03 · What You Need to Know
Designing a Research Laboratory AI Policy That Researchers Can Actually Apply
Why a Laboratory Needs More Than a General University AI Policy
University-wide policies may establish broad principles concerning academic integrity, information security, and acceptable technology use.
However, individual laboratories often work with different research designs, datasets, participants, computational systems, and disciplinary obligations.
A laboratory investigating educational interventions may handle identifiable student records. A biomedical laboratory may process clinical or genomic information. A computational laboratory may use AI-generated code in analytical pipelines.
These activities introduce different risks.
A laboratory-level policy can translate institutional requirements into procedures relevant to its actual research workflows.
It should supplement rather than contradict higher-level rules.
Where institutional requirements are unclear, laboratory leaders should consult the relevant research ethics, information security, legal, or academic governance offices.
1. Define the Policy's Purpose and Scope
The policy should identify which activities, personnel, and systems it covers.
It may apply to faculty researchers, postdoctoral fellows, research assistants, graduate students, visiting scholars, and collaborators who access laboratory resources.
It should also specify whether the requirements concern generative AI, predictive machine-learning systems, AI-assisted analytical software, or other automated research tools.
These technologies should not automatically be treated as equivalent.
For example, a locally deployed statistical classifier operating on approved research infrastructure may present different confidentiality risks from an external generative AI service that processes uploaded documents.
Clear scope prevents confusion about which activities require authorization and which established laboratory procedures continue to apply.
2. Establish a Process for Approving AI Tools
Laboratory members should not assume that a commercially available AI tool is appropriate for every research task.
Tool approval should consider intended use, information sensitivity, provider data practices, access controls, contractual conditions, and technical capabilities.
For example, a system suitable for generating public-facing presentation outlines may not be authorized to process confidential participant transcripts.
Approval should be specific enough to distinguish between tool availability and permission to process particular categories of research information.
Where institutional technology review procedures already exist, the laboratory should use them rather than establish conflicting arrangements.
3. Define Permitted, Restricted, and Prohibited Uses
A practical policy should distinguish activities that researchers may undertake routinely from those requiring additional review or authorization.
| AI-assisted activity |
Illustrative policy treatment |
Primary consideration |
| Language editing of nonconfidential text |
May be permitted under standing conditions |
Accuracy, disclosure, and preservation of meaning |
| Preliminary literature exploration |
May be permitted with source verification |
Fabricated references and incomplete retrieval |
| Generation of analytical code |
Permitted subject to appropriate review and testing |
Computational correctness and reproducibility |
| AI-assisted qualitative coding |
May require methodological and data-security review |
Interpretive validity and confidentiality |
| Uploading identifiable participant records |
Restricted unless specifically authorized |
Privacy, consent, and research ethics |
| Changing participant eligibility criteria |
Requires appropriate human and protocol review |
Participant protection and protocol compliance |
| Automated exclusion of research observations |
Requires documented methodological justification |
Data integrity and analytical validity |
| AI-generated manuscript interpretations |
Requires substantive verification and applicable disclosure |
Scientific accuracy and author responsibility |
These classifications are illustrative, not universal legal or institutional requirements.
The laboratory should determine actual permissions through applicable rules and the risks of its research activities.
4. Classify Research Data Before AI Processing
Data governance is among the most consequential elements of laboratory AI policy.
Researchers should know which information may be processed using external services, institutionally approved platforms, or local computational infrastructure.
A practical classification system may distinguish public data, internal research material, confidential information, and highly sensitive or regulated records.
However, labels alone are insufficient. The policy should explain the handling requirements associated with each category.
For example, an unpublished manuscript may be confidential even when it contains no personal information.
De-identified participant data may still carry re-identification risks when combined with contextual information.
Researchers should therefore evaluate both the nature of the information and the proposed processing environment.
5. Protect Participant Consent and Research Ethics Commitments
Permission to collect research data does not automatically authorize processing those data through an external AI service.
Researchers should examine the approved protocol, participant information materials, consent arrangements, and applicable institutional requirements.
For example, a participant may have agreed to confidential interviews being analyzed by an authorized research team without anticipating disclosure to an external technology provider.
Whether additional approval or consent is necessary depends on the specific processing arrangement and governing requirements.
Laboratory policy should establish a route for obtaining research ethics guidance before introducing materially different processing procedures.
AI convenience should not be treated as sufficient justification for changing how participant information is handled.
6. Assign Human Responsibility for Consequential Decisions
AI may suggest research designs, analytical models, data exclusions, interpretations, and manuscript conclusions.
However, these suggestions should not become authoritative simply because they are generated automatically.
Laboratory policy should identify who is responsible for reviewing and approving consequential decisions.
For example, a designated analyst may verify generated code, while the principal investigator retains responsibility for ensuring that the analysis addresses the approved research question.
Responsibilities should reflect expertise and actual authority.
The objective is meaningful human oversight, not merely attaching a researcher's name to an automated output.
7. Establish Verification Standards for AI Outputs
Different AI-generated outputs require different verification procedures.
Literature summaries should be checked against original publications. Bibliographic references should be verified through authoritative records.
Generated code should be inspected and tested. Statistical recommendations should be evaluated against the research design and assumptions.
Qualitative interpretations should be examined according to the methodological framework and underlying research material.
A policy should identify the level of verification expected for consequential tasks without assuming that every minor output requires identical scrutiny.
Verification responsibilities should be assigned to people with appropriate expertise.
8. Preserve Reproducibility and Research Records
AI assistance can affect how research procedures are developed and executed.
Laboratories should preserve sufficient records to reconstruct consequential analytical decisions and computational procedures.
For AI-generated code, this may include the final verified scripts, relevant dependencies, tests, and processing documentation.
For AI-assisted literature searching, it may include the actual databases, search expressions, dates, and screening procedures.
For interpretive analysis, the appropriate records depend on the methodology and confidentiality commitments.
Wilson and colleagues (2017) emphasize practical scientific computing practices involving documentation, testing, and version control.
These principles remain relevant when AI contributes to code or analytical workflows.
Saving prompts alone does not guarantee reproducibility.
9. Specify AI Documentation and Disclosure Requirements
Laboratories should distinguish internal documentation from external disclosure.
Internal records help reconstruct consequential AI contributions and the reasoning behind research decisions.
Publication disclosure communicates relevant assistance according to the applicable journal or publisher policy.
The policy should identify which activities require documentation, what information should be retained, and who may access those records.
Requiring complete prompt histories for every interaction may be disproportionate and may create confidentiality concerns.
For consequential assistance, a concise record of the task, tool, relevant recommendation, verification, and final decision may be more useful.
Documentation requirements should support accountability rather than generate records without a clear purpose.
10. Address Authorship and Intellectual Contributions
AI systems should not automatically be treated as scholarly authors merely because they generated text, code, or suggestions.
The International Committee of Medical Journal Editors states that AI-assisted technologies should not be listed as authors and that human authors remain accountable for their work.
Specific authorship standards vary among disciplines and publication venues.
Laboratory policy should clarify that human contribution and accountability remain central to authorship decisions.
It should also require researchers to communicate consequential AI assistance to relevant collaborators when that information affects collective verification or disclosure.
AI-generated content should not obscure who made substantive intellectual decisions.
11. Establish Training Requirements
A policy is unlikely to function effectively if laboratory members do not understand how to apply it.
Training should address the AI tools actually used in the laboratory, their limitations, relevant data restrictions, verification procedures, and incident-reporting expectations.
Research students may need additional guidance in methodological reasoning and independent verification.
Experienced researchers may require training when encountering unfamiliar AI systems or new data-processing arrangements.
Training should be based on responsibilities and task-specific competence rather than academic rank alone.
Practical exercises may include verifying AI-generated research information and identifying inappropriate automated recommendations.
12. Define Incident Reporting and Corrective Action
Laboratories should establish procedures for responding to suspected AI-related errors or unauthorized data processing.
Examples include uploading restricted information to an unapproved service, discovering fabricated references in a draft manuscript, or identifying incorrect generated code after an analysis has been completed.
The policy should explain whom researchers should contact and how the laboratory will assess the incident.
Data-security incidents may require institutional notification under applicable procedures.
Scientific errors may require correction of analyses, manuscripts, or published records.
Not every AI-related mistake constitutes research misconduct. Findings of misconduct require the relevant definitions, evidence, and institutional procedures.
13. Review Third-Party Providers and Tool Changes
AI products may change their models, features, contractual terms, data-retention practices, or integrations.
Approval of a tool at one point does not necessarily establish that every later configuration remains suitable.
Laboratories should establish a process for reviewing material changes that affect security, research validity, or compliance.
This may involve coordination with institutional information technology and research governance offices.
Routine updates need not automatically trigger comprehensive reassessment, but consequential changes should be examined.
14. Address External Collaborators and Shared Research Projects
Laboratory projects may involve researchers from multiple institutions with different AI policies.
A tool approved by one institution may be restricted by another.
Collaborators should identify applicable requirements before sharing confidential information or establishing common AI-assisted workflows.
Research agreements may need to specify authorized processing environments, verification responsibilities, and disclosure expectations.
The laboratory should not assume that its internal policy overrides contractual or institutional obligations governing shared research material.
15. Establish Policy Ownership and Review
Every laboratory AI policy should identify who is responsible for maintaining it.
The principal investigator or laboratory director may coordinate implementation, but specialist review may be necessary for information security, research ethics, or legal questions.
Reviews should occur when material changes affect the laboratory's tools, research activities, or applicable requirements.
The policy should have a version date and a clear procedure for communicating revisions.
Researchers should not be expected to infer new restrictions from informal conversations.
How Should Risk Determine the Strength of Controls?
The National Institute of Standards and Technology's AI Risk Management Framework emphasizes governing, mapping, measuring, and managing AI-related risks.
Its approach supports considering the context in which an AI system is used rather than assuming that every application presents the same risks.
For laboratory governance, the potential consequences of error, sensitivity of information, degree of automation, and availability of independent verification are relevant considerations.
| Illustrative risk context |
Example |
Possible control |
| Low consequence |
Editing nonconfidential presentation language |
Routine review and applicable disclosure |
| Moderate consequence |
Generating exploratory analysis scripts |
Code inspection, testing, and documentation |
| Substantial consequence |
Recommending changes to a primary statistical model |
Qualified methodological review and recorded justification |
| High consequence |
Processing sensitive participant records or influencing safety decisions |
Formal authorization, enhanced safeguards, or prohibition where appropriate |
The categories are illustrative. Actual risk assessments should reflect the research context and applicable governance requirements.
How Can Laboratories Avoid Policies That Exist Only on Paper?
A lengthy policy is not necessarily an effective policy.
Researchers need practical instructions for decisions they encounter during everyday work.
For example, the laboratory can maintain an approved-tool register, a concise AI-use decision process, and a standard procedure for reporting consequential assistance.
Supervisory meetings and project reviews can include discussion of AI-related decisions when relevant.
Laboratory leaders should also model the practices they expect from students and research staff.
The effectiveness of the policy should be assessed through actual compliance, verification practices, and the resolution of identified problems rather than the mere existence of a written document.