Published
Dec 19, 2024
Updated
Dec 19, 2024

Can LLMs Grasp Meaning? An Inferentialist Perspective

Do Large Language Models Defend Inferentialist Semantics?: On the Logical Expressivism and Anti-Representationalism of LLMs
By
Yuzuki Arai|Sho Tsugawa

Summary

Large language models (LLMs) like ChatGPT have undeniably shaken up the world of language and artificial intelligence. They can generate human-quality text, translate languages, and even write different kinds of creative content. But beneath the surface of these impressive feats lies a fundamental question: do LLMs truly *understand* the meaning of the words they use, or are they simply sophisticated mimics? This question takes us into the fascinating realm of philosophy, specifically the debate between two opposing views of language: representationalism and anti-representationalism. Representationalism, the traditional view, sees language as a mirror reflecting the world. Words have meaning because they correspond to objects and concepts in external reality. Anti-representationalism, on the other hand, argues that meaning arises from the *use* of language within a system of rules and inferences, not from direct connections to the external world. Think of it like a game of chess: the meaning of a piece comes from its allowed moves and its role in the game, not from any inherent properties. New research suggests that LLMs might fit better into this anti-representationalist view, specifically a theory called *inferentialism*. Inferentialism argues that meaning is derived from the inferential relationships between words and sentences—how they are used to reason and draw conclusions. Instead of asking whether a sentence corresponds to reality, inferentialism asks what conclusions can be drawn from it, and what other sentences it can be used to justify. This resonates with how LLMs operate: they learn the statistical relationships between words and phrases from massive datasets of text, enabling them to generate new text that *feels* meaningful based on these learned patterns. They're not connecting words to external reality but rather mastering the complex web of inferential connections within language itself. This research dives into the technicalities of how LLMs process information, drawing parallels with inferentialism's core principles of inference, substitution, and anaphora (how words refer to other words). It explores how LLMs handle logical reasoning, the limitations of compositionality (the idea that the meaning of a phrase is built up from the meanings of its parts), and the ways in which LLMs resolve references within a text. The implications of this research extend beyond mere theoretical debates. If LLMs truly operate according to inferentialist principles, it suggests they construct their own internal ‘worlds’ of meaning, shaped by the data they've been trained on. This raises crucial questions about the potential biases encoded within these models, the limits of their understanding, and the ethical implications of deploying them in real-world scenarios. As LLMs become increasingly integrated into our lives, grappling with these philosophical questions is essential to understanding the nature of both language and artificial intelligence.
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Question & Answers

How do Large Language Models process information according to inferentialist principles?
LLMs process information by learning and utilizing inferential relationships between words and phrases, rather than mapping them directly to external reality. The process involves three key mechanisms: 1) Pattern recognition across massive datasets to identify statistical relationships between words, 2) Construction of contextual meaning through learned inferential connections, allowing the model to understand how different words and concepts relate to each other, and 3) Application of these learned patterns to generate contextually appropriate responses. For example, when an LLM encounters the word 'bank,' it doesn't simply match it to a physical building, but understands its meaning through its relationships with concepts like 'money,' 'savings,' 'financial institution,' and its various contextual uses.
What are the main benefits of understanding AI language models from a philosophical perspective?
Understanding AI language models through a philosophical lens helps us better grasp their capabilities and limitations in practical applications. This knowledge enables organizations to make more informed decisions about AI implementation, avoid potential pitfalls, and set realistic expectations for AI performance. For example, knowing that LLMs create meaning through pattern recognition rather than true understanding can help businesses design more effective AI interactions, improve user experience, and identify appropriate use cases. This perspective also helps in addressing ethical concerns and potential biases in AI systems, making their deployment more responsible and effective.
How is artificial intelligence changing the way we think about language and meaning?
AI is revolutionizing our understanding of language by challenging traditional views about meaning and comprehension. Rather than viewing language as a simple mirror of reality, AI systems demonstrate that meaning can emerge from complex patterns and relationships within language itself. This shift has practical implications for how we develop communication systems, educational tools, and business applications. For instance, this new understanding helps create more effective translation services, content generation tools, and customer service chatbots. It also raises important questions about the nature of understanding and consciousness in artificial systems.

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  2. The paper's focus on inferential relationships and logical reasoning capabilities suggests the need for sophisticated testing frameworks to evaluate LLM understanding and reasoning patterns
Implementation Details
Develop test suites that specifically evaluate inferential reasoning, logical consistency, and reference resolution across different contexts and use cases
Key Benefits
• Systematic evaluation of LLM reasoning capabilities • Detection of logical inconsistencies and biases • Measurement of contextual understanding accuracy
Potential Improvements
• Add specialized metrics for inferential reasoning • Implement comparative testing across different LLM architectures • Develop automated bias detection in reasoning patterns
Business Value
Efficiency Gains
Reduces time spent manually evaluating LLM reasoning capabilities
Cost Savings
Prevents deployment of poorly reasoning models that could lead to costly errors
Quality Improvement
Ensures consistent logical reasoning across LLM applications
  1. Analytics Integration
  2. The paper's emphasis on understanding how LLMs construct meaning suggests the need for detailed performance monitoring and pattern analysis
Implementation Details
Deploy analytics tools to track inferential patterns, monitor reasoning consistency, and analyze usage patterns across different contexts
Key Benefits
• Deep insights into LLM reasoning patterns • Early detection of semantic drift • Performance optimization based on usage patterns
Potential Improvements
• Add semantic coherence tracking • Implement inference chain visualization • Develop meaning construction analytics
Business Value
Efficiency Gains
Enables data-driven optimization of LLM applications
Cost Savings
Identifies and eliminates inefficient reasoning patterns
Quality Improvement
Ensures consistent semantic understanding across applications

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