03 · What You Need to Know
The Research Competencies Students Should Develop
Research Competence Is Not the Same as Completing a Research Paper
A completed manuscript can demonstrate that research activities occurred, but it does not necessarily establish how much of the underlying intellectual work a student understands.
Generative AI makes this distinction increasingly important because students can obtain polished research questions, literature syntheses, methodological explanations, and analytical code without independently developing every component.
Research education should therefore evaluate both the quality of the completed work and the student's ability to explain how its principal decisions were made.
The National Academies' report Graduate STEM Education for the 21st Century emphasizes the development of transferable competencies alongside specialized disciplinary knowledge.
Although research competencies differ across disciplines, the underlying educational objective is consistent: students should develop the capacity to conduct and evaluate scholarly work rather than merely produce its conventional outputs.
1. Formulating Researchable Questions
Students should understand how to move from a broad topic to a research question that can be investigated using appropriate evidence.
This involves identifying the phenomenon of interest, clarifying relevant concepts, defining the scope of inquiry, and considering what kind of knowledge the study seeks to produce.
For example, "AI in higher education" is a broad topic rather than a sufficiently specified research question.
A student might refine it into a question about how university faculty evaluate the credibility of AI-generated instructional materials.
The student should be able to explain why the question matters, what is already known, and what evidence would help answer it.
AI can suggest possible questions, but the student must determine whether those questions are coherent, feasible, and meaningful within the discipline.
2. Searching the Literature Independently
Students should learn how scholarly information is organized and retrieved.
Foundational competencies include identifying search concepts, generating appropriate synonyms, selecting relevant databases, and understanding Boolean operators and database-specific search features.
The Association of College and Research Libraries' Framework for Information Literacy for Higher Education emphasizes the contextual and strategic nature of information searching.
AI may suggest relevant publications or search terms, but a generated list does not establish that the literature has been searched adequately.
Students should be able to verify references, recognize differences in database coverage, and evaluate whether a search strategy fits the research objective.
These skills become particularly important when conducting systematic or structured evidence reviews.
The concern about AI reliance and independent literature-search skills is therefore relevant to research training.
3. Critically Reading and Evaluating Research
Students should be able to examine original publications and evaluate the relationship between research questions, methods, findings, and conclusions.
Critical appraisal involves identifying what a study actually demonstrates, recognizing methodological limitations, and distinguishing evidence from interpretation.
For example, a student should recognize that a correlation between AI use and academic performance does not automatically establish that AI use causes improved performance.
AI-generated summaries can support preliminary understanding, but they may omit qualifications or misrepresent findings.
Students should therefore practice reading original studies and explaining why particular evidence supports or challenges a claim.
This preserves the competencies involved in independent critical reading.
4. Understanding Research Designs and Methodological Fit
Students should understand the relationship between a research question and the methodology used to investigate it.
This includes recognizing differences among experimental, observational, qualitative, mixed-methods, and other designs.
Methodological competence also requires understanding relevant assumptions, sampling considerations, measurement decisions, and limitations.
For example, a student investigating participants' lived experiences should not select a methodology merely because AI recommends a familiar qualitative approach.
The choice should follow from the research question, epistemological commitments, and intended contribution.
Similarly, a quantitative study's design affects which statistical inferences are defensible.
AI may help explain alternative approaches, but students should learn to evaluate methodological fit independently.
5. Understanding Measurement and Data Quality
Students should know how research concepts become observations or measurements.
For quantitative research, this includes understanding variables, measurement scales, instrument quality, missing data, and potential sources of bias.
For qualitative research, it includes understanding how data were generated, documented, contextualized, and interpreted.
A student should not assume that an AI-generated questionnaire is valid simply because its items appear relevant.
Likewise, an AI-generated data-cleaning recommendation should not be accepted without examining what the records represent.
These competencies support familiarity with one's own research data.
6. Developing Foundational Analytical Reasoning
Students should understand the logic of the analyses they use.
Quantitative researchers need sufficient statistical literacy to interpret estimates, uncertainty, assumptions, and the relationship between study design and inference.
Qualitative researchers need interpretive competence appropriate to their methodology, including the ability to explain coding and analytical decisions.
Not every student needs advanced statistical programming or expertise in every qualitative tradition.
However, students should be able to justify the methods they use and recognize when specialist guidance is necessary.
AI-generated analyses can be useful, but they should not replace the development of statistical understanding or qualitative interpretive judgment.
7. Constructing Scientific Arguments
Scientific writing involves developing claims that correspond to the available evidence.
Students should learn to organize arguments, synthesize literature, describe methods accurately, and distinguish findings from speculation.
AI can improve grammar and organization, but fluent language does not establish that a manuscript's reasoning is sound.
For example, a student should be able to explain why a conclusion follows from the results rather than merely reproduce an AI-generated discussion.
Writing can also contribute to learning because constructing an argument requires students to examine relationships among ideas.
The possibility that AI reliance reduces opportunities to practice scientific writing makes independent argument development an important educational objective.
8. Understanding Research Ethics and Integrity
Students should understand principles of honesty, accountability, transparency, and respect for research participants.
The European Code of Conduct for Research Integrity identifies reliability, honesty, respect, and accountability as fundamental principles.
These responsibilities remain relevant when AI contributes to research activities.
Students should recognize the risks of fabricated references, inaccurate reporting, inappropriate data disclosure, and presenting work they cannot defend.
They should also understand that institutional and publisher policies may impose specific requirements concerning AI assistance.
AI literacy is therefore connected to research integrity rather than being merely a technical skill.
9. Recognizing the Limits of Personal Expertise
Independent competence does not mean conducting research without collaboration.
Researchers routinely consult statisticians, librarians, ethics specialists, and disciplinary experts.
Students should learn to recognize when a question exceeds their knowledge and when an AI-generated explanation is insufficient.
For example, a student who cannot evaluate the assumptions of an unfamiliar statistical model should seek appropriate methodological assistance before using it in consequential research.
This supports the principle that AI assistance should not automatically replace independent expertise.
10. Evaluating AI Outputs and Their Limitations
Students should understand that generative AI can produce useful responses alongside inaccurate, incomplete, or fabricated information.
They should know how to verify references, inspect generated code, evaluate methodological recommendations, and recognize when AI presents uncertainty inadequately.
The UNESCO AI Competency Framework for Students provides a broader educational foundation for developing human-centered understanding, ethical awareness, AI knowledge, and system-design competencies.
For research education, these competencies should be connected to actual scholarly tasks.
Students should learn not only how to obtain an answer from AI but also how to determine whether the answer is appropriate.
Which Skills Should Be Learned Before AI, and Which Can Develop Alongside It?
There is no universally justified sequence requiring students to master every research skill before encountering AI.
A more defensible approach distinguishes foundational understanding from advanced expertise.
| Competency |
Foundational independent ability |
Appropriate AI-supported development |
| Research questions |
Explain what makes a question researchable |
Compare and refine alternative formulations |
| Literature searching |
Construct and evaluate a basic search |
Identify additional terminology and improve retrieval strategies |
| Critical reading |
Evaluate a study's methods and claims |
Generate questions and compare interpretations |
| Research design |
Explain the relationship between question and method |
Explore methodological alternatives and limitations |
| Data understanding |
Describe variables, observations, and important limitations |
Generate exploratory checks and visualizations |
| Analysis |
Explain the purpose and assumptions of methods used |
Practice interpretation and inspect generated implementations |
| Scientific writing |
Develop a defensible evidence-based argument |
Improve clarity, structure, and revision |
| Research integrity |
Recognize core responsibilities and prohibited practices |
Evaluate AI-specific risks and disclosure requirements |
The table offers a pedagogical framework rather than a universal prerequisite list. Expectations should reflect the student's stage of development and disciplinary context.
Why Foundational Competence Matters for AI Verification
Researchers cannot reliably evaluate every recommendation without some understanding of the underlying task.
A student unfamiliar with statistical assumptions may struggle to recognize an inappropriate test.
A student unfamiliar with bibliographic databases may not know how to verify a generated reference or assess search coverage.
A student unfamiliar with qualitative methodology may mistake a collection of repeated topics for a defensible interpretive analysis.
This does not mean students must work without assistance until they become experts.
It means that educational activities should progressively develop the knowledge needed to question and evaluate AI outputs.
How Should Research Competence Be Assessed When AI Is Available?
Assessment should distinguish the quality of an AI-assisted product from the student's own understanding.
Students may be asked to explain methodological choices, evaluate original evidence, identify errors in generated outputs, or complete appropriately scoped independent tasks.
Oral examinations, research decision records, and supervised analytical demonstrations can provide additional evidence of competence.
However, these methods should be aligned with the learning objectives rather than introduced simply to make AI use difficult.
The broader challenge of assessing student research skills when AI is permitted requires careful attention to validity and fairness.
Should Students Be Prohibited From Using AI Until They Master Research Methods?
Not necessarily.
AI can support learning when students use it to understand concepts, compare examples, receive feedback, and practice evaluating evidence.
For example, a student learning research design might first propose a method independently and then use AI to identify possible limitations.
The student can revise the proposal and explain which changes were justified.
Such activities preserve intellectual engagement while allowing students to benefit from technological assistance.
The appropriate objective is not delayed access for its own sake, but AI-supported scaffolding that does not outsource learning.