Broadly yes, but with a sharper edge in Computer Science. In National Student Survey (NSS) open‑text comments, students rate learning resources highly overall (sentiment index +33.6), yet Computing runs lower at +27.4 and discipline‑specific feedback splits 50.1% Positive to 46.2% Negative. As a sector lens, the learning resources theme captures access to materials, equipment and systems across UK providers, while computer science in the CAH framework aggregates discipline‑level student voice; together they point to reliable access for most, but a persistent accessibility gap of −7.4 index points for disabled students that shapes how resources are experienced.
Today's computer science students sit between traditional tools and digital ecosystems. Digital resources broaden access and enable live coding, repositories and interactive quizzes, but they also demand dependable connectivity and capable devices. Analysing student comments helps providers prioritise changes that remove friction and target the cohorts who experience barriers. The goal is to integrate digital alongside established models without creating new gaps.
Efficacy of online platforms?
Online platforms, from learning management systems to cloud development environments, expand flexibility for revisiting complex programming and collaborating remotely. Students value being able to access materials whenever they need them, but outages, authentication issues and network latency derail learning. Providers should stabilise the delivery rhythm: name an owner for platform reliability, run pre‑term resource readiness checks and provide short weekly updates on changes. Bring links to core systems into a single, well‑signposted location and extend access windows where students study outside standard hours.
Does course content meet expectations?
Student feedback often contrasts rich, practice‑aligned materials with resources that feel dated or overly theoretical. Given the discipline’s emphasis on the type and breadth of course content and on assessment clarity, staff should map each topic to applied tasks, refresh examples to current toolchains and publish annotated exemplars with rubrics. Use student input to prioritise revisions and close the loop with brief update notes so cohorts see change happening.
How interactive is online learning?
Live Q&A, forums and structured practicals sustain engagement when they are integral to module delivery. Students report that predictable, facilitated interaction helps them test understanding and ask timely questions; a loosely managed forum or unmoderated channel rarely substitutes for this. Train staff to plan interaction into sessions, signpost what is expected each week and use feed‑forward prompts so students know how to act on advice.
Do students have equitable access to software and tools?
IDEs, databases and compilers underpin learning, so access needs to be equitable on and off campus. Open‑source options reduce cost barriers, but performance and connectivity can still disadvantage some students. Audit specialist labs, licences and remote environments before teaching starts, publish alternative routes (lightweight clients, remote desktops, offline datasets) and simplify off‑campus steps with plain‑language guides. Maintain timely helpdesk options during peak assessment periods to minimise lost study time.
How well do support and feedback mechanisms work?
Where theory meets practice, students rely on responsive support and unambiguous assessment guidance. In this discipline, comments repeatedly call for clearer expectations and feedback that explains how to improve. Provide checklist‑style marking criteria, short exemplars at multiple grade bands and realistic turnaround with feed‑forward notes. Automated feedback in coding tasks can accelerate learning when it is aligned to the assessment brief and marking criteria, and when staff reference it in tutorials. Ensure students know where to go for help and that queries route predictably to people who can resolve them.
How does peer collaboration influence resource use?
Peer spaces such as Discord or Slack often unlock rapid problem‑solving and resource sharing. Without light‑touch guidance, however, quality varies and effort concentrates in small groups. Set expectations for collaboration ethics, provide starter channels aligned to modules and spotlight curated resources so cohorts benefit equitably from collective effort.
What should providers do next?
Prioritise accessibility and readiness. Close the accessibility gap by offering alternative formats by default and making assistive routes explicit at the point of need. Transfer practices that work for mature and part‑time students—flexible access windows, extended service hours, and quick‑start guides—to the wider cohort. Before term, verify capacity and compatibility for high‑demand labs and software, name an owner for resource issues and issue short weekly updates on fixes. Reduce off‑campus friction with simplified access steps and timely helpdesk support. Finally, tie digital interactivity and content updates to assessment design so students experience coherent delivery across lectures, practicals and submissions.
How Student Voice Analytics helps you
Student Voice Analytics helps you target improvements in learning resources for Computer Science. It tracks topic volume and sentiment over time, compares your discipline to the sector, and highlights gaps by domicile, mode, age and disability so you can reduce barriers quickly. You can drill from institution to school or module cluster, see representative comments for themes like platform reliability, software access or feedback clarity, and export concise summaries for programme and service teams. The same view supports evidence for the NSS and the Teaching Excellence Framework (TEF), and demonstrates progress through like‑for‑like comparisons across CAH subject groups.
See all-comment coverage, sector benchmarks, and governance packs designed for OfS quality and standards and NSS requirements.