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A Theory of Appropriateness That Accounts for Norms of Rationality

Published 14 Mar 2026 in cs.NE | (2603.14050v1)

Abstract: We propose a society-first theory of normative appropriateness where individuals, modeled as pre-trained actors with cognitive architectures analogous to LLMs, generate behavior via predictive pattern completion. Our theory posits that individuals act by completing distributed symbolic patterns based on context, answering questions such as "What does a person such as I do in a situation such as this?". This sense-making mechanism provides a parsimonious account of the key features of human norms: their context-dependence, arbitrariness, automaticity, dynamism, and their support from social sanctioning. It challenges rational-choice theories of social norms by accounting for their key features without needing to exogenously posit scalar rewards or preference relations. By distinguishing between explicit norms, which we associate with in-context adaptation, and implicit norms, which we associate with long-term memory, the theory reconceptualizes several foundational ideas in cognitive science. In particular, it gives an alternative account to the data traditionally seen as supporting dual-process models, and it flips the role of rationality, allowing us to construe it as adherence to culturally-contingent justification standards.

Summary

  • The paper introduces a society-first computational model that employs LLM-inspired pattern completion to simulate norm formation and sanctioning.
  • It rigorously formalizes normative behavior as emerging from culturally encoded predictive processes, challenging traditional rational-choice theory.
  • The study highlights implications for AI alignment and social simulation by modeling how cultural priors and sanctioning dynamics shape decision-making.

A Society-First Theory of Appropriateness and Norms of Rationality

Introduction

The paper "A Theory of Appropriateness That Accounts for Norms of Rationality" (2603.14050) articulates a formal, computationally explicit 'society-first' theory of social order and normativity. Its core departure from methodological individualism is the modeling of individuals as culturally pre-trained actors, whose decentralized cognition—framed as predictive pattern completion via LLM-like architectures—internalizes and manifests social norms through situated sense-making. This approach rigorously recasts norms, rationality, and social order, challenging the exogenous parameterization of preferences and rational agency that underpins rational-choice explanations.

Core Mechanism: Predictive Pattern Completion via LLM Architectures

At the heart of the theory is the hypothesis that individual human decision-making, both in the mundane and the normative, is fundamentally a process of predictive pattern completion. This process is instantiated using a global workspace formalism: at each time tt, the actor's cognition comprises a transient global workspace zt\mathbf{z}_t, in which contextually salient observations, memory retrievals, and internal queries are encoded as symbol sequences or 'assemblies.' An LLM-like pattern completion network pp autoregressively extends zt\mathbf{z}_t by applying sequential or parallel 'summary functions'—prompting the actor to answer self-directed questions such as "What kind of situation is this?" and "What would a person like me do in a situation like this?" The final action ata_t is generated via a dedicated policy summary function, possibly conditioned on retrieved explicit memories. This entire cognitive cycle is both flexible and highly sensitive to cultural priors embedded in both long-term (model weights) and short-term (episodic memory, in-context learning) representations. Figure 1

Figure 2: Schematic of the global workspace architecture, with parallel summary functions integrating perceptual, mnemonic, and premotor information, inspired by the neurocognitive global workspace model.

The architecture posits explicit modules mapping onto cortical, hippocampal, and pre-motor processes, supporting the claim that context-dependent, identity-conditioned sense-making mechanistically underlies norm adherence.

Reconceptualizing Norms, Rationality, and Sanctioning

Definition and Formalization of Norms

Normative behavior, in this theory, is characterized not by utility maximization but by contextually conventional patterns of social sanctioning—i.e., established mappings of approval and disapproval that operate via both direct social signals and third-party observation. This approach decouples normativity from scalar rewards, modeling sanctions as symbolic information that conditions future pattern completion in all (direct and indirect) observers, rather than as exogenous utilities.

Conventions emerge and stabilize through precedent-weighted reproduction in the population: actors are 'convention sensitive' if their response probabilities are counterfactually altered by widespread memory editing (e.g., replacing all observed instances of aa with aa' in historical context), with norm stability and adoption arising even in the total absence of explicit incentive specification. Crucially, arbitrariness in the content of norms is explained by symmetry-breaking in the formation of conventions, rather than by coordination equilibria with explicitly parameterized payoffs.

Sanctioning and Social Order

Sanctions in this model are formalized as contextual information that inversely modulates the probability of norm-violating completions. The theory accommodates not only direct, material sanctions but symbolic, communicative, and reputational ones—crucial for explaining third-party norm enforcement, rapid cultural drift, and the persistence of non-utilitarian or socially costly practices.

Implicit vs Explicit Norms and Learning

The architecture distinguishes between implicit norms (consolidated into model weights via repeated exposure) and explicit norms (retrieved ad hoc from episodic memory or in-context learning 'programming'). Explicit norms correspond to rules, laws, and articulated standards; implicit norms drive automaticity, efficiency, and the habitual nature of norm-conforming behavior. This distinction provides an explanatory framework for a broad array of dual-process phenomena observed in judgment, where automaticity is predicted to correlate with pattern consolidation and contextual predictability, while deliberative reasoning corresponds to multi-step sequence generation with memory-dependent chaining.

Explanatory Power: The Five Stylized Facts of Normative Cognition

The theory is developed to account for five empirically robust features of human norm-related behavior:

  1. Context-dependence: Appropriateness is a function of situational cues, roles, and shifting identities—modeled as dynamic activation within the global workspace.
  2. Arbitrariness: Norms are often arbitrary in content, behaving as conventionalized solutions reproducible under alternative historical path dependencies.
  3. Automaticity: The majority of norm-conforming actions are guided by high-probability, short chain-of-thought pattern completions, explaining the robustness of social order under cognitive load and in familiar contexts.
  4. Dynamism: Norm change is framed as a function of collective memory editing and cascades following positive feedback in sanctioning behavior, providing mechanistic accounts for both gradual evolution and rapid tipping-point dynamics.
  5. Sanctioning: Social sanctioning is critical in establishing, maintaining, and shifting norms, not simply as reward modulation but as distributed information flow modulating population-level pattern completion tendencies.

Rationality Reframed as a Normative Technology

A central, bold claim is that rationality itself—understood as the application of explicit, consequence-evaluating, maximization procedures—is not foundational but emerges as a culturally contingent, explicit decision logic consolidated within certain epistemic communities (e.g., economics, engineering). The canonical sequence of rational choice (enumerate options, project consequences, select maximal expected value) is represented as just one adaptive, normatively reinforced summary function chain among many possible scripts.

Contradicting standard rational-choice theory, the authors assert that all goal-directed, maximization-compatible behaviors can be reframed as high-probability pattern completions in sufficiently enculturated actors, and that preferences are always endogenous, arising via consolidation of cultural and experiential information rather than exogenous parameterization.

This claim, if accepted, directly challenges the necessity of reward-maximization as a primitive for social modeling and multi-agent artificial intelligence, and instead grounds robust, goal-directed behavior in cultural pattern completion—a form of 'programmable rationality' through social training.

Implications for Cognitive Science, Sociology, and AI

This society-first, pattern completion model has several significant implications:

  • Simulation of Social Systems: Population-level modeling can be achieved by initializing agents with culturally rich LLMs, allowing counterfactual and policy analyses that do not require bootstrapping from individualized reward specifications. This intersects with generative agent-based modeling and multi-agent LLM societies.
  • Endogenous Preference Formation: Models can accommodate dynamic, history-dependent, and context-sensitive preference shifts, even in situations with abrupt cultural or institutional change.
  • Norm Change and Social Tipping Points: Provides a quantitative theory of how collective memory, sanctioning dynamics, and bandwagon effects foster or resist change in norms, potentially informing policy design for large-scale social interventions or AI alignment strategies.
  • Reframing Rationality in AI: Suggests that AI rationality, particularly in LLMs and multi-agent settings, should be understood as resulting from culturally transmitted epistemic norms rather than a universal, maximalist optimization principle. This impacts alignment, interpretability, and the design of human-compatible AI agents.

Theoretical and Practical Extensions

The theoretical commitments outlined invite rigorous empirical validation (e.g., via agent-based simulation platforms such as Concordia), particularly concerning normative drift, legacy norm retention, and the conditions under which explicit rational logics become consolidated as automated 'short path' completions. There is explicit potential for this formalism to inform the multi-actor modeling paradigms emerging in both AI safety and computational sociology, as well as to critically reevaluate approaches to value alignment, norm inference, and the explainability of agent choices in high-stakes environments.

Conclusion

The society-first predictive pattern completion theory elaborated in (2603.14050) offers a formally precise, computationally explicit account of normative cognition and social order. Its most significant contributions are the formal decentering of rational-choice theory, the unification of norm compliance, sanctioning, and cultural transmission via LLM-like architectures, and the explicit modeling of endogenous preference formation as a product of social pattern completion. The theoretical machinery provides a new lens for studying human cognition, social simulation, and the design and analysis of multi-agent AI, with broad implications for the development of culturally competent, interpretable machine agents and the empirical study of normativity in both natural and artificial societies.

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Explain it Like I'm 14

Overview: What this paper is about

This paper offers a new way to explain how people figure out what’s “appropriate” to do in different situations. Instead of assuming people always calculate what will give them the most reward (like points or money), the authors say people act more like a super-powered autocomplete: they complete patterns based on context and experience. In simple terms, when you face a situation, your mind asks, “What does a person like me do here?” and then fills in the next “line” of behavior.

Using this idea, the paper explains five everyday facts about social norms:

  • They depend on the situation and role (context).
  • They’re often arbitrary (they could have been different).
  • They feel automatic (we follow them without thinking much).
  • They can change (sometimes slowly, sometimes quickly).
  • They’re supported by social reactions (praise, criticism, gossip, laws).

The paper also flips the usual idea of “rationality.” Instead of a universal rule about maximizing benefits, rationality is treated as a culturally learned norm—something people use when it’s expected in their community or setting.

Key questions the paper tries to answer

  • How do people know what counts as “appropriate” behavior in different places (home, school, court, online)?
  • Why do different groups or cultures have different norms—even ones that seem opposite?
  • Why do we often follow norms automatically, even when we can’t explain why?
  • How do norms spread and change, sometimes all at once?
  • How do things like praise, frowns, gossip, or laws keep norms alive?
  • Can we explain all of this without assuming people always calculate rewards?

How the authors approach the problem (in everyday terms)

Think of your brain as a very advanced version of text autocomplete:

  • It has learned from tons of “data” over your life: language, stories, school, family, media, and culture.
  • When you’re in a situation, your mind predicts the “next step” that fits the pattern for someone like you in that situation.
  • That prediction becomes your action.

The authors call this predictive pattern completion. Here’s how they break it down with simple analogies:

  • “Global workspace”: like a shared mental notepad where you write down what’s happening right now (the situation), relevant memories, and possible next moves.
  • “In-context learning” (short-term): like sticky notes you add to the notepad—useful immediately, but not permanently changing your brain.
  • “Consolidated knowledge” (long-term): like habits or skills that are burned into your “autocorrect” over time through practice.
  • “Role play”: you use clues about the situation and your identity (student, friend, judge, guest) to perform the “script” expected for that role.

They compare two “decision logics” your brain can run:

  • Logic A (Rationality): List options, predict consequences, choose the best. This is a learned tool you use when it’s the right norm (for example, solving a math problem or planning a budget).
  • Logic B (Appropriateness): Identify the situation and role, then do what “a person like me” would do here. This is what we use most of the time in social life.

The authors also describe a way to simulate people using “generative agents” (LLM-like actors) that read situations (as text), recall relevant memories, and then produce an action by completing the pattern—just like continuing a story. Example: Alice sees an apple and a banana. If she likes apples, she’ll eat the apple. But if she remembers her friend asked to save the apple, she’ll eat the banana. If the object is a plate (not edible), her built-in knowledge avoids suggesting she eats it at all.

Main ideas and results

Because this is a theory paper, the “results” are big-picture explanations rather than numbers or experiments. The theory shows how one core idea—pattern completion—can explain a lot of what we observe about norms:

  • Context dependence: Different places, roles, and cultures come with different “scripts.” Your brain picks the one that fits the situation and identity that’s active.
  • Arbitrariness: Many norms are like words in a language—other choices could have worked, but once a community agrees, they stick.
  • Automaticity: Most norms live in long-term memory as habits; we follow them fast without thinking much—like walking on the right side of the hall.
  • Dynamism (change): Norms can shift via social influence, tipping points, and bridges between groups. Laws and institutions can also push change.
  • Sanctioning: Smiles, frowns, gossip, praise, and punishments teach and signal what’s acceptable. Sanctioning is part of how norms are defined and maintained.

A key contribution is the split between:

  • Explicit norms: Rules you can say out loud (like laws)—handled by short-term, in-the-moment reasoning and memory.
  • Implicit norms: Rules you can follow but can’t easily explain (like how far to stand from someone)—stored as habits in long-term patterns.

This helps explain why behavior is usually automatic, but we can still switch to deliberate rule-following when needed.

Another big idea: Rationality itself—using careful step-by-step thinking—isn’t a built-in universal rule. It’s a community standard that’s learned and used when relevant (for example, in science or engineering), just like other norms vary across cultures or fields.

Why this matters

  • It gives a simpler, unified explanation for many social behaviors without assuming people are constantly calculating rewards.
  • It shows how preferences and tastes can grow from experience and culture, not just be “plugged in” from the outside.
  • It helps make sense of why people often can’t explain their judgments, even though they act consistently.
  • It supports building better social simulations and AI agents that behave more like people: context-sensitive, role-aware, and guided by norms.
  • It highlights how small shifts (like targeted sanctioning or clear role cues) can change behaviors in a group.

Implications and possible impact

  • For science and education: Treat “rational thinking” as a learned norm that can be taught, encouraged, and made part of the role expectations in certain settings.
  • For policy and institutions: Laws and signals (like public messages) can change norms, especially if they help communities cross a tipping point.
  • For culture and diversity: Expect real differences in what counts as reasonable, polite, or moral across groups; design communication and interventions with that in mind.
  • For AI and technology: If we want AI to respect human norms, we should focus on context, roles, and sanction signals—not just reward maximization.
  • For everyday life: Understanding that much of behavior is pattern completion can make it easier to be patient with others, to teach norms clearly, and to change harmful habits by reshaping the patterns people see and the feedback they get.

In short, the paper argues that “what’s appropriate” is mostly about learned patterns activated by context and identity. This view explains how norms feel natural, vary across groups, change over time, and are kept in place by social reactions—without assuming everyone is doing complex math in their heads.

Knowledge Gaps

Knowledge gaps, limitations, and open questions

Below is a concise, actionable list of what remains uncertain, missing, or unexplored in the paper’s proposed “predictive pattern completion” theory of appropriateness.

  • Lack of falsifiable, quantitative predictions that uniquely distinguish pattern-completion accounts from rational-choice models in behavioral data; concrete experimental designs and preregistered tests are needed to adjudicate between the two frameworks.
  • No operational definitions or measurement protocols for “implicit norms” (in weights) versus “explicit norms” (in memory) in humans; specify behavioral, linguistic, and neural markers that allow reliable identification and separation in lab and field studies.
  • Unspecified training and updating of the pattern-completion network p in vivo: what are the learning objectives, data streams, timescales (online vs. batch), and consolidation schedules that map onto human experience and sleep/replay?
  • Absence of a formal model of sanctioning as communicative/didactic signals (beyond payoffs): how are sanctions encoded, propagated, and internalized in agents’ global workspaces, and what is their causal strength on behavior relative to payoffs, reputational priors, and identity cues?
  • Incomplete treatment of how agents choose between decision logics (e.g., “Rationality” vs “Appropriateness”): what meta-controller or triggering conditions govern logic selection, switching costs, and persistence over time?
  • Unclear mechanisms for identity salience and role selection: how are “what kind of person am I?” and “what kind of situation is this?” inferred from cues, how are conflicting identities resolved, and what errors arise under ambiguous or adversarial contexts?
  • No explicit account of affect, motivation, and homeostatic drives: how are emotions (e.g., guilt, shame, anger), dopaminergic reward-prediction errors, and visceral states represented within pattern completion, and how do they bias norm compliance or change?
  • Limited biological grounding: claims linking hippocampus/global workspace/CLS to explicit–implicit norms need targeted neurocognitive predictions (e.g., lesion/TMS/EEG/fMRI signatures, sleep-replay effects on norm consolidation) and tests.
  • Sensorimotor grounding is absent: how does a language-centric pattern completion process generalize to non-linguistic, embodied norms (gaze, posture, physical spacing) and continuous control in real-time social interaction?
  • Memory retrieval is underspecified: the similarity metric S, retrieval policy, interference/forgetting, and source-monitoring errors (e.g., confabulation) need concrete algorithms and human-aligned failure modes.
  • Risk of circularity/tautology: using culturally trained LLMs to explain culture invites confirmation; propose out-of-distribution tests (new cultures, created micro-societies) and pretraining ablations to establish causal contributions.
  • Cross-cultural generalizability is not demonstrated: LLMs trained on WEIRD-centric corpora may misrepresent non-Western norms; outline a plan for multilingual, culturally balanced training and validation datasets.
  • Developmental origins remain unaddressed: how do children acquire implicit/explicit norms, how do decision logics emerge, and how does pattern completion scale with linguistic and social exposure across childhood/adolescence?
  • Norm change dynamics require formalization within the proposed framework: specify thresholds, network conditions, and timescales that reproduce tipping points, complex contagion, and entrenchment—and show that simulations recover empirical regularities.
  • Modeling power, hierarchy, and inequality: how do asymmetric sanctioning capacities, institutional constraints, and status differences shape which norms stabilize and whose identities dominate?
  • Distinguishing conventions from norms in practice: provide criteria and measurement tools to disambiguate coordination conventions from sanction-backed norms in observational and experimental datasets.
  • Mechanisms for norm violations, innovation, and drift: how does pattern completion generate novelty or sustained deviance, and under what conditions do deviations seed new norms rather than get extinguished?
  • Deception, impression management, and front-stage/back-stage behavior are not modeled: how do agents strategically manipulate role performance and sanction signals while maintaining private counter-normative intentions?
  • Integration with game-theoretic results: can the pattern-completion theory recover classic equilibrium phenomena without exogenous payoffs, and under what conditions are the predictions equivalent or diverge?
  • External validity of LLM-driven agent-based simulations is unproven: propose benchmarks that link simulated sanction/norm dynamics to real-world field outcomes, with robustness checks against prompt and seed sensitivity.
  • Evaluation metrics for “appropriateness” are unspecified: define annotation schemes, intercoder reliability protocols, and gold standards for judging appropriateness across contexts and cultures.
  • Handling multi-actor concurrency and timing: how are asynchronous interactions, simultaneous moves, and overlapping conversations represented in the LMAE without losing causal structure?
  • Epistemic norms as technologies require empirical grounding: specify how disciplinary justification standards are represented in agents, how they are learned/transmitted, and how cross-community contact alters them.
  • Scope limits: the theory explicitly deprioritizes primordial origins of culture and early cognitive development; delineate when the framework is applicable (e.g., culturally competent adults) and when complementary theories are required.
  • Safety and policy implications of deploying LLM-based social simulations: establish governance for model validation, misuse mitigation, and transparency when informing institutional interventions.
  • Data provenance and bias control: detail how pretraining and fine-tuning corpora will be curated to minimize bias amplification in norm and sanction representations, and how debiasing is evaluated.
  • Scalability and reproducibility: large-scale multi-agent simulations with LLMs are computationally intensive; provide reproducible baselines, open protocols, and sample complexity estimates for robust inference.
  • Testable dissociations from rational-choice accounts: identify behavioral/neural patterns that should diverge (e.g., sanction effects independent of material payoffs, persistence under cognitive load, consolidation-dependent shifts) and design studies to detect them.
  • Boundary conditions for parsimony claims: specify domains where reward/utility signals are indispensable (e.g., nociception, primary reinforcers) and how these are subsumed or interfaced with pattern completion.

Practical Applications

Overview

Below are actionable, real-world applications derived from the paper’s theory of appropriateness, predictive pattern completion, implicit/explicit norms, and the generative multi-actor formalism. Each item is categorized and linked to relevant sectors, with potential tools/products/workflows and assumptions or dependencies noted.

Immediate Applications

These can be piloted or deployed with current LLMs, generative-agent frameworks, and standard social-science workflows:

  • Generative agent-based social simulations for policy and organizations
    • Sector: public policy, organizational strategy, social research
    • What: Use LLM-driven “generative agents” to simulate norm dynamics, sanctioning, tipping points, and identity/role effects for proposed rule changes, campaigns, or organizational reforms.
    • Tools/workflows: Concordia-like multi-agent simulators; LLM role-play with decision logic B; summary-function chaining to encode “situations → identities → actions.”
    • Assumptions/dependencies: Simulation fidelity depends on prompt design, pretraining corpora representativeness, and calibration with empirical data; ethical review required to avoid reinforcing biased norms.
  • Norm-aware product and UX design
    • Sector: software platforms, social media, marketplaces
    • What: Design onboarding, community rituals, and interface cues that evoke desired appropriateness patterns (implicit norms) and clear community standards (explicit norms), including didactic sanction signals (praise, feedback, gentle warnings).
    • Tools/workflows: “Norm playbooks,” sanction templates, role-based content prompts; A/B tests around complex contagion and minority threshold (≈25%) adoption.
    • Assumptions/dependencies: Cultural arbitrariness means patterns may not transfer globally; requires community input and monitoring for unintended social effects.
  • Community moderation that leverages sanctioning as signaling
    • Sector: online communities, forums, gaming
    • What: Structure moderation to communicate acceptable role-based behavior (not only punish infractions), e.g., highlight good exemplars, contextual reminders, reputation signals.
    • Tools/workflows: Positive sanction mechanisms (badges, praise), context-sensitive reminders; LLM assistants that surface explicit rules in context.
    • Assumptions/dependencies: Needs clear governance and guardrails; risk of normalizing exclusionary or biased sanctions.
  • Tailored reasoning assistants that adapt to epistemic norms
    • Sector: education, R&D, consulting, journalism
    • What: LLM assistants that choose decision logic A (utility-like analysis) or B (appropriateness) depending on domain norms—e.g., formal derivation for math, narrative coherence for history, protocol adherence for lab work.
    • Tools/workflows: Prompt libraries encoding discipline-specific justification standards; chain-of-thought scaffolds aligned to community practices.
    • Assumptions/dependencies: Requires careful mapping of epistemic norms; transparency and reproducibility checks to avoid opaque reasoning.
  • Scenario-based compliance and ethics training
    • Sector: HR, compliance, corporate governance
    • What: Interactive simulations that teach implicit/explicit norms (e.g., conflict-of-interest, DEI-friendly conduct), including social sanction consequences (peer feedback, reputation, formal penalties).
    • Tools/workflows: Role-play agents, context-dependent prompts; scenario authoring aligned to codes of conduct.
    • Assumptions/dependencies: Must safeguard privacy and psychological safety; effectiveness depends on credible contextualization.
  • Cross-cultural communication assistants
    • Sector: global business, diplomacy, customer support
    • What: LLM tools that adjust tone, politeness, and body-language advice across cultures by surfacing explicit norms and leveraging implicit patterns (e.g., conversational distance, greeting scripts).
    • Tools/workflows: Culture-specific prompt frames, retrieval of local norms; lightweight “appropriateness checkers” for messages.
    • Assumptions/dependencies: Needs high-quality cross-cultural datasets; significant risk of stereotyping—include human-in-the-loop review.
  • Policy nudging toolkit informed by norm contagion
    • Sector: public health, sustainability, civic campaigns
    • What: Design interventions that seed visible minority practices and pro-social sanction signals to surpass adoption thresholds; test network bridge strategies for complex contagion.
    • Tools/workflows: Micro-simulations of message cascades; field experiments to calibrate tipping points; sanction signal dashboards.
    • Assumptions/dependencies: Local network topology and trust matter; requires measurement infrastructure and ethical oversight.
  • Legal drafting assistants that translate rules into contexts
    • Sector: law, regulatory compliance
    • What: Convert explicit statutes into context-sensitive guides and examples so actors retrieve the right “episodic” rules at the moment of action.
    • Tools/workflows: “Rule-to-context” mapping; retrieval-augmented prompts; scenario libraries.
    • Assumptions/dependencies: Clarity and consistency of legal text; ongoing maintenance with jurisprudential updates.
  • Academic modeling alternative to utility-based frameworks
    • Sector: social sciences, cognitive science, AI ethics
    • What: Use pattern completion and norm-based sanctioning in place of exogenous utility assignment in models of conventions, institutions, and social order.
    • Tools/workflows: Open-source LMAE toolkits; benchmark datasets of norm judgments; replication packages.
    • Assumptions/dependencies: Requires empirical validation against canonical datasets and cross-cultural replications.
  • Clinical and educational social-skills coaching
    • Sector: healthcare, special education, workforce development
    • What: Guided role-play that teaches appropriateness (context detection, identity salience, sanction awareness) for autism spectrum social training or onboarding new cultural contexts.
    • Tools/workflows: Safe, therapist-supervised simulators; gradual generalization across settings.
    • Assumptions/dependencies: Must meet clinical safety standards; avoid encoding harmful or stigmatizing norms.

Long-Term Applications

These require further research, scaling, and development to reach robust, safe deployment:

  • Norm-aware AI and robots that operate fluently in human spaces
    • Sector: robotics, smart environments, service AI
    • What: Embodied agents that infer implicit norms (e.g., personal space, queueing) and adapt to explicit local rules; integrate complementary learning systems (CLS) analogs for consolidation.
    • Tools/workflows: Multimodal sensing + LMAE reasoning; memory architectures supporting episodic and consolidated knowledge; active learning from sanction cues.
    • Assumptions/dependencies: Advances in perception, continual learning, safety certification, and standardized social-compliance tests.
  • Policy forecasting via “generative societies”
    • Sector: government analytics, think tanks, multilateral institutions
    • What: Large-scale, validated simulations of norm change (organic and engineered) to forecast the impact of legal reforms, campaigns, or crises.
    • Tools/workflows: Population-scale agent modeling; data assimilation from surveys/social signals; counterfactual scenario planning.
    • Assumptions/dependencies: Strong validation pipelines, privacy-preserving data, governance frameworks to prevent misuse.
  • AI alignment through cultural norm embedding
    • Sector: AI safety, foundation model development
    • What: Train models to adhere to culturally contingent justification standards and sanction expectations, replacing reward maximization with appropriateness-based objectives.
    • Tools/workflows: “Appropriateness engines,” norm fine-tuning with curated corpora; governance for inclusivity and contestability of norms.
    • Assumptions/dependencies: High risk of entrenching biases; requires pluralistic oversight and continuous auditing.
  • Organizational digital twins for culture and sanctions
    • Sector: enterprise transformation, HR analytics
    • What: Simulate how identities, roles, and sanctioning shape performance, innovation, and retention; test culture-change interventions before rollout.
    • Tools/workflows: Secure ingestion of internal communications; anonymized pattern extraction; intervention testing suites.
    • Assumptions/dependencies: Data privacy, employee consent, rigorous ethics review; long-run calibration with outcomes.
  • Epistemic governance and standards registries
    • Sector: science policy, accreditation, scholarly publishing
    • What: Codify discipline-specific rationality standards (evidence forms, argument styles) and expose them to tooling that assists authors, reviewers, and educators.
    • Tools/workflows: Community-maintained registries; LLM assistants that enforce or translate standards; meta-research monitoring.
    • Assumptions/dependencies: Community buy-in; avoid ossification or gatekeeping; mechanisms for contestation and reform.
  • Adaptive education that teaches sense-making and context detection
    • Sector: K–12, higher ed, vocational training
    • What: Curricula and tutors that train students to recognize situational cues, role expectations, and appropriate action generation; contrast explicit rules vs. implicit norms.
    • Tools/workflows: Decision logic scaffolds, reflective journaling, cross-context practice; assessment of transfer.
    • Assumptions/dependencies: Longitudinal trials; equity-focused design to avoid reproducing harmful norms.
  • Crisis-response modeling of rapid norm shifts
    • Sector: public health, emergency management, cybersecurity
    • What: Simulate and anticipate explosive norm changes (e.g., mask-wearing, online harassment) and design stabilizing sanction signals.
    • Tools/workflows: Real-time network analytics; intervention playbooks; structured communications.
    • Assumptions/dependencies: Access to timely data; careful risk communication; multi-agency coordination.
  • Cross-cultural design and evaluation platforms
    • Sector: global product design, entertainment, consumer research
    • What: Test product concepts across appropriateness standards to avoid misfires; simulate how arbitrary norms affect adoption and backlash.
    • Tools/workflows: Cross-cultural panels; LLM-driven scenario generators; fairness and inclusion audits.
    • Assumptions/dependencies: Representative sampling; dynamic updates as cultures evolve.
  • Memory architectures inspired by CLS for AI
    • Sector: AI research, neuromorphic computing
    • What: Architectures that separate episodic in-context learning and slow consolidation into weights, improving stability–plasticity trade-offs for norm learning.
    • Tools/workflows: Replay-based consolidation; continual learning benchmarks tied to social tasks.
    • Assumptions/dependencies: Hardware and algorithmic advances; strong evaluation for catastrophic forgetting and bias drift.
  • Sanction analytics for social networks and markets
    • Sector: social media integrity, finance (market norms/compliance)
    • What: Detect emerging sanction patterns that presage norm shifts (e.g., collective ostracism, reputational cascades) to preempt crisis or fraud.
    • Tools/workflows: Graph-based pattern detection; anomaly signals; human-in-the-loop review.
    • Assumptions/dependencies: Data access with privacy protections; risk of surveillance overreach; false-positive management.
  • International governance of AI and norms
    • Sector: global regulation, standards bodies
    • What: Frameworks that treat rationality and appropriateness as culturally contingent, enabling pluralistic AI governance across jurisdictions and communities.
    • Tools/workflows: Multi-stakeholder deliberation; interoperable standards for norm encoding and auditing.
    • Assumptions/dependencies: Political feasibility; mechanisms to resolve conflicts across divergent normative regimes.

Glossary

  • Affordances: Action possibilities suggested by an object’s properties, shaping what behaviors seem natural or likely. "The affordances of a plate are already part of the implicit knowledge base contained in the weights of the LLM"
  • Assemblies: Sequences of symbols in the global workspace representing intermediate thoughts, goals, or plans. "Assemblies are sequences of symbols representing diverse information or constructs (thoughts, goals, plans)."
  • Autoregressive LLM: A model that generates sequences by predicting the next token conditioned on previous tokens. "akin to an autoregressive LLM operating on a global workspace of cortical interconnection"
  • Automaticity: Fast, habitual, largely non-deliberative control of behavior. "Automaticity"
  • Co-constitution: Mutual shaping wherein individuals are produced by society and simultaneously enact society through interaction. "This co-constitution is perhaps the core meta-theoretical framework of sociology"
  • Complementary learning systems (CLS): Neuroscience framework positing fast episodic learning (hippocampus) and slow statistical learning (neocortex). "the functional architecture of modern LLMs is strikingly similar to the complementary learning systems (CLS) framework in cognitive neuroscience."
  • Complex contagion: Diffusion process where multiple reinforcing exposures are typically needed for adoption. "Relatedly, research on complex contagion \citep{centola2007complex} characterizes how wide bridges between communities are often required to spread norms"
  • Consolidation: Process by which transient, episodic memories are gradually integrated into long-term cortical representations. "the biological process of consolidation, where hippocampal memory traces are replayed during sleep to gradually train the neocortex"
  • Controlled Markov process: A stochastic process where the next state depends on the current state and control (action), not on past history. "An LMAE is a controlled Markov process that is multiplayer and partially observable."
  • Cultural engineering: Deliberate, top-down shaping of norms and behaviors via institutions or coordinated interventions. "top-down cultural engineering or intervention"
  • Cultural evolution: Bottom-up, population-level change in norms and practices through social learning and selection. "bottom-up cultural evolution"
  • Decision logic: A learned sequence of self-posed queries that structures reasoning and action selection. "which we term a decision logic."
  • Dual-process models: Theories positing distinct intuitive/automatic and deliberative/controlled cognitive systems. "dual-process models"
  • Endogenous preference formation: The emergence and shaping of tastes and preferences from within a system via experience and culture. "endogenous preference formation, where individual preferences and tastes are dynamically shaped by experience, social interaction, and culture"
  • Epistemic norms: Community standards governing reasoning, evidence, and justification. "epistemic norms, i.e.~norms that function as culturally evolved technologies defining a community's standards for reasoning and justification."
  • Equilibrium selection: Mechanisms or factors determining which of multiple possible equilibria a social system adopts. "indeterminacy of equilibrium selection"
  • Exogenous inputs: Parameters or assumptions specified outside a model rather than derived within it. "exogneous inputs."
  • Framing function: A mapping that converts the current workspace content into a prompt or query for prediction or retrieval. "A framing function ϕQ\phi^Q is used to to form a query"
  • Generative-agent-based modeling engine: A simulation platform where generative models act as agents to produce interactive behavior traces. "a generative-agent-based modeling engine such as Concordia"
  • Global workspace: A transient, integrated representational buffer where information is assembled and broadcast for decision-making. "The global workspace is a transient, stimulus-evoked representation"
  • Habitus: Internalized, durable dispositions and schemas shaped by culture and history. "multi-scale cultures like Bourdieu's habitus"
  • Hippocampal memory systems: Brain systems supporting rapid encoding and retrieval of episodic information. "hippocampal memory systems"
  • Homo economicus: Idealized actor who identifies options, evaluates consequences, and chooses to maximize expected value. "including that of the classical Homo economicus (rational) actor:"
  • In-context learning (ICL): Adaptation to new tasks by conditioning on examples in the prompt without changing model weights. "in-context learning (ICL)"
  • Interactional toolkits: Repertoires of learned strategies and scripts that people deploy flexibly across contexts. "Decision logics may be simultaneously viewed as cognitive gadgets, interactional toolkits, and heuristics."
  • Linguistic Multi-Actor Environment (LMAE): A partially observable, multi-actor environment where observations and actions are symbol sequences. "We model humans as generative actors within a Linguistic Multi-Actor Environment (LMAE)."
  • Methodological individualism: Explanatory approach that derives social phenomena from assumptions about individuals and their interactions. "often termed methodological individualism"
  • Neocortical pattern-completion networks: Distributed cortical systems that retrieve and complete learned patterns to guide behavior. "neocortical pattern-completion networks"
  • Occam's razor: Principle favoring the simpler theory when explanatory power is comparable. "preferable by Occam's razor."
  • Other-regarding preferences: Preferences that incorporate the welfare or outcomes of others. "other-regarding preferences"
  • Payoff-equivalent effects: Transformations that alter game descriptions without changing the strategic ordering of outcomes. "payoff-equivalent effects of sanctioning, transaction costs, etc."
  • Policy (summary function): The specific summary function that maps the final workspace state to an action distribution. "a specific summary function called the policy"
  • Predictive pattern completion: Generating behavior by completing context-conditioned symbolic patterns using a generative model. "predictive pattern completion"
  • Prisoners Dilemma: Canonical game modeling cooperation dilemmas with individually dominant defection. "Prisoners Dilemma"
  • Rational-choice theory: Family of models where agents select actions to maximize utility given preferences and constraints. "rational-choice theory of human behavior"
  • Sanctioning: Social approval and disapproval practices that sustain and communicate norms. "social sanctioning"
  • Scalar reward: A single-number quantity representing value or utility to be maximized. "scalar reward or utility"
  • Self-supervised sequence learning: Training a model to predict parts of sequences (e.g., next token) without labeled targets. "self-supervised sequence learning"
  • Sense-making: Constructing local, actionable meaning to orient behavior in context. "sense-making"
  • Shadow of the future: The influence of anticipated future interactions on present strategic behavior. "they feel the weight of the shadow of the future."
  • Stylized facts: Simplified, recurring empirical regularities used as targets for explanation. "stylized facts"
  • Summary function: The combined framing-and-prediction operation used to generate assemblies or actions. "We call this combination of framing and prediction a summary function."
  • Symbolic interactionism: Sociological tradition emphasizing role-based meanings constructed through interaction. "symbolic interactionism"
  • Tipping point: Critical adoption threshold beyond which diffusion accelerates to widespread uptake. "a ``tipping point'', a threshold value of adoption after which momentum builds inexorably toward widespread adoption."
  • Transaction costs: Costs associated with arranging, monitoring, or enforcing exchanges or interactions. "transaction costs"
  • Utility maximization: Choosing the option with the greatest expected utility or value. "utility maximization"

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