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PSQR, traceability platform

Regulated B2B workflow UX

Reducing operational friction in a highly regulated workflow

Research-driven UX improvements for complex traceability workflows where precision and usability had to coexist.


Two product team members reviewing a node-based traceability workflow on a desktop monitor in an open office
Collaborative review of a complex traceability workflow.

Traceability teams worked through dense, procedural workflows where errors carried real operational cost. The platform supported the required capability, while overloaded screens, deep navigation, and fragmented task flows placed too much cognitive demand on users.

Research followed complete tasks, including context switching, comprehension, and recovery from errors. The resulting recommendations clarified recurring workflows while preserving the precision and reliability expected in a regulated environment.

01 Industry Traceability software Complex regulated environments where workflow clarity and operational precision are both critical.
02 Project type B2B research and product UX Research translated procedural complexity into product improvements users could trust.
03 Role Product designer, UX researcher Planned tests, facilitated sessions, synthesized findings, and shaped actionable UX recommendations.
04 Focus Workflow optimization and usability testing Reduced cognitive load while preserving the system capability required by regulated work.

"The challenge was not simply making the interface easier to use. The challenge was helping users navigate operational complexity without compromising regulatory precision."

The environment

Powerful functionality was hidden behind operational complexity

Traceability platforms operate in environments where workflows are procedural, mistakes are costly, and users need to maintain compliance while completing complex tasks. The PSQR platform already supported important capabilities, but users encountered overloaded screens, deep navigation, fragmented flows, and high cognitive load.

The goal became clear: reduce operational friction without reducing system capability.

What we needed to understand

The research had to follow the work, not isolated screens

The first phase focused on where users struggled, why friction occurred, and how real workflows behaved under pressure. Instead of treating each screen as a separate artifact, the research followed task continuity, context switching, error recovery, and the moments where users lost confidence.

Small interface problems could create delays, training dependency, or operational interruptions. That made behavioral observation more valuable than surface-level preference feedback.

Constraints

Regulated systems cannot be simplified casually

Compliance

Every improvement needed to preserve regulatory reliability and auditability.

Research limits

Budget and tooling constrained the scale of testing and synthesis.

Complex personas

Users varied in technical confidence, responsibility, and workflow frequency.

Alignment

Stakeholders needed shared understanding of priorities and testing goals.

Four illustrated constraints on regulated product design: compliance, research limits, complex personas, and stakeholder alignment
Four constraints shaped what could change in a regulated environment.

Testing strategy

Scenario-based testing revealed friction under real task conditions

The sessions were built around realistic operational scenarios rather than generic usability exercises. We developed workflow-based tasks, moderated one-on-one sessions, and observation frameworks that captured friction, hesitation, confusion, and recovery behavior.

The question was not only whether users could finish a task. It was how much effort the system demanded when complexity increased.

Illustration of a scenario-based usability testing approach built on workflow tasks, moderated sessions, and structured observation
Testing was built on realistic operational scenarios rather than generic usability exercises.

What we discovered

The usability issues were operational efficiency problems

Five illustrated operational usability problems: navigation overload, workflow fragmentation, cognitive overload, error recovery, and learning curve
Five research findings connected interface friction to operational efficiency.

Designing for operational clarity

Structure complexity instead of pretending it can disappear

Contribution

Research, synthesis, and product recommendations

My role

I worked as the product designer responsible for UX research, moderated usability testing, workflow analysis, task flow optimization, interface restructuring, and stakeholder alignment. I translated research findings into prioritized product improvements and helped teams understand which issues carried the strongest operational impact.

Tools and methods

Figma Scenario design Moderated testing Workflow mapping Task-flow analysis Research synthesis Stakeholder alignment Prioritization
Research Synthesis & Decision Mapping
  1. 01Observe evidenceTask paths, hesitation, errors, and recovery behavior
  2. 02Cluster frictionNavigation, context loss, cognitive load, and confidence
  3. 03Map operational impactFrequency, severity, compliance risk, and training cost
  4. 04Prioritize directionWorkflow, structure, guidance, and recovery improvements

Stakeholder sense-making connected research evidence to decisions the product team could act on.

Observed behavior was clustered into friction themes, mapped against operational impact, and converted into prioritized product recommendations.
Closing notes

Outcome and reflection

Outcome

The project resulted in clearer workflows, reduced operational friction, faster task completion, and stronger user confidence. Users reported lower cognitive effort, easier navigation, fewer interruptions, and better understanding of system behavior.

Most importantly, the improvements preserved the platform's regulatory and operational capabilities while making the experience more approachable.

Reflection

This project reinforced that enterprise UX is rarely about simplification alone. In regulated environments, complexity cannot always be removed, but it can be structured, guided, and clarified.

This project was completed for a traceability software company operating in a regulated environment. Specific workflows, metrics, visuals, and operational details have been generalized or anonymized due to confidentiality agreements.