Carries motor and sensory nerves from the brain to the rest of the body and vice versa via the spinal cord
Responsible for autonomic functions such as breathing and heart rate
Most developed part of the brain at birth
Cerebellum:
Located near the top of the spinal cord
Plays a very important role in the co-ordination of movement, e.g. balance
Sensorimotor function: Co-ordinates sensory information with motor activity
Has some input on language and emotion
One of the last parts of the brain to reach maturity
Thalamus:
Located deep inside the brain
Two of them, one for the left and the right
Size and shape of a walnut
Receives sensory signals from the retina in the eye and sends the signals to the visual area where they are processed
Co-ordinates motor signals
Cortex:
Divided into two halves
Only 3mm thick and is only found in mammals
Thinking, or cognition, happens in the frontal cortex
Sensory processing takes place in various places such as the visual area and the auditory area
Motor processing is controlled by the motor area (at the sides of the brain, near the top), which directs movement
Begins to function in the womb but continues to develop throughout our lives
Piaget’s theory:
Suggested that young children are not able to think logically, but as they get older, their brains develop and they are able to access different types of thinking
Children are born with only a small number of schemas
Schemas become more complex through assimilation and accommodation
Assimilation: Understanding a new experience and adding that new information to existing schema
Accommodation: Developing the detail of each existing schema and creating new ones
High testability and real-world application
Conservation: Difficulty in understanding quantity
Egocentricity:
Seeing the world from only one’s point of view
Piaget’s three mountains experiment showed children under 7 can only think from their own perspective
Stages of cognitive development:
Sensorimotor stage (0-2 years old): Focus on physical sensations and basic physical co-ordination, object permanence develops around 8 months
Pre-operational stage (2-7 years old): Lack of conservation, egocentricity, and operational thinking
Concrete operational stage (7-11 years old): Can conserve and view the world from multiple perspectives, better reasoning abilities
Formal operational stage: Capable of formal reasoning and scientific reasoning
Hughes’ policeman doll study:
Showed that children could understand tasks that made social sense for them
Young children could cope better with egocentrism tasks than Piaget predicted
Still age differences in children’s thinking
Application to education:
Readiness: Children must be biologically ready for learning
Learning by discovery: Children must discover concepts themselves for true understanding
Individual learning: Children go through stages of cognitive development at different rates, teachers must arrange activities accordingly
Application to education (to stages):
Sensorimotor stage: Provide a rich, stimulating environment with opportunities to experiment
Pre-operational stage: Games involving role play and hands-on activities to reduce egocentricity
Concrete operational stage: Use concrete materials for manipulation and practical activities like cooking
Formal operational stage: Focus on formal reasoning and scientific thinking
Cooking is a useful activity because it involves practical work and following a logical sequence of tasks
Formal operational stage
Scientific activity helps develop an understanding of logic
Discussions in groups enable young people to do idealistic thinking, such as imagining their ideal world
The Plowden Report was published in 1967 to review primary school education in the UK and make recommendations for changes, drawing extensively from Piaget’s theory
Peter Bryant and Tom Trabasso (1971) showed that pre-operational children could improve logical tasks with practice, challenging the idea that education should be centered around Piaget’s stages of development
Neville Bennett (1976) found that traditional formal teaching methods were more effective than Piaget’s active approach in tasks like reading, maths, and English
Carol Dweck's theory explains the difference between growth mindset and fixed mindset
Growth mindset:
Believe they can improve at any time
Value effort and enjoy challenges
Focus on learning goals and feel good when working hard
Fixed mindset:
Believe intelligence and abilities are fixed
Rely on winning prizes or test results as evidence of abilities
Don't believe hard work can improve skills
Key issue with success is how individuals deal with failure:
Fixed mindset individuals see failure as a sign of lack of talent and give up
Growth mindset individuals see failure as an opportunity to learn and improve
Dweck's theory can be taught and applied in various settings like schools, sports, relationships, and business
Praise is a reward that makes individuals feel good and encourages them to repeat behaviors
Praise must be honest, sincere, deserved, and in proportion to performance quality
Praising effort rather than performance gives students a variable they can control
Self-efficacy is the belief in one's competence and affects motivation and effort
People have different learning styles:
Verbalisers prefer words and auditory processing
Visualisers prefer pictures and visual processing
Kinaesthetic learners prefer hands-on experiences
Low self-efficacy leads to lower performance, known as stereotype threat
Criticism for not trying harder can improve performance more than praise
Traditional teaching focused too much on verbal methods alone
Harold Pashler (2008) found no experimental evidence supporting the idea that matching instruction to learning styles improves performance
Frank Coffield (2004) identified 71 learning styles, making the concept unworkable
Willingham's learning theory focuses on improving teaching and learning through cognitive psychology research
Praise should be unexpected to maintain natural motivation
Memory and forgetting: focus on retrieving information from memory rather than memorizing
Self-regulation involves controlling behavior and cognitive processes
Neuroscience can help understand learning disorders by studying brain functioning
Specific brain patterns in dyslexia could lead to early interventions for better progress