做到高等教育精英化与大众化同步发展。因此,作为复杂多元的现代化进程之一——我国高等教育大众化,具有与时俱进的现实意义。