AI Intent Fidelity Theory（AIFT）：以結構化提示詞提升 AI 可靠性的新框架

AI Intent Fidelity Theory (AIFT): Treating Prompts as Specifications for More Reliable AI Systems

Author: Binyam Tesfu

Affiliation: Independent Researcher

Research area: Prompt Engineering, AI Reliability, LLM Evaluation, and AI Systems Design

Paper type: Theoretical framework and proposed empirical evaluation

Version: 1.0

Abstract

Large language models can produce different outputs for instructions that appear similar, misunderstand implicit requirements, overlook constraints, or generate responses that satisfy the general intent of a request while violating important details. Prompt engineering attempts to reduce these failures, but prompt design is often treated as an informal craft rather than a systematic engineering discipline.

This paper introduces AI Intent Fidelity Theory (AIFT), a proposed framework for representing user intent as a structured specification that an AI system can interpret, execute, and evaluate.

AIFT proposes that the reliability of an AI response can be improved by explicitly representing semantic meaning, context, constraints, priorities, relationships, and verification requirements. Instead of treating a prompt as merely a block of natural-language text, the framework treats it as a specification containing requirements against which the resulting output can be evaluated.

The paper defines the central concepts of AIFT, introduces a conceptual model for intent fidelity, outlines a prompt-compilation architecture, and proposes an experimental protocol for evaluating whether structured prompts outperform ordinary prompts on measurable task-completion criteria.

AIFT does not assume that better prompting guarantees correctness. Its central proposition is testable: when an AI system receives a more explicit and verifiable representation of the intended task, it may be more likely to produce outputs that satisfy the task's actual requirements. The magnitude, reliability, and limitations of this effect must be established empirically.

Keywords: AI Intent Fidelity Theory, AIFT, prompt engineering, large language models, specification engineering, AI reliability, intent representation, prompt compilation, evaluation methodology.

1. Introduction

Natural-language interaction has become one of the primary interfaces through which humans communicate with artificial intelligence systems.

A user can ask an AI system to write software, analyze a dataset, explain a scientific concept, design an experiment, or develop a technical architecture. However, the quality of the resulting output depends on more than the model's underlying capabilities.

It also depends on how the task is represented.

Consider the following instruction:

Build a lightweight AI system that runs on a low-resource computer.

The request communicates a general objective, but leaves several important questions unanswered:

• What is the maximum RAM usage?
• Which operating systems must be supported?
• Is the system allowed to use external APIs?
• What does lightweight mean in measurable terms?
• Which capabilities are essential?
• How should performance be evaluated?
• What should happen when the system cannot complete a task?

Different interpretations may produce dramatically different implementations. One system might require several gigabytes of RAM, while another might operate within a much smaller memory budget but provide substantially fewer capabilities.

Both implementations could reasonably claim to address the request, yet only one might satisfy the user's actual requirements.

This illustrates a distinction between general intent recognition and requirement satisfaction.

AIFT investigates how this distinction can be represented and measured.

1.1 The central research question

Can the structure and explicitness of an instruction be engineered so that AI-generated outputs more consistently satisfy the user's intended requirements?

This question leads to several subsidiary questions:

1. Which components of an instruction most strongly influence task fidelity?
2. Can explicit constraints reduce ambiguity and requirement violations?
3. Can representing dependencies between requirements improve complex task execution?
4. Can automated verification detect discrepancies between requested and delivered results?
5. Do structured prompts improve outcomes enough to justify their additional complexity?
6. Under which tasks, models, and conditions does structured prompting fail to provide meaningful benefits?

AIFT proposes a framework for investigating these questions systematically.

1.2 The core hypothesis

The central hypothesis of AIFT is:

For tasks with identifiable requirements and measurable outcomes, representing intent through an explicit, structured specification can improve the probability that an AI-generated output satisfies those requirements, compared with a less structured instruction containing equivalent essential information.

This is a hypothesis, not an established universal law.

Its validity depends on the experimental conditions, the quality of the specification, the AI system, the task, and the evaluation method.

2. Defining AI Intent Fidelity Theory

AI Intent Fidelity Theory is a proposed framework for aligning an AI system's interpretation and execution of an instruction with the requirements that define successful completion of that instruction.

The framework distinguishes three stages:

1. Intent representation: What does the user want?
2. Intent execution: What does the AI system produce or do?
3. Intent verification: Does the resulting output satisfy the intended requirements?

A system can succeed at one stage while failing at another.

For example, an AI system might correctly understand that a user wants a secure application but produce code containing an authentication vulnerability. Alternatively, it might generate technically correct code that uses a programming language the user explicitly prohibited.

In both cases, the output may appear competent while failing the specification.

AIFT therefore treats output quality and intent fidelity as related but distinct evaluation dimensions.

2.1 A formal representation of intent

Let a user request be represented by:

[
I = (G,S,C,P,R,V)
]

where:

• (G) = goals and intended outcomes.
• (S) = semantic interpretation of the request.
• (C) = constraints and boundaries.
• (P) = priorities and conflict-resolution rules.
• (R) = relationships and dependencies among requirements.
• (V) = verification criteria.

This representation is conceptual. It does not require every prompt to contain six separate sections, nor does it assume that every request can be reduced to a perfectly formal specification.

For a simple question, most of these components may be implicit or unnecessary. For a complex engineering task, making them explicit can be valuable.

Consider a software-generation request.

The purpose of this decomposition is to make the request easier to inspect, implement, and evaluate.

It does not guarantee that the AI will interpret every component correctly. Instead, it creates explicit objects against which its interpretation and output can be checked.

2.2 Intent fidelity as an outcome

Let (I) denote the intended specification and (O) the generated output.

A conceptual intent-fidelity function is:

[
F(I,O) \in [0,1]
]

Here, (F) measures the degree to which the output satisfies the specification, with higher values indicating greater fidelity.

A practical implementation might evaluate individual requirements:

[
F(I,O)=
\frac{\sum_{i=1}^{n}w_i s_i(O)}
{\sum_{i=1}^{n}w_i}
]

where:

• (n) is the number of evaluated requirements.
• (w_i) is the importance weight of requirement (i).
• (s_i(O)) is the satisfaction score for requirement (i), between zero and one.

This weighted score is a proposed operationalization, not a validated universal metric.

It has important limitations. A high average score could conceal a catastrophic violation of one mandatory requirement. For example, a system might satisfy nine of ten requirements but fail a security constraint that should never be violated.

For this reason, AIFT should distinguish between ordinary requirements and hard constraints.

Let (H) be the set of mandatory constraints. A specification can be considered fully compliant only if:

[
\forall h \in H,\quad h(O)=\text{true}
]

The system should report hard-constraint failures separately instead of allowing them to disappear inside an average score.

This distinction is particularly important for security, privacy, safety, and resource-limited engineering.

3. The Six Components of AIFT

3.1 Semantic precision

Semantic precision concerns the clarity of the intended meaning.

Compare:

Make the model efficient.

With:

Reduce peak application RAM usage while preserving validation accuracy within a predefined tolerance.

The second instruction identifies measurable dimensions of efficiency and establishes a relationship between resource consumption and performance.

Semantic precision does not mean maximizing the length of a prompt. It means reducing ambiguity where ambiguity affects the result.

An effective specification should clarify terms that have multiple plausible interpretations, especially when those interpretations lead to different implementations.

3.2 Structural organization

Structure organizes the instruction into identifiable parts.

A structured prompt may separate:

• Objective
• Context
• Inputs
• Outputs
• Constraints
• Dependencies
• Acceptance criteria
• Verification procedure

This organization makes missing requirements easier to detect.

It can also support automated processing. A software tool could extract requirements, convert them into a machine-readable representation, and identify contradictions before sending the specification to an AI model.

However, structure introduces overhead. Excessive decomposition can make simple requests unnecessarily difficult to process.

The appropriate level of structure should depend on task complexity.

3.3 Context representation

Context provides information necessary to interpret a request correctly.

For example, a request to optimize a machine-learning model means something different when the target environment is:

• A workstation with multiple GPUs
• A CPU-only laptop with 8 GB of system RAM
• An embedded device with strict power limits
• A cloud deployment with a fixed inference budget

The objective may remain the same, but the feasible solutions differ.

AIFT treats relevant context as part of the specification rather than optional background information.

It also recognizes that more context is not always better. Irrelevant information can increase complexity, consume tokens, and distract from the task.

3.4 Constraints and boundaries

Constraints define what the system must or must not do.

Examples include:

• Use Python for data processing.
• Do not rely on paid APIs.
• Keep peak application memory below a specified threshold.
• Preserve existing public interfaces.
• Do not claim that a test passed unless it was executed.
• Return a machine-readable JSON object matching a defined schema.

Constraints should be distinguished by severity.

Hard constraints define mandatory conditions.

Soft constraints define preferences that can be traded off against other objectives.

A prompt that simply lists every requirement without distinguishing mandatory conditions from preferences may cause the model to optimize the wrong things.

AIFT proposes making this distinction explicit whenever it materially affects success.

3.5 Priorities and requirement relationships

Complex instructions can contain conflicting objectives.

For example:

Maximize accuracy, minimize memory, minimize latency, and preserve every capability.

These objectives may not be simultaneously achievable.

A specification should therefore define priorities, acceptable trade-offs, and dependencies.

A useful representation is a directed graph:

[
G_R=(V_R,E_R)
]

where each vertex in (V_R) represents a requirement, and each directed edge in (E_R) represents a dependency or ordering relationship.

For example:

[
\text{Parse documents}
\rightarrow
\text{Build index}
\rightarrow
\text{Retrieve passages}
\rightarrow
\text{Evaluate answers}
]

This graph helps identify prerequisites and execution order.

It does not solve every conflict automatically. If two mandatory constraints are mutually incompatible, the correct behavior is to identify the conflict and request clarification or report that no feasible solution has been established.

3.6 Verification and feedback

Verification determines whether the output satisfies the specification.

Possible techniques include:

• Unit tests
• Integration tests
• Schema validation
• Static analysis
• Benchmark evaluation
• Constraint checking
• Human review
• Independent model-based critique

The critical distinction is between generating an answer and establishing that the answer is correct.

A model's statement that its own output is correct is not independent evidence of correctness.

Where possible, verification should use external checks that are appropriate to the task. Code can be executed against tests; JSON can be validated against a schema; resource consumption can be measured; factual claims can be checked against reliable evidence.

When independent verification is unavailable, the system should state the uncertainty rather than treating its own confidence as proof.

4. From Prompt Engineering to Prompt Specification Engineering

Traditional prompt engineering includes many useful practices: providing examples, defining roles, supplying context, specifying output formats, and decomposing tasks into smaller steps.

AIFT does not claim to replace these practices.

Instead, it proposes organizing them around an explicit objective: preserving the requirements that define successful task completion.

This leads to a distinction between two approaches.

Informal prompt construction focuses primarily on wording instructions in a way that encourages a desirable response.

Specification-oriented prompt engineering additionally defines requirements, constraints, priorities, and acceptance tests that allow the result to be evaluated.

The second approach becomes especially valuable when the task has multiple dependencies, strict output requirements, or expensive consequences for failure.

4.1 A practical example

Suppose the user requests a small local AI assistant.

An informal prompt might be:

Create a smart AI assistant that runs efficiently on my computer and can answer questions using local documents.

A specification-oriented version might be:

Develop a local document-question-answering application for a CPU-only Windows computer with 8 GB of system RAM.

Requirements:

1. Import text, Markdown, and PDF documents.
2. Index their contents locally.
3. Answer questions using retrieved passages.
4. Display the source passages used to support each answer.
5. Do not send document contents to external services.
6. Measure peak application memory during a defined test workload.
7. Report retrieval accuracy and answer-support accuracy separately.
8. Identify unsupported claims rather than inventing citations.
9. Provide installation instructions and reproducible tests.

Acceptance criteria:

• All supported document formats pass the import tests.
• Offline operation is verified by testing without network access.
• Source references point to the correct imported documents.
• Memory measurements are reported with the test environment and workload.
• Failures and untested capabilities are documented explicitly.

The second prompt is longer because it specifies more of the intended behavior.

However, length alone is not the mechanism being proposed. The key difference is that the second instruction defines observable conditions for success.

A fair experiment must account for this distinction: if a structured prompt contains more information than its comparison prompt, any observed improvement could result from additional information rather than structure itself.

That problem must be addressed experimentally.

5. AIFT as a Prompt-Compilation Architecture

AIFT can be implemented as a software pipeline rather than remaining a manual prompting technique.

The proposed architecture contains six stages.

Stage 1: Intent ingestion

The system receives a natural-language request along with any relevant files, examples, environmental constraints, and user-provided context.

Its objective is to identify the intended outcome without silently inventing missing requirements.

Stage 2: Specification extraction

The system converts the request into a structured intermediate representation containing goals, requirements, constraints, priorities, dependencies, and acceptance criteria.

A machine-readable representation might look like this:

{
  "goal": "Build a local document QA system",
  "constraints": {
    "network_access": false,
    "target_ram_mb": 200
  },
  "requirements": [
    "Import supported documents",
    "Retrieve relevant passages",
    "Ground answers in retrieved passages"
  ],
  "verification": [
    "Test document import",
    "Measure peak application memory",
    "Evaluate retrieval accuracy"
  ]
}

The 200 MB memory limit is illustrative. It is not a claim that the proposed application can meet that limit.

Likewise, this JSON is a possible representation, not a universal format required by AIFT.

Stage 3: Specification validation

Before execution, the system checks for:

• Missing information
• Contradictory constraints
• Undefined success criteria
• Incompatible requirements
• Unspecified assumptions
• Dependencies that have not been satisfied

If a requirement is essential but ambiguous, the system can ask the user a targeted question.

If the specification is internally inconsistent, the system should report the conflict instead of producing an implementation that pretends all requirements are achievable.

Stage 4: Prompt generation

The validated specification is converted into an instruction suited to the target model and task.

Different models may require different prompt formats. AIFT does not assume that one universal prompt template is optimal for every model.

The generated instruction should preserve the meaning and priorities of the specification.

Stage 5: Execution and verification

The model produces an answer, plan, code artifact, or other requested output.

The system evaluates that output against the acceptance criteria using available validators, tests, or human review.

When a test cannot be performed, the system records it as unverified rather than passing it by assumption.

Stage 6: Repair and reporting

If verification detects a failure, the system identifies the violated requirement and may generate a targeted correction.

The corrected output must be tested again.

The loop terminates when the acceptance criteria are satisfied, a defined resource or iteration limit is reached, or the system determines that further progress requires human input.

5.1 Architecture overview

Natural-language request
          |
          v
    Intent extraction
          |
          v
  Structured specification
          |
          v
  Validation and conflict checks
          |
          v
   Prompt compilation
          |
          v
       AI execution
          |
          v
  Independent verification
          |
          +---- Passed ----> Final output + evidence
          |
          +---- Failed ----> Diagnose and repair
                                  |
                                  v
                              Re-verify

The important architectural shift is that the system does not treat generating an answer as the end of the process.

Generation is one stage in a larger specification-execution-verification cycle.

6. Measuring Intent Fidelity

A theory intended to improve AI reliability needs measurable outcomes.

AIFT therefore proposes evaluating task fidelity through explicit acceptance criteria rather than relying exclusively on subjective impressions of answer quality.

6.1 Requirement-level evaluation

For a task containing (n) requirements, let:

[
s_i =
\begin{cases}
1 & \text{if requirement } i \text{ is satisfied}\
0 & \text{otherwise}
\end{cases}
]

A simple unweighted requirement-satisfaction score is:

[
IFS = \frac{1}{n}\sum_{i=1}^{n}s_i
]

Here, IFS stands for Intent Fidelity Score.

For example, suppose a generated application is evaluated against ten binary requirements and satisfies eight.

Its unweighted score is:

[
IFS=\frac{8}{10}=0.8
]

This indicates that 80% of the evaluated requirements were satisfied. It does not mean that the application is 80% correct in every meaningful sense.

The score is only as useful as the requirements and evaluation procedures on which it depends.

6.2 Weighted requirements and hard constraints

Not all requirements have equal importance.

A weighted score can account for differences in importance, but mandatory constraints should be evaluated separately.

A practical report should therefore include at least:

• Overall requirement-satisfaction score
• Mandatory-constraint violations
• Number of unmet requirements
• Verification coverage
• Unsupported or unverified claims
• Test failures and their severity

A system that achieves a high average score while violating a critical security requirement must not be presented as fully compliant.

6.3 Evaluation reliability

Requirement satisfaction can be difficult to judge when the output is open-ended.

For subjective criteria, evaluators should use a defined rubric and, where feasible, independent reviewers.

For executable artifacts, automated tests can provide stronger evidence, although tests themselves may be incomplete or incorrectly designed.

The evaluation process should also record disagreements between reviewers and distinguish missing evidence from confirmed failure.

AIFT does not eliminate the difficulty of measuring correctness. It makes that difficulty explicit within the framework.

7. Proposed Experimental Evaluation

The central claim of AIFT should be tested through controlled experiments.

The following protocol is designed to evaluate whether structured, specification-oriented prompts improve requirement satisfaction compared with ordinary prompts.

It is a proposed experimental design, not a report of completed results.

7.1 Research question

Do specification-oriented prompts produce higher intent-fidelity scores than conventional prompts when both conditions contain equivalent essential task information?

7.2 Experimental conditions

Condition A — Conventional prompting

Tasks are presented in ordinary natural-language form, using a standardized procedure and a defined prompt-length policy.

Condition B — AIFT-style prompting

The same task requirements are organized into explicit goals, constraints, priorities, dependencies, and verification criteria.

To isolate the effect of structure, the conditions should contain equivalent essential information wherever possible.

Prompt length, token count, examples, and any additional instructions should be recorded. If a prompt contains more useful information than its counterpart, the experiment must acknowledge that difference rather than attributing the entire effect to structure.

7.3 Proposed task set

The initial study can use 40 tasks distributed across several categories, such as:

• Instruction following
• Structured data generation
• Code generation
• Constraint-heavy planning
• Technical analysis

Each task is evaluated under both prompting conditions, with ten repeated trials per condition.

This yields:

[
40 \times 2 \times 10 = 800
]

total task executions.

The 800 executions are a proposed study size, not evidence that the experiments have already been conducted.

A detailed protocol should define the tasks, scoring rubrics, model versions, generation settings, randomization procedure, and exclusion criteria before data collection.

7.4 Outcome measures

The primary outcome is the difference in mean intent-fidelity scores between the two conditions.

Let:

[
\Delta =

\overline{IFS}_{AIFT}

\overline{IFS}_{Conventional}
]

A positive value indicates higher average scores under the AIFT condition.

Secondary outcomes should include:

1. Mandatory-constraint violation rate
2. Task-completion rate
3. Number of repair iterations required
4. Token consumption
5. Execution time, where measurable
6. Verification coverage
7. Failure severity

These measures help determine whether any fidelity improvement comes with substantial costs.

For example, a structured prompt might improve compliance but require substantially more tokens. That trade-off matters for real-world deployment.

7.5 Statistical analysis

Because the same tasks are evaluated under both conditions, the analysis should account for the paired experimental design.

The study should report:

• Mean and median score differences
• Confidence intervals
• Effect sizes
• Task-level variation
• Failure rates
• Results by task category

A paired bootstrap confidence interval or another justified paired-data method could be used to estimate uncertainty.

A pre-specified sign-flip permutation test could provide a complementary assessment of the observed paired difference.

The analysis plan must specify the statistical unit, treatment of repeated trials, and handling of multiple comparisons before examining results.

7.6 A preliminary decision rule

For an initial pilot, the researchers could define a practically meaningful improvement threshold of 0.10 on the 0-to-1 fidelity scale.

Under this illustrative rule, the evidence would be more encouraging if the estimated improvement were at least 0.10, its confidence interval excluded zero, and the pre-specified statistical test met its significance threshold.

However, statistical significance and practical significance are different.

A study should not treat a result as conclusive merely because a threshold is crossed. The sample may be too small, the tasks may not generalize, or the scoring rubric may favor one condition.

The threshold should therefore be justified in advance and interpreted alongside the full results.

7.7 Controlling confounding variables

The study should control or document:

• Model identity and version
• System instructions
• Sampling parameters
• Prompt token count
• Tool access
• Available context
• Task difficulty
• Evaluation rubric
• Trial order
• Failures and missing outputs

Where possible, outputs should be scored without evaluators knowing which prompting condition produced them.

The task set should include both straightforward tasks and tasks with interacting constraints. Otherwise, the experiment might fail to reveal the conditions under which specification-oriented prompting is most useful.

7.8 Reproducibility

The final study report should publish, subject to applicable licenses and privacy constraints:

• Task definitions
• Prompt templates
• Structured specifications
• Scoring rubrics
• Model and configuration details
• Evaluation scripts
• Raw or appropriately anonymized results
• Statistical analysis code
• Known limitations

This would allow other researchers to reproduce the experiment, challenge its assumptions, and test the framework under different conditions.

8. Threats to Validity and Limitations

A credible theory must specify how it could fail.

AIFT has several important limitations.

8.1 Better specifications can still produce wrong answers

An AI model can receive a perfectly structured instruction and still misunderstand it, hallucinate facts, generate defective code, or fail to execute the requested task.

AIFT concerns the representation and evaluation of intent. It does not independently solve the underlying limitations of language models.

8.2 Structure may not be the causal factor

If an AIFT-style prompt contains more information than a conventional prompt, improved performance may result from the additional information rather than the organizational structure.

Controlled experiments must distinguish these possibilities.

8.3 Formalization can introduce errors

The process of translating natural language into a structured specification can itself distort the user's meaning.

A system might omit an implicit requirement, incorrectly assign priorities, or turn a preference into a mandatory constraint.

For this reason, the specification should remain inspectable and, for consequential tasks, subject to user confirmation.

8.4 Verification can be incomplete

Tests only establish what their design allows them to establish.

Passing a limited set of software tests does not prove the absence of bugs. A high factuality score on one benchmark does not establish universal factual reliability.

Verification coverage and untested requirements must be reported explicitly.

8.5 Overhead and diminishing returns

Detailed specifications consume time and tokens. For simple questions, the added structure may provide little benefit.

The framework should therefore be evaluated not only on fidelity, but also on cost, latency, and ease of use.

8.6 Generalization remains an empirical question

A result obtained from one model, one benchmark, or one category of tasks may not generalize to other settings.

Claims about broad improvements in AI reliability require diverse experiments and independent replication.

These limitations are not reasons to abandon the framework. They define the conditions under which it should be tested.

9. Relationship to Existing Research

AIFT should be understood in relation to established work in prompt engineering, formal methods, software specification, program synthesis, and automated evaluation.

Several research directions are especially relevant.

Prompt engineering and in-context learning. Research on prompt design investigates how instructions, examples, and context influence model behavior. AIFT builds on this area by emphasizing explicit requirement representation and measurable compliance.

Formal methods and software specification. Formal methods investigate how system properties can be represented and checked. AIFT borrows the broader engineering principle that desired behavior should be stated in a form that can be evaluated, while recognizing that natural-language intent is often ambiguous and difficult to formalize completely.

Program synthesis and test-driven development. These fields demonstrate the value of connecting requested behavior to executable constraints and tests. AIFT proposes extending a similar specification-oriented mindset to a broader range of AI tasks, including those without fully executable acceptance criteria.

LLM evaluation and benchmark design. Existing evaluation practices highlight the importance of task selection, scoring validity, reproducibility, and limitations of benchmark-based conclusions. AIFT depends on these principles rather than replacing them.

Relevant foundational references include:

1. Brown, T. B., et al. (2020). Language Models are Few-Shot Learners. Advances in Neural Information Processing Systems. https://arxiv.org/abs/2005.14165
2. Wei, J., et al. (2022). Chain-of-Thought Prompting Elicits Reasoning in Large Language Models. Advances in Neural Information Processing Systems. https://arxiv.org/abs/2201.11903
3. Liu, P., et al. (2023). Pre-train, Prompt, and Predict: A Systematic Survey of Prompting Methods in Natural Language Processing. ACM Computing Surveys. https://arxiv.org/abs/2107.13586
4. Liang, P., et al. (2022). Holistic Evaluation of Language Models. https://arxiv.org/abs/2211.09110

These publications provide relevant background for prompt-based interaction and model evaluation. They should not be interpreted as direct experimental validation of AIFT itself.

AIFT's proposed contribution is the explicit integration of intent representation, constraints, priorities, dependencies, and verification into a unified framework for evaluating prompt fidelity.

Whether this integration constitutes a useful improvement over existing methods remains an empirical question.

10. Implications for AI System Design

If future experiments support the central hypothesis, AIFT could inform several practical applications.

10.1 Prompt compilers

A prompt compiler could transform informal requests into structured specifications, detect missing constraints, and generate model-specific instructions.

Such a tool could also preserve a record of the original request and the transformations applied to it.

10.2 AI-assisted software engineering

Development systems could translate requirements into implementation plans, code-generation instructions, test cases, and traceability reports.

Each requirement could be linked to the code and tests intended to satisfy it.

10.3 Autonomous agents

An AI agent could maintain an explicit representation of its objectives, permitted actions, resource limits, and completion criteria.

Before declaring a task finished, it could evaluate the evidence supporting each completion claim.

This would not guarantee safe or correct autonomous behavior, but it could make failures more visible and measurable.

10.4 Specialized AI systems

AIFT could provide a common specification layer across different models and tools.

A request could be represented independently of the model that eventually processes it, allowing researchers to compare execution strategies against the same requirements.

This is particularly relevant when different models specialize in coding, retrieval, planning, vision, or other tasks.

10.5 Human-AI collaboration

A structured specification could give users a clearer opportunity to correct the AI's interpretation before expensive or irreversible actions occur.

Instead of discovering at the end that the system misunderstood the task, the user could inspect its proposed interpretation and resolve important ambiguities early.

11. Future Research Directions

Several research directions follow from the framework.

Adaptive specification depth: Investigate whether an AI system can estimate task complexity and use minimal specifications for simple tasks while applying more rigorous specification and verification to complex tasks.

Specification consistency: Develop methods to detect contradictions, missing dependencies, and incompatible constraints before model execution.

Cross-model transfer: Test whether the same structured specification produces more consistent outcomes across different language models.

Intent preservation: Evaluate whether converting natural-language requests into intermediate representations introduces semantic drift.

Verification-aware generation: Investigate whether incorporating acceptance criteria during generation improves outcomes compared with checking them only afterward.

Cost-adjusted fidelity: Measure whether improvements in requirement satisfaction justify additional tokens, latency, computation, and verification costs.

Adversarial and ambiguous instructions: Study whether structured representations help systems identify conflicting instructions, underspecified requests, and attempts to bypass legitimate constraints.

Human evaluation: Examine whether structured specifications improve users' ability to detect errors, compare alternative outputs, and understand what an AI system has actually completed.

Each direction requires independent evaluation. None should be treated as a demonstrated capability merely because it fits the proposed architecture.

12. Conclusion

AI Intent Fidelity Theory proposes that reliable AI interaction should be treated as more than the production of plausible responses.

A system should have a representation of what the user intends, a method for translating that representation into executable instructions, and a way to evaluate whether the resulting output satisfies the requirements.

The framework organizes this process around six components: semantic precision, structural organization, context, constraints, priorities and relationships, and verification.

It also proposes a practical path toward implementation through specification extraction, validation, prompt compilation, execution, independent checking, and iterative repair.

The central claim remains deliberately testable: structured, specification-oriented prompting may improve the fidelity of AI outputs when requirements are explicit and outcomes can be evaluated. Establishing the size, consistency, cost, and generality of that improvement requires controlled experiments.

AIFT should therefore be viewed as a research framework to be tested and refined, not as proof that prompt engineering can eliminate model errors.

The broader objective is to make the relationship between human intention and AI behavior more explicit, measurable, and reproducible.

The goal is not merely to make AI produce better-looking answers. It is to make the requirements behind a task visible, the execution more disciplined, and the evidence of success easier to verify.

Author's Note

I am Binyam Tesfu, an independent researcher interested in prompt engineering, AI architecture, model efficiency, and methods for improving the reliability of intelligent systems.

I developed AI Intent Fidelity Theory as a framework for investigating how user intent can be represented more explicitly and evaluated more systematically during AI interaction.

This publication presents the theory and a proposed evaluation methodology. It does not claim that the proposed experiments have been completed or that AIFT has already demonstrated statistically significant improvements.

I welcome technical criticism, alternative formulations, reproducible experiments, and contributions that can help establish where the framework is useful and where it fails.

Suggested next steps for researchers

1. Implement a minimal specification extractor and validator.
2. Create a public benchmark containing conventional and structured prompt pairs.
3. Define requirement-level scoring rules before testing.
4. Run controlled experiments across multiple task categories.
5. Publish the data, evaluation code, and limitations.
6. Invite independent researchers to reproduce the results.

Research principle: A promising idea becomes a stronger scientific contribution when its claims can be challenged by evidence.