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Case Study:

De-Risking Project Delivery Through Team Capability

How I turned years of manual team-staffing work into a research-backed 0→1 product that helps leaders expose capability gaps, build stronger project teams with AI decision support, and address execution risk before delivery begins.

100+ Research + Validation Touchpoints Aggregate activities across interviews, assessments, pilots, and validation — not unique participants.
<90 Days Concept to Working MVP After the operating model had already been tested manually.
3 Organizations Committed Three organizations committed to beta pilots — not completed outcome studies.
AI-assisted project team builder showing required capabilities, coverage, critical gaps, staffing, and mentorship state.
Team capability radar showing coverage, target gaps, severity, and movement over time.
Individual member view showing capability, strengths, gaps, project load, and level alignment.

Atlas demo data. From capability evidence to project staffing and intervention. Member 360 is the member’s self-view.

Overview

Problem

Leaders commit to projects without knowing whether the team can deliver. Capability stays fragmented until gaps appear mid-execution.

My Role

Principal Product Designer and Product Strategist — from operational problem through research, architecture, validation, and working product.

Outcome

Recorded 100+ research and validation touchpoints, tested with a real team, shipped an MVP in under 90 days, and gained beta-pilot commitments from three organizations.

Constraints: Early-stage product · no dedicated engineering team · limited build budget · sensitive people data

Collaborated with: Pilot managers · participating practitioners · design/product leaders · prospective pilot organizations · development partners

Primary decisions: Delivery managers form project teams; people managers support career development; organization administrators govern access and frameworks.

Skills demonstrated

Discovery
Research StrategySynthesisJTBD
Strategy
Problem FramingIdeationProduct Strategy
Systems
IAData ModelingWorkflow Design
Craft
Interaction DesignPrototypingDesign System
Delivery
ValidationHuman-Centered AIAI-Assisted Delivery

My design process

Design process diagram showing Assess, Align, Implement, and Iterate with methods under each stage.
ASSESS → ALIGN → IMPLEMENT → ITERATE — the map for the rest of this case study.

Problem

I couldn't answer a basic staffing question

The idea did not begin with software. Leading distributed teams, I repeatedly faced a project that needed a specific capability — and could not answer:

Who in this organization actually knows how to do this?

Knowing another department had seven designers did not tell me which one had the expertise. The workaround was manual: forms, manager outreach, spreadsheet analysis. It worked. It did not scale.

The current-state workflow

The problem wasn't measuring skills. It was reducing execution risk.

Existing operating pattern from roadmap commitment through staffing and execution to gap discovery and recovery, with risk rising under the final three stages.
Capability was invisible when the project decision was made.

The design challenge

Could team capability become an early signal for project risk — before the organization commits to the work?

That shifted the north star from a better skills assessment to helping managers assemble capable teams — and act when capability is missing.

Research — Assess

Research

I tested the operating model before designing the product

Experience generates a hypothesis. It is not evidence. Before software, I needed to know whether capability information actually improved decisions.

Research questions

  1. How do leaders currently understand what their teams can actually do?

  2. How do they decide who belongs on a project?

  3. When do capability gaps become visible?

  4. What do managers do once a gap is identified?

  5. How do development, mentoring, staffing, and planning connect — or fail to?

Methods

Interviews

Capability, levels, growth, staffing, and development.

Capability surveys

Structured data comparable across people and teams.

Manual prototype

Forms and spreadsheets tested decision value.

Alpha pilot

Early versions used on real project work.

Diary study

What worked / what didn't after real use.

Competitive scan

Skills, L&D, mentoring, talent marketplaces, team health.

100+ aggregate research and validation touchpoints across interviews, assessments, pilots, and validation activities — not 100+ unique professionals or formal qualitative interviews. The landscape had many point solutions; the missing connection was between capability, work, intervention, and delivery risk.

The manual prototype

Software was not the innovation. The operating model was.

Reconstructed evolution from Google Form to Excel capability matrix to Power BI report to TCE product.
Reconstructed from research notes. The first useful version of TCE was a workflow, not an interface.

One alpha pilot

10 Participants UX designers in one team pilot.
8 Business Days Duration of the early alpha pilot.
~7 min Assessment Average time per designer.
≤9 min Report Review Upper bound for an individual report.

Directional evidence from one early alpha pilot — not universal performance data. Team-level signals exposed patterns individual conversations missed.

Synthesized needs

I need to understand how this compares with expectations at their actual level.

Knowing the gap is useful, but I need to know who can help.

The team view is more useful to me than another individual score.

Synthesis of manager and participant feedback across the alpha pilot and diary responses — not verbatim quotations.

Define — Align

Define

Research changed the product

The original concept — make team skills visible — did not survive research. Good.

Assumption

Skills visibility was the primary problem.

Evidence

Managers could see a gap and still have no way to close it.

Design change

Every meaningful gap connects to an intervention.

Assumption

Individual scores would center the experience.

Evidence

Managers needed coverage, concentration, and readiness — not rankings.

Design change

Team patterns and project readiness became the management view.

Assumption

Capability could be evaluated independently.

Evidence

A score is meaningless without work context.

Design change

Project requirements became part of the capability model.

Jobs to be done

Role Situation Job Decision enabled
Manager (primary) Committing to a project Understand whether the team can deliver it Close gaps before execution risk
Team member Expectations change See strengths and what to develop next Growth tied to real work
Company / People admin Data spans multiple teams Keep a consistent, adaptable framework Org-wide use without flattening context
Org leadership Planning future work See systemic capability and concentration risk Invest where delivery is threatened
Core job

Do we have the team capability required to deliver what we are about to promise?

Key research insights

01 — Context or weak data

A self-rating of “4” does not say whether capability is enough for the project ahead.

02 — Visibility needs action

A heatmap is interesting for five minutes. Then someone asks: what do we do now?

03 — Patterns over rankings

Where are we exposed? Which skills have one expert? Not: who is number one?

04 — Development tied to work

Growth becomes meaningful when mentoring attaches to the work that needs the skill.

How might we…

Opportunity map centered on reducing execution risk, with six How Might We branches.
The bridge from convergent research to divergent design.

Ideation

Four rough concept directions A through D, combining into a closed-loop capability engine.
A + B + C → D. Visibility, development, and project readiness became one closed loop. These early stage labels evolved through validation into Measure → Compare → Prioritize → Act → Reassess.

Design — Implement

Design

Design principles

01 — Don't rank people

Build stronger teams — not leaderboards.

02 — Capability is contextual

Meaningful only relative to level, role, team, or work.

03 — Signal → action path

If the system flags a risk, make the next action clear.

04 — AI recommends

Managers review and approve consequential staffing decisions.

05 — Design the system

Assessments, levels, projects, mentoring share one model.

06 — Protect trust

Behavioral data must never become covert surveillance.

Operating model

Capability operating loop of Measure, Compare, Prioritize, Act, and Reassess with supporting product modules.
One continuous loop instead of disconnected features.

Shared capability architecture

I designed one shared capability model rather than separate systems for assessment, staffing, mentoring, and development. A shared skill taxonomy and proficiency scale connect evidenced capability with project requirements. Career-level expectations remain a separate development context; they do not define project demand.

Shared capability architecture showing evidence, availability, and project demand converging into capability gap, capacity gap, concentration risk, and readiness; a manager reviews intervention options before action.
One capability model connects assessment, project demand, staffing, mentoring, and development.

Assessments create evidence; projects create demand; availability determines capacity. TCE compares all three to distinguish capability gaps, capacity gaps, concentration risk, and evidence confidence.

How capability gets meaning

A capability score has little meaning in isolation. TCE interprets development evidence in context: the discipline, career-level expectation, skill, and common proficiency scale. Comparing an evidenced proficiency with a career expectation identifies a strength or growth area; project readiness is a separate comparison against project requirements and availability.

Discipline, career level, and skill define an expected proficiency for development. Assessment evidence produces evidenced proficiency; the comparison identifies strengths or growth areas. Product access roles are separate.
Capability is contextual—not an isolated number.

Product roles such as Team Member, Manager, Organization Admin, and Platform Admin control access to information and actions. They are intentionally separate from professional capability and career level.

Key user flows

Flow 01 — Understand team capability

  • Configure framework
  • Complete assessment
  • Map evidence to skill + proficiency
  • See patterns → decide

Aggregate patterns before raw scores.

Flow 02 — Build a project team with AI

Three-zone flow from project requirements through AI-generated team configurations with evidence and trade-offs to human review, adjustment, and approval.
The most differentiated workflow: start with the work, not a list of available people.

Recommendation contract

  • Show evidence recency, coverage, and missing data.
  • Offer multiple configurations with explicit trade-offs.
  • Rank configurations—never people; exclude protected attributes.
  • Let the manager adjust, reject, or request another option.
  • Require approval before any staffing action.
  • Log the recommendation, evidence snapshot, approval, and override.

Flow 03 — Close a critical gap

Cross-team flow from a critical gap on Team A through organization search, an eligible mentor on Team B, manager approval, live project work, and reassessment.
Closes the original question: who elsewhere in this organization knows how to do this?

Product evidence

Problem

Managers staffed projects from familiarity and titles, discovering capability gaps after work began.

Design response

Move capability assessment upstream into project formation.

Project detail showing skill gaps, coverage, mentoring progress, and risk indicators.
Atlas demo data.
  1. 1. Critical gaps Missing capability surfaces before delivery is underway.
  2. 2. Coverage Required skills compared with available capability.
  3. 3. Remaining risk Exposure stays visible, not buried in detail.
  4. 4. Intervention path Mentoring and support sit next to the signal.
Problem

Raw assessment data is useless as a management interface.

Design response

Translate individual data into team-level decision signals.

Team Radar showing capability coverage, target gaps, severity, and movement over time.
Atlas demo data. First question answered: where should I pay attention?
  1. 1. Team readiness Coverage against targets, not employee ranks.
  2. 2. Gap concentration Highest-severity exposures rise first.
  3. 3. Shape & movement Patterns over time, not a static heatmap.
  4. 4. Priority list Drill-down when needed — not by default.
Problem

“You need professional development” is too vague to act on.

Design response

Compare capability to level expectations and upcoming work.

Member 360 self-view showing career level, capability evidence, project load, development context, and the member's own Trust Signal.
Atlas demo data · member self-view. Specific capabilities relative to career expectations — not a generic score.

Privacy boundary: the Trust Signal shown in Member 360 belongs to the member’s self-view. Manager views receive only privacy-eligible team or cohort aggregates; they do not expose attributable responses or an individual Trust Signal.

Problem

A capability gap often dead-ends in a dashboard.

Design response

Make intervention part of the workflow.

Mentorship matching with suggested matches, relevant capabilities, and confirmation controls.
Atlas demo data.

Human-centered AI

AI and manager responsibilities with decision quality as the shared center: AI compares, flags, generates, and explains; the manager interprets, adds context, challenges, decides, and owns the trade-offs.
The machine handles combinatorial complexity. The manager owns the consequential judgment.

Trust Signal: a non-negotiable design constraint

I designed the Trust Signal around a non-negotiable constraint: sensitive behavioral data could not become manager surveillance. Aggregation, participation thresholds, and systemic rather than individual response are design requirements for that boundary.

Trust Signal privacy flow from employee input through aggregation and cohort thresholds to a team signal and systemic intervention. Below-threshold cohorts show no signal.
Design requirement. Team and system improvement — not identifiable feedback for individual performance workflows.

From prototype to working product

Build evolution from manual model through prototype and discarded first AI build to governed rebuild and MVP in under 90 days.
Discarding the brittle first build was the right design decision. AI accelerated implementation; it did not eliminate governance.

Design system as execution guardrail

Design system specimen strip with buttons, inputs, chips, cards, charts, tables, and states.
Reuse an existing system component before creating a new pattern — for both human and AI-generated implementation.

Validate — Iterate

Validate

Validation loop: Use, Feedback, Synthesize, Prioritize, Change, Use again, with diary study and backlog feeding prioritization.
Diary study and backlog feed prioritization. The table below shows what changed.

What evidence changed

The observations below combine interview synthesis, alpha-pilot use, diary feedback, and manual workflow evidence. Sources overlap, so they are presented as cumulative product evidence rather than isolated experiment results.

Observation Design change
Capability needed organizational level context. Configurable levels and expectations by role maturity.
Managers decided from team patterns, not individual ratings. Emphasized coverage, gaps, and concentration.
Capability mattered most when staffing upcoming work. Required capabilities and staffing entered the core model.
Expertise existed but stayed invisible across teams. Organizational search for support and mentoring.
Manual combination-matching became the bottleneck. AI recommends configurations; managers keep control.

Before / after — operating models

Side-by-side operating model comparison before and after TCE.
Compares operating models — not measured performance outcomes.

Outcome

From personal workaround to a validated problem and testable beta product

100+ Research + Validation Touchpoints Aggregate activities; not a claim of 100+ unique participants.
3 Organizations committed Beta-pilot commitments for next-stage validation.
<90 Days to MVP After the model was already tested manually.
10 Designers in early alpha One pilot; managers, diary feedback, and iteration followed.

Real alpha usage included managers, participants, diary feedback, and iteration.

What I will not claim yet

TCE is still in beta. I do not claim reduced project failure, retention lift, or ROI that has not been measured. Evidence today: the problem exists, managers recognize it, capability can expose actionable patterns, gaps can connect to support, requirements can be compared with capability, AI can reduce combinatorial staffing work, and organizations agreed to keep testing.

What I learned

Never just a dashboard

Useful when people → work → risk → action → development → future capability.

Manual work as prototype

Forms answered first: is this information actually useful?

AI for combinatorial search

Machines can search configurations. Humans own judgment, context, and accountability.

Failure improved the product

The discarded build forced architecture, design-system governance, and AI constraints.

Next validation questions

# Question
01 Do capability-informed staffing decisions reduce late discovery of project risk?
02 Do AI-assisted recommendations improve capability coverage vs. manager-only staffing?
03 Does targeted mentoring measurably close identified capability gaps?
04 Can the system improve decisions without creating surveillance, bias, or false precision?
Final takeaway

I started with a recurring leadership problem, validated it manually, turned evidence into a product model, designed and built the system, put it into real teams, and let the results change the product.

The question TCE is designed to answer remains simple: Do we have the team capability required to deliver what we are about to promise?