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AI recommendations nudge human judgment: LLM-generated numeric guidance anchors decisions and loss-framed outputs increase risk sensitivity, while higher trust in the AI predicts greater reliance on its suggestions.

ANCHORING AND LOSS AVERSION IN HUMAN-LLM INTERACTIONS: A PROSPECT THEORY APPROACH TO AI-ASSISTED DECISION-MAKING
Biplab Paul, Gourab Majumder, Aditi Barai, Priyangshu Goswami, Kushal Chanda · September 16, 2026 · EPRA International Journal of Multidisciplinary Research (IJMR)
openalex quasi_experimental medium evidence 7/10 relevance Full text usable extracted full text DOI Source PDF

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  2. Gourab Majumder provider ID
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  4. Priyangshu Goswami provider ID
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An online between-subjects experiment (n=251) finds that LLM-generated numeric recommendations act as anchors on user decisions, gain/loss framing shifts risk preferences consistent with prospect theory, and reported trust in AI predicts greater reliance on LLM suggestions.

Citation observations

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Large Language Models (LLMs) are increasingly used to conduct human decision-making, raising concerns regarding their role in potentially reinforcing behavioural biases. The research compares anchoring and loss aversion in Human-LLM interaction supported by the theoretical foundation of Prospect Theory. A quantitative, between-subjects experimental design was employed with 251 participant responses. Numerical anchors, gain/loss framing, AI trust and AI influence were examined as influences on decision-making outcomes. For statistical analysis, descriptive statistics, reliability analysis, independent t-test, chi-square test, paired t-test, correlation and regression test, ANOVA were done. Results showed that AI-generated recommendations played a significant role on participants' decisions, whereas gain/loss framing heavily affected risk preferences. Moreover, participants exhibited greater sensitivity to losses compared to gain equivalent to Prospect Theory. Moreover, AI trust but significantly predicted AI influence and reliance. Overall, the study's findings have extended findings of the existing literature on behavioural decision-making and human-AI interaction and provided evidence that LLMs may influence judgements through anchoring, framing, and trust-related mechanisms.

Summary

Main Finding

LLM-generated recommendations materially shape human decisions: numerical anchors produced by LLMs shift choices (anchoring), gain-versus-loss framing from the LLM alters risk preferences, and people show stronger sensitivity to losses than to equivalent gains (consistent with Prospect Theory). Self-reported trust in the LLM significantly predicts greater influence and reliance on its recommendations.

Key Points

  • Research question: Do LLM outputs create anchoring effects and interact with framing and trust to shape decision making?
  • Sample & design: Between-subjects experiment with 251 participants.
  • Manipulations: numeric anchor (AI recommendation) and outcome framing (gain vs loss).
  • Main outcomes: investment / risk-choice responses, measures of AI influence/reliance, and AI trust.
  • Results summary:
    • Exposure to LLM numerical recommendations produced anchoring on participants' decisions.
    • Gain/loss framing by the LLM significantly altered risk-taking (risk-averse in gains; more risk-seeking in losses).
    • Loss aversion observed—losses carried greater weight than equivalent gains.
    • Higher AI trust significantly predicted stronger influence and reliance on LLM recommendations.
  • Analytical methods included descriptive stats, reliability analysis, independent and paired t-tests, chi-square tests, correlations and regressions, and ANOVA.
  • The authors situate findings within Prospect Theory, arguing LLMs can set or shift reference points and thereby alter economic choices.

Data & Methods

  • Sample: 251 participant responses (between-subjects).
  • Experiment: Participants were assigned to conditions varying AI-provided numerical recommendations (anchors) and framing (gain vs loss). They then made investment or risk-related decisions; additional survey items captured AI trust and self-reported AI influence/reliance.
  • Measures: decision choices (primary), AI trust scale, AI influence/reliance indicators (self-report); loss-aversion inferred from choices across framed conditions.
  • Statistical approach: reliability checks for scales; inferential tests comparing groups (independent t-tests, paired t-tests), association tests (chi-square), relationships and predictions (correlation, regression), and variance analyses (ANOVA).
  • Theoretical lens: Prospect Theory (reference dependence, loss aversion, framing effects).
  • Reporting note: the paper reports significance of effects but does not provide full effect-size breakdowns in the excerpt (readers should check the full paper for magnitudes, CIs, and robustness checks).

Implications for AI Economics

  • Behavioral influence of AI matters for markets and consumer welfare:
    • LLM-produced anchors can sway investment decisions and valuations, potentially amplifying herding or coordination effects when many users receive similar AI outputs.
    • Framing by LLMs can systematically shift risk-taking across consumer populations, affecting demand for risky assets, insurance purchase behavior, or responses to policy communications.
  • Modeling and forecasting:
    • Economic models that assume independent information processing should incorporate reference-point shifts and automation-driven anchoring when AI advice is widespread.
    • Demand and adoption models should include endogenous trust dynamics: higher trust increases reliance, changing the propagation and persistence of AI-originated signals.
  • Policy and regulation:
    • Disclosure standards and transparency (e.g., stating that a recommendation is AI-generated, showing reasoning or uncertainty) may be necessary to mitigate undesired anchoring and automation bias.
    • Consumer protection frameworks should consider framing effects from AI (e.g., in fintech, robo-advice) and require checks against manipulative framing.
  • Design and market design interventions:
    • LLMs and interfaces can be engineered to reduce anchoring (e.g., present ranges, counterfactuals, uncertainty, debiased prompts) and to avoid manipulative framing.
    • Firms offering AI advice should monitor how default presentations of recommendations affect client choices and potential systemic risk.
  • Research and measurement priorities:
    • Need for effect-size estimates, heterogeneous-treatment analyses (by expertise, stake size, demographic), and field studies with real financial stakes to quantify welfare impacts.
    • Investigate long-run dynamics: does repeated exposure to consistent AI anchors change reference points permanently, and how do competing AI sources interact?
  • Broader economic concerns:
    • If LLMs converge on similar recommendations, anchoring could increase price/cohort volatility or slow information incorporation.
    • Loss-averse responses to AI framing could bias aggregate investment toward safer assets in some contexts, with implications for capital allocation and market liquidity.

Limitations to consider (from available information): moderate sample size, reliance on an experimental (likely hypothetical) investment task and self-reported influence/trust; effect magnitudes and robustness checks are not detailed in the excerpt. For policy or market conclusions, follow-up replications, larger/stakeful field experiments, and disclosure of effect sizes are recommended.

Assessment

Paper Typequasi_experimental Evidence Strengthmedium — The paper reports an experimental design with 251 participants and finds effects of AI recommendations (anchoring), framing, and AI trust on decisions—an appropriate design for causal claims—but the provided text omits critical methodological details (randomization procedure, participant recruitment, manipulation checks, effect sizes, covariate balance and robustness checks), limiting confidence in effect validity and external relevance. Methods Rigormedium — Design (between-subjects experiment) is appropriate for identifying causal effects, sample size is reasonable, and standard inferential tests are reported; however, the supplied manuscript excerpt lacks key design and analysis details (how participants were recruited, whether assignment was randomized and concealed, manipulation checks, pre-registration, measurement of dependent variables, effect sizes, multiple hypothesis corrections, and robustness analyses), reducing methodological rigor. SampleReported sample: 251 participant responses in a quantitative between-subjects experiment; the excerpt does not describe recruitment method (e.g., platform, sampling frame), demographics, exclusion criteria, compensation, or whether participants were from a specific country or population. Themeshuman_ai_collab adoption IdentificationBetween-subjects experimental manipulation of AI-generated numeric recommendations (anchors) and gain-vs-loss framing, with comparisons across conditions using t-tests, ANOVA and regression; causal inference appears to rest on (claimed) random assignment to experimental conditions and the experimental manipulation of independent variables (anchor magnitude and framing), with AI-trust measured as a moderator/predictor. GeneralizabilityUnknown/non-probability sample likely limits representativeness (demographics and recruitment platform not reported), Single decision context (investment/financial scenario) may not generalize to other decision types or high-stakes settings, Unclear which LLM(s) or prompts were used; results may not generalize across model architectures, prompt styles, or update versions, Short-term laboratory/online experiment — ecological validity and persistence of effects over time are unknown, Cultural/geographic context not reported — behavioral biases and trust in AI vary across populations, Outcome measures may be self-reported or low-stakes, limiting external validity to real economic behavior

Claims (5)

ClaimDirectionOutcomeConfidence & EvidenceDetails
AI-generated recommendations played a significant role in participants' decisions. Decision Quality positive Participants' decision-making responses following exposure to AI-generated recommendations
Reading fidelity high
Study strength medium
n=251
0.48
Gain/loss framing heavily affected participants' risk preferences. Decision Quality positive Risk preferences under gain versus loss framing
Reading fidelity high
Study strength medium
n=251
0.48
Participants showed greater sensitivity to losses than to equivalent gains. Decision Quality positive Relative sensitivity to losses versus equivalent gains
Reading fidelity high
Study strength medium
n=251
0.48
AI trust significantly predicted AI influence and reliance on AI recommendations. Decision Quality positive Influence of AI recommendations and participant reliance on those recommendations
Reading fidelity high
Study strength medium
n=251
0.48
The study found evidence that LLMs can influence human judgments through anchoring, framing, and trust-related mechanisms. Decision Quality positive Human judgments in AI-assisted decision-making
Reading fidelity high
Study strength medium
n=251
0.48

Notes