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    Compliance Guide

    AI Governance for Research Computing: IRB, Grants, and Export Controls

    AI governance for research computing should translate IRB approvals, grant terms, data classifications, export-control determinations, user roles, and tool permissions into enforceable runtime controls. The practical objective is to govern what an AI agent can access, retrieve, transform, generate, call, export, log, and share, while preserving durable evidence for IRB, sponsor, export-control, privacy, security, and research computing reviews.

    Why research AI governance is a runtime problem

    AI governance for research computing should translate IRB approvals, grant terms, data classifications, export-control determinations, user roles, and tool permissions into enforceable runtime controls.

    The practical objective is to govern what an AI agent can access, retrieve, transform, generate, call, export, log, and share, while preserving durable evidence for IRB, sponsor, export-control, privacy, security, and research computing reviews.

    Research AI agents should be treated as active computing principals. They need identities, permissions, approved tools, monitored execution paths, and auditable decisions. A practical architecture places policy decision and enforcement between agents and sensitive resources, rather than relying only on researcher training or after-the-fact review.

    Translate IRB, grant, and export obligations into enforceable controls

    A useful governance model starts by converting institutional approvals and compliance decisions into policy attributes that AI systems can evaluate. IRB AI governance should not be limited to documenting whether AI is mentioned in a protocol. It should identify which datasets are in scope, whether data are identifiable or private, what uses are approved, who may access the data, what outputs require review, and what confidentiality safeguards apply.

    Grant compliance as operational policy

    Grant compliance should be treated similarly. If an award requires a data management and sharing plan, the AI environment needs a way to reflect the approved plan in operational controls. That may include which scientific data may be generated, where related tools or code may run, what access controls apply, when data may be preserved or shared, and who oversees compliance. AI grant compliance becomes difficult when agents can silently create derivative datasets, embeddings, summaries, or code artifacts outside the approved workspace.

    Export-control boundaries for AI activity

    AI export controls require particular attention to information movement. A governed system should distinguish between internal analysis, display to an authorized user, inclusion in a prompt to an external service, storage in logs, output to a collaboration platform, and transfer to a foreign person or foreign destination. Export-control applicability is fact-specific, but runtime governance can help enforce institutional determinations by preventing controlled technical information from moving into unapproved models, tools, logs, or shared destinations.

    Policy specificity

    The key design principle is specificity. Policies should distinguish viewing, summarizing, transforming, exporting, fine-tuning, embedding, logging, and sharing. These actions are not equivalent from a compliance perspective, and an AI agent policy enforcement layer should not treat them as a single generic access request.

    Runtime governance architecture for research AI agents

    1. Define agents as accountable actors

      Research AI agents should be treated as active computing principals. They need identities, permissions, approved tools, monitored execution paths, and auditable decisions.

    2. Place enforcement at the point of action

      A practical architecture places policy decision and enforcement between agents and sensitive resources, rather than relying only on researcher training or after-the-fact review.

    Implementation priorities for high-risk research workflows

    Institutions do not need to solve every AI governance issue at once. The first phase should focus on agent actions that create the highest risk of privacy exposure, grant noncompliance, uncontrolled derivative data, or unauthorized transfer of technical information. Controls should be tested with realistic research scenarios before broad deployment.

    Operational governance practices that reduce audit gaps

    • Assign accountable owners: Document owners for protocols, grants, datasets, agents, models, tools, exceptions, logs, and compliance evidence. Ownership gaps become audit gaps when agent behavior is questioned.
    • Review actual execution, not only approvals: Periodically compare approved protocols and grant plans against runtime logs to identify unapproved data access, unexpected tools, excessive permissions, or missing evidence.
    • Define derivative output rules: Specify when AI outputs become regulated derivatives, research records, technical data, publication candidates, or datasets requiring additional review.
    • Apply least privilege to agents and users: Agents should receive only the data, tools, and destinations needed for the approved workflow. User access should not automatically grant unrestricted agent action.
    • Preserve evidence in usable form: Audit records should be durable, searchable, and understandable to reviewers who need to reconstruct what happened without replaying the entire workflow.

    Evaluation criteria for research AI governance platforms

    • Can policies incorporate IRB protocol status, grant or award identifiers, dataset classification, user role, project membership, approved tools, location, and export-control attributes where relevant?
    • Can the platform enforce controls across data access, retrieval, tool calls, code execution, model calls, file export, external API use, and output destinations?
    • Can it prevent or flag movement of human-subjects data or controlled technical information into unapproved models, external tools, embeddings, logs, or collaboration spaces?
    • Does it support least-privilege agent permissions, tool approval workflows, exception handling, human review, retention policies, and audit logging?
    • Can audit evidence show initiator, agent, model, data accessed, tool invoked, policy decision, output destination, timestamp, and reviewer approvals?
    • Can governance, security, and research operations teams use the evidence for IRB, sponsor, export-control, privacy, and security reviews?

    Where Trussed AI fits

    For teams evaluating governed research AI workflows, the platform fit should be assessed against the runtime control and audit evidence needs described above: IRB requirements, grant restrictions, export-control decisions, identity, permissions, approved tools, model calls, output destinations, retention policies, and reviewer evidence.

    Govern research AI where it actually runs

    Use runtime controls to connect IRB requirements, grant restrictions, export-control decisions, identity, permissions, and audit evidence across AI-enabled research workflows.

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