Screenshot of a computer screen displaying a streaming software interface with multiple video channels, status indicators, and system information.
Four gaming dashboards displaying character stats and progress bars.
Close-up of a digital dashboard with gauges, graphs, and data metrics related to a technical or control system.

Satellite Communications Interface β€” Reducing Complexity in a High-Density Technical System

πŸŸ₯ Problem

A satellite communications interface used by engineering teams presented highly technical, physics-driven data outputs in an unstructured and visually dense format.

While the system met engineering requirements, it created significant usability challenges:

  • Excessive data visibility with no hierarchy

  • High cognitive load for users interpreting system state

  • Slower decision-making due to visual clutter

  • Growing dissatisfaction compared to modernized competitor tools

The interface prioritized data completeness over usability, making it difficult for users to extract actionable insight quickly.

🟨 Objective

Redesign the interface to improve clarity, usability, and decision speed while preserving the underlying technical depth required by engineering users.

A key constraint:
Any redesign had to maintain engineering trust in system fidelity and avoid removing perceived β€œcritical data.”

🟩 Approach

I focused on simplifying information presentation without reducing system transparency or technical integrity.

1. Information Architecture Redesign

I reorganized the interface to prioritize signal over raw data, introducing structured hierarchy to surface actionable information first.

2. Visual Encoding System

I replaced redundant text-heavy status outputs with a visual iconography-based status system, enabling:

  • Faster recognition of system states

  • Reduced cognitive load

  • Cleaner visual hierarchy

3. Stakeholder Alignment Strategy

Given strong resistance from engineering teams, I engaged stakeholders early to:

  • Reframe the redesign around user efficiency and operational competitiveness

  • Demonstrate that usability improvements reduce interpretation errors

  • Align technical teams with end-user workflow needs

4. Iterative Prototyping & Validation

  • Developed wireframes and interactive prototypes

  • Conducted iterative feedback sessions with users and stakeholders

  • Refined visual hierarchy based on usability feedback

  • Validated interaction patterns through clickable prototypes

🟦 Solution

The final design introduced a streamlined, hierarchy-driven interface that balanced technical depth with usability.

Key improvements included:

  • Reduced visual clutter through structured data grouping

  • Icon-based system status indicators for faster comprehension

  • Clear separation between critical vs. secondary data

  • Improved visual hierarchy for faster scanning and interpretation

πŸŸͺ Outcome

The redesigned interface was well received by both users and internal stakeholders, achieving alignment between engineering fidelity and user experience clarity.

Key outcomes:

  • Improved perceived usability and interface clarity

  • Increased internal stakeholder alignment on UX direction

  • Delivered a scalable visual system for future product iterations

  • Reduced cognitive load in interpreting complex system states

🟧 User Feedback

  • β€œThis design is so much more elegant than the old interface.”

  • β€œIt looks more modern and is much easier to navigate.”

🟫 Strategic Impact

This project demonstrated that even highly technical, engineering-driven systems can be significantly improved through UX-led information hierarchy and visual simplification, without compromising system integrity.

It reinforced the value of UX as a critical layer in complex, data-dense environments, not just a visual enhancement.