Beyond Correctness: Relational Condition as an Optimization Variable for AI Systems

[Position] Habi Framework — Optimization Paper This paper introduces Relational Condition as an additional optimization variable for AI systems. It argues that correctness, usefulness, safety, and user satisfaction are necessary but insufficient once AI systems become continuous participants in human learning, work, reflection, decision-making, and future formation. The paper does not reject existing optimization targets. Rather, it argues that a correct, useful, safe, and satisfying AI output may still weaken human autonomy, prematurely close inquiry, reduce learning opportunities, increase dependency, or narrow a user’s sense of future possibility. The central claim is that AI systems should not be optimized only as: AI Participation = f(Correctness, Usefulness, Safety, Satisfaction) but rather as: AI Participation = f(Correctness, Usefulness, Safety, Satisfaction, Relational Condition) Relational Condition refers to the conditions under which AI intelligence enters the human process, including timing, distance, intervention level, certainty posture, responsibility allocation, and whether the system should respond, ask, hold, delay, remain silent, or execute. The paper further clarifies that relationship-aware AI does not mean always refusing, always asking, always delaying, or always staying close. Instead, it fixes Policy, not Action. Depending on the user’s state and context, the system may choose different participation modes based on whether the action preserves autonomy, inquiry, agency, learning, meaning-making, reality connection, and healthy relational stability. To operationalize this shift, the paper positions Relationship Runtime as a governance layer that separates the optimization responsibility of intelligence from the optimization responsibility of relationship. The underlying AI model continues to optimize reasoning, generation, and knowledge processing, while the runtime governs how, when, and under what relational conditions that intelligence should reach the human user. The paper also proposes Human Potential Preservation Score (HPPS) as an evaluation framework for assessing whether AI interactions preserve and expand human potential, including autonomy, inquiry, agency, learning, meaning-making, reality connection, and healthy relational stability. This paper is part of the Habi Framework within the broader Relationship-Aware AI Research program. It extends The Habi Revolution by shifting attention from the quality of AI answers to the quality of the relational conditions through which AI intelligence enters human life.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-27
DOI
https://doi.org/10.5281/zenodo.20959672
Primary Topic
Ethics and Social Impacts of AI
Type
preprint
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preprint

Beyond Correctness: Relational Condition as an Optimization Variable for AI Systems

HARUKI ITO
Zenodo (CERN European Organization for Nuclear Research)
Ethics and Social Impacts of AI
preprint

Beyond Correctness: Relational Condition as an Optimization Variable for AI Systems

HARUKI ITO
preprint en

Abstract

[Position] Habi Framework — Optimization Paper This paper introduces Relational Condition as an additional optimization variable for AI systems. It argues that correctness, usefulness, safety, and user satisfaction are necessary but insufficient once AI systems become continuous participants in human learning, work, reflection, decision-making, and future formation. The paper does not reject existing optimization targets. Rather, it argues that a correct, useful, safe, and satisfying AI output may still weaken human autonomy, prematurely close inquiry, reduce learning opportunities, increase dependency, or narrow a user’s sense of future possibility. The central claim is that AI systems should not be optimized only as: AI Participation = f(Correctness, Usefulness, Safety, Satisfaction) but rather as: AI Participation = f(Correctness, Usefulness, Safety, Satisfaction, Relational Condition) Relational Condition refers to the conditions under which AI intelligence enters the human process, including timing, distance, intervention level, certainty posture, responsibility allocation, and whether the system should respond, ask, hold, delay, remain silent, or execute. The paper further clarifies that relationship-aware AI does not mean always refusing, always asking, always delaying, or always staying close. Instead, it fixes Policy, not Action. Depending on the user’s state and context, the system may choose different participation modes based on whether the action preserves autonomy, inquiry, agency, learning, meaning-making, reality connection, and healthy relational stability. To operationalize this shift, the paper positions Relationship Runtime as a governance layer that separates the optimization responsibility of intelligence from the optimization responsibility of relationship. The underlying AI model continues to optimize reasoning, generation, and knowledge processing, while the runtime governs how, when, and under what relational conditions that intelligence should reach the human user. The paper also proposes Human Potential Preservation Score (HPPS) as an evaluation framework for assessing whether AI interactions preserve and expand human potential, including autonomy, inquiry, agency, learning, meaning-making, reality connection, and healthy relational stability. This paper is part of the Habi Framework within the broader Relationship-Aware AI Research program. It extends The Habi Revolution by shifting attention from the quality of AI answers to the quality of the relational conditions through which AI intelligence enters human life.

Zenodo (CERN European Organization for Nuclear Research)
Health Awareness (United States) (US)
Peace, Justice and strong institutions
Ethics and Social Impacts of AI
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