analogy and relational reasoning
Role-based Relational Reasoning
Definition: Role-based relational reasoning involves using relational terms such as:
„bigger than”
„less than”
„is equivalent to”
„is similar to”
„is identical with”
„part of”
„lives in”
„is friend of”
„is sister of”
-Analogy as Example: Analogy serves as a key example of role-based relational reasoning. For instance, there is an analogy formed between A and B.
Key Processes in Analogical Transfer:
A target situation triggers a retrieval cue for a relevant source analog.
The establishment of a mapping occurs, involving systematic correspondences to align elements of the source and target.
Analogical inferences are derived from this mapping.
Analogy and Metaphor
Four-term Proportional Analogies:
These take the form A:B::C:D.
Example: HAND:FINGER::FOOT:?
The missing term D can be inferred (TOE) based on the relationship defined between A and B for C.
Here, A:B represents the source analog, while C:D is the target.
Nature of Analogy: Analogy is fundamentally a relationship.
Metaphors as Special Analogies:
Metaphors represent a unique form of analogy where source and target domains are semantically distant.
Example: „the evening of life”, where life (target domain) is mapped from the time of day (source domain).
Understanding Time: Time is often conceptualized through spatial metaphors:
Examples:
„My birthday is fast approaching”
„The time for action has arrived.”
A recurring metaphor is that life is viewed as a journey.
Relational Reasoning: Levels of Analysis
Questions of Interest:
What functions does human relational reasoning serve?
What algorithms enable it?
How is it neurologically implemented? (p. 239)
Computational Goals: Include:
Forming and evaluating hypotheses
Problem-solving
Comprehending new concepts
Persuasive arguing
Inductive Uncertainty: Reasoners may confront inductive uncertainty; for example, the assumption that all swans are white is an inductive generalization that can be invalidated.
Representation and Algorithm
Symbolic Connectionism:
Represents structured relations within complex neural networks.
Operates under constraints of limited human-like working memory (p. 240).
Neural Substrate:
The prefrontal cortex plays a crucial role in facilitating relational reasoning.
A Paradigm for Studying Analogical Transfer
Study Overview:
Glick and Holyoak (1980) utilized an analogy involving a general attempting to capture a fortress from a dictator.
The general deploys his army in groups across various roads, timing their arrival to capture the fortress effectively.
Analogous Problem: A tumor problem developed by Duncker (1945) is explored:
A doctor must use rays to destroy a tumor while avoiding healthy tissue damage, as high intensity harms both, and low intensity harms neither.
The solution parallels the military strategy: instead of one high-intensity ray, multiple low-intensity rays from various directions are applied, collectively achieving a harmful effect at the tumor site while preserving surrounding tissue.
Results of Glick and Holyoak (1980)
Correct Solutions:
Without a source analog: 10% of college students solved the tumor problem correctly.
With the General story used without hints: 20% solved correctly.
With instruction hints: 75% of college students found the correct solution.
Mapping Importance: Essential for analogical inference; involves identifying corresponding elements between source and target analogs.
Developmental Changes in Analogical Mapping
Early Presence of Analogical Reasoning: According to Goswami, such reasoning is evident from early infancy.
Understanding Other Minds: The role of analogy includes:
Analogical Solution to the Problem of Other Minds (J.S. Mill, Bertrand Russell)
Analogical Theory of Mind (AToM) computational model (Rabkina et al., 2017, 2018)
„Like-me” Hypothesis (A. Meltzoff): Infants employ themselves as analogies to comprehend others.