Conclusions · Chapter 7
What the research shows, and what it does not
In the settings studied, GenAI workability depended on the wider work arrangement: the information, the task, organisational conditions, how people responded, and who remained responsible for the results. A useful output was one part of getting the work done; the result still had to be checked and, when needed, explained.
Thesis Sections 7.6 and 7.9
Workability looked different in each setting
The three settings are contrasts, not stages of adoption. Each made something possible and left something unresolved.
Chapter 4 · My SDF workflow
ConditionsPrepared, traceable files
ResponseAn arrangement that became part of recurring reporting
Remaining workVerification, reconciliation and explanation
Chapter 5 · Institutional support
ConditionsControlled information handling
ResponseDevelopment and testing subject to review
Remaining workReview, assurance and support requirements
Chapter 6 · Everyday staff
ConditionsTask and tool fit
ResponseTask support and internal agents in use, alongside tentative and proposed uses
Remaining workChecking, learning and responsibility
Adapted from Thesis Figure 7.6.1. Workability builds on Trist's and Orlikowski's work on technology and work. Thesis Sections 7.2 and 7.6
Contributions
Theoretical
Three distinctions made specific for GenAI-supported university work:
- Friction defined by its consequences for the task.
- Workaround formation separated from broader local adaptation.
- Less visible work separated from invisible labour.
The three are related without a fixed order. They build on existing research on sociotechnical systems, workarounds and invisible work, where model errors and review work are already discussed. The contribution is to make these distinctions specific to GenAI-supported university work. How each concept is used
Thesis Sections 1.6.1 and 7.7.1Methodological
Comparing what an autoethnographic account of one workflow and thematic analysis of separate interviews can each show. For example, an interview could support a finding that a change was in use without enough detail to establish workaround formation. Both methods are established; the contribution lies in showing what each kind of evidence can establish.
Thesis Sections 1.6.2 and 7.7.2Practical
Assess the whole work arrangement, not just whether a tool is available or an output looks polished. Teams can use these questions to examine the preparation, checking and support their own tasks require.
Thesis Sections 1.6.3 and 7.7.3Questions to ask about any GenAI-supported work
…and is that work accounted for?
Recurring data tasks
From the SDF case: source preparation, traceability, repeatable processing, reconciliation, and responsibility for explaining figures to staff.
Development and rollout
From institutional support: different checks for different things, such as data completeness, the sources behind an answer, generated code, and a draft message before sending.
Everyday work
From everyday staff: match review to risk and responsibility, as SP03's correction and SP06's student feedback show; attend to access and learning support.
The study did not measure productivity, cost or workload, and prescribes no universal adoption pathway. Thesis Section 7.7.3
Limits and future research
Scope of the evidence
- One workflow in one university
- A self-selected interview group
- Accounts, not observation
- A retrospective journal
- One researcher coded the interviews
- Confidentiality limits detail
Not measured or out of scope
- Productivity, cost or workload effects
- How common the experiences are
- Whether the SDF arrangement would work in other settings
- How well models perform
Future research
- Compare several implemented workflows
- Follow prototypes and adaptations over time
- Measure how preparation, review and support are redistributed
- Study governance, maintenance, access, licences and shared learning
Not having enough evidence of workaround formation in the interviews is not evidence that those changes stopped. Thesis Section 7.8
In conclusion
Across these settings, established data-quality, approval and support obligations remained relevant. The GenAI-related episodes also involved correcting plausible course-code mappings after use, understanding generated code, and checking student-facing feedback for content carried over from another student. In the tasks examined, whether GenAI-supported work could be carried through dependably depended on how tools, information, organisational conditions and human responsibility were connected around the task, rather than on access to a capable interface alone. Thesis Section 7.9