Goswami’s Conclusions on Pedagogy
How many times have you heard an adult claim “oh it’s because they’re kids” or “they’re just kids”? When observing children it is evident that children behave differently to adults but, Goswami argues children do reason like adults but they lack metacognition skills. From my observations I have seen teachers ask children to reflect on their thinking whether this is traffic lighting their work, asking them to explain their thinking to the class or asking why they think that. For example, in a computing lesson, using the motivating computing programme Scratch involving child-led creation, the teacher asked the children to explain what their sprites (characters) would do before showing the rest of the class. Therefore, the children had to understand what they had created, how it was going to work and their thought processes behind their creation. The National Forum on Early Childhood Policy and Programs and the National Scientific council on the Developing Child in one of their papers claim children considering how they think enables cognitive flexibility. Cognitive flexibility allows us to apply different rules in various settings, ‘think outside the box’ and consider things from a multiple of perspectives. Having these abilities results in children being more likely to succeed in school. Therefore, in my teaching practice, I need to ensure children use self-reflective practices from traffic lighting their work, asking “why they think a certain way” and other techniques. This in turn, should begin to allow children to gain metacognition skills and be more effective in their work. However, this may be a struggle due to time pressures in the curriculum hence it has to be carefully considered in my planning (Larkin, 2009).
In addition, to children lacking metacognition skills Goswami states an important argument in education is whether a child’s brain has the same structures of an adult brain and hence need enrichment and multi-sensory environments. Before, studies (Felder and Silverman, 1988) have focused on a uni–sensory approach defining people into visual, auditory and kinaesthetic learners (VAK). However, how can a child learn to ride a bicycle just through audible learning? Goswami argues against this model, stating teachers need to actively encourage multi-sensory environments because learning depends on different regions of the brain being stimulated from visual, memory, perceptual and many more. This is supported by various academics from Sham and Seitz’s research, Blomer & Froyen’s research and others. I have observed this change in paradigm in the classroom. For example, in a Math’s lesson number symbols are used alongside resources, real-life examples, videos and games to ensure children’s understanding from a multi-sensory approach. In a National College for Teaching and Leadership report of one school exploring a multi-sensory approach in maths in Year 4 with a 12-week Numicon project. They found children’s confidence improved significantly in maths.
%Happy | %Ok | %Sad | |
Before intervention | 61 | 27 | 12 |
After Intervention | 63 | 35 | 2 |
However, this is a very small-scale study in one school and therefore is not generalizable. In spite of this, I have observed children’s understanding of a concept become clearer if they use resources such as numicon or comparing the maths to a real life example or practicing their timetables in a partner game. Furthermore, with the other research stated above multi-sensory learning environments should be aimed for in the classroom.
In conclusion, I aim to include time for children to self-reflect to improve their metacognition skills and to have a multi-sensory classroom environment to ensure effective learning is achieved.
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References:
Felder, R.M. and Silverman, L.K., (1988) Learning and teaching styles in engineering education. Engineering education, 78(7), pp.674-681.