Research Publication · Conceptual Architecture Paper

Intent-to-Income™: A Reference Decision Architecture for AI-first Decision Intelligence

English Research Summary and Publication Record

This page presents the published research record for Intent-to-Income™, a proprietary Reference Decision Architecture designed by Kittisak Pannutiyarak and developed further within HaNonn for AI-first Decision Intelligence in Customer and Commerce Decisions.

Author
Affiliation
ORCID
Published
August 29, 2026
Version
1.0
Paper Type
Conceptual Architecture Paper
Repository
DOI

Publication Scope
This page provides an English summary and citation record for the published paper. The complete manuscript, references, and versioned repository record are available through the DOI.

Official Abstract

Abstract

AI-mediated search, commerce, and decision-support systems are often evaluated through behavioral or business outcomes such as interaction, engagement, and conversion, which do not necessarily represent the quality of the underlying user decision process.

This paper proposes Intent-to-Income, a proprietary Reference Decision Architecture for AI-first Decision Intelligence focused on Customer Decisions and Commerce Decisions. The architecture defines a canonical core flow—Decision Signals → Decision Need → Decision Support → Decision Quality → Measurable Outcomes—and treats Decision Context as a cross-cutting layer.

It is organized around four core components: Decision Journey Mapping, Decision Signal Matrix, Decision Interface, and Measurement Logic. Decision Quality is explicitly separated from terminal outcomes and is represented through three proposed dimensions: Understanding, Confidence, and Readiness.

These dimensions are conceptual and have not yet been empirically validated. The paper also distinguishes Intent-to-Income from sales funnels, SEO frameworks, conversion-rate optimization frameworks, revenue attribution models, and product recommendation algorithms, while abstracting proprietary implementation details such as internal weighting and evaluation rules.

The contribution is a decision-centered architecture that organizes Decision Signals, Decision Need, Decision Support, Decision Quality, and Measurable Outcomes into a connected structure for AI-mediated Customer and Commerce Decisions. Limitations and directions for empirical validation, measurement development, comparative evaluation, and human oversight are identified.

Keywords:
Decision Intelligence; AI-assisted Decision Support; Human–AI Decision-making; Decision Quality; Customer Decisions; Commerce Decisions; Reference Architecture

RESEARCH STATUS
Conceptual contribution · Empirical validation remains future work

Plain-Language Summary

What the Paper Proposes

The paper begins with a simple question: if a user clicks, converts, or completes an action, does that mean the underlying decision was well-informed? Not necessarily.

RESEARCH PROBLEM
Behavioral and business outcomes show what happened, but do not directly explain the quality of the decision process.

PROPOSAL
Intent-to-Income™ connects Decision Signals, Decision Need, Decision Support, Decision Quality, and Measurable Outcomes, with Decision Context informing interpretation across the architecture.

DECISION QUALITY
The paper separates Decision Quality from Conversion, Ranking, Recommendation, and Outcomes, and proposes Understanding, Confidence, and Readiness as conceptual dimensions.

VALIDATION STATUS
The architecture and proposed dimensions are conceptual contributions that still require operational definitions, measurement instruments, and empirical validation.

Research Problem & Gap

The Gap between Signals, Decision Support, and Decision Quality

Decision Support Systems, Decision Intelligence, Consumer Decision Support, and Recommender Systems already have substantial research foundations. However, they often examine specific systems, contexts, or measurement problems separately.

The paper therefore addresses a narrower architectural question: how can Decision Signals, Decision Need, Decision Support, Decision Quality, and Outcomes be explicitly separated and connected within one reference structure for AI-mediated Customer and Commerce Decisions?

ESTABLISHED WORK
Existing research covers Decision Support, Decision Intelligence, Information Behaviour, Consumer Decision Support, and Decision Quality in recommendation systems.

ARCHITECTURAL GAP
The paper identifies room for a reference structure that distinguishes and connects Signals, Need, Support, Decision Quality, and Measurable Outcomes in AI-mediated Customer and Commerce Decisions.

PROPOSED RESPONSE
Intent-to-Income™ proposes a decision-centred architecture that structures these relationships while keeping Decision Quality distinct from terminal outcomes.

Research Context & Supporting Literature ↓
  • Decision Intelligence:
    Moser, Rengarajan, and Narayanamurthy conceptualize a framework for aligning decision-related intelligence requirements with intelligence-processing capacities.
    View source
  • Decision Intelligence and Data Science:
    Pratt, Bisson, and Warin propose an integration framework describing how Data Science can inform components of strategic decision-making.
    View source
  • Consumer Decision Support:
    Westerman and colleagues study consumer decision support in internet and in-store settings.
    View source
  • Decision Quality Measures:
    Aksoy, Cooil, and Lurie review Decision Quality measures used in recommendation-agent research.
    View source

Conceptual Contributions

Four Contributions at the Architecture Level

The paper’s contribution is the organization of established and proposed decision-related constructs within a connected architecture whose layers can be studied, designed, and evaluated separately.

01
Decision Need as an Explicit Intermediate Layer
Decision Need sits between interpreted Decision Signals and Decision Support, separating what is observed from what the user may still require.

02
Decision Quality Distinct from Measurable Outcomes
Decision Quality is positioned as a separate architectural layer rather than inferred directly from Conversion, Ranking, Recommendation, or terminal outcomes.

03
Proposed Decision Quality Dimensions
Understanding, Confidence, and Readiness are proposed as dimensions for representing the user’s decision state, subject to future operationalization and validation.

04
Measurement Logic across Evidence Types
Process Signals, Decision Quality Signals, and Measurable Outcomes are separated so each evidence type can be interpreted according to its role.

Contribution ≠ Validation
These are architectural propositions, not evidence that the relationships among the layers or the proposed Decision Quality dimensions have been empirically validated.

Architecture Model

Architecture at a Glance

Intent-to-Income™ defines a five-stage canonical Core Flow, treats Decision Context as a cross-cutting layer, and organizes its design around four Core Architecture Components.

Intent-to-Income Reference Decision Architecture showing Decision Context, the Core Flow from Decision Signals to Measurable Outcomes, proposed Decision Quality dimensions, and four Core Architecture Components
Figure 1. Intent-to-Income™ Reference Decision Architecture for AI-first Decision Intelligence. The figure represents the architecture at a conceptual level; proprietary implementation-specific mechanisms are intentionally abstracted.

CANONICAL CORE FLOW
Decision Signals → Decision Need → Decision Support → Decision Quality → Measurable Outcomes

DECISION CONTEXT
Informs Signal interpretation, Proposed Decision Need, and Decision Support Requirements across the architecture; it is not a sixth Core Flow stage.

CORE COMPONENTS
Decision Journey Mapping · Decision Signal Matrix · Decision Interface · Measurement Logic

PROPOSED DIMENSIONS
Understanding · Confidence · Readiness

PRIMARY SCOPE
AI-mediated Customer Decisions and Commerce Decisions

Conceptual Model Boundary
The figure represents architectural relationships; it does not establish causality, intervention effectiveness, or measurement validity.

For the complete Core Flow, components, and application scope, see the Intent-to-Income™ Reference Decision Architecture.

Illustrative Application

Knowledge-led Commerce: A Hypothetical Application

The paper uses Knowledge-led Commerce as a domain label for Commerce Decisions that require users to examine information, evaluate evidence, compare alternatives, and understand trade-offs. The following hypothetical scenario applies the architecture to an AI Decision Application for technically complex products with conflicting claims.

01
Decision Signals and Context Interpretation
The system observes signals that a user is encountering conflicting Product Claims across multiple sources. Decision Context indicates that technical compatibility may be relevant to the decision.

02
Proposed Decision Need
Rather than interpreting the Signals as Purchase Intent, the Decision Signal Matrix is used conceptually to identify a possible need for clearer criteria and sufficiently reliable evidence.

03
Decision Support
The Decision Interface may present comparisons, explanations, and relevant evidence, including Trade-offs, Limitations, and Uncertainty, rather than an unconditional recommendation.

04
Evidence Relevant to Decision Quality
Reviewing technical definitions, comparisons, or Trade-offs may provide evidence relevant to Understanding and Confidence, but these behaviours are not validated measures of either construct.

05
Measurable Outcomes
A Qualified Next Step or Assisted Conversion may be recorded as a downstream outcome, but neither establishes high Decision Quality on its own.

Hypothetical Illustration — Not an Evaluation Result
This scenario illustrates relationships within the architecture. It is not an End-to-end Case, empirical evaluation, or evidence of causality, and it does not disclose implementation-specific inference or Measurement Logic.


Measurement & Evaluation

Different Evidence Levels Answer Different Questions

Measurement Logic separates evidence about the decision process, candidate indicators of Decision Quality, and downstream outcomes. This prevents interaction volume or business results from being treated as direct measures of Decision Quality.

Evidence Level What It Helps Explain Examples What It Cannot Establish
Process Signals How Decision Support is used and where friction occurs Reviewing evidence, using comparisons, revisiting information, or requesting clarification More interaction does not establish higher Decision Quality
Decision Quality Signals Candidate evidence relevant to Understanding, Confidence, and Readiness Assessment responses, evidence-use patterns, calibrated confidence reports, or context-specific indicators No isolated signal validates a construct or establishes Decision Quality
Measurable Outcomes What occurs downstream of the decision process Qualified Next Step, Qualified Lead, Assisted Conversion, reduced friction, or a better-fit action A downstream outcome alone does not establish that Decision Quality was high

EVALUATION AND FEEDBACK
Evaluation should examine relationships among Process Signals, Decision Quality Signals, and Measurable Outcomes. Findings can then inform revisions to Decision Support, Decision Journey Mapping, and related design elements.


Measurement Guardrail

The paper proposes Measurement Logic for future investigation, not a validated measurement instrument. Construct validity, reliability, operational definitions, and relationships among the evidence levels still require empirical validation.


Research Boundaries

Limitations and Validation Status

Intent-to-Income™ is presented as a conceptual architecture. The following limitations define how its contribution should be interpreted and what remains to be tested.


01


No Empirical Validation Yet

The architecture, Decision Quality model, and Measurement Logic have not been systematically validated. There is not yet empirical evidence that interventions designed under the architecture improve decision processes or outcomes.


02


Proprietary Implementation Logic Is Abstracted

The paper discloses the conceptual structure, Core Flow, components, and semantic boundaries, but not internal thresholds, weighting logic, complete criteria libraries, prompt internals, source-reliability models, or operational rules.
The complete internal implementation therefore cannot be reproduced from the paper alone.


03


The Architecture Has a Defined Scope

Intent-to-Income™ is proposed for AI-first Decision Intelligence in Customer Decisions and Commerce Decisions. It is not a sales funnel, SEO or CRO framework, revenue-attribution model, or product-recommendation algorithm.


04


Generalizability Remains an Open Question

Application to other domains, decision types, populations, or organizational settings requires further theoretical analysis and context-specific empirical testing.

WHAT THE PAPER CONTRIBUTES
An architectural definition, Core Flow, components, conceptual relationships, semantic boundaries, and a future research agenda.

WHAT THE PAPER DOES NOT YET ESTABLISH
Construct validity, measurement reliability, causal effects, comparative performance, or cross-domain generalizability.


Discussion & Future Research

Future Research Agenda

Future research should test whether the constructs and relationships proposed by Intent-to-Income™ can be reliably defined, measured, and evaluated across different Decision Contexts.

Research Track Key Question What Must Be Examined
Decision Quality Validation Can Understanding, Confidence, and Readiness be defined and measured as distinct but related dimensions? Construct validity, reliability, operational definitions, and relationships with satisfaction, post-decision regret, and long-term decision utility
Measurement Development How can Understanding and contextual Confidence be assessed without relying only on self-reports or adding excessive cognitive burden? Behavioral, interaction, assessment, and evidence-use measures combined with validated instruments where appropriate
Human Oversight & Decision Authority How should Decision Interfaces communicate uncertainty, evidence limitations, alternatives, and unresolved trade-offs? Appropriate reliance, over-reliance, under-reliance, and recognition of insufficient evidence
Architecture-Level Evaluation Does the architecture add value beyond conversion-centric or recommendation-centric approaches? Comparative evaluation of decision processes, indicator calibration, evidence understanding, readiness, and downstream outcomes
Scroll horizontally to view the full table →

CROSS-DOMAIN GENERALIZABILITY
Application beyond Customer Decisions and Commerce Decisions remains an empirical question. Each domain requires evidence standards, uncertainty representation, escalation mechanisms, and human oversight appropriate to its level of risk.


High-Risk Application Boundary

The Health Decision Model (HDM) is an exploratory application domain within HaNonn. Applying the architecture to health-related decisions would require independent validation, safety evaluation, and stronger human oversight. It should not be interpreted as a diagnostic, treatment, or autonomous decision-making system.

The immediate priority is to establish operational definitions and evaluation protocols before comparing effectiveness or extending claims to other domains.


Conclusion

Research Significance

In AI-mediated environments, systems that support human judgment should be distinguished from systems optimized primarily for interaction, recommendation, or commercial outcomes. Intent-to-Income™ addresses this architectural concern by separating Decision Need and Decision Quality from Signals, Support, and downstream Outcomes.

The paper’s current value is its conceptual foundation and semantic boundaries, which can support critique, measurement development, and empirical research. It does not claim that the architecture or its proposed Decision Quality model has already been validated.

CONTRIBUTION
A decision-centered architecture that makes Decision Need and Decision Quality independently examinable from Signals, Support, and Outcomes

RESEARCH USE
A basis for construct validation, measurement development, comparative evaluation, and research on human oversight

HUMAN AUTHORITY
Providing Decision Support does not imply transferring Decision Authority to an AI or automated system

RELATIONSHIP TO HANONN
The paper provides the published conceptual foundation for Intent-to-Income™ within HaNonn. Implementation claims, application performance, and evaluation results require additional evidence specific to each system and Decision Context.

Intent-to-Income™ provides a foundation for studying and designing AI Decision Applications that help people evaluate evidence, alternatives, and appropriate next steps while preserving human Decision Authority.


Publication Record

How to Cite and Access the Paper

Use the Zenodo publication record and DOI when citing the paper, its contribution, or the proposed architecture.

RECOMMENDED CITATION
Pannutiyarak, K. (2026). Intent-to-Income: A Reference Decision Architecture for AI-first Decision Intelligence (Version 1.0). Zenodo.
https://doi.org/10.5281/zenodo.22151798

Full Paper
Version
1.0 · Published August 29, 2026
Author ORCID

BibTeX Citation ↓
@misc{pannutiyarak2026intent,
  author    = {Kittisak Pannutiyarak},
  title     = {Intent-to-Income: A Reference Decision Architecture for AI-first Decision Intelligence},
  year      = {2026},
  publisher = {Zenodo},
  version   = {1.0},
  doi       = {10.5281/zenodo.22151798},
  url       = {https://doi.org/10.5281/zenodo.22151798}
}

Citation Note

Use the DOI when citing the published paper. Use
this page URL
when referring specifically to the web summary or supporting explanations published by HaNonn.


Scholarly Sources

References

The following scholarly sources are cited in the published manuscript.

View full reference list ↓
  1. Aksoy, L., Cooil, B., & Lurie, N. H. (2011). Decision quality measures in recommendation agents research. Journal of Interactive Marketing, 25(2), 110–122.
    https://doi.org/10.1016/j.intmar.2011.01.001
  2. Broder, A. (2002). A taxonomy of web search. ACM SIGIR Forum, 36(2), 3–10.
    https://doi.org/10.1145/792550.792552
  3. Lee, J. D., & See, K. A. (2004). Trust in automation: Designing for appropriate reliance. Human Factors, 46(1), 50–80.
    https://doi.org/10.1518/hfes.46.1.50_30392
  4. Moser, R., Rengarajan, S., & Narayanamurthy, G. (2021). Decision intelligence: Creating a fit between intelligence requirements and intelligence processing capacities. IIM Kozhikode Society & Management Review, 10(2), 160–177.
    https://doi.org/10.1177/22779752211017386
  5. Pirolli, P., & Card, S. K. (1999). Information foraging. Psychological Review, 106(4), 643–675.
    https://doi.org/10.1037/0033-295X.106.4.643
  6. Power, D. J. (2002). Decision support systems: Concepts and resources for managers. Quorum Books.
  7. Pratt, L., Bisson, C., & Warin, T. (2023). Bringing advanced technology to strategic decision-making: The Decision Intelligence/Data Science (DI/DS) Integration framework. Futures, 152, 103217.
    https://doi.org/10.1016/j.futures.2023.103217
  8. Rahinel, R., Otto, A. S., Grossman, D. M., & Clarkson, J. J. (2021). Exposure to brands makes preferential decisions easier. Journal of Consumer Research, 48(4), 541–561.
    https://doi.org/10.1093/jcr/ucab025
  9. Schemmer, M., Hemmer, P., Kühl, N., Benz, C., & Satzger, G. (2022). Should I follow AI-based advice? Measuring appropriate reliance in human–AI decision-making. CHI Conference on Human Factors in Computing Systems (CHI ’22), Workshop on Trust and Reliance in AI-Human Teams (trAIt).
    https://doi.org/10.48550/arXiv.2204.06916
  10. Simon, H. A. (1977). The new science of management decision (Rev. ed.). Prentice-Hall.
  11. Westerman, S. J., Tuck, G. C., Booth, S. A., & Khakzar, K. (2007). Consumer decision support systems: Internet versus in-store application. Computers in Human Behavior, 23(6), 2928–2944.
    https://doi.org/10.1016/j.chb.2006.06.006