Higher Mental Functions of the Brain: Language
Language and Cognition
Language Development
Language
Lateralization
Components of Language
You might also read
Articles linked to this work by shared authors, journal, and citation graph.
Updated: Apr 6, 2026

Transcranial Direct Current Stimulation tDCS of Wernicke's and Broca's Areas in Studies of Language Learning and Word Acquisition
Published on: July 13, 2019
Gary Lupyan1, Benjamin Bergen2
1Department of Psychology, University of Wisconsin-Madison.
This article explores how human language transforms the mind from a simple trainable system into a programmable one. By using language to manipulate internal sensorimotor representations, humans gain a unique capacity for complex learning and knowledge transmission. This shift represents a major evolutionary leap in how our species interacts with the world.
13:12Translational Brain Mapping at the University of Rochester Medical Center: Preserving the Mind Through Personalized Brain Mapping
Published on: August 12, 2019
10:15Utilizing Repetitive Transcranial Magnetic Stimulation to Improve Language Function in Stroke Patients with Chronic Non-fluent Aphasia
Published on: July 2, 2013
Area of Science:
Background:
The transition from basic animal training to complex human cognition remains poorly understood in behavioral science. No prior work has fully resolved how early childhood development facilitates this cognitive shift. It was already known that various species learn through reinforcement and repetition. However, the specific mechanism enabling human programmability stays elusive. That uncertainty drove researchers to investigate the unique influence of linguistic systems. Prior research has shown that language serves as a primary tool for social interaction. This gap motivated a deeper look into the cognitive architecture of the mind. That inquiry suggests that language acts as a catalyst for advanced mental processing.
Purpose Of The Study:
The aim of this study is to explain how language programs the human mind. Researchers sought to identify the factors that enable the transition from trainable to programmable states. They addressed the problem of why humans exhibit unique cognitive capabilities compared to other animals. This inquiry was motivated by the need to understand the evolution of complex mental processing. The authors explored the hypothesis that language serves as the primary tool for this cognitive shift. They examined how linguistic systems interact with embodied sensorimotor representations. This work addresses the gap in understanding the developmental origins of human programmability. The study provides a theoretical foundation for analyzing the role of language in mental control.
Main Methods:
The review approach synthesizes theoretical frameworks regarding animal training and human cognitive development. Researchers evaluated existing literature on how organisms acquire novel behavioral patterns. They contrasted basic reinforcement learning with the complex linguistic processing observed in humans. The study examined developmental milestones occurring during early childhood transitions. Investigators analyzed the relationship between linguistic input and internal mental states. They scrutinized how sensorimotor systems contribute to the formation of representations. The team assessed evolutionary theories to explain the emergence of programmable minds. This analysis integrated diverse findings to construct a unified model of human cognition.
Main Results:
The strongest finding indicates that language facilitates a qualitative leap from trainable to programmable cognition. Evidence suggests that this transition occurs during early childhood development. Researchers identified that linguistic systems manipulate embodied sensorimotor representations to achieve this effect. The study demonstrates that this programmability enhances the transmission of knowledge between individuals. Findings indicate that language acts as the primary driver for this cognitive evolution. The analysis shows that human interaction is fundamentally altered by these programmable mental structures. The authors report that this mechanism explains the unique complexity of human learning. Data support the claim that language provides a distinct advantage in behavioral flexibility.
Conclusions:
The authors propose that language functions as a mechanism for programming human mental states. This transition marks a significant evolutionary advancement in cognitive capacity. Synthesis and implications suggest that linguistic use alters how organisms process information. The researchers argue that this shift enables more efficient knowledge transmission across generations. They posit that language controls internal representations through sensorimotor manipulation. This framework provides a new perspective on the origins of human intelligence. The study highlights how linguistic systems facilitate complex behavioral flexibility. These findings offer a basis for future inquiries into cognitive evolution.
The researchers propose that language enables programmability by manipulating embodied, sensorimotor representations. This process allows humans to control their mental states beyond simple reinforcement learning, distinguishing them from other animals that rely solely on training.
Programmability refers to the qualitative leap in cognitive function where humans move beyond basic training. This state allows for sophisticated knowledge transmission and complex interaction, which are not observed in species that lack linguistic capabilities.
The authors argue that language is necessary for this cognitive transition because it provides the symbolic structure required to reorganize sensorimotor data. Without this linguistic framework, the mind remains limited to the associative learning patterns seen in other biological organisms.
Language acts as a control system for internal mental representations. By manipulating these sensorimotor inputs, linguistic structures allow individuals to simulate, plan, and execute novel tasks in ways that are not possible through simple trial-and-error methods.
The authors suggest that this cognitive shift occurred during early childhood. This developmental window is when humans transition from being merely trainable to becoming programmable, allowing for the rapid acquisition of complex cultural and social knowledge.
The researchers propose that understanding this programming capacity offers insights into the origin and evolution of human cognition. By identifying how language shapes the mind, they provide a framework for studying the unique trajectory of human intelligence compared to other species.