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Research · Digital collaboration · System design

Optimising the Use of Microsoft Teams in Undergraduate Education

I investigated how Microsoft Teams and its integrated tools could support undergraduate communication, collaboration, productivity and engagement. I combined student evidence with an observed engineering project to develop a more structured model for module delivery and group work.

My role
Independent Researcher & Author
Project
Final-Year Dissertation
Year
2026 · Academic year 2025–2026
Tools explored
Microsoft Teams · Word · PowerPoint · OneNote · Planner · Excel · Whiteboard
Methods
Literature review · Questionnaire · Semi-structured interviews · Direct observation · Descriptive statistics · Thematic analysis
Questionnaire
63 responses across different academic levels and disciplines.
Interviews
5 semi-structured interviews with engineering project participants.
Observation
One six-member glider project, including me as a participant and researcher.
Research outcome
Proposed integrated Teams model and implementation recommendations, informed by quantitative and qualitative evidence.

The research at a glance

Teams offered a broad, integrated toolset, but much of it remained underused while everyday communication continued across other platforms. This evidence informed a proposed integrated Teams model to make better use of existing capabilities and reduce fragmented academic workflows.

The model was a research proposal. It was not evaluated over a sustained period in a live module, so improvements in learning or productivity were not demonstrated.

Read the central findingExplore the modelUnderstand the limitations
0:00 / 1:12
73-second research film · A proposed integrated learning and collaboration model. Music: Style Funk — Kevin MacLeod (CC BY 3.0). Starts muted.
Film text & description

Optimising Microsoft Teams — Kinon A. Southerton Jones. Teams was already part of university life, but quick conversations often moved elsewhere. The research included 63 questionnaire responses, five interviews and an observed six-member project including the researcher. 36 of 54 answers reported no formal Teams training. Implementation, familiarity and guidance mattered. The proposed model uses one Team per module, with General for lecturers and all students and private channels for project groups. A guided homepage tour leads into Class Notebook, assignment creation, the attached brief, student view and assessment rubric. Later views show Reflect, announcements, resources, shared reports and presentations, Planner, minutes, Whiteboard, risks and chat. One connected academic workspace. A proposed model for undergraduate learning, not a claim of validated educational outcomes. The soundtrack is instrumental, with no speech.

Music: “Style Funk” by Kevin MacLeod (incompetech.com), from the Wikimedia Commons recording, licensed under Creative Commons Attribution 3.0 Unported. Synchronised to this film; excerpted with fades and loudness adjustment. No endorsement is implied. Full attribution for reuse.

01Research Problem

A connected project, spread across disconnected tools

Undergraduate work brings together lectures, resources, assignments, meetings and group decisions. When those activities sit in separate applications, students have to move between platforms to find information and reconstruct the progress of their work.

I examined whether Teams could provide a more coherent academic workspace. The research focused on how it was actually used, what students found useful or difficult, and how a structured implementation could make better use of its existing capabilities.

Learning resourcesCommunicationGroup work
A more coherent academic workspace
Conceptual research objective: connect related activities without assuming one platform can replace every university system.

The question was broader than whether students could access Teams. I wanted to understand whether its organisation, integrated tools and everyday use supported the work students needed to complete.

02Research Gap

From platform capability to practical implementation

My literature review considered digital learning environments, collaborative platforms and the reported use of Teams in higher education. It identified potential benefits for communication and shared work, alongside usability, adoption and implementation challenges.

What the literature established

Teams offered an environment for meetings, communication and collaborative documents. Studies also discussed engagement, access and the challenges of digital learning.

What needed closer examination

Comparisons with face-to-face teaching and studies of specific courses did not fully explain how a module workspace should be structured or how students would use its tools in everyday group work.

The research gap

I focused on the relationship between available functionality, actual student behaviour and the practical organisation of an academic workspace.

The boundary of the proposal

Teams was considered as a central collaboration environment. Formal assessment and other institutional functions could still require dedicated learning-management systems and appropriate integration.

03Methodology

Three evidence streams, one research question

I used a mixed-methods approach to compare broader patterns with detailed accounts and direct evidence of use. The literature review provided context; the questionnaire, interviews and observation informed the analysis and the proposed model.

63 questionnaire responses5 participant interviewsDirect group observation
Descriptive patterns + contextual themes → proposed model
Research process reconstructed from the dissertation. The evidence streams were complementary, not interchangeable measures of effectiveness.

Questionnaire design

I used closed-ended and Likert-scale questions to explore platform use, perceptions, difficulties and potential improvements. The questionnaire reached students across Levels 3–7+ and several disciplines, with most respondents at undergraduate levels.

Interviews and observation

I interviewed five members of the engineering project and observed the six-person group, including myself, over its academic work. Interviews explored communication, collaboration and productivity; observation examined channels, files, tabs and usage patterns.

Analysis

I used frequencies and percentages to describe questionnaire responses. I reviewed interview and observation evidence thematically, grouping material around communication, collaboration, productivity and practical barriers before comparing the findings.

Sampling and ethics

I used convenience sampling based on access and relevance. Participation was voluntary, the study purpose was explained, informed consent was obtained and responses were anonymised. My involvement in the observed group also required acknowledging possible researcher bias.

The charts preserve the original dissertation evidence. Question branches and response totals differ: percentages refer to the answers shown for that question, not automatically to all 63 respondents. Multiple-response questions should not be read as exclusive categories.

04Questionnaire Findings

What students used, valued and struggled with

I grouped the questionnaire findings into five themes. Together they show the sample, its platform habits, perceptions of usability, barriers and priorities for a more integrated environment.

Figures 5–19 are the original charts. Each can be opened at full size to inspect its labels and legend. These are descriptive findings from this sample, not causal evidence of improved learning.

Questionnaire evidence · Figures 5–6

Who responded

Original chart of study levels: foundation 4, Year 1 8, Year 2 13, Year 3 25, Year 4 or above 13.
Figure 5. Distribution of respondents by level of study. Questionnaire evidence.

A sample weighted towards later study

I collected 63 responses across Levels 3–7+. Level 6 was the largest group: 25 respondents, compared with 13 each at Level 5 and Level 7+, eight at Level 4 and four at foundation level.

The results describe this sample, with its strong later-year representation, rather than every undergraduate cohort.

Original chart of study levels: foundation 4, Year 1 8, Year 2 13, Year 3 25, Year 4 or above 13.
Figure 5. Distribution of respondents by level of study. Questionnaire evidence.

Several disciplines, with an engineering emphasis

Engineering accounted for 22 responses and IT/Computer Science for 13. Business, Science and Arts & Humanities were also represented, with smaller numbers in other fields.

This broadened the questionnaire beyond the observed glider team, while leaving engineering-related courses particularly prominent.

Original field-of-study chart, with engineering and IT/Computer Science the largest respondent groups.
Figure 6. Distribution of respondents by field of study. Questionnaire evidence.
Figure · Original dissertation evidence

Questionnaire evidence · Figures 7–10

Platform use

Original learning-platform chart: Teams 29, Canvas 13, Zoom 7, Google Classroom 5 and smaller groups using WhatsApp, email and other tools.
Figure 7. Distribution of learning platforms used by students. Questionnaire evidence.

A mixed platform environment

Microsoft Teams was the most frequently selected learning platform, with 29 responses. Canvas received 13, Zoom seven and Google Classroom five; WhatsApp groups, email-based learning and other tools were also reported.

Teams was prominent, but the range of platforms supported the research question about fragmented workflows.

Original learning-platform chart: Teams 29, Canvas 13, Zoom 7, Google Classroom 5 and smaller groups using WhatsApp, email and other tools.
Figure 7. Distribution of learning platforms used by students. Questionnaire evidence.

Experience did not mean exclusive adoption

The prior-use chart recorded 25 yes responses and nine no responses: approximately 74% of the 34 answers shown. This is the base for this question, not 74% of all 63 survey participants.

Prior experience provided a starting point for exploring adoption; it did not establish that Teams was a student's sole academic platform.

Original prior-use chart showing 25 respondents had used Teams and nine had not, labelled 74% and 26%.
Figure 8. Proportion of students who have used Microsoft Teams. Questionnaire evidence.

Use was often intermittent

The most common frequency was a few times a week, with 14 responses. Five reported weekly use, four daily use, four rare use and two use every two weeks.

An available platform was not necessarily embedded in daily study routines. The proposed model therefore needed useful recurring entry points.

Original frequency chart: daily 4, a few times a week 14, weekly 5, every two weeks 2, rarely 4 and never 0.
Figure 9. Frequency of Teams usage. Questionnaire evidence.

Structured activities dominated

Online lectures received eight responses; group meetings and assignment collaboration each received six. Communicating with classmates received one response, while communication with lecturers received four.

This suggested a distinction between formal academic activity and everyday peer conversation, later explored through interviews and observation.

Original academic-use chart, led by online lectures, group meetings and collaboration on assignments.
Figure 10. Academic uses of Teams. Questionnaire evidence.
Figure · Original dissertation evidence

Questionnaire evidence · Figures 11–14

Experience and preference

Original satisfaction chart showing 7 very satisfied, 20 satisfied, 5 neutral, 2 dissatisfied and no very dissatisfied responses.
Figure 11. Student satisfaction with digital platforms. Questionnaire evidence.

Existing platforms already met many needs

The satisfaction chart showed 20 satisfied and seven very satisfied responses, alongside five neutral and two dissatisfied responses. The displayed percentages were 59% and 21% for the two positive categories.

An integrated model needed to address specific problems rather than assume students were dissatisfied with every existing tool.

Original satisfaction chart showing 7 very satisfied, 20 satisfied, 5 neutral, 2 dissatisfied and no very dissatisfied responses.
Figure 11. Student satisfaction with digital platforms. Questionnaire evidence.

Ease of use and familiarity mattered

Ease of use and familiarity each received 11 responses as reasons for preferring other platforms. Better communication with lecturers received seven; the option about features unavailable in Teams received no responses.

The findings directed attention towards the experience of using the system, including guidance and predictable organisation.

Original alternative-platform preference chart, with ease of use and familiarity jointly highest at 11 responses each.
Figure 12. Preference reasoning of other platforms over Teams. Questionnaire evidence.

Habit competed with available capability

Being comfortable with another platform received 15 responses. Seven found Teams confusing or difficult, six reported slow operation or crashes, and other answers concerned features, audio/video and suitability for their course.

The proposed structure addressed navigation and familiar routines, while recognising that configuration alone would not resolve performance problems.

Original chart of factors influencing preference over Teams, led by comfort with another platform.
Figure 13. Factors influencing preference over Microsoft Teams. Questionnaire evidence.

Perceptions were mixed

The Likert-style figure compared perceptions of organisation, communication, engagement, collaboration, learning support and suitability for academic use. I interpreted the responses as recognition of benefits that were not consistently experienced in practice.

I carried this qualified assessment into the model rather than treating a single positive perception as proof of improved learning.

Original diverging response chart comparing six perceptions of Teams, with a full strongly-agree to strongly-disagree legend.
Figure 14. Student perceptions of Microsoft Teams. Questionnaire evidence.
Figure · Original dissertation evidence

Questionnaire evidence · Figures 15–17

Barriers to effective use

Original digital-platform challenges chart, including technical issues, mobile experience, integration and navigation.
Figure 15. Challenges experienced with digital platforms. Questionnaire evidence.

The problem extended beyond one application

Technical issues received 12 responses and poor mobile experience ten. Limited integration, the use of multiple platforms, communication problems and difficulties locating materials were also reported.

The model needed to reduce avoidable searching and switching without claiming to remove every technical or institutional constraint.

Original digital-platform challenges chart, including technical issues, mobile experience, integration and navigation.
Figure 15. Challenges experienced with digital platforms. Questionnaire evidence.

Teams had practical usability barriers

The Teams-specific chart recorded eight responses for slow operation or crashes, five each for finding files and navigating channels, and four for difficulty communicating through the app.

Clear channels, purposeful tabs and topic-based files became practical parts of the proposed response to these reported difficulties.

Original Teams-difficulty chart showing performance, file finding, channel navigation, communication and other issues.
Figure 16. Difficulties with Teams. Questionnaire evidence.

Formal training was uncommon

Of the 54 answers shown in the training chart, 36 reported no formal training and 18 reported training: 67% and 33% respectively.

I recommended introductory and follow-up support. The survey suggested a relationship worth addressing, but did not prove that lack of training caused the other reported problems.

Original training chart showing 18 yes and 36 no responses, labelled 33% and 67%.
Figure 17. Training with Microsoft Teams. Questionnaire evidence.
Figure · Original dissertation evidence

Questionnaire evidence · Figures 18–19

Potential for a central workspace

Original chart of perceived centralised-platform value, showing 25 yes and nine no responses.
Figure 18. Perceived value of a centralised platform. Questionnaire evidence.

Interest in a more integrated approach

The centralised-platform question showed 25 positive and nine negative responses, approximately 74% and 26% of the 34 answers displayed.

This expressed perceived value, not a measured improvement. It supported exploring an integrated model that could subsequently be tested.

Original chart of perceived centralised-platform value, showing 25 yes and nine no responses.
Figure 18. Perceived value of a centralised platform. Questionnaire evidence.

Organisation was the strongest request

Clearer organisation of modules, channels and files received 33 responses. More effective feature use received 26, improved communication 24 and better guidance 23. Primary-platform use, faster feedback and integration with university systems were also requested.

These priorities became the model's structure, communication choices and training recommendations.

Original improvement chart with clearer organisation highest, followed by feature use, communication, training and other suggestions.
Figure 19. Suggested improvements for Microsoft Teams usage. Questionnaire evidence.
Figure · Original dissertation evidence

05Interviews & Observation

Why a useful platform was not always the preferred workspace

The interviews explained behaviour that the questionnaire alone could not. Participants valued shared files and organised academic work, but often preferred familiar messaging tools for quick exchanges. Their views were not uniform: positive experiences coexisted with frustrations about navigation, speed of communication and engagement.

Formal and informal communication

Participants distinguished structured academic work from everyday conversation. Teams supported organised material and formal exchanges, while WhatsApp often felt quicker and more familiar. Threaded discussion did not suit every interaction.

Documents and coordination

Shared files reduced the need to exchange separate versions and gave participants a common working location. Some coordination and deadline management nevertheless remained outside Teams.

Habit and attention

Familiarity influenced platform choice. One participant had disabled notifications, illustrating how individual settings and routines could affect communication independently of the workspace structure.

Participation remained a human issue

Participants did not attribute all collaboration problems to software. Unequal participation could reflect individual engagement; simply adding a tool would not ensure that every member used it.

“The main reason is habit.”

Interview participant 1, on using other platforms alongside Teams.

“equal participation depended more on individual engagement rather than the platform itself.”

Interview participant 3, on group participation.

The observed glider workspace made this distinction tangible. The group adopted shared report and presentation documents, but several other available features did not become part of its routine.

Direct observation · Figures 20–22

The intended workspace and the workspace in use

Original observed glider workspace showing General, Design and CAD, and Discussions channels.
Figure 20. Channel Structure within Microsoft Teams. Observed workspace.

Channels existed; behaviour stayed in General

I observed a six-member undergraduate glider project, including myself. General was created for announcements, Design & CAD for file submissions, and Discussions for communication. Most interactions nevertheless remained in General.

Providing a structure did not guarantee that the group would adopt it. The proposed model needed guidance on how each space should be used.

Original observed glider workspace showing General, Design and CAD, and Discussions channels.
Figure 20. Channel Structure within Microsoft Teams. Observed workspace.

Shared documents became part of the workflow

The workspace included a shared Word report, a PowerPoint presentation, OneNote meeting minutes and a Planner-based Schedule tab. Report and Presentation were used extensively, whereas Schedule and Whiteboard were not actively used.

The model retained the successful document tabs but treated wider tool adoption as something requiring introduction and support.

Original tab strip from the observed project: Posts, Shared, Final Report, Presentation, Meeting Minutes, Schedule and Whiteboard.
Figure 21. Teams tab structure used for project. Observed workspace.

Meeting records depended on individual use

I used OneNote to record meeting minutes, but this did not become a shared group habit. Day-to-day discussion largely continued on WhatsApp, separating ongoing communication from structured work in Teams.

The minutes provided a structured record, but my individual use did not show that the whole group had adopted the workflow.

Original OneNote meeting-minutes screenshot from the glider project, with participant names redacted in the dissertation.
Figure 22. Use of OneNote to take down meeting minutes. Observed workspace.
Figure · Original dissertation evidence

06Evidence Synthesis

The gap was between available capability and everyday practice

The evidence pointed towards an implementation problem as well as a technology problem. Students recognised useful capabilities, yet familiarity, unclear organisation, limited guidance and practical difficulties shaped what they actually used.

Survey: organisation and guidanceInterviews: habits and usabilityObservation: selective tool use
Consistent structure + purposeful tools + supported adoption
Analytical synthesis informing the proposal. This relationship was not tested as a causal model.

Retain what already worked

The observed use of shared Word and PowerPoint documents supported keeping those tools prominent in the proposed group workspace.

Address retrieval and navigation

Requests for clearer organisation and difficulties finding files informed consistent channels, topic-based resources and purposeful tabs.

Support adoption rather than assume it

Low reported training and unused project tools informed workshops, lecturer guidance and examples of effective practice.

Respect different communication needs

The preference for quick informal messaging informed a distinction between structured posts and chat. Whether this would change established habits remained an open question.

07Proposed Teams Model

A structured Teams environment for modules and group work

I translated the findings into a proposed model built around a consistent module workspace and dedicated group channels. The aim was to give each activity a clear location while allowing project teams to adapt the details to their work.

The following walkthrough uses original still screenshots from the proposed model, Figures 23–50. It demonstrates configuration and intended workflows, not a live institutional deployment or a recorded user trial.

Proposed model · Figure 23

A module-level hub with dedicated group spaces

Original proposed overall Teams structure showing a module workspace and private group channels.
Figure 23. Overall Teams Structure. Proposed model.

One Team for each university module

I proposed a consistent module-level Team with General for lecturer announcements and module communication, alongside private channels for assessed groups. Each group would have its own collaboration space within the wider module environment.

The structure aimed to make navigation familiar across modules while keeping group-specific materials within the relevant membership. This was a proposal, not an institution-wide deployment.

Original proposed overall Teams structure showing a module workspace and private group channels.
Figure 23. Overall Teams Structure. Proposed model.
Figure · Original dissertation evidence

Module informationTeaching and assessmentPrivate group channels
A consistent module-level Team
Conceptual overview of the proposed architecture; specific features and workflows are illustrated below.

The wider capability considered

Alongside the illustrated model, I reviewed the platform capabilities that could support a connected academic environment.

Communication and meetings

Channels and chat, searchable conversation history, scheduled or instant meetings, screen sharing, breakout rooms, recordings and transcription were among the capabilities considered in the dissertation.

Shared work and integrations

The review considered file sharing and co-authoring through Microsoft 365, OneDrive and SharePoint, shared notes, Whiteboard and integrations with Microsoft and third-party tools.

Access across contexts

Multi-device access was relevant to students moving between teaching spaces and independent work. Reported mobile and performance difficulties remained practical constraints.

Accessibility and inclusion

The dissertation discussed live captions, high-contrast options and identity-related features such as pronouns and name pronunciation. These formed part of the wider capability review rather than tested outcomes of the model.

08Module Experience

From the module homepage to learning, assessment and feedback

The module-level experience brought information, teaching resources and structured communication into a predictable environment. The sequence below follows the proposed student and lecturer workflows rather than presenting an isolated list of features.

Proposed module homepage · Figures 24–25

A useful first screen

Original proposed module homepage with module overview, resources and class schedule.
Figure 24. Module Homepage. Proposed model.

Module context and important information

I proposed a homepage that brought the module description, key announcements and relevant resources into the first screen students opened. Lecturers could include external material such as supporting videos.

A clear starting point responded to the need to find academic information without searching across several systems.

Original proposed module homepage with module overview, resources and class schedule.
Figure 24. Module Homepage. Proposed model.

Current information, maintained by the lecturer

The homepage included calendar-synchronised class schedules, recent files and upcoming assignments. Lecturers could customise sections, save and review edits, and publish the revised content when ready.

The homepage was intended to bring current information together; institutional compatibility and effectiveness would still need evaluation in a live module.

Original continuation of the homepage showing assignments, class schedule, recent files and customisable module information.
Figure 25. Module Homepage (Continued). Proposed model.
Figure · Original dissertation evidence

Proposed teaching and learning spaces · Figures 26–27

Class Notebook

Original Class Notebook setup showing Collaboration Space, Content Library, Teacher-Only Section and Student Notebooks.
Figure 26. Class Notebook Structure. Proposed model.

Four areas with different purposes

The proposed notebook separated a Content Library for lecturer material, a Collaboration Space for shared work, a teacher-only area and individual student notebooks. Suggested student sections included lecture notes, tutorial work, assignment drafts and personal notes.

Separating these purposes gave students an organised working space alongside the shared module resources.

Original Class Notebook setup showing Collaboration Space, Content Library, Teacher-Only Section and Student Notebooks.
Figure 26. Class Notebook Structure. Proposed model.

Work through a problem together

The Collaboration Space could support live teaching: a lecturer could share and solve a problem while students contributed in the same space. The example showed a gradient exercise and handwritten working.

This was a proposed use of a shared notebook, extending the model beyond storing lecture files.

Original Collaboration Space example with a gradient exercise and handwritten mathematical working.
Figure 27. Collaboration Space Example. Proposed model.
Figure · Original dissertation evidence

Proposed assessment workflow · Figures 28–31

From assignment setup to feedback

Original sample assignment creation screen showing description, marking information, deadline, recipients and publishing controls.
Figure 28. Assignment Creation Interface. Proposed model.

Create and publish

The proposed Classwork workflow let lecturers enter a description, deadline and marks, attach supporting material, and publish immediately or schedule release. Work could be directed to selected students where appropriate.

Clear setup brought the brief, timing and assessment information together. The screenshot is a sample assessment from the proposed environment.

Original sample assignment creation screen showing description, marking information, deadline, recipients and publishing controls.
Figure 28. Assignment Creation Interface. Proposed model.

Keep the brief with the task

An attached coursework brief and supporting links could remain accessible from the assignment itself rather than being distributed separately.

The design connected the task instructions to the place students would return to when completing the work.

Original screenshot of a sample coursework assessment brief attached to the assignment.
Figure 29. Attached coursework brief. Proposed model.

Open, complete and submit

From the student view, the assignment could be opened to read the description and attached brief, then used to submit work. The proposed lecturer workflow included tracking submissions, marking and feedback.

These were model features, not a validated replacement for formal university assessment systems. Institutional requirements would determine the appropriate integration.

Original student-facing sample assessment post with due date and View assignment control.
Figure 30. Student's view of assignment. Proposed model.

Make assessment criteria visible

The model included a marking rubric to communicate criteria and support feedback within the assignment workflow.

The rubric connected the assessment instructions to how work would be reviewed; the dissertation did not test its effect on student outcomes.

Original Create rubric interface with a title and description field.
Figure 31. Rubric Setup. Proposed model.
Figure · Original dissertation evidence

Proposed supporting features · Figures 32–33

Reflect and student wellbeing

Original Reflect check-in preview asking how a student feels about an assignment.
Figure 32. Reflect check-in feature. Proposed model.

A brief student check-in

Reflect was included as a way to gather student feedback and consider engagement through a short check-in.

It formed one supporting part of the learning environment; the dissertation did not measure wellbeing or engagement improvements from its use.

Original Reflect check-in preview asking how a student feels about an assignment.
Figure 32. Reflect check-in feature. Proposed model.

Access to guided resources

The proposed environment also linked to self-growth and wellbeing material, including short podcasts and guided resources described in the dissertation.

This broadened the module's support resources without making wellbeing tools the central purpose of the project.

Original Reflect wellbeing-resource screen with guided content and resource categories.
Figure 33. Reflect wellbeing resources. Proposed model.
Figure · Original dissertation evidence

Proposed posts workflow · Figures 34–36

Structured module communication

Original standard post example showing assignment guidance, an important marker and a channel mention.
Figure 34. Standard Post Example. Proposed model.

Posts with a clear audience

Lecturers could use standard posts and formatted messages for module communication. Channel mentions could address the class, individual mentions could direct attention to specific students, and important-message emphasis could distinguish urgent information.

The intention was to make formal communication easier to organise and revisit; a notification was not a guarantee that every student would engage.

Original standard post example showing assignment guidance, an important marker and a channel mention.
Figure 34. Standard Post Example. Proposed model.

Announcements for prominent updates

Announcement posts offered headings and formatting for significant updates such as deadlines. The proposed example used a clearly structured announcement rather than another undifferentiated message.

This gave module-level notices a more deliberate presentation while retaining the General channel as their shared location.

Original announcement-post example demonstrating a prominent heading and formatted event details.
Figure 35. Announcement Post Example. Proposed model.

Update and reference earlier information

Posts could be edited after publication, and quoted replies could refer back to the message being discussed.

This supported traceable formal discussion. The model separately included informal chat because threaded posts did not suit every conversation.

Original quoted-post example referencing earlier assignment guidance.
Figure 36. Quote Post Example. Proposed model.
Figure · Original dissertation evidence

Proposed resource organisation · Figures 37–39

Learning materials and meetings

Original Shared-tab example with topic-based folders for digital learning and technology-enhanced learning.
Figure 37. Topic-Based Folder Structure. Proposed model.

Organise around the topic

I proposed topic-based folders in the Shared tab so students could use the subject being studied as the organising principle for resources.

The structure addressed reported difficulties with finding files and inconsistent organisation across learning environments.

Original Shared-tab example with topic-based folders for digital learning and technology-enhanced learning.
Figure 37. Topic-Based Folder Structure. Proposed model.

Keep related materials together

Each topic folder could hold lecture slides, supporting PDFs or documents, and a subfolder for lecture recordings. Scheduled Teams meetings could support teaching, with recordings and transcripts available for later review as described in the dissertation.

Students would have a consistent place to revisit the material for a topic instead of reconstructing it from several locations.

Original topic-folder contents showing a lecture recordings folder and a lecture PDF.
Figure 38. Example Folder Contents. Proposed model.

Support retrieval as well as storage

Search and filtering complemented the folder structure. The illustrated tools included media-type and location-related ways to find material and files shared in messages.

A clear filing system and retrieval tools were complementary parts of the proposed response to navigation problems.

Original file-filter interface showing All documents, In messages and format-related filters.
Figure 39. Media Filtering and Location Features. Proposed model.
Figure · Original dissertation evidence

09Group Collaboration

A shared working environment for the project team

The group model extended the module structure into the work of an assessed team: organising evidence, co-authoring outputs, allocating tasks, recording decisions and maintaining project risks.

These tools had different evidential foundations. Shared documents had been used extensively in the observed group; wider use of Planner, Whiteboard and meeting records was proposed as a better-supported workflow.

Proposed group structure · Figures 40–42

A private project workspace

Original proposed private Group 01 channel within the module workspace.
Figure 40. Private Channel Overview. Proposed model.

Keep assessed group work together

Each assessment group would receive a private channel for its conversations, files and integrated tools. Group-specific work would sit within the module structure without being shared with unrelated student groups.

This connected the module-level framework to a dedicated space for the practical work of each team.

Original proposed private Group 01 channel within the module workspace.
Figure 40. Private Channel Overview. Proposed model.

A file structure that can be adapted

The suggested folders were Admin & Documentation for briefs and guidelines; Data & Figures for outputs; Drafts & Working Files for work in progress; and Research Materials for sources and references.

I proposed a general starting framework, with flexibility for the requirements of different projects rather than a mandatory folder structure for every assignment.

Original proposed group folders: Admin and Documentation, Data and Figures, Drafts and Working Files, Research Materials and Shared Documents.
Figure 41. Group File Structure. Proposed model.

Bring the working tools into view

The workspace tabs linked to the report, presentation, project plan, Whiteboard, meeting minutes and risk register alongside posts and shared files.

The tabs made the working environment explicit. Their usefulness still depended on students understanding and adopting them.

Original proposed navigation tabs for report, presentation, project plan, Whiteboard, meeting minutes and risk registry.
Figure 42. Example workspace navigation tabs. Proposed model.
Figure · Original dissertation evidence

Proposed co-authoring workflow · Figures 43–44

Shared documents with one working location

Original shared Word report tab displaying a sample report and table of contents.
Figure 43. Shared Report Tab. Proposed model.

Work on the report together

A Word report could be added directly as a tab so several students could work in the same document, with the current file accessible from the group environment.

This built on the observed success of the shared Report tab and aimed to reduce conflicting copies of the same work.

Original shared Word report tab displaying a sample report and table of contents.
Figure 43. Shared Report Tab. Proposed model.

Keep the presentation alongside the report

A shared PowerPoint tab provided the same common working location for the presentation, allowing students to edit it collaboratively.

Report and Presentation were among the features used extensively in the observed project, giving these recommendations a direct connection to the evidence.

Original shared PowerPoint presentation tab in the proposed group environment.
Figure 44. Shared Presentation Tab. Proposed model.
Figure · Original dissertation evidence

Proposed project tools · Figures 45–48

Coordinate tasks and retain decisions

Original Planner project board with planning stages and task cards.
Figure 45. Project Planner. Proposed model.

Planner for responsibility and progress

The proposed Planner workflow covered creating tasks, assigning responsibilities, setting deadlines and monitoring progress.

The observed Schedule tab was not actively used. This was a recommendation for better-supported adoption, not a claim that Planner had already solved the group's coordination problems.

Original Planner project board with planning stages and task cards.
Figure 45. Project Planner. Proposed model.

OneNote for meeting continuity

OneNote could hold agendas, discussion summaries and structured meeting records. The example organised progress updates, task allocation, issues and next steps in a common place.

I had used OneNote individually during the observed project. The model proposed making meeting records part of the wider group's routine.

Original proposed meeting-minutes page with date, time, attendees, agenda and discussion summary.
Figure 46. Meeting Minutes. Proposed model.

Whiteboard for visual discussion

Microsoft Whiteboard was included for brainstorming and developing ideas during meetings. The example used sketches, notes and shared visual working.

This was a proposed collaborative activity; Whiteboard had not been actively used in the observed glider workspace.

Original Whiteboard example showing aircraft-force sketches, notes and drawing tools.
Figure 47. Whiteboard. Proposed model.

An Excel-based risk register

The proposed register recorded risk descriptions, categories, likelihood, impact, risk scores, mitigation, contingency actions and ownership within an Excel sheet opened from the workspace.

This was an integrated spreadsheet for project teams to maintain, not a specialised native Teams risk-management system or evidence that the sample risks had been resolved.

Original Excel risk-register example with likelihood, impact, mitigation, contingency and owner columns.
Figure 48. Risk Register. Proposed model.
Figure · Original dissertation evidence

Proposed chat and personalisation · Figures 49–50

Make room for informal interaction

Original informal chat example from the proposed environment; participant names are obscured in the source.
Figure 49. Informal Chat Example. Proposed model.

Chat for quick exchanges

The model included Teams chat as a messaging-style space for informal discussion and direct communication, alongside formal channel posts.

This responded to participants' preference for quick WhatsApp exchanges. It did not establish that Teams chat would replace those habits; that would need testing with students.

Original informal chat example from the proposed environment; participant names are obscured in the source.
Figure 49. Informal Chat Example. Proposed model.

A more personal interface

The walkthrough included theme and appearance settings as options for adjusting the workspace experience.

This addressed feedback about a rigid or dull interface at the level of a proposal. Personalisation alone was not presented as a proven route to better engagement.

Original appearance settings screen showing theme and colour options.
Figure 50. Appearance Settings. Proposed model.
Figure · Original dissertation evidence

10Implementation

A workspace needs an implementation approach, not just a template

I recommended coordinated support for institutions, lecturers and students. Consistency would establish a recognisable starting point, while training and flexibility would help groups use the workspace for their actual tasks.

  1. 01 · Establish the structure

    Set a consistent module framework

    Use a General channel for module communication, private channels for group work, clear tabs and organised files. Provide staff guidelines and review the structure periodically so consistency is maintained.

  2. 02 · Support teaching staff

    Combine functionality with effective module design

    Provide lecturer training on teaching, assessment and workspace organisation. Example templates and practical guidance would support consistent use rather than leave each lecturer to configure the environment independently.

  3. 03 · Introduce student workflows

    Demonstrate, practise and reinforce

    Run introductory workshops at the start of a degree and follow-up sessions. Demonstrate well-structured module and group spaces, including good examples from previous students with appropriate credit.

  4. 04 · Encourage meaningful adoption

    Connect use to the work students are doing

    Explain the professional relevance of collaborative working. The dissertation also proposed possible assessment credit for evidenced effective use and optional small competitions with modest prizes. These were recommendations for consideration, not implemented policies or tested incentives.

  5. 05 · Preserve flexibility

    Allow the framework to fit the project

    Encourage groups to adapt the tools and structure to their requirements. A common template should establish a useful foundation without requiring identical workflows for every assignment.

11Limitations & Further Work

What the study could establish—and what still needed testing

The research developed an evidence-informed proposal. Its scale, sampling and evaluation limits constrained the conclusions that could be drawn about broader adoption or measurable educational outcomes.

Sample and setting

The questionnaire was relatively small and used convenience sampling. Interviews and observation centred on one engineering group, limiting how far the findings could be generalised to other courses or universities.

Researcher involvement

I was a member of the observed project. This provided access to real working practices, but introduced the possibility of bias in what I noticed and how I interpreted it.

Perceptions and outcomes

Questionnaire and interview evidence reflected individual experiences and perceptions. It did not establish that a particular configuration caused improved attainment, productivity or engagement.

Model evaluation

The proposed model was not tested over a sustained period in a real module. Its effectiveness, adoption and compatibility with institutional systems remained to be evaluated.

Further work

A larger study across courses and universities would provide a broader evidence base. Applying the model within a live module and evaluating it over time would test the proposed workflows in practice. Further investigation of lecturer perspectives and integration with university systems would also be needed.

12Conclusion & Reflection

Research translated into a practical system proposal

I completed an individual dissertation that connected a literature review, questionnaire analysis, interviews and direct observation to a detailed Teams model and implementation recommendations.

The central conclusion was that available functionality alone did not determine effective use. Organisation, guidance, established habits and the way tools fitted academic work were central to the implementation challenge.

This work developed my approach to defining a problem, gathering complementary evidence, analysing user needs and translating findings into a structured proposal. It also required me to distinguish a plausible design response from a demonstrated result, and to identify what a subsequent evaluation would need to address.

Source: Kinon Jones, Optimising the Use of Microsoft Teams in Undergraduate Education, final-year dissertation, April 2026. Figures 5–50 are reproduced from the supplied dissertation, with their original numbering. Conceptual diagrams on this page summarise the research process and proposed structure.