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Categorial Compositionality II: Universal Constructions and a General Theory of (Quasi-)Systematicity in Human Cognition

机译:类别组合性II:普遍性构造和人类认知(准)系统性的一般理论

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摘要

A complete theory of cognitive architecture (i.e., the basic processes and modes of composition that together constitute cognitive behaviour) must explain the systematicity property—why our cognitive capacities are organized into particular groups of capacities, rather than some other, arbitrary collection. The classical account supposes: (1) syntactically compositional representations; and (2) processes that are sensitive to—compatible with—their structure. Classical compositionality, however, does not explain why these two components must be compatible; they are only compatible by the ad hoc assumption (convention) of employing the same mode of (concatenative) compositionality (e.g., prefix/postfix, where a relation symbol is always prepended/appended to the symbols for the related entities). Architectures employing mixed modes do not support systematicity. Recently, we proposed an alternative explanation without ad hoc assumptions, using category theory. Here, we extend our explanation to domains that are quasi-systematic (e.g., aspects of most languages), where the domain includes some but not all possible combinations of constituents. The central category-theoretic construct is an adjunction involving pullbacks, where the primary focus is on the relationship between processes modelled as functors, rather than the representations. A functor is a structure-preserving map (or construction, for our purposes). An adjunction guarantees that the only pairings of functors are the systematic ones. Thus, (quasi-)systematicity is a necessary consequence of a categorial cognitive architecture whose basic processes are functors that participate in adjunctions.
机译:完整的认知体系结构理论(即共同构成认知行为的基本过程和构成模式)必须解释系统性,即为什么我们的认知能力被组织为特定的能力组,而不是其他任意的能力集合。经典的假设是:(1)句法构成表示法; (2)对其结构敏感(兼容)的过程。然而,经典的组合性并不能解释为什么这两个组成部分必须兼容。它们仅通过采用相同(连接)组成方式的临时假设(惯例)兼容(例如,前缀/后缀,其中关系符号始终在相关实体的符号之前/之后)。采用混合模式的体系结构不支持系统性。最近,我们使用类别理论提出了一种无需特殊假设的替代解释。在这里,我们将解释扩展到准系统性领域(例如,大多数语言的各个方面),其中该领域包括部分但并非全部可能的成分组合。中心类别理论构造是涉及回撤的附加功能,其中主要侧重于建模为函子的过程之间的关系,而不是表示形式。函子是保存结构的地图(或出于我们的目的构造)。附加条件保证函子的唯一配对是系统的。因此,(准)系统性是分类认知体系的必要结果,其基本过程是参与附加的函子。

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