Offshore Jacket Inspection

340 Weld Joints Below Waterline.
3 Anomalies Nobody Can Trace.

Your jacket structure has 340 weld joints below waterline. The last ROV inspection found 3 anomalies. Your inspection log does not match the structural drawings. POD maps every finding to a weld joint ID so nothing gets lost between the dive and the engineering review.

0
Weld Joints Below Waterline
0
Anomalies Untraced
0 min
POD Report Time
$0.0M
Per Lost Dive Campaign

The Cost of Inaction

Every dive window spent re-inspecting joints that should have been documented the first time is money, schedule, and structural confidence lost permanently.

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ROV anomalies cannot be traced to weld joint IDs

The ROV operator calls out a crack at 42 meters depth. The tender writes it on a log with a timestamp. Three weeks later, engineering asks which joint it was. Nobody knows because the log references video time, not drawing coordinates. The anomaly exists in a report. It does not exist on the structural model.

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Lost dive windows cost $85K per missed opportunity

Weather, tides, and vessel positioning align for a 6-hour dive window. The team discovers the last inspection report is incomplete — they need to re-inspect 12 joints instead of advancing to new work. The window closes. The next safe opportunity is 4 days away. That delay cascade hits the critical path.

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Inspection completion vs. structural coverage mismatch

Your report says 78% inspected. But 78% of what? Total joints? Accessible joints? Joints on the critical elevation? Without mapping inspection records to the structural drawing grid, completion percentage is meaningless. You could have 100% completion on non-critical bracing and 0% on the splash zone.

The Return on POD

POD does not just track inspection percentages — it maps every weld joint to its structural location, links every ROV finding to a drawing coordinate, and calculates the cost of every documentation gap.

Weld joint mapping to structural drawings

Every ROV finding is tagged to a specific weld joint ID on the structural model. When engineering asks "where is the anomaly?", the answer is a coordinate, not a video timestamp. The structural drawing becomes a live inspection status map.

Every finding traceable

ROV record integration with dive logs

ROV video timestamps, still captures, and operator notes link automatically to the dive log entry. One record per inspection pass — not three disconnected documents in three different systems. The engineering review starts from a single source of truth.

Single source of truth

Dive window utilization tracking

POD tracks weather windows, vessel positioning windows, and tidal windows against actual dive time and inspection coverage. When a window is spent on re-inspection instead of new work, the cost and schedule impact is calculated automatically.

Zero wasted dive windows

Structural coverage by elevation and criticality

Inspection completion is mapped by elevation zone: mudline, mid-depth, splash zone, and above-water. Coverage percentage reflects structural criticality, not just total joint count. Splash zone joints that need annual inspection are tracked separately from deep-water joints on a 5-year cycle.

Priority-based coverage
Annual Impact With POD
173
KPIs Tracked
89%
Time Saved
5 min
Daily Report

Watch Every Weld Joint Get Inspected in Real Time

The ROV moves along the jacket structure, inspecting each weld joint. Green means pass. Amber means anomaly found. The completion ring fills as coverage advances from splash zone to mudline.

SEA LEVEL0%InspectedABOVE WATERSPLASH ZONEMID-DEPTHMUDLINEInspected — PassAnomaly FoundPendingSEABED
Live KPI Preview

Offshore Inspection Metrics — Subsea-Verified

These are real KPI components from POD. Sparkline tracks inspection progress over time. Weather Recovery Rate shows how quickly your team recovers dive schedule after weather delays.

Weld Joint Inspection Trend

Weekly joints inspected — 8-week rolling

287
joints completed
84%
Coverage
3
Anomalies
53
Remaining

Weather Recovery

POD
0.0avg days to recover
target 1.5 days
Feb 120.0d recovery
0.0d lost
Feb 190.0d recovery
0.0d lost
Feb 280.0d recovery
0.0d lost
Mar 040.0d recovery
0.0d lost

Built for Offshore Jacket Inspection

Multi-Elevation Inspection Grid

Jacket structure divided into elevation zones with independent completion tracking. See which zones are fully inspected, partially inspected, or overdue at a glance.

Anomaly Severity Classification

Each finding is classified by severity — informational, monitor, repair required, urgent. Severity drives the re-inspection schedule and the engineering response timeline.

Cathodic Protection Status Integration

Anode condition and CP readings from ROV surveys link to the structural protection model. CP degradation trends trigger alerts before corrosion advances beyond repair thresholds.

Voice-Logged Dive Reports

Dive supervisors speak findings in real time. POD transcribes, extracts joint IDs, depths, and anomaly descriptions, and maps them to the structural model — no post-dive paperwork.

Cost-Per-Joint Analytics

Track the cost of inspecting each joint — mobilization, vessel time, dive hours, ROV hours — and compare against the value of the structural asset being protected.

Re-Inspection Trigger Alerts

When an anomaly classification requires re-inspection within a defined interval, POD schedules it automatically and alerts the dive coordinator before the window expires.

“The ROV found a crack on a node connection at -38 meters. The dive report said ‘anomaly at timestamp 14:23:07.’ Three weeks later, engineering asked which joint. Nobody knew. We sent another ROV dive to relocate it — $85K and a lost weather window. That does not happen with POD. Every finding is tagged to a joint ID before the ROV surfaces.”

— Subsea Inspection Manager, Offshore Marine Contractor

Frequently Asked Questions

Stop Losing Anomalies Between the Dive and the Engineering Review

See how POD maps every weld joint, tracks every ROV finding, and eliminates the documentation gaps that cost you dive windows and schedule.

Last updated: March 2026