About

I’m Julia Wojtaszek - a designer focused on creating thoughtful digital experiences and visual identities. I work across UI, branding, and illustration, combining aesthetics with usability and clear communication.

About

I’m Julia Wojtaszek - a designer focused on creating thoughtful digital experiences and visual identities. I work across UI, branding, and illustration, combining aesthetics with usability and clear communication.

About

I’m Julia Wojtaszek - a designer focused on creating thoughtful digital experiences and visual identities. I work across UI, branding, and illustration, combining aesthetics with usability and clear communication.

About

I’m Julia Wojtaszek - a designer focused on creating thoughtful digital experiences and visual identities. I work across UI, branding, and illustration, combining aesthetics with usability and clear communication.

NEREID
SUBSEA INTELLIGENCE
UX / UIEnterpriseROV operations2026
Subsea inspection platform

See deeper.
Decide better.

NEREID connects live ROV operations, inspection evidence and the long-term condition of offshore infrastructure in one continuous workflow.

3
Core user roles
7
End-to-end workflow stages
Live
Context-aware inspection
1
Continuous asset history
01 / Context

Underwater inspections generate a lot of data. The problem is keeping it useful.

ROV operators work with live camera feeds, sonar, telemetry and spatial data while inspection findings must later be reviewed, compared and turned into maintenance decisions.

Fragmented context
Operational data often lives across separate views and tools.
Manual documentation
Important context can be re-entered after a finding is captured.
Weak continuity
Inspection evidence can lose meaning once the mission becomes a report.
02 / User path

One continuous path from mission planning to a resolved asset issue.

The experience follows the real operational handoff: the operator prepares and inspects, the analyst interprets evidence, and the manager turns that evidence into action.

01
Plan
Operator
Define asset, route and scope
02
Prepare
Operator
ROV readiness and pre-dive checks
03
Inspect
Operator
Live camera, sonar and spatial context
04
Capture
Operator
Finding + automatic mission context
05
Analyze
Analyst
Evidence review and historical comparison
06
Decide
Manager
Maintenance, re-inspection or monitor
07
Resolve
System
Verification closes the finding
User journey / workflow map
03 / Key UX decisions

The interface responds to the operator instead of asking the operator to manage the interface.

01
Problem
Live inspection context was fragmented.
UX response
Unified camera, sonar, digital twin and telemetry workspace.
02
Problem
Capturing a finding interrupted the primary task.
UX response
Context-aware capture with automatic asset, time, depth and evidence metadata.
03
Problem
Poor-quality footage could be discovered too late.
UX response
Capture confidence and re-capture guidance while the ROV is still in position.
04
Problem
Unexpected findings changed the mission.
UX response
Add follow-up inspection points without rebuilding the plan from scratch.
04 / Brand & interface system

A visual language built for precision, depth and operational focus.

The brand avoids literal ocean imagery. Instead, NEREID uses a compact architectural mark, restrained typography and a functional color system that scales from identity to dense mission-control interfaces.

NEREID
SUBSEA INTELLIGENCE
Interface language
Operational components derived from the same visual system.
SYSTEM / 01
LIVE OPERATION
LIVE
C-04 · CABLE ENTRY
DEPTH
43.8 m
HEADING
127°
LINK
98%
Glass action
Alert state
LOW VISIBILITY
Capture confidence 82%
Finding state
F-024
Possible corrosion
HIGH SEVERITY
Primary typeface
Geist
Navigation, interface copy, hierarchy and primary interaction labels.
Mission control should feel calm under pressure.
Operational data
43.8 m
ROV-07 · 126° · 14:31:03
Geist Mono separates machine-state information from conversational interface language.
Functional color
BASE
SURFACE
CONTENT
ACTIVE
WARNING
CRITICAL
Color is used to communicate state rather than decorate the interface. Cyan marks active spatial information, amber indicates degraded conditions and red is reserved for critical intervention.
Component language / live system
Instead of a static design-system board, these are coded interface primitives with hover and state behavior. The system can be demonstrated directly inside the case study.
Actions & states
Buttons that make hierarchy visible.
INTERACTION / 01
LIVEREADYREVIEWHIGH
Operational telemetry
DEPTH
43.8 m
HEADING
126°
ROV LINK
98%
COVERAGE
82%
MISSION PROGRESS82%
Finding lifecycle
Detected
Reviewed
Confirmed
Action
Resolved
Finding state
C-04
F-024
Corrosion progression
WT-17 · Cable Entry
HIGH43.8 m
Alerts
!
Low visibility
Capture confidence reduced. Re-capture before leaving C-04.
HUD controls
⌖
◫
◌
◎
TargetWaypointSonarCapture
Surface logic
Matte surfaces
Tables, telemetry, persistent mission panels and dense operational information.
Glass overlays
HUD controls, floating alerts, quick actions and context drawers that sit over live imagery.
Motion language
Sonar sweep / waypoint pulse / target lock
Motion communicates scanning, active targets and changing mission state. Decorative animation is kept secondary to operational feedback.
05 / Adaptive live workspace

A mission control interface that changes priorities with the task.

Navigation emphasizes spatial context and telemetry. Inspection emphasizes camera evidence, sonar and finding capture. The operator can still override the mode manually.

Inspection mode / live operations
Navigation mode
Route, digital twin and vehicle state move forward.
Inspection mode
Camera, sonar and evidence actions become dominant.
System feedback
Live confidence, coverage and mission deviation remain visible.
06 / Interaction & motion

Motion explains what is live, what changed and where attention should go next.

Animation is used as operational feedback rather than decoration. Each movement reinforces system state, scanning, spatial progress or a user action.

Live Operations / target lock + sonar sweep
Target lock
Confirms the active inspection point.
Sonar sweep
Communicates an active sensor scan.
Telemetry
Small value changes keep live state visible.
Overview / route trace
Route trace and live waypoint pulse show mission progress without adding another dashboard element.
Finding / drawer interaction
The finding drawer preserves task context while motion keeps the temporary workflow spatially connected to Live Operations.
Sonar sweepWaypoint pulseRoute traceTarget lockDrawer transitionLive telemetry
07 / Context-aware capture

Mark the problem. Keep the context.

The system already knows which asset is being inspected, where the ROV is, the depth, time and active camera. The operator only adds information the system cannot infer.

Asset auto-filledDepthTimestampCurrent frameROV / Camera
Mark Finding drawer
08 / Data quality

Don’t discover a bad capture after the ROV has already left.

Capture confidence
82%
Low visibilityCamera angle suboptimal
After re-capture
96%
Evidence quality confirmed before leaving C-04.
09 / Historical comparison

Change over time should be visible, not buried in reports.

Analysts review the same inspection location side by side and keep the finding lifecycle, evidence and asset context in the same workspace.

Previous 2025 / Current 2026
10 / Role handoff

Detect → Assess → Decide

One finding moves between roles without losing its evidence or spatial context.

01
ROV Operator
Detects and captures the finding.
02
Inspection Analyst
Reviews evidence, compares history and confirms severity.
03
Operations Manager
Selects maintenance, re-inspection or monitoring.
11 / Living asset history

The inspection ends. The knowledge stays with the asset.

Findings, maintenance decisions and verification inspections build a continuous condition record for WT-17 instead of disappearing into isolated reports.

WT-17 / Asset history
12 / Supporting product views

One system across planning, operation and review.

Operations overview
Mission control
Fleet
Reporting
12 / Visual system

The system stays visually restrained so operational state can stand out.

The final interface applies the brand system consistently across dense desktop workflows, while maintaining clear hierarchy and state visibility at smaller breakpoints.

BG
PANEL
ELEVATED
SIGNAL
TEXT
14 / Outcome

A technical interface can still feel calm, intentional and human-centered.

NEREID explores how a dense enterprise system can reduce manual input, protect evidence quality and preserve context across the entire inspection lifecycle — without simplifying the complexity of the work itself.

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