AstraZenecaPart 3 of 5
Designing the AI Workbench
In May 2026 my focus moved to the shared AI Workbench, which brought several AI-assisted tasks into one workspace. I designed a view for each task, built the content-review flow with AI assistance, and worked with medical specialists on review gates and terminology.
- Contribution
- Product design, business analysis, and prototype implementation
Facts
- Engagement
- August 2025 to August 2026
- Contract title
- Senior UI/UX Business Analyst
- Responsibilities
- Requirements, interaction design, frontend prototypes, and shared design patterns
- Collaboration
- Business owners, medical specialists, product partners, designers, and model and backend engineers
Make the Workbench understandable
A different assignment, the AI Workbench
In May, my focus shifted toward the shared AI Workbench as the risk-register ownership transition began. The Workbench brought several AI-assisted tasks into one workspace, including budgeting, study review, and medical writing. Each needed its own way to inspect and act on the result.
A shared starting point for different tasks
Give each task the view it needs
Leadership wanted people to start work with a chat request. Engineers already had budgeting and study-governance prototypes. I asked to see those flows before building the interfaces. In the design sessions, I pushed to show the decisions people still had to make after the request.
I adapted my colleague's budgeting interaction into the Workbench. A request opened proposed spending by month, where someone could compare values and question a line.
The study-governance team started with a morning queue. Opening a study showed its case file and next action, with routine activity separate from decisions requiring confirmation. I built that view from the engineer's existing scenarios and workflow.
For medical writing, the revised prototype replaced a static reader and separate review panel with an editable document. Citation chips and comments sat beside the relevant sentence. A writer could accept a proposed rewrite there. The team deferred a full rich-text editor; its extra formatting and collaboration features were beyond the demonstration's scope.
Chat could start the work, but the table, queue, or document held what the person needed to inspect. I designed that shared experience with colleagues who supplied domain logic and engineering integration.
A table, a queue, and a document
Cut the steps in evidence planning
The evidence-planning prototype made people score, search, and create in sequence. It felt like a quiz. I asked to cut the steps. The first revision made them available as tabs and checked for duplicates while someone typed.
After the July demo, I revised the flow again using a domain colleague's demonstration to clarify the fields and process. One request produced a draft evidence gap. Before submitting, the person could review it alongside suggested changes and similar records.
The duplicate check moved into that decision. A very close match offered editing the description or using the existing record, with no option to submit the unchanged duplicate.
I built this revision with AI assistance and sample data. It had no live similarity service, and the records contain no measured usability improvement.
A separate field-assistant assignment
The field assistant used the same question-entry controls for reporting and customer-relationship work. I changed the suggested tasks to suit each.
The whole frame at once
Giving an assistant a job, in four steps
Show the plan, then cite the answer
Naming the work, and renaming it
The same rule, spoken instead of typed
Follow a content task through review
Review the sources before drafting slides
An early content flow started making slides before establishing the sources. I moved source input and evidence review ahead of storyline confirmation, so the producer could see missing material before preparing the presentation.
The program lead asked me to coordinate the medical-content use case. I tracked dependencies and timing, helped manage expectations, and worked with colleagues to define the inputs and comparison for the demo. Reviewing the interface alone could not tell us whether the generated content was better.
Keep missing evidence visible after a request
With AI assistance, I built the source-review interface, kept its state shared across steps, and added recovery from a failed request. The local demo deliberately failed the first access request. A retry recorded the request but left the source unavailable.
The gap stayed unresolved in the storyline. Routing it to an expert changed who needed to act, but left it in the unresolved count. Continuing the task did not mark the missing evidence complete.
Requests were simulated and state stayed in memory. Download and release controls displayed alerts.
Scope
This is an earlier local source-review prototype. Its original date and exact project assignment remain unresolved; later capture dates do not establish its place in the engagement timeline.
A request succeeds while the evidence stays missing
Revise the requirements with medical specialists
Medical-training specialists reviewed a later prototype and challenged its assumptions. They needed to distinguish supported content from generated interpretation. A protocol was not always available. Priorities discussed in a kickoff might never appear in the uploaded documents.
They also wanted more ways to lay out a scientific story. Translation required someone to validate scientific language across markets, so the team removed it from the proposed first iteration.
That feedback gave me more specific source, context, layout, and scope requirements to work through. The session was a stakeholder walkthrough, not a usability study or scientific validation.
Preserve a reviewer's request for changes
The code in a later Workbench prototype counted a sent-back claim as reviewed while keeping its section blocked from export. The reviewer had made a decision; the content still needed changes. The export hold named the affected sections and linked to the first one needing attention.
Bulk acceptance filled in undecided claims and preserved earlier requests for changes. It could not erase a reviewer's objection.
This version contained local PowerPoint generation code, sample content, and a simulated reviewer. The archived sign-off wireframes belong to a separate version. Later records describe further review and release logic that was not connected to the interface. None of these establishes a connected scientific approval service.
Separate sign-off wireframes
State the gaps before writing anything
A request is not access
A run that pauses and takes a correction
Say which review gates were real
Three gates, three different jobs
A medical training deck passed through three review gates before anyone could export it. A hygiene check for formatting and instructional design. A scientific check for accuracy and on-label claims. A template conversion that turned the approved draft into branded slides.
I interviewed the three people who staffed those gates. They did not want the same things. The scientific reviewer needed to trust that the gate before hers had already caught the mechanical problems, so she was not re-catching them herself. The content orchestrator needed to see every draft in flight at once, not just the finished ones. The hygiene reviewer needed one thing above all: confidence that pressing Export produced a working file rather than a gamble.
Design for the person whose time is the bottleneck
I made the scientific reviewer the primary user. Her gate carries the highest stakes, and her time was the most concretely costly thing in the process. Chasing subject-matter experts was, in her words, half her life, and a single protocol training could need input from seven of them. Source material arrived unpredictably, sometimes as a deck of three or four hundred slides where most of it did not apply. Designing for her first meant the other two roles got a system shaped around the scarcest expertise rather than the most frequent clicks.
The journey bottoms out exactly where it matters most
I mapped her path from the moment a draft arrives to the moment she sees what her sign-off produced. The lowest point is the review itself. It is the step with the highest stakes, the least verifiable signal, and the most external time pressure, all at once.
That is also where I found the problem. At her gate the system ran an accuracy checklist across four dimensions and reported all four as passing. It reported them as passing every time, for every draft, because there was no accuracy model behind it. The hygiene gate before hers did the same thing. Two of the three gates were reporting a result they had not actually produced.
Label the empty gate rather than let it look full
I argued for marking the checklist as not yet automated, in the interface, before anyone relied on it. The trade-off is real and worth stating plainly: a gate labelled unfinished looks worse in a demo than a clean row of green checkmarks. I took the worse-looking option. A reviewer who trusts a check that never ran will stop trusting the whole system the first time something real slips through, and that costs more than never having claimed the check in the first place.
Scope
This was discovery research, not usability testing. The reviewer had described her manual process but had not yet used the built pipeline, so the trust risk is one I predicted from the design rather than one I observed her hit.
Reuse what exists before building anything new
Two of the three fixes were already sitting in the building. A sibling workstream had a working triage and reminder system that could do the stakeholder chasing the scientific reviewer was doing by hand. The hygiene reviewer had already built a checker his own team used, and offered it. I sequenced both of those ahead of new work, and put the visibility the orchestrator asked for ahead of both, because the data for it already existed and only needed surfacing. I deliberately left two things out: a real accuracy model, which is a different size of problem, and the question of where the pipeline's audit trail should properly live, which deserved its own decision rather than a ride-along slot in this one.
Make specialist information usable
Explain how terms relate
Commercial and medical colleagues needed to look up a term and understand how other teams used it. I built the terminology prototype so they could do that without learning the underlying vocabulary structure.
Search results showed the definition, identifier, source label, and synonyms. The detail view gave each relationship its own place: aliases for the same concept, a hierarchy of broader and narrower concepts, and cross-references to other vocabularies.
The reviewed search-to-detail path used prototype data. Live terminology services and external integrations were outside the original scope.
Scope
The original terminology prototype date remains unresolved. Capture dates do not establish when the work began or ended.
A term and its relationships
The way in, and the structure underneath it
Results
- I designed and revised AI workflow interfaces and implemented key frontend behavior with AI assistance.
- I coordinated the medical-content use case and used prototype reviews to clarify requirements for sources, outputs, review, and scope.
Evidence limit
The AI prototypes do not establish production adoption or measured savings. The earlier source-review prototype simulated access, kept state in memory, and used alert-based download and release actions. The later Workbench had local PowerPoint generation code, with predefined sample content and a simulated reviewer identity.



























