SP 1: Conceptual Development and Causal Reasoning Flashcards

Week 1

1
Q

development of concepts in children

A

1st: ability to distinguish between physical concepts (teddy vs. bottle)
later: ability to understand abstract concepts (measurement, time)

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2
Q

categorisation

A

the ability to treat a set of things as somehow equivalent
- form of inductive reasoning
- categories allow for: 1) prediction, 2) communication, 3) abstract thought

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3
Q

3 levels of inclusiveness (based on how many features in common)

A

1) superordinate (animal)
2) basic (dog)
3) subordinate (labrador)

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4
Q

categorisation and neuroscientific insights

A
  • mental representation
  • multimodal inferences
    categorisation is supported by learning mechanisms of neural information coding, which allows us to form summaries as basis for conscious perception
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5
Q

mental representation

A

summarizing inputs, to handle large chunks of information

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6
Q

prototypes

A

highly typical basic objects

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7
Q

measuring categorisation

A

1) looking tasks (using habituation)
2) sequential touching tasks
3) sorting and matching-to-sample tasks

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8
Q

1) looking task (habituation)

A

‘respond to things the same way’
- method: non-verbal looking preference paradigm
- age: 3-4 months
- categorisation based on perception
after habituation, infants look longer at new animal (at basis level)

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9
Q

2) sequential touching tasks: prototypical objects

A

‘respond to things the same way’
- method: contrasts between toys
(basic level: cars vs. aeroplanes
superordinate/global level: animal vs. vehicle)
- 13 m/o: basic level (cars vs aeroplanes)
- 16-20 m/o: basic and superordinate level (animal vs. vehicle)

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10
Q

2) sequential touching tasks: non-prototypical objects

A

‘respond to things the same way’
- 13 m/o: no systematic behavior
- 16 m/o: basic level
- 20 m/o: no systematic behavior
- 24 m/o: superordinate level
- 28 m/o: basic and superordinate level

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11
Q

effect of typicality

A

performance on prototypical objects sets was greater than on non-prototypical object sets

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12
Q

3) sorting and matching to sample tasks

A

‘put things in the same pile’
- 19 m/o can do basic and superordinate level (but better at basic)
- 4-5 y/o performed well but more difficulty distinguishing inanimate from animate objects

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13
Q

which level develops first?

A

1) Rosch: Prototype Theory
2) Quinn and Mandler: Children find it easier to distinguish vehicles from animals, than dogs from horses
superordinate: based on knowledge
basic: based on perceivable features

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14
Q

1) Rosch: prototype theory

A

Basic level emerges first

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15
Q

2) Quinn and Mandler: easier to distinguish vehicles from animals than dogs from horses

A

Superordinate level emerges first

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16
Q

language: thematic relations

A

bees go with honey
- objects of categories are often seen together with objects of other categories

17
Q

language: categorical relations

A

bees go with butterflies
- objects of categories look similar to objects of other categories

18
Q

biological/non-biological entities and development in children

A
  • 2 day olds can distinguish biological motion light displays from random light displays
  • 7-13 y/o showed no age-related differences in brain activity in response to watching biological motion displays
  • sensitivity to biological motion related to activity to ‘social brain areas’
  • eye-tracking: 14 m/o use biological motion to detect human interaction
19
Q

anthropocentrism

A

the understanding of biology emerges out of their understanding of people

20
Q

ability to categorise develops rapidly in infancy and early childhood:

A
  • from perceptual to conceptual
  • from general to specific
  • from intuitive to factual
21
Q

learning how the world works: explaining actions from…

A

…people: Theory of Mind
…things: causal reasoning

22
Q

learning by playing

A

toys: trigger early form of causal reasoning
- if I do X, Y will happen

23
Q

types of reasoning

A

1) inductive reasoning
2) deductive reasoning

24
Q

1) inductive reasoning

A

specific -> general
- not logically valid, but useful for forming hypotheses
- easier for children than deductive reasoning

25
Q

2) deductive reasoning

A

general -> specific
- logically valid
- more difficult for children than inductive reasoning

26
Q

analogy

A

form of inductive reasoning
- based on specific examples, to make general statements
- like testing on animals in medical science

27
Q

false analogies

A

comparison between 2 things that are different in an essential way

28
Q

syllogism

A

form of deductive reasoning
- 2 premises, 1 conclusion

29
Q

early causality understanding

A

expectation violation (gravity)
- 7.5-9.5 m/o look longer at impossible events

30
Q

development of causal reasoning: transformations of familiar objects

A

canonical form -> causal agent -> noncanonical form
- 3 y/o already do well on this task

31
Q

development of inductive reasoning

A

generally, 3 y/o do well with analogies

32
Q

development of deductive reasoning

A

4 y/o children do well with syllogisms

33
Q

Hume’s causality theory: 4 causal principes

A

people think that X causes Y when:
1) priority: X occurs before Y in time (we see causes before effects)
2) covariation: if X occurs, Y also occurs
3) temporal contiguity: X and Y are sequential (close) in time
4) similarity: all things being equal causes and effects should be similar in nature

34
Q

priority principle

A

Jack in the box; which marble made jack pop up?
3 y/o are good at this

35
Q

covariation principle

A

which switch turns on the lights?
3 y/o can already figure this out

36
Q

which is most important?

A

depends on context and background information