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| title | chunk | source | category | tags | date_saved | instance |
|---|---|---|---|---|---|---|
| Biolinguistics | 3/9 | https://en.wikipedia.org/wiki/Biolinguistics | reference | science, encyclopedia | 2026-05-05T15:12:54.694527+00:00 | kb-cron |
The Minimalist program (MP) was introduced by Chomsky in 1993, and it focuses on the parallel between language and the design of natural concepts. Those invested in the Minimalist Program are interested in the physics and mathematics of language and its parallels with our natural world. For example, Piatelli-Palmarini studied the isomorphic relationship between the Minimalist Program and Quantum Field Theory. The Minimalist Program aims to figure out how much of the Principles and Parameters model can be taken as a result of the hypothetical optimal and computationally efficient design of the human language faculty and more developed versions of the Principles and Parameters approach in turn provide technical principles from which the minimalist program can be seen to follow. The program further aims to develop ideas involving the economy of derivation and economy of representation, which had started to become an independent theory in the early 1990s, but were then still considered as peripherals of transformational grammar.
===== Merge ===== The Merge operation is used by Chomsky to explain the structure of syntax trees within the Minimalist program. Merge itself is a process which provides the basis of phrasal formation as a result of taking two elements within a phrase and combining them In A.M. Di Sciullo & D. Isac's The Asymmetry of Merge (2008), they highlight the two key bases of Merge by Chomsky;
Merge is binary Merge is recursive In order to understand this, take the following sentence: Emma dislikes the pie This phrase can be broken down into its lexical items: [VP [DP Emma] [V' [V dislikes] [DP [D the] [NP pie]]]]
The above phrasal representation allows for an understanding of each lexical item. In order to build a tree using Merge, using bottom-up formation the two final elements of the phrase are selected and then combined to form a new element on the tree. In image a) you can see that the determiner the and the Noun Phrase pie are both selected. Through the process of Merge, the new formed element on the tree is the determiner Phrase (DP) which holds, the pie, which is visible in b).
===== Core components ===== In a minimalist approach, there are three core components of the language faculty proposed: Sensory-Motor system (SM), Conceptual-Intentional system (CI), and Narrow Syntax (NS). SM includes biological requisites for language production and perception, such as articulatory organs, and CI meets the biological requirements related to inference, interpretation, and reasoning, those involved in other cognitive functions. As SM and CI are finite, the main function of NS is to make it possible to produce infinite numbers of sound-meaning pairs.
==== Relevance of natural law ==== It is possible that the core principles of The Faculty of Language be correlated to natural laws (such as for example, the Fibonacci sequence— an array of numbers where each consecutive number is a sum of the two that precede it, see for example the discussion Uriagereka 1997 and Carnie and Medeiros 2005). According to the hypothesis being developed, the essential properties of language arise from nature itself: the efficient growth requirement appears everywhere, from the pattern of petals in flowers, leaf arrangements in trees and the spirals of a seashell to the structure of DNA and proportions of human head and body. Natural Law in this case would provide insight on concepts such as binary branching in syntactic trees and well as the Merge operation. This would translate to thinking it in terms of taking two elements on a syntax tree and such that their sum yields another element that falls below on the given syntax tree (Refer to trees above in Minimalist Program). By adhering to this sum of two elements that precede it, provides support for binary structures. Furthermore, the possibility of ternary branching would deviate from the Fibonacci sequence and consequently would not hold as strong support to the relevance of Natural Law in syntax.
==== Biolinguistics: Challenging the usage-based approach ==== As mentioned above, biolinguistics challenges the idea that the acquisition of language is a result of behavior based learning. This alternative approach the biolinguistics challenges is known as the usage-based (UB) approach. UB supports that idea that knowledge of human language is acquired via exposure and usage. One of the primary issues that is highlighted when arguing against the Usage-Based approach, is that UB fails to address the issue of poverty of stimulus, whereas biolinguistics addresses this by way of the Language Acquisition Device.
==== Lenneberg and the role of genes ==== Another major contributor to the field is Eric Lenneberg. In is book Biological Foundation of Languages, Lenneberg (1967) suggests that different aspects of human biology that putatively contribute to language more than genes at play. This integration of other fields to explain language is recognized as the strong view in biolinguistics While they are obviously essential, and while genomes are associated with specific organisms, genes do not store traits (or "faculties") in the way that linguists—including Chomskyans—sometimes seem to imply. Contrary to the concept of the existence of a language faculty as suggested by Chomsky, Lenneberg argues that while there are specific regions and networks crucially involved in the production of language, there is no single region to which language capacity is confined and that speech, as well as language, is not confined to the cerebral cortex. Lenneberg considered language as a species-specific mental organ with significant biological properties. He suggested that this organ grows in the mind/brain of a child in the same way that other biological organs grow, showing that the child's path to language displays the hallmark of biological growth. According to Lenneberg, genetic mechanisms plays an important role in the development of an individual's behavior and is characterized by two aspects: