Biranchi Poudyal

Do University AI Policies Actually Decide Cases?

A vignette-based test of whether the published policy environment at 20 Australian universities actually resolves common AI-assisted student behaviours, or leaves them ambiguous.

Policy Analysis Completed · Last updated 26 August 2026

Overview

Reading a university’s AI policy tells you what it says. It does not tell you whether, in practice, a student, marker or integrity officer facing a specific situation can actually work out what is allowed. This project tests that directly: a fixed bank of realistic AI-use scenarios was applied to the full public policy environment of 20 Australian universities, and each outcome was classified according to whether the published documentation actually resolved the case.

Problem

Australian universities have produced generative-AI rules at speed, but those rules are frequently spread across several documents — a university-wide policy, unit-level guidance, assessment instructions — that a student has to reconcile themselves. Each document can look reasonable on its own while the combination still leaves a specific, everyday question unanswered. Without testing policies against realistic cases, neither students nor researchers can tell how much of this ambiguity actually exists.

My role

Sole researcher: designed the scenario bank and classification scheme, assembled and coded the policy environment for all 20 universities, and led the reliability checking and analysis, under the supervision of Dr Jon Mason at Charles Darwin University.

Research question

Does the combination of documents a university publishes reliably tell someone whether a specific, realistic AI-assisted behaviour is acceptable, prohibited or conditional — or does it leave the question open?

Data sources

The full public AI-governance environment for 20 Australian universities: academic integrity policies and procedures, assessment policies, and unit-level or student-facing generative-AI guidance, wherever each institution chose to publish it.

Method

I built a fixed bank of realistic test scenarios spanning common forms of AI-assisted student work — from fully transparent, verified use through to undisclosed, substantially AI-produced submissions — and applied each scenario to each university’s published policy environment using a structured classification protocol. A meaningful portion of the classifications were independently re-coded by a second coder, and disagreements were resolved by protocol rather than by a single analyst’s judgement, so that the reliability of the classification scheme itself could be checked and reported alongside the substantive findings.

Findings

The classification is complete and reported in a manuscript currently under peer review; I am holding back exact figures here until the published version is out, rather than previewing results that are still in the review process. In general terms: how clearly a behaviour was resolved varied enormously both by university and by the type of behaviour — transparent, verified uses were consistently the most clearly resolved, while more ambiguous or partially-disclosed uses were frequently left undetermined by the published rules. Independent double-coding showed strong agreement on whether a case was resolved at all, which gives confidence in the classification scheme itself. Full figures and the university-by-university breakdown will be added here once the manuscript is published.

Outputs

  • A manuscript reporting the full classification scheme and results — currently under peer review. A link will be added once it is published; the current draft is available on request.
  • The classification protocol also underlies the case-outcome logic used in the Case Portfolio published elsewhere on this site.

Impact

No externally verified impact to report yet, as the manuscript has not completed peer review. The classification scheme is already informing the design of the Academic Integrity Decision Framework published on this site.

Limitations

  • The analysis covers publicly available documents only; it does not observe actual enforcement practice or internal-only guidance.
  • Policies change quickly; the corpus is a dated snapshot rather than a live record.
  • Classification involves interpretive judgement; the dual-coding step was used to measure — not eliminate — that risk, and decision rules are documented so the study can be replicated.

Lessons learned

  • Institutions vary so widely in how they use terminology that a shared classification vocabulary had to be built and tested before any cross- institution comparison was meaningful.
  • Measuring whether a case was resolved at all turned out to be at least as informative as measuring what the resolution was — an unresolved case is a governance gap regardless of which way a policy eventually leans.

Manuscript under peer review. I will link the published version here once it is available — in the meantime, get in touch if you would like to see the current draft.

Downloadable materials

Not yet published while the manuscript is under review. The full coding matrix will be made available here after publication.

How the classification works

A fixed protocol applied consistently across all 20 universities in the study.

  1. Build the scenario bank

    Construct a fixed set of realistic AI-assisted student behaviours, spanning fully transparent, verified use through to undisclosed, substantially AI-produced submissions.

  2. Assemble each university's policy environment

    Collect the full set of public documents that could plausibly govern each scenario — integrity policy, assessment policy and unit-level or student-facing guidance — rather than relying on a single named policy.

  3. Classify each scenario against each policy environment

    Apply a structured classification protocol to determine whether the combination of documents actually resolves the case, and if so, in which direction.

  4. Independently re-code a sample

    A second coder re-classifies a meaningful portion of cases without seeing the first coder's decisions, so the reliability of the scheme itself can be measured and reported.

  5. Resolve disagreements by protocol

    Where coders disagree, the decision is resolved by a documented rule rather than individual judgement, and the disagreement is logged rather than smoothed over.

Empirical Study Completed

Testing How University AI Governance Holds Up Under Pressure

A scenario-based method that tests whether a university's public AI-governance documents still produce an accountable decision as AI use moves from simple assistance toward more autonomous, delegated action.

Key insight — The most common weak point wasn't a missing rule — it was a named responsible role with no specific criteria, safeguards or review to back it up.

Document analysis · Scenario-based stress testing · Structured coding protocol · Independent reliability checking

Last updated 26 August 2026

Technical Project In progress

AI Policy Extraction System

A Python pipeline using web extraction and the Gemini API to collect, structure and organise university AI-policy information, with human verification of every record.

Key insight — Every AI-extracted field is treated as a claim, not data, until a human checks it against the source — extraction speed never substitutes for verification.

Python · Web extraction · Gemini API · Structured JSON outputs · Human verification workflow

Last updated 28 July 2026