Practical Strategies: AI Pedagogy (Practice) & HEA Senior Fellowship Guidance
Higher Education Academy — Senior Fellowship: ideas for an AI × pedagogy portfolio
(A) quick framing tied to the UK Professional Standards Framework (so you can map evidence to SFHEA), (B) teaching/design ideas you can run as modules/activities, (C) assessment ideas (with rubrics and anti-cheating/process suggestions), and (D) the kinds of artefacts and narrative structure that make a strong Senior Fellowship submission. Demonstrate strategic leadership, scholarship, and mentoring (the heart of Senior Fellowship).
A. Quick framing — map to UKPSF/Senior-Fellowship priorities
When writing your evidence, explicitly link activities to UKPSF dimensions:
- Areas of activity (A1–A5) — e.g. A1 (design), A2 (teach), A3 (assess), A4 (enhance learning environment), A5 (scholarship).
- Core knowledge (K1–K6) — include subject expertise, learning theory, technologies, assessment design, external matters.
- Professional values (V1–V4) — learner-centred practice, inclusivity, scholarly activity, ethical practice.
For Senior Fellowship emphasise: strategic influence beyond a single module (mentoring colleagues, leading policy or curriculum change), evidence of sustained impact, and demonstrable leadership in developing others.
B. AI × Pedagogy module / teaching ideas (with learning outcomes)
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Foundations: “AI Literacy for Academics & Students” (short course/workshop)
- Outcomes: evaluate LLM outputs; design safe prompts; critique ethical and epistemic limits.
- Activities: live LLM demos, prompt labs, source-tracing workshop, mini research critiques.
- Evidence: workshop materials, attendance numbers, pre/post confidence survey.
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“Designing Learning with AI” (staff CPD series)
- Outcomes: integrate AI tools into assessment design responsibly; create inclusive AI-guidelines for a programme.
- Activities: co-design clinics, peer-review of assessment briefs, pilot projects.
- Evidence: programme-level policy drafts, testimonial from colleagues, rollout statistics.
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Applied module: “AI in Practice” (project-based, discipline-specific)
- Outcomes: build and critique an AI-enabled solution for a domain problem; reflect on social impacts.
- Activities: team projects, stakeholder interviews, mini user testing.
- Evidence: student projects, external partner feedback, rubric-marked artefacts.
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Assessment-focused: “Assessing in the Age of AI” (seminar & toolkit)
- Outcomes: create robust, authentic assessments that cannot be outsourced to LLMs; use AI for scalable formative feedback.
- Activities: red-team assessments for vulnerability to cheating, design of staged submissions.
- Evidence: redesign briefs, before/after cheating incidence data, student performance.
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Critical AI seminar series (ethics, historiography, policy)
- Outcomes: situate AI development historically, evaluate ethical frameworks, influence departmental policy.
- Activities: invited talks, student-led debates, policy-writing labs.
- Evidence: seminar programme, minutes showing policy change, reflective essays.
C. Concrete assessment ideas (with rubrics & anti-cheating measures)
- Requirement: Student submits artefact plus a “prompt log” and a 500-word critical commentary describing what the AI produced, how they edited it, and what they learned.
- Why: reveals process, encourages critical reflection and transparency.
- Evidence for SFHEA: improved student metacognition (survey), examples of logs.
2) Authentic project (group, summative)
- Brief: solve a real-world problem using AI (data gathering, model/LLM use, stakeholder report).
- Stages: proposal (10%), mid-stage process log (20%), final deliverable & public presentation (50%), reflective learning account (20%).
- Anti-cheating: staged deliverables, version-controlled code/notebooks, recorded team demos.
3) Source-verification & fact-check challenge (individual)
- Students are given several AI-generated “reports” containing subtle errors. Task: detect and justify corrections; produce an annotated corrections ledger.
- Assessment focuses on critical appraisal and evidence-seeking skills.
4) Oral defense / viva for key submissions
- After the portfolio submission, short viva probing decisions, methodology, and ethical considerations.
- Useful metric of individual authorship and depth of understanding.
5) Peer review + calibrated rubric
- Students review anonymous peers using a rubric that assesses: task understanding, use of AI tools (appropriateness, transparency), ethics, and communication.
- Provide calibration examples and a meta-reflection on reviewing.
6) AI-design ethical impact statement (mini-essay)
- Short structured task: identify stakeholders, risks, mitigation, and monitoring plan for any AI artefact produced.
Sample rubric (for an AI-enabled group project, 100 points)
- Problem framing & relevance — 15 (excellent: precise, stakeholder-informed; poor: vague).
- Technical correctness & method — 25 (sound methodology, reproducible code/notebook).
- Critical evaluation & evidence — 20 (limitations acknowledged, rigorous testing).
- Ethics & societal impact — 15 (clear identification of harms and mitigation).
- Process transparency & authorship — 15 (complete prompt logs, git history, demo).
- Presentation & communication — 10 (clear, targeted to stakeholders).
Provide exemplary descriptors for each band (high/medium/low) in the rubric.
D. Anti-contract-cheating & academic integrity design features
- Require process artefacts: version control logs, notebooks with timestamps, and incremental submissions.
- Use vivas and live demos for high-stakes items.
- Ask for reflective statements explaining decisions and edits to any AI output.
- Staggered deadlines and iterative feedback reduce last-minute outsourcing.
- Employ authentic tasks (local stakeholders, context-specific datasets) which are hard to outsource generically.
E. Evidence & artefacts to collect for Senior Fellowship
Make a deliberate evidence plan — collect these:
- Module and assessment briefs (before/after redesign) showing your influence.
- Rubrics and sample marked work (with student consent / anonymised).
- Records of staff CPD you led: slides, evaluations, attendance lists.
- Emails/meeting notes showing policy or curriculum changes you initiated.
- Peer-observation reports and student feedback (quantitative + narrative).
- External examiner comments if relevant.
- Data demonstrating impact: e.g., improvement in marks, reduced misconduct, uptake of revised modules.
- Examples of mentees’ work and testimonials (showing how you developed colleagues).
- Scholarly outputs: conference presentations, pedagogic articles, or internal reports.
F. Narrative structure for sections of your SFHEA submission (practical template)
For each claim of influence/impact use this micro-structure (keep linking A/K/V):
- Claim — single sentence of what you did and which UKPSF dimensions it addresses.
- Context & scale — where, when, how many students/colleagues/programmes were affected.
- Activity — concrete actions you led (design, workshops, policy).
- Evidence & outputs — list artefacts (attach or reference).
- Outcomes & impact — measurable change (student performance, curriculum adoption, staff uptake).
- Reflection — what you learned, what you would change, how you will scale/transfer.
Repeat across 3–5 major claims showing sustained leadership and influence.
G. Quick examples you can drop into evidence statements
- “Led a cross-school CPD programme (n=40 staff) that redesigned assessments to require process artefacts and reflective AI logs; after implementation, incidents flagged for contract cheating fell X% and student critical-reflection scores rose.”
- “Developed a programme-level AI-use policy and co-authored guidance that was adopted by the Faculty Teaching Committee.”
(Do not quote percentages unless you have the data—replace X with real figures or descriptive terms.)
H. A few low-effort, high-impact starter moves
- Run a one-day “Prompt + Assessment Redesign” workshop with programme leads and produce a short policy draft.
- Introduce a compulsory “process log” for one assignment as a pilot (collect data).
- Mentor a colleague to redesign their assessment to be AI-resilient and record the mentorship as evidence.
Quick Practical Strategies for Teaching AI in Biomedicine (Practice)
- Start with clinical questions: frame each module around a specific biomedical question or clinical decision to keep tools grounded in impact.
- Model-first thinking: teach simple, interpretable models (logistic regression, decision trees) and workflows before deep learning.
- Use short, active cycles: 15–20 minute concept mini-lectures followed by hands-on labs or group problem solving.
- Reproducible notebooks: provide runnable starter notebooks with clear dependency lists and a short
README that shows expected outputs.
- Interpretability-first labs: require students to produce clinician-facing explanations (one-page summaries) and a limitations section.
- Scaffold assessments: give incremental checkpoints (data cleaning, baseline model, interpretation, final report) and rubric-aligned feedback.
- Interdisciplinary role-play: assign students clinician/researcher/data-scientist roles to practice translation and communication.
- Ethics embedded: make an explicit ethics statement and bias/harm audit mandatory for every project.
How this maps to HEA Professional Standards (useful for Fellowship evidence)
- Align teaching activities to the UKPSF Areas of Activity (A1–A5), Core Knowledge (K1–K6), and Professional Values (V1–V4).
- Emphasise evidence of sustained effectiveness and leadership in learning support, assessment design, and mentoring (key for Senior Fellowship, Descriptor 3).
Applying for HEA Senior Fellowship (UK) — Practical Steps
- Identify the route and institutional lead: contact your institution’s recognised HEA Fellowship coordinator or staff-development team to confirm the Senior Fellowship (Descriptor 3) pathway and institutional requirements.
- Gather a mentor/peer reviewer: secure a colleague or mentor experienced with HEA applications to advise and review drafts.
- Map activities to UKPSF explicitly: prepare a simple table that maps each claim to specific UKPSF dimensions (Area of Activity, Core Knowledge, Professional Values) and links to evidence.
- Collect evidence artifacts (examples):
- Module/program design documents and learning outcomes showing curriculum leadership.
- Sample teaching materials (notebooks, slide packs) and deployment artefacts (Docker/Binder links).
- Records of student feedback and evaluation (summative and formative), with reflective commentary on how you acted on feedback.
- Evidence of mentoring, supervision or leadership (mentoring records, workshop leadership, curriculum coordination).
- Assessment design examples showing fairness, validity, and alignment to learning outcomes.
- Outputs demonstrating impact (colleague uptake, changes to assessment, improved student outcomes).
- Draft the reflective narrative (supporting statement):
- Structure: context → activity (what you did) → evidence (what shows it happened) → impact (who benefited and how) → reflection and development.
- Explicitly cross-reference evidence to PSF claims (e.g., “A2, K2, V1 — see evidence 3: module handbook”).
- Obtain internal review and revise: circulate to mentor, peers, and your institution’s panel for feedback; respond and refine.
- Submit via your institution: follow local submission and moderation processes; include external reviewers if required by your institution.
Suggested Evidence Checklist (compact)
- Short teaching statement demonstrating strategic leadership in curriculum or pedagogic practice.
- Mapped table to UKPSF with hyperlinks to artifacts.
- 3–6 concrete artifacts (design docs, sample materials, assessment, student feedback summaries, mentoring logs).
- Impact evidence (quantitative where possible, qualitative where useful) and reflective entries showing iterative improvement.
- Two internal referees or a mentor statement (as per local process).
Practical Tips for a Strong Senior Fellowship Claim
- Use clear, concise impact statements: quantify improvements (e.g., higher assessment pass rate, higher reproducible-run rate) where possible.
- Show sustained activity over time, not a one-off event — evidence of repeated or embedded change is valued.
- Emphasise leadership and influence: show how your work changed colleagues’ practice, course design, or student outcomes.
- Keep the narrative reflective — show how evidence shaped your professional learning and future plans.
- Provide accessible artifacts: include short README notes for each artifact so reviewers can quickly understand context.
Teaching Strategy: AI and Pedagogy for Biomedicine
Summary
A focused, practical strategy for teaching AI to biomedical students that emphasizes clinical relevance, interpretability, reproducibility, and ethics. Blend conceptual teaching, hands-on data labs, and authentic assessments to prepare students for real-world biomedical AI tasks.
Learning Objectives
- Understand core AI/ML concepts and how they map to biomedical problems.
- Apply basic data preprocessing, modeling, and evaluation workflows to biomedical datasets.
- Interpret model outputs and communicate findings to clinical and research audiences.
- Recognize ethical, legal, and reproducibility challenges in biomedical AI.
- Collaborate across disciplines and document analyses for reuse.
Course Structure (high-level)
- Module 1 — Foundations: statistics, probability, and ML concepts tied to biomedical examples.
- Module 2 — Data: biomedical data types, preprocessing, bias, privacy, and provenance.
- Module 3 — Modeling: supervised learning, evaluation metrics, interpretability techniques.
- Module 4 — Specialized topics: medical imaging, genomics, clinical NLP, and time-series data.
- Module 5 — Deployment & reproducibility: reproducible pipelines, model documentation, regulatory considerations.
- Module 6 — Ethics & governance: fairness, privacy, data governance, and communication.
Teaching Methods
- Active Learning: short lectures (15–20 min) followed by problem-solving or mini-project work.
- Case-Based Learning: use real or realistic biomedical case studies (e.g., diagnostic test, patient risk stratification).
- Hands-On Labs: reproducible Jupyter/RMarkdown notebooks with curated biomedical datasets; focus on end-to-end workflows.
- Peer Instruction: students explain model choices and limitations to peers, fostering translational communication skills.
- Interdisciplinary Projects: pair biomedical students with data-science students (or simulate roles) to mirror clinical teams.
Sample Week-by-Week (8-week short course)
Week 1 — Intro & Foundations: probability, bias, overview of biomedical AI successes/failures.
Week 2 — Data Wrangling: missing data, normalization, labeling challenges in clinical datasets.
Week 3 — Supervised Learning: linear models, decision trees; biomedical performance metrics (sensitivity/specificity, ROC/PR).
Week 4 — Model Interpretation: SHAP/LIME, saliency for images, case explanations for clinicians.
Week 5 — Imaging & Signals: basics of convolutional ideas and time-series handling; pitfalls in imaging datasets.
Week 6 — NLP in Biomedicine: clinical notes, entity extraction, de-identification concerns.
Week 7 — Reproducibility & Deployment: containers, notebooks, CI for data pipelines, documentation (model cards).
Week 8 — Ethics & Final Presentations: harm analysis, bias audit, student project presentations.
Assessment Strategies
- Frequent formative checks: short labs and quizzes to confirm concepts.
- Authentic summative tasks: short projects addressing a biomedical question with data, interpretation, and reproducible code.
- Presentation & Communication: students present findings to a mixed audience (clinicians + data scientists).
- Rubrics: evaluate correctness, reproducibility (can another student run it), clinical relevance, and ethics reflection.
Example Assignment Prompt (brief)
Task: Using the provided de-identified dataset of patient vitals, build a model to predict 48-hour deterioration risk. Deliverables:
- Cleaned, runnable notebook with dependency list and README.
- Short methods write-up explaining model choice and evaluation.
- One-page clinician-facing summary with key limitations and recommended next steps.
Grading rubric highlights: technical correctness (30%), reproducibility (25%), interpretability & clinical framing (25%), ethics & limitations (20%).
- Languages/Environments: Python (pandas, scikit-learn, PyTorch/TensorFlow optional), JupyterLab, R (tidyverse) as alternatives.
- Notebook tooling:
nbformat/Binder/Colab for reproducibility; Docker for deployment exercises.
- Interpretability: SHAP, LIME, Captum (for PyTorch), Grad-CAM (for images).
- Datasets: curated, de-identified public biomedical datasets (MIMIC, PhysioNet, TCIA, public genomics sets) or synthetic datasets when privacy is a concern.
- Documentation templates: model cards, datasheets for datasets, minimal README templates.
Ethics, Privacy & Safety
- Teach differential privacy and de-identification basics when relevant.
- Include an explicit module where students perform a bias/harm audit on their model and dataset.
- Require a short ethics statement in every project describing risks, misuse potential, and mitigation strategies.
Implementation Tips for Instructors
- Start with simple, interpretable models before introducing deep learning to emphasize core ML thinking.
- Use small, well-documented datasets for early labs to reduce setup friction.
- Provide starter notebooks and incremental checkpoints to help students manage projects.
- Encourage reproducibility by making reproducible-run part of the grade.
- Invite clinicians or domain experts for guest critiques of student presentations.
Measuring Success & Iteration
- Student learning metrics: pre/post concept quizzes, rubric scores, self-efficacy surveys.
- Course health: notebook run success rate, frequency of reproducible submissions, student feedback on clinical relevance.
- Continuous improvement: run short post-course retrospectives and update datasets/assignments based on feedback and emerging best practices.
Short Reading & Resource List
- Two-page primer on ML for clinicians (concise, high-level).
- Selected tutorials: scikit-learn classification guide, SHAP explainability tutorial.
- Ethics: recent reviews on fairness in healthcare AI and regulatory guidance (FDA, EU AI Act summaries).
Appendix: example rubric, sample notebook structure, and links to templates can be provided on request.
Data visualization and scavenger hunts: John Snow and the COVID-19 pandemic
This is a compelling narrative for a Senior Fellowship (SFHEA) application. It demonstrates leadership in digital innovation, the design of inclusive learning environments, and a scholarly approach to mapping historical theory onto modern global challenges.
Below is a draft “Short Paper” and a curated reflection designed to align with the Professional Standards Framework (PSF 2023).
🗺️ Spatial Intelligence in the Age of AI: From Broad Street to Big Data
Author: [Your Name]
Subject: Data Visualization & Pedagogical Innovation
The Persistent Power of “Where”
In 1854, Dr. John Snow’s map of the Soho cholera outbreak did more than find a broken pump; it invented a new way of seeing. By translating abstract death tolls into spatial points, Snow moved public health from superstition (miasma) to spatial evidence.
In today’s “Poly-crisis” world—defined by climate change, pandemics, and urban inequality—spatial visualization remains our most potent tool for sense-making. Whether it is tracking the spread of a respiratory virus in Wuhan or mapping “food deserts” in modern London, the ability to overlay disparate datasets onto a physical landscape allows us to identify systemic failures that statistics alone would hide.
The Role of AI in Modern Pedagogy
The “Syntax Wall” is the greatest barrier for undergraduates learning data science. Students often get bogged down in Python errors before they ever reach the “Aha!” moment of discovery. AI tools (LLMs) act as a pedagogical catalyst in three distinct ways:
- Lowering the Barrier to Entry: AI can generate boilerplate code (as seen in our Folium exercise), allowing students to focus on interpretation and ethics rather than debugging indentation.
- Synthetic Scaffolding: AI allows educators to create “Data Sandboxes”—synthetic datasets (like the Wuhan scavenger hunt) that are clean enough for learning but complex enough to remain realistic.
- Active Inquiry: Instead of a static lecture, students use AI as a “Co-Pilot” to ask, “What happens if I change the radius?” or “How does the map change if I weight the deaths by age?” This shifts the student from a passive consumer to an active investigator.
🎓 Text for SFHEA Application (PSF 2023 Alignment)
When writing the Fellowship application, adapt these paragraphs to address specific Dimensions of Practice:
On Design and Planning (K1, K4, V3)
“In designing my data visualization curriculum, I moved beyond traditional ‘click-along’ tutorials. By integrating AI-generated synthetic datasets—such as a simulated COVID-19 outbreak in Wuhan—I created a high-stakes, inquiry-based ‘scavenger hunt.’ This approach bridges historical theory (John Snow) with contemporary relevance, ensuring that students from diverse technical backgrounds can engage with complex spatial analysis without being sidelined by initial coding barriers.”
On Enhancing the Student Experience (V1, K2, K3)
“I leverage generative AI to provide ‘just-in-time’ support for students. By providing AI-scaffolded boilerplate code for tools like Folium and Pandas, I empower students to move rapidly from data ingestion to spatial critique. This fosters a sense of ‘Digital Fluency,’ where the technology becomes a transparent medium for epidemiological storytelling rather than a hurdle. This methodology acknowledges that my students are future leaders who must interpret data rapidly in professional settings.”
On Leadership and Scholarly Practice (D3.3, V4)
“My leadership in the department involves modeling how AI can be ethically integrated into the classroom. Rather than banning AI, I use it to generate ‘noisy’ data that requires students to apply human judgment. For instance, in the ‘Wuhan Scavenger Hunt’ exercise, students must distinguish between the ‘Source’ and ‘Secondary Transmission’—a task that requires critical thinking that AI cannot yet automate. This develops their evaluative judgment, a core requirement for graduates in an AI-driven workforce.”
🧪 Practical Next Step
To further strengthen your Fellowship claim, you might want to collect Small-Scale Evaluation Data. Draft a 3-question “Student Perception Survey” to measure how much this “Scavenger Hunt” approach improved their confidence in spatial analysis.
Mentoring, Assessment and the impact of AI on them
This is an excellent expansion for your Senior Fellowship (SFHEA) application. By integrating Assessment & Feedback and Academic Tutoring, you move from “how I teach” to “how I ensure quality and support the whole student.”
Here is the reflective paper, augmented with these critical pillars of higher education practice.
🏛️ Modern Pedagogical Frameworks: Assessment, Feedback, and Mentoring
1. Assessment: From Description to Criticality
In the context of the John Snow or Wuhan mapping exercises, the assessment must go beyond whether a student can “make a map.” A descriptive approach asks, “Where is the pump?”; a critical approach asks, “How does the choice of spatial parameters influence the public health narrative?”
- Transparency & Rubrics: To ensure parity, students are provided with a clear rubric at the start. This demystifies the grading process, ensuring they understand that marks are awarded for analytical justification rather than just technical execution.
- Quality Assurance: To maintain the highest standards, all marking undergoes internal moderation and incorporates external feedback. This ensures that our assessment of “data fluency” is benchmarked against both institutional and industry standards.
2. The Feedback Loop: The Sandwich and Actionable Intelligence
Feedback should not be a post-mortem; it should be a roadmap. Using the Sandwich Model, we ensure that even the most rigorous critique remains encouraging and personalized.
| Layer |
Component |
Description |
| Top Bun |
Positive Affirmation |
Start with what worked (e.g., “Excellent use of the Folium library to handle the synthetic dataset”). |
| The Filling |
Constructive Critique |
Shift from descriptive to critical (e.g., “While the map is accurate, your analysis of ‘community spread’ versus ‘the source’ lacked depth”). |
| The Sauce |
Actionable Intelligence |
Explicitly tell the student how to improve (e.g., “To reach the next grade tier, try integrating a time-series element to show the evolution of the cluster”). |
| Bottom Bun |
Encouraging Close |
Reiterate potential (e.g., “You have a clear talent for spatial storytelling; keep pushing the boundary of your interpretations”). |
AI and Pedagogy Tip: AI can assist educators in “tone-checking” their feedback to ensure it is forward-looking and justified, helping to turn a one-sentence comment into a personalized growth plan.
3. Academic Tutoring: Mentoring in the Age of AI
As a Wellbeing Champion, the role of the tutor has evolved. In an era where students can get technical answers from AI 24/7, the human mentor must provide something AI cannot: Empathy, Privacy, and Ethical Signposting.
🎓 SFHEA Pointers: Mapping to PSF 2023
If you are using this for your Senior Fellowship, here is how to map these specific sections to the Dimensions of Practice:
A3: Assess and give feedback to learners (Core Area)
“My assessment strategy intentionally shifts students from descriptive to critical engagement. By providing transparent rubrics and using the Sandwich Model of feedback, I ensure that my comments are not just evaluative but provide Actionable Intelligence. This is supported by a robust moderation process that ensures consistency and quality (V4).”
A4: Support and guide learners (Core Area)
“As an academic tutor, I employ the GROW framework to mentor students, particularly in navigating the ethical complexities of AI in data science. By acting as a Wellbeing Champion, I bridge the gap between academic pressure and student support, ensuring a safe, inclusive environment that respects student privacy while signposting them to broader institutional resources (V1, V2).”
K5: Methods for evaluating the effectiveness of teaching (Knowledge Area)
“I integrate External Feedback and moderation cycles into my teaching practice. This not only ensures the reliability of my marking but also allows me to reflect on how my pedagogical tools—like the Python ‘Scavenger Hunt’—align with the evolving needs of the sector.”
🧪 Do next
Create a one-page “Student Success Guide” that explains the GROW framework and Feedback Sandwich to your students so they understand how they are being supported.
AI for staff (medical school)
This expanded curriculum is designed for a 2-part workshop series or a short lecture course. Since your audience is biomedical scientists and clinicians, the focus remains on browser-based tools that require zero installation and zero code.
🏗️ The Curriculum Overview
Goal: Transition staff from “AI-curious” to “AI-competent” by providing a safe, governed toolkit for research, practice, and data.
Module 1: The Augmented Researcher 📚
Focus: Solving “Information Overload.”
Module 2: The Efficiency-First Clinician 🏥
Focus: Reclaiming the “Administrative Burden.”
Module 3: The No-Code Data Scientist 📊
Focus: “Conversation-to-Graph.”
🛡️ The Foundational “Safety & Ethics” Section
Crucial for UK Medical Schools and NHS Staff
Before they touch a tool, you must cover the “Human-in-the-Loop” principle:
- Data Governance: Never upload PII (Personally Identifiable Information) to public AI tools. Only use NHS-approved, enterprise-grade instances for patient data.
- The “Hallucination” Check: AI is a “Reasoning Engine,” not a “Knowledge Database.” Always verify dosages and clinical facts against a primary source (e.g., the BNF).
- UK Regulation: Briefing on the MHRA classification of AI as a medical device and the NHS AI Supplier Registry (established in early 2026).
🗓️ Proposed Workshop Schedule
| Time |
Activity |
Key Takeaway |
| 00:00 |
Intro: The AI Revolution in UK Med |
AI is a co-pilot, not a replacement. |
| 00:30 |
Session 1: Literature & Discovery |
Finding the “Needle in the Haystack.” |
| 01:15 |
Coffee Break |
|
| 01:30 |
Session 2: Workflow & Admin |
Ending “Death by Documentation.” |
| 02:15 |
Session 3: Data & Visualization |
From Spreadsheet to Insight. |
| 03:00 |
Ethics & Compliance Panel |
Staying safe within NHS/Uni guidelines. |
“Data Safety Handout” or a “Prompt Cheat Sheet” specifically tailored for these medical tools.
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Lovable
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Replit
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Cursor
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Google AI studio
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Base44
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NotebookLM
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claude.ai