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Ability and knowledge: from epistemic transition systems to labelled stit models.
Alexandra Kuncová1, Jan Broersen1, Hein Duijf1,2,3
1Department of Philosophy and Religious Studies, Utrecht University, Utrecht, The Netherlands.
Summary
This study differentiates causal and epistemic ability, showing how to guarantee results without knowing how. It maps epistemic transition systems to labelled stit models, demonstrating the latter
Area of Science:
- Formal epistemology and logic
- Artificial intelligence and multi-agent systems
- Philosophy of action and ability
Background:
- Distinguishing between knowing *that* one can achieve a goal and knowing *how* to achieve it is crucial in understanding ability.
- Causal ability refers to having the power to bring about an outcome, while epistemic ability relates to knowing the means to achieve it.
- Existing formalisms for modeling ability often struggle to capture this nuanced distinction.
Purpose of the Study:
- To formally model and differentiate between causal and epistemic ability.
- To establish a correspondence between epistemic transition systems and labelled stit models for representing ability.
- To demonstrate the enhanced expressiveness of labelled stit logic over epistemic transition systems.
Main Methods:
- Utilizing epistemic transition systems to represent states of knowledge and actions.
- Employing labelled stit (STIT) models, a formalism for strategic ability, to capture agency and control.
- Developing mappings between the language and structures of epistemic transition systems and labelled stit models.
Main Results:
- A formal framework is established that successfully models both causal and epistemic conceptions of ability.
- A strong correspondence is demonstrated between epistemic transition systems and labelled stit models.
- The extended labelled stit logic proves to be more expressive than the logic of epistemic transition systems.
Conclusions:
- The study provides a unified approach to understanding different types of ability within formal logic.
- The findings contribute to the development of more sophisticated models of agency and knowledge in artificial intelligence.
- The enhanced expressiveness of labelled stit models offers new possibilities for analyzing strategic reasoning and control.
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