concept
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concept:can-consciousness-be-observed-from-large-language-model-llm-internal-states-dissecting-llm-representations-obtained-from-theory-of-mind-test-with-integrated-information-theory-and-span-representation-analysisCan 'Consciousness' Be Observed from Large Language Model (LLM) Internal States? Dissecting LLM Representations Obtained from Theory of Mind Test with Integrated Information Theory and Span Representation Analysis
The primary paper being extracted — applies IIT 3.0 and 4.0 to LLM representation sequences derived from ToM test data to investigate whether consciousness phenomena can be observed.
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Thinkers (28)
thinker
- David Chalmerscites
- Anil Sethcites
- Giulio TononicitesDeveloper of integrated information theory; provides formal tools for measuring integration and consciousness in systems.
- Jason WeicitesEmergent abilities of LLMs.
- Thomas NagelcitesPhilosopher referenced for 'what it's like' framework applied to understanding memory reconstruction from past self perspective.
- Douglas Hofstadtercites
- Bernard BaarscitesOriginator of Global Workspace Theory.
- Yoshua Bengiocites
- Ashish VaswanicitesLead author of 'Attention is all you need', introducing the transformer architecture
- Larissa AlbantakiscitesCo-author with Hoel and Tononi on quantitative causal emergence.
- AI researcher, co-author of articles on artificial general intelligence and evolving AI.
- David PremackcitesCo-author of the classic Theory of Mind paper.
- Masafumi OizumicitesFirst author of Oizumi, Albantakis, & Tononi (2014) 'From the phenomenology to the mechanisms of consciousness: integrated information theory 3.0'.
- Andrew HauncitesApplied IIT to ECoG data showing elevated Φ in conscious visual perception; key empirical precedent for IIT.
- Charlotte CaucheteuxcitesAuthor whose work on comparing LLM representations with human brain activity during NLP informed this study's layer sampling strategy.
- Ganesh JawaharcitesAuthor whose methodology for span representations from BERT is adopted in this study.
- Geoffrey Hintoncites
- Graham FindlaycitesCo-author of a recent paper applying IIT to distinguish intelligence from consciousness in LLMs; argues feedforward LLMs yield low Φ.
- Isaac NemirovskycitesAuthor of a key precedent study implementing IIT on resting-state fMRI data whose methodology this study closely adapts.
- James StrachancitesLead author of the ToM test dataset used in this study.
- Jingkai LiauthoredSole author of the paper; affiliated with OpenSci.World in Montréal.
- Martin SchrimpfcitesAuthor whose findings suggest intermediate-to-deep LLM layers best predict human brain activity; guides layer selection in this study.
- Matjaz GamscitesAuthor who assessed ChatGPT consciousness using IIT alongside Turing Test, concluding low integration precludes consciousness.
- Matthew PeterscitesAuthor of the span representation method (from ELMo paper) adopted in this study for computing Span Representations.
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Frameworks (6)
framework
- Integrated Information TheoryimplementsTononi et al. framework quantifying consciousness via integration; provides mathematical tools for measuring agent complexity.
- Representation Network (RN)introducesNovel construct introduced by this paper: a hypothetical graph embedded in the time series of LLM representations, where each dimension is a node and latent connections are edges.
- IIT 3.0implementsVersion 3.0 of IIT, used to compute Φmax and Conceptual Information (CI) from LLM representation networks.
- IIT 4.0implementsVersion 4.0 of IIT, used to compute Φ and Φ-structure from LLM representation networks; latest iteration at time of study.
- Span Representation AnalysisimplementsFramework for characterizing span-level information of sequences of representations, independent of any consciousness estimate; used as a comparison baseline.
- Theory of Mind (ToM)implementsThe cognitive ability to attribute mental states to oneself and others; used as the empirical domain for testing LLM representations.
Claims (9)
claim
- Primary conclusion of the study based on temporal permutation analysis failing all three criteria.
- Derived from the finding that linguistic span focusing on complements/MSV yields no significant IIT estimate changes.
- Qualified positive claim from spatio permutation analysis where two cases satisfy all three criteria.
- Forward-looking claim suggesting the methodological framework is relevant for future AI systems beyond current LLMs.
- Key theoretical position distinguishing analysis of representations from analysis of LLM architecture.
- Theoretical clarification distinguishing ToM from consciousness to frame the study's approach.
- Main interpretive finding from Criterion 3 comparison showing Span Representation consistently outperforms IIT under temporal permutation.
- Justifies PCA choice over UMAP or t-SNE for the node-structured RN model.
- Justifies the methodological choice of attention over concatenation, mean pooling, residual connections, or joint embedding.
Methods (2)
method
- Attended Response Representations (ARR)introducesTime series of response representations contextualized by applying dot-product attention to the corresponding stimulus representations.
- Extension of ARR where attention is directed specifically to linguistic spans (complement syntax or mental state verbs) within the stimulus.
Hypotheses (4)
hypothesis
- Primary research hypothesis driving the entire study; operationalized via three criteria.
- Derived from observed alignment of promising cases with semantically rich deeper layers and the brain-aligned 2/3 layer.
- Specific prediction linking IIT's prediction of high Φ for good performance to the experimental design's scoring structure.
- Core methodological hypothesis enabling the application of IIT to LLM representation sequences.
Concepts (4)
concept
- 2/3 Layer of LLMmentionsThe layer approximately two-thirds through an LLM's transformer stack, reported to best predict human brain activity; identified as promising for consciousness indicators.
- Foundational axioms of IIT from which postulates about physical systems are derived; applied to the RN in this study.
- Mixture-of-Experts (MoE)mentionsArchitecture of Mixtral-8x7B; uses sparse expert routing affecting how hidden states are computed across layers.
- The opacity of LLM internal representations that motivates this study's investigation of whether consciousness can be observed from them.
Questions (3)
question
- The primary research question framing the entire study.
- Secondary question motivating the IIT analysis; asks whether LLM hidden states contain something beyond propositional content.
- Motivates the RN hypothesis by pointing to the unknown relational structure within high-dimensional representation vectors.
Datasets (1)
dataset
- Publicly accessible dataset of ToM test results from human and LLM participants across five tasks; primary data source for this study.
Venues (1)
venue
- Venue where this paper was published as a journal article.
Artifacts (1)
artifact
- Code, labeled linguistic spans, and augmented responses made publicly available as supplementary material.
Related by similarity (8)
cosine ≥ 0.65 · no typed edgeEntities in the same semantic neighborhood but without a typed relation to this one — candidates for new edges or unrecognized duplicates.
- Can large language models introspect—that is, accurately detect perturbations to their own internal states?question0.816Central research question of the paper
- Framing question that motivates the entire paper
- Systems directly optimized for output can produce it without the prerequisite processes for conscious experience; simplest explanation for LLM consciousness reports is pattern matching
- The paper's reformulation of the core open question after establishing systematic self-reports
- The paper's claim that theoretical convergence across GWT, RPT, HOT, IIT makes the findings non-coincidental
- Paper's argument against behavioral tests for consciousness, establishing why MCH requires internal analysis
- Central thesis statement of the paper
- Paper identifies as a research gap requiring internal analysis methods rather than behavioral benchmarks