Enterprise AI · UX Strategy

Technical knowledge, made accessible

Technical safety knowledge locked in dense documentation. Designing the GenAI interface that made it accessible to every internal team — without the expertise barrier.

A GenAI system built to give internal teams instant access to dense technical knowledge — in plain English, without the expertise barrier. Engineering had built a full, functional product — the AI capability was real and working. UX came in as a proof of concept: the client wanted to see what a structured, user-centered approach could add. I led that UX direction — and made the case for what good looks like.

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Enterprise AI knowledge system interface
Persistent Systems · Enterprise AI

Technical knowledge, made accessible

Technical safety knowledge locked in dense documentation. Designing the GenAI interface that made it accessible to every internal team — without the expertise barrier.

A GenAI system built to give internal teams instant access to dense technical knowledge — in plain English, without the expertise barrier. Engineering had built a full, functional product — the AI capability was real and working. UX came in as a proof of concept: the client wanted to see what a structured, user-centered approach could add. I led that UX direction — and made the case for what good looks like.

Role
UX Direction Lead
Company
Persistent Systems
Type
Enterprise AI · UX Strategy
Focus
Trust · Usability · Adoption
Enterprise AI knowledge interaction system — structured response interface

Strong engineering capability. Real adoption barriers.

The original implementation demonstrated genuine AI capability — the engineering team had built a full, functional product. But working technology and usable technology are not the same thing. UX was brought in as a proof of concept: the client wanted to see whether a structured, user-centered approach could make the product meaningfully better. The answer was yes — but first, the gaps had to be named.

The gap between technical demonstration and enterprise usability was significant. Leadership and users alike could see the AI doing something interesting — but couldn't visualise how it would fit into real operational workflows, or trust what it was producing.

Adoption barriers identified
  • Chat-only interaction created cognitive overload — users didn't know how to ask, what to ask, or what to expect
  • No confidence in AI-generated responses — no source visibility, no explainability, no way to verify
  • No contextual guidance or interaction structure — the system expected users to already understand AI
  • Responses felt unpredictable and difficult to validate — trust couldn't form
  • Technically impressive, but impossible to operationalise — leadership couldn't articulate the path to scale

As a result, a technically complete product was stalling at the adoption layer. The engineering work was done. What it needed was a user experience that made it feel real — and usable — to the people who would rely on it every day.

UX direction that went beyond interface design.

I led the UX direction for the initiative, working closely with engineering teams and stakeholders to redefine how enterprise users interact with AI-driven knowledge systems. This was not primarily a visual design engagement — it was a strategic and structural one.

Scope of engagement
My focus extended beyond interface design into five dimensions of enterprise usability: interaction clarity — how users navigate AI responses; response trust — how users verify and rely on what AI produces; guided discovery — how users learn what the system can do; enterprise usability — how the experience fits operational realities; and adoption readiness — how leadership can visualise and justify the path to scale.

The engagement required balancing what the AI could technically deliver against what enterprise users would actually need — and finding the design layer that connected both.

The PoC had one answer shape. Users had four different intents.

The engineering PoC already returned plain English — language wasn't the problem. The problem was shape: every query received the same response structure, regardless of what the user was actually trying to do. Diagnosing that gap started with a direct question to stakeholders: what would you actually query this system for?

Sixteen prompts came back. Reading across them, four distinct intent types emerged — each requiring a fundamentally different shape of answer. The second input was GenAI design guidelines: established output patterns for different information types. Mapping the two together produced the design foundation for how the system should respond.

Understand
"Explain the key requirements in UL 508A in simple terms." / "Summarize the scope of UL 62368-1."
Summarised
Plain English — what it is, what it covers, in one reading
Discover
"What standards cover mobile phones?" / "What standards require a rain test?"
Point-by-point
Matching results with enough context to evaluate each one
Compare
"What are the key differences from UL 456 Ed. 6 vs. UL 456 Ed. 7?" / "Give me a table to compare: UL 3115 and UL 4600."
Comparison table
Structured side-by-side — standard vs. standard, edition vs. edition
Complex
"What standard should be used to evaluate circularity potential... for photovoltaic panels or turbines?"
Layered
Crisp answer first — full detail surfaces on interaction
What the prompts revealed

One prompt in the stakeholder list read: "Give me a table to compare: UL 3115 and UL 4600." Users were already signalling the output format they wanted — they just had no system that responded to that signal. Mapping intents to patterns gave the design direction its foundation: the system needed to read intent, not just process text.

From chat interface to structured knowledge interaction.

The core reframe was conceptual before it was visual. The original system treated AI as a generic chat interface — you type something, it responds. That model works for consumer applications where the cost of a wrong answer is low. In enterprise environments, it creates friction, uncertainty, and distrust.

Instead, I introduced more structured interaction patterns designed for enterprise usage: progressive navigation through complex information, guided discovery of what the system knows and how to reach it, and output formats that communicate certainty alongside content.

The reframe

"The goal was not to make AI feel smarter. It was to make AI feel understandable — so enterprise users could form a working mental model of what the system does, trust the outputs it provides, and know when and how to act on them."

Interaction model diagram — flow showing shift from open chat to structured enterprise knowledge retrieval patterns

Six design moves that changed how the system felt.

Each move addressed a specific gap between what the PoC demonstrated and what internal teams would need to actually use it — not just aesthetically, but structurally. The goal was to build the interaction layer that made the AI's technical capability reachable.

01
Prompts Gallery
A blank chat interface puts the burden of formulation on the user. A curated Prompts Gallery replaced that blank state — relevant, contextual starting points that let users begin without needing to know how to ask.
Adoption by design
02
Refinement suggestions
Incomplete queries don't fail silently. When the system detects an incomplete or vague input, it suggests how to refine it — moving the user toward a better-formed question rather than returning a poor answer.
Learning in context
03
Entitlement-aware responses
Not every user can access every piece of content. Entitlement checks built into the flow surface "not available for you" clearly — and offer a workaround suggestion so users aren't left at a dead end.
Guided navigation
04
Summarised output with raw content
Every response delivers a summarised answer for speed, with the underlying raw content expandable beneath it. Users can verify the source material before acting — trust through transparency, not just confidence through design.
Trust through transparency
05
Citation and source attribution
AI-generated answers feel unverifiable without provenance. Explicit citations tied to every response let users see exactly which document or section the answer was drawn from — making verification possible before passing it on to a customer.
Source honesty
06
Structured feedback and output management
Share Feedback with specific categories — Missing context, Wrong citation, Not accurate, Not clear — creates a structured quality loop rather than a generic thumbs up/down. Manage Output (Copy / Share) makes the knowledge portable: usable in customer conversations, not just visible in the interface.
Knowledge made actionable
Task flow — Conversational UI through Prompts Gallery, query refinement, entitlement checks, summarised output, citation, feedback and output management

The same AI capability — a completely different experience.

The before/after is not about visual redesign. It's about the interaction contract between the system and its users — what the system communicates, how it communicates it, and what users are expected to do with it.

User flow — redesigned interaction model showing how users navigate from query through structured retrieval to verified, portable output
Before — Engineering PoC
Chat-only AI demonstration
  • Open chat input — no guidance on what to ask or how to ask it
  • No source references — users had no way to verify what the AI returned
  • No interaction structure — navigation was entirely instinct-driven
  • Unpredictable output format — hard to validate, act on, or share
  • Access gaps were invisible — entitlement boundaries created silent dead ends
  • No mechanism to act on or circulate what the system produced
Engineering PoC — raw chat interface before UX design
After — Enterprise Knowledge System
Structured interaction model
  • Prompts Gallery — contextual examples reduce the effort of formulation
  • Incomplete queries surface refinement suggestions rather than failing silently
  • Entitlement boundaries communicated, not hidden — users know what they can access
  • Plain-English summary with expandable raw content — speed and depth in one response
  • Every answer attributed — users can verify and build on what the system returns
  • Structured feedback + Copy/Share makes the system part of the workflow
Redesigned enterprise knowledge system — structured interaction model

A PoC that earned stakeholder sign-off and a roadmap slot.

The engagement moved the initiative from a technically-led demonstration to a product direction leadership could evaluate and act on. The design was presented to stakeholders — the interaction layer made the AI's capability concrete enough to discuss, validate, and plan around. It moved to the product roadmap. The outcome wasn't a shipped product; it was a credible product direction where none had existed before.

The shift that mattered most wasn't in the interface — it was in how leadership understood the system's potential. When users could navigate it, trust what it returned, and act on what it produced, the conversation changed from "interesting technology" to "this is something we can build on." That's what structured UX direction delivered.

The final product
Persistent Systems — final enterprise AI knowledge system interface

UX as the layer that makes AI enterprise-ready.

"Successful enterprise AI products need more than technical capability. They need interaction clarity, trust, guidance, and alignment with real operational behaviour. The goal wasn't to design another AI chat experience — it was to make AI feel understandable, usable, and trustworthy within enterprise environments."

One of the most rewarding aspects of this initiative was demonstrating how UX can shape enterprise AI beyond interface design. The biggest shifts happened not in how the system looked, but in how it communicated — what it surfaced, when, and in what form.

In enterprise AI, the interaction layer is not decorative — it is the product. An AI system that users cannot navigate, trust, or integrate into real workflows will not be adopted, regardless of how capable the underlying model is. That belief shaped every decision in this engagement.

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