Surveys and interviews about generative AI with 26 undergraduates and 11 educators at two UK universities, held by video meeting from December 2023 to February 2024. Of the 26 students, 21 studied humanities subjects.
SurveyEach participant answered a survey before their interview.
InterviewsInterviews followed set questions but stayed open, and averaged 40 minutes.
ThemesTwo researchers coded the transcripts and compared what students and educators said.
ModelThe themes were mapped onto Strong Structuration Theory, a model of how outside rules, inner habits, actions and outcomes shape one another.
BWhat the study found
How students used generative AIwhat 26 undergraduates said in interviews
•Students described using generative AI as a tutor, an assistant and a partner for ideas.As a tutor it explained material and gave feedback. As an assistant it summarised, searched, polished writing and outlined essays.
•Students valued that generative AI was always available and saved time.Students also said it helped them get unstuck and engage more deeply with readings, for example by questioning its answers against the original source.
•Students described setting their own unspoken rules for using generative AI.Rules included referencing it, editing rather than copying and pasting, and using it to assist rather than do the work. Of 26 students, 13 double-checked answers against other sources.
University guidance and talkwhat 26 students and 11 educators said in interviews
•Of 26 students, 17 felt university communication about generative AI lacked clarity.Students who knew the university guidelines said they saw mainly warnings about plagiarism.
•Of 11 educators, 9 said they were unaware of official generative AI guidelines.Of 11 educators, 7 said they did not talk openly about generative AI. Students said they talked about it openly with each other.
Effects and the futurewhat students and educators said about impact and what comes next
•Some students said they feared being falsely accused of plagiarism.One student with this fear did not use generative AI. Other effects were mixed, with some students feeling more confident and others less.
•Some students and most of the 11 educators worried about losing or never building skills.The skills named included critical thinking. Some students also feared weaker ties with their educators.
•Many students said universities should teach responsible use, and some likened generative AI to calculators.In a pre-interview survey the authors call indicative only, 16 of 26 students and 3 of 11 educators said it could enhance learning quite a bit or very much.
CKey takeaway
Strong structuration suggests that university guidelines and educator talk can shape how students use generative AI, and that students' use can reshape them in turn. Clear, shared guidance may help students use AI well.
Made for this site with AI assistance from the verified research brief. It is not the paper's own figure.
Abstract
Generative AI (GenAI) has introduced myriad opportunities and challenges for higher education. Anticipating this potential transformation requires understanding students’ contextualised practices and norms around GenAI. We conducted semi-structured interviews with 26 students and 11 educators from diverse departments across two universities. Grounded in Strong Structuration Theory, we find diversity in students’ uses and motivations for GenAI. Occurring in the context of unclear university guidelines, institutional fixation on plagiarism, and inconsistent educator communication, students’ practices are informed by unspoken rules around appropriate use, GenAI limitations and reliance strategies, and consideration of agency and skills. Perceived impacts include changes in confidence, and concerns about skill development, relationships with educators, and plagiarism. Both groups envision changes in universities’ attitude to GenAI, responsible use training, assessments, and integration of GenAI into education. We discuss socio-technical implications in terms of current and anticipated changes in the external and internal structures that contextualise students’ GenAI use.
Research brief
By Auste Simkute, Viktor Kewenig, Abigail Sellen, Sean Rintel, and Lev Tankelevitch.
Takeaway: Students' generative AI use is shaped by the university around them, not just the tool. Faced with unclear, plagiarism-focused guidelines and educators reluctant to discuss AI, students used it as tutor or assistant yet governed themselves by unspoken rules, some anxiously. Clearer, co-designed guidance and AI literacy training could help.
Why this matters
What was known
Earlier work gave high-level overviews of students' perceptions and attitudes towards generative AI, mostly in computer science, without examining real-world practices or the university context that shapes them. (§1, p. 2)
What this paper adds
Unlike earlier surveys of attitudes, mostly in computer science, we look at what students across disciplines actually do. We set it against their university's guidelines and educators' views, and organise the findings in a model of how structures and practices shape each other. In-depth findings on higher education students' broader practices around GenAI, including uses, reliance-mediating strategies, and communication norms, covering multiple disciplines and year groups.(§1, p. 2)
Who it matters to
University policymakers, educators, researchers, and HCI designers of educational AI tools. Both policymakers and researchers need to understand its practical realities as part of an ecosystem(§1, p. 2)
Research questions
(1) How and why do students use GenAI in higher education?
(2) What are students' norms and etiquette around the use of GenAI in higher education, and how is this shaped by their university context?
(3) What are students' GenAI reliance strategies and what mediates this?
(4) What are the perceived impacts of GenAI on students?
(5) What is the future role of GenAI in higher education according to students and educators?
Method and data
Design
Pre-interview surveys and semi-structured interviews. Inductive thematic analysis with comparative analysis of students against educators, then mapped onto Strong Structuration Theory.
Setting
Two UK universities, across humanities, social science and STEM disciplines. Interviews by video meeting.
Participants / data
Undergraduate students (n = 26. 18 from University A) and educators (n = 11. 8 from University A).
Duration
Interviews from December 2023 to February 2024, averaging 40 minutes.
Analysis
Two researchers coded transcripts in MAXQDA. Counts reported as proportions of students or educators (e.g. 13/26).
Findings
Tutor, assistant, ideation partner. The 26 undergraduates we interviewed at two UK universities were mostly in the humanities. They used generative AI in three roles, as a tutor (explaining material, giving feedback), an assistant (summarising, searching, polishing writing, outlining essays) and an ideation partner. #
“replacement for a partner that you get in, like a seminar or a smaller discussion group”
Always there, and quick. They valued its constant availability and the time it saved, and also its help in getting unstuck and in engaging more deeply with their reading, for example by questioning its answers against the original source. #
“It's in your pockets, in your phone, your home. You don't have your professor always there”
Guidance unclear, silence common. Most students and most of the 11 educators found university guidance on generative AI unclear, and students who knew it saw mainly warnings about plagiarism. Students talked openly about AI with each other. Many educators avoided the topic, even with colleagues. #
“Everyone was interested, but nobody actually touched on the topic. I think everyone was a bit scared.”
Students set their own rules. In that vacuum, students regulated themselves. They followed unspoken rules, double-checked outputs against other sources, trusted AI less where they lacked expertise or the stakes were high, and sometimes avoided it to keep their own skills. #
“It is okay to use GenAI within certain boundaries, with the boundaries being: (1) "reference, do not plagiarise", (2) "edit, do not copy and paste", and (3) "use it to assist you, not to do work for you"”
Mixed effects, and plagiarism anxiety. Some students felt more confident, others less. Some students, and most educators, worried about losing or never building skills such as critical thinking. Some feared weaker ties with educators. And some feared being falsely accused of plagiarism, even one who did not use AI. #
“I don't want to have worked on a project for a really long time... and then be told, no, this was AI. There's no way of proving, you know, I've written this myself”
Teach it, don't ban it. Many students want universities to embrace generative AI and teach responsible use. Some students and educators envisaged new kinds of assessment and AI complementing teachers, and some students compared it to calculators or the internet. #
“It seems mad to me that we're at an institution like this and we're not encouraging intellectual people to be using this”
Questions this paper answers
How do university students actually use ChatGPT for their studies?
Much like familiar kinds of help. They use it as a tutor that explains readings and gives feedback, an assistant that summarises, searches and outlines, and a partner for bouncing ideas around. Saving time was the most commonly cited draw, alongside help getting unstuck, deeper engagement and round-the-clock availability. (See §5.1.3, p. 8; §5.2.1, pp. 8–9.)
Are university rules on generative AI clear to students?
Mostly not. Most students and educators interviewed at two UK universities found guidelines unclear. Students who knew of them saw a focus on plagiarism, and many educators avoided discussing GenAI. Some students felt anxious about plagiarism accusations. (See §5.3.3, p. 11; §5.5.4, p. 14.)
How do students decide what counts as acceptable AI use?
Through unspoken rules, such as referencing it, editing rather than copying and pasting, and using it to assist rather than do the work. They also double-check outputs and weigh their own expertise, the task's stakes and their skill development. (See §5.4, pp. 11–12.)
Does using AI harm students' skills?
Many worried it could. Some students feared losing or not developing skills such as critical thinking and writing, and most educators saw the same risk, many viewing practising skills as the key protection. (See §5.5.4, p. 14.)
Quantitative results
Measure
Result
Where
Students who felt university communication on GenAI use lacked clarity
17/26
§5.3, p. 10
Educators unaware of official GenAI guidelines
9/11
§5.3, p. 10
Educators who do not talk openly about GenAI
7/11
§5.3, p. 11
Students who double-checked GenAI outputs against other sources
13/26
§5.4, p. 12
Pre-interview survey (indicative only): believe AI can enhance learning 'quite a bit' or 'very much'
16 out of 26 students vs 3 out of 11 educators
Appendix C, p. 27
Contributions and implications
Communicate guidelines systematically, cover issues beyond plagiarism, and involve students and educators in developing them. One approach is to involve both groups in the development of guidelines using participatory design methods(§6.1, p. 16)
Empower educators to talk about GenAI and share practice through their professional communities.
Provide multi-faceted GenAI literacy training, including collaborative learning and recognising errors in GenAI output. Our findings therefore indicate a need for multi-faceted GenAI literacy training in universities(§6.2, p. 17)
Redesign assessments, for example by incorporating GenAI into assignments, and design personalised learning that keeps roles for educators and peers.
Consider safeguards for skills at risk from over-reliance, such as critical thinking, for example through cognitive forcing functions. Safeguards may be necessary to protect skills that are key for students' education goals.(§6.3, p. 18)
Limitations
A snapshot of evolving practice, from a self-selected sample at only two UK universities. This study captures a snapshot of experiences that are continuously evolving.(§4.4, p. 7)
Samples were not representative. Students skewed to the humanities, and educators were mostly junior teaching staff. Student participants were more from humanities (n = 21) than STEM subjects (n = 5).(§4.4, p. 7)
Findings rest on self-reports, so the real extent of over- or under-reliance remains to be studied.
SST was applied post hoc rather than guiding the study design. the study would have benefited from using SST to guide the study design(§4.4, p. 7)
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Concepts
Strong Structuration Theory (SST)
A framework that distinguishes external structures, internal structures, actions and outcomes, and how they shape one another. We used it to cohere our themes. SST recognises the mutual interactions between individuals' agency, technology, and their encompassing socio-techno-political structures(§4.3, p. 6)
Conjuncture
A Strong Structuration Theory term. Our findings are a snapshot of this moment in GenAI adoption: SST emphasizes the conjuncture, a' critical combination of events or circumstances'(§4.3, p. 7)
Overreliance
The particular risk that students' reliance strategies mediated: overreliance-the erroneous acceptance of incorrect GenAI output(§5.4, p. 12)
Plagiarism anxiety
Potentially due to universities' unclear communication about GenAI, students (7/26) were feeling anxious about being accused of plagiarism(§5.5, p. 14)
Figures
Fig. 1. Overview of study findings. Students' actions (A) (GenAI tool uses) are driven by a set of internal structures, including their motivations (B), and self-governance of GenAI use (D). These internal structures are influenced by a set of external structures: including university guidelines, communication from and among educators, and communication among students (C). Finally, students' actions leads to outcomes, including perceived impacts on confidence, relationships, etc. (E), as well as students' and educators' visions for the future of GenAI in higher education (F). Although our findings focus on a set of directional influences between these aspects, it is likely that the influence goes both ways. We indicate these currently unexplored influences with dashed grey arrows. Our comparative analysis includes both students' and educators' perspectives where relevant; filled and unfilled boxes indicate these sources, respectively. From the paper, Fig. 1, p. 1.Fig. 2. Survey findings. (A) Students' and educators' uses of GenAI. (B) Students' and educators' frequency of GenAI use. (C) Students' and educators' perceptions of whether GenAI can enhance the learning process. (D) Students' and educators' perceptions of whether GenAI can enhance the teaching process. (E) Students' and educators' level of concern about the increasing use of GenAI in education. Numbers indicate counts. From the paper, Fig. 2, p. 27.
How to cite
Auste Simkute, Viktor Kewenig, Abigail Sellen, Sean Rintel, and Lev Tankelevitch. 2025. The New Calculator? Practices, Norms, and Implications of Generative AI in Higher Education. arxiv. https://doi.org/10.48550/arXiv.2501.08864
This brief was prepared with AI assistance and published by Sean Rintel. It is not the authors' published text. Page numbers refer to this PDF.
BibTeX
@article{simkute2025the,
author = {Simkute, Auste and Kewenig, Viktor and Sellen, Abigail and Rintel, Sean and Tankelevitch, Lev},
title = {The New Calculator? Practices, Norms, and Implications of Generative AI in Higher Education},
year = {2025},
month = {January},
url = {https://doi.org/10.48550/arXiv.2501.08864},
journal = {arxiv},
doi = {10.48550/arXiv.2501.08864},
}