01 · The Question
Can AI Help You Find a Research Problem Worth Investigating?
You may know the general area you want to study without knowing what the actual research problem is. Perhaps you are interested in generative AI in education, climate adaptation, telemedicine, misinformation, employee well-being, or another broad domain. Having an interesting subject, however, is not the same as having a research problem.
This is where generative AI can seem remarkably helpful. Describe a field or phenomenon and it can immediately suggest unresolved challenges, conflicting outcomes, underexamined populations, practical difficulties, theoretical tensions, or unanswered questions.
Some of these suggestions may lead somewhere useful. The difficulty is that an AI system can formulate a convincing problem even when the evidence needed to establish that problem has not been checked.
03 · What You Need to Know
What It Means for AI to “Identify” a Research Problem
A research topic is not yet a research problem
Suppose you tell an AI system that you are interested in “university students' use of generative AI.” That is a subject area. It tells us what you are interested in, but not what requires explanation, investigation, intervention, or better understanding.
A research problem usually involves something more specific: an unexplained phenomenon, an unresolved theoretical issue, inconsistent evidence, a consequential practical difficulty, an inadequately understood relationship, a limitation in current knowledge, or another condition that creates a defensible reason for investigation.
Research topic
The general subject or area you want to investigate.
Research problem
The specific condition, uncertainty, inconsistency, phenomenon, or knowledge problem that provides a reason for conducting the research.
Generative AI can help you move from the first toward possible versions of the second. It should not be allowed to quietly erase the distinction.
AI can generate different ways of problematizing the same phenomenon
A useful capability of generative AI is not simply finding “the problem.” It is showing that the same broad phenomenon can potentially be problematized in several ways.
Consider widespread student use of generative AI. One researcher might investigate changes in assessment validity. Another might examine unequal access to high-performing AI systems. Someone else might investigate student reliance on AI, disciplinary differences, epistemic trust, changes in writing practices, or how teachers redesign assessment.
These are not interchangeable descriptions of one underlying problem. They represent different possible objects of inquiry, assumptions, stakeholders, and bodies of literature.
Using AI to produce such alternatives can therefore extend the broader process of generating possible research ideas. Its value lies partly in preventing a broad interest from becoming prematurely locked into the first problem formulation that comes to mind.
AI can interrogate observations from practice
Research problems do not arise only from journal articles. Researchers may notice something in classrooms, hospitals, organizations, communities, laboratories, public services, or other settings that seems puzzling or consequential.
You might tell an AI system, for example, that instructors at the same university appear to be responding very differently to generative AI. Rather than asking, “What should I research?”, you could ask what distinct research problems might plausibly underlie that observation.
The model might suggest differences in institutional policy interpretation, confidence, professional autonomy, perceived risk, disciplinary norms, assessment practices, or access to professional development.
None of those possibilities has been established merely because the model generated it. But they give you candidate explanations and problem formulations to investigate.
AI can help expose assumptions hidden inside your problem statement
Sometimes the problem is not difficult to find. It is difficult to formulate without smuggling in an unsupported assumption.
Imagine starting with: “The problem is that students' use of generative AI reduces critical thinking.” The statement already assumes an effect that the proposed research may actually need to establish.
You could ask AI to identify assumptions embedded in the formulation. A useful response might point out that “use” encompasses very different practices, that critical thinking needs operational definition, that effects could vary by task or learner, and that the direction of the relationship has been presumed rather than demonstrated.
This is one reason AI can sometimes be more useful when asked to challenge assumptions about a research idea rather than simply generate additional material supporting it.
AI can suggest possible contradictions and tensions to investigate
Another productive approach is to provide the model with actual evidence rather than asking it to rely entirely on its internal knowledge.
If you have notes from several papers, verified findings, policy documents, or other appropriate source material, you can ask AI to identify apparent tensions among them. Perhaps one group of studies reports positive outcomes while another reports negligible effects. Perhaps a policy assumes something that empirical evidence does not clearly support. Perhaps two theoretical perspectives imply different explanations for the same phenomenon.
Here AI is assisting with comparison and synthesis. The underlying evidence remains inspectable.
That is considerably stronger than asking a model, without supplying or checking sources, to tell you what researchers “do not know.”
AI does not automatically know what the literature has established
This limitation matters enormously. A language model can produce statements that resemble scholarly problem statements without having conducted a systematic, current, and reproducible search of the literature.
It may claim that “few studies have examined” something, that evidence is “limited,” or that a particular population is “understudied.” Those phrases are common in academic writing, which makes them easy to generate. Their familiarity does not make them evidence.
Watch Out
Statements such as “little research exists,” “research remains limited,” “this issue has received insufficient attention,” or “few studies have investigated this population” are empirical claims about the literature. Do not use them merely because an AI system generated them.
If the proposed problem depends on missing knowledge, you are approaching the question of whether there is a genuine research gap. That conclusion requires literature evidence rather than AI assertion.
A real-world difficulty is not automatically a research problem
Generative AI may also identify practical problems: teachers lack training, patients experience delays, employees resist a system, communities have unequal access to a service, or organizations struggle to implement a policy.
These may be important. But research does not become justified merely by attaching a study to a practical complaint.
You still need to establish what is known, what needs explanation, which aspect can be investigated systematically, who is affected, what evidence supports the claimed condition, and what knowledge the proposed study could contribute.
Problem identification should move from possibility to evidence
A defensible workflow separates discovery from substantiation.
Observe or identify a broad phenomenon
Begin with something you have encountered in practice, theory, policy, data, or scholarship.
Generate candidate problem formulations
Use AI, your own reasoning, discussion with colleagues, and preliminary reading to consider different ways the phenomenon might be understood.
Question the assumptions
Identify what each formulation presumes to be true and whether those assumptions already have evidence.
Investigate the literature and relevant evidence
Determine what researchers actually know, where findings agree or conflict, and whether the claimed condition is supported.
Refine the problem
Retain only claims you can substantiate and formulate a problem that provides a defensible reason for investigation.
AI can help you ask better diagnostic questions
One of the more useful applications may be asking AI for questions rather than answers.
What evidence would establish that this is actually a problem? Who experiences it? Compared with what? What alternative explanations exist? Which concepts are underspecified? What would make the apparent problem disappear? Does the problem occur everywhere or only under certain conditions? Could the framing privilege one stakeholder's perspective over another?
Questions like these force the proposed problem to survive scrutiny before it becomes the foundation of an entire study. A proposal committee will eventually ask similar questions anyway. Better to meet them before Chapter 1 acquires emotional significance.
04 · A Practical Example
From “Teachers Are Not Using AI” to a Researchable Problem
Hypothetical Example
An apparent adoption problem
Suppose a researcher notices that many instructors at a university appear reluctant to use generative AI in teaching. The initial formulation is: “The problem is that faculty members are resistant to adopting AI.”
The researcher asks a generative AI system to challenge this interpretation and propose alternative ways of understanding the observation.
Initial observation
Some instructors rarely use generative AI in their courses.
Possible AI-generated interpretations
The model suggests that apparent non-adoption could reflect insufficient institutional guidance, assessment incompatibility, disciplinary norms, privacy concerns, low perceived usefulness, limited training, or deliberate pedagogical judgment rather than simple resistance.
Researcher checks the assumptions
The researcher realizes that describing instructors as “resistant” already interprets their behavior negatively without knowing why they made those choices.
Evidence gathering
The researcher examines relevant scholarship, institutional documents, existing survey data, and other appropriate evidence to determine which explanations are plausible and what remains insufficiently understood.
Refined problem
Instead of presuming that non-use represents resistance, the eventual study may investigate how instructors make decisions about whether, where, and under what conditions generative AI belongs in their teaching.
The AI did not discover the final research problem. It helped destabilize an overly simple interpretation. The researcher's subsequent engagement with evidence determined whether there was a defensible problem to investigate.