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Orbitify
Quays, cranes and terminal yards

Ports and terminals

Quay walls, cranes and yard structures inspected without closing a berth, with findings routed straight into the maintenance backlog.

Terminals, rail and transport

You cannot close the asset to inspect it

A quay, a crane rail and a running line share one problem: the inspection window is whatever gap the operation leaves, and the operation does not want to leave one. So structural inspection happens on a long cycle, condition gets judged from what can be seen from a walkway, and the parts that matter most are the parts hardest to reach.

What breaks here

Four failure modes, and what each one costs you late

Every one of these is a structure that fails slowly and then all at once, on an asset that cannot be taken out of service to look at it.

Quay wall and berth structure

How it shows
Spalling, reinforcement corrosion, scour at the toe, tie-rod condition
What it costs late
Structural, expensive, and found late because divers and closures are expensive
What catches it
Capture above the waterline at structure resolution, versioned so deterioration becomes a trend

Crane structure and rails

How it shows
Fatigue cracking at connections, rail wear and alignment, coating failure
What it costs late
A crane out of service takes the berth with it
What catches it
Capture from above and alongside without stopping the operation for a survey

Fender and mooring failure

How it shows
Fender panel and chain damage, bollard and quick-release hook corrosion, missing fixings
What it costs late
A berth taken out of service, and in the worst case a vessel that cannot be held
What catches it
Every fender and bollard captured on the same pass as the quay wall behind it

Coating and corrosion

How it shows
Breakdown on exposed steel across the terminal
What it costs late
Manageable while it is still coating and not yet section
What catches it
Whole-asset capture ranks what to paint by condition rather than by rotation

Severity here is how we rank the class by default, not a judgement about your site. Every threshold is set per deployment, and a mode you consider routine can be dropped down the ranking on day one.

What we do here

Six things the layer runs on a terminal

All six exist to answer one question without a closure: what is deteriorating, and how fast.

Capture without stopping the operation

Quay faces, crane structures and corridors captured around the working day rather than inside a closure booked six months out.

Measure the rate, not the reading

Each defect compared against earlier passes of the same panel or member. A rate of change is what an engineer can act on; one photograph is not.

Hold condition per structure

Panels, members and rails carry their own history, so an assessment starts from a record instead of from a site visit.

Cover the yard and the apron

Pavement, drainage, rail-mounted crane runways and lighting across the terminal, measured at cadence rather than walked when somebody has time.

Plan around the operation

Capture scheduled into the gaps the terminal leaves, and ranked by consequence to the berth rather than by the size of the defect.

Feed the formal assessment

The structural engineer gets prior passes, extents and rates rather than a folder of photographs, which shortens the assessment rather than replacing it.

One finding

Spalling assessed from a rate of change, not a photograph

The useful number on a structure is never the single reading. It is how fast it moved since the last one, which only exists if the earlier passes were kept.

A working quay with a gantry crane and a general cargo ship at berth
O-EYEhigh

Spalling with exposed reinforcement

Berth 3 · panel 22

extent
1.8 m²
exposure
reinforcement visible
change since
2025-09
reference
PIANC
O-OPSWO-7702Open

Structural assessment raised with prior passes attached

Two earlier captures of the same panel are attached, so the assessment starts from a rate of change rather than from one photograph.

Identifiers and values are illustrative.

How we work

How a terminal deployment starts, and then repeats

The constraint is the operation, so the sequence is designed to need as little of it as possible.

01

Agree access and the operating window

Which berths, which hours, and the safety case for capture around live equipment. Read-only into crane and terminal systems where duty cycles matter.

02

Baseline the structures

Quay panels, crane members and the corridor, captured and identified. Without this first pass there is no rate, and the rate is the point.

03

Run the cycle

Quay annually above water, cranes annually and after impact, corridor twice a year. Every pass is comparable with the last because the identifiers do not move.

04

Widen into planning

Scheduling and ranking are where limits usually open. Structural assessment stays with your engineer, and we are not trying to change that.

What you get

What lands on your side after a cycle

Built for the structural assessment and the capital plan, which are the two decisions this data actually feeds.

Structure condition record

Quay panels, crane members and rails captured, identified and dated, comparable pass to pass.

Web viewer · CSV

Rate of change per defect

Extent and exposure against earlier passes, which is what an assessment starts from.

CSV · API

Corridor condition

Track, drainage, embankment and vegetation measured along the linear asset.

GeoJSON · CSV

Prioritised work plan

Ranked by consequence to the berth and the crane rather than by defect size.

CSV · O-OPS

Assessment pack

Prior passes, extents and rates assembled for your structural engineer.

PDF · bundle

Capital planning input

Deterioration trends per structure, which is the form a capital case is actually argued in.

CSV · report

Below the waterline is not ours. Dive and ROV findings belong in the same record so the structure has one history rather than two, and we will hold them for you without pretending we captured them.

Cadence

How often, and what for

Set by what the operation will allow rather than by what the engineer would prefer, which is precisely why capture that does not need a closure changes the arithmetic.

  • Quay and berthsTypical cadenceAnnually above water, on condition belowWhat the pass looks forSpalling, corrosion, scour, fender and bollard conditionReferencePIANC
  • Cranes and railsTypical cadenceAnnually, plus after impactWhat the pass looks forStructural cracking, rail alignment and wear, coatingReferenceISO 55001
  • Fenders and mooringTypical cadenceAnnually, plus after impactWhat the pass looks forFender panel, chain and rubber condition, bollard and hook corrosion, fixingsReferencePIANC · manufacturer
  • Yard and pavementTypical cadenceAnnuallyWhat the pass looks forSurface condition, markings, drainage, lightingReferenceISO 55001

These intervals are the starting points the standards describe, not a measured result of ours. Insurers, warranty terms and your own history will move them, and the point of planning from condition is that the interval stops being the thing that decides.

How the layer maps here

All four modules, on a terminal

The value here is almost entirely in versioning. A structural finding without a previous pass to compare against is an opinion.

O-EYE

Detect

Captures quay faces, crane structures and corridors without taking the asset out of service.

Leaves behind

Quay, crane and corridor captures, identified per structure and comparable pass to pass.

Read more
O-ARC

Analyse

Reads crane and terminal system telemetry, so structural findings sit beside actual duty cycles.

Leaves behind

Crane and terminal telemetry, so structural findings sit beside actual duty cycles.

Read more
O-OPS

Operations

Holds structure records, previous assessments and the maintenance history per berth and per crane.

Leaves behind

Structure records, previous assessments and maintenance history per berth and crane.

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O-AGENTacts

Decide & act

Plans capture around the operation rather than around a calendar, and ranks by consequence.

Leaves behind

Capture planning around the operation, and ranking by consequence rather than size.

Read more
See, sense, know, then act
  1. 01O-EYEDetectInspection & digital twin
  2. 02O-ARCAnalyseSensors, IoT & telemetry
  3. 03O-OPSOperationsThe system of record
  4. 04actsO-AGENTDecide & actThe agentic layer

Every action writes back to the record, so the model sharpens with every job.

Questions from this sector

Can you inspect below the waterline?

No. Aerial capture stops at the waterline and we are not going to imply otherwise. Underwater inspection stays a dive or ROV job, and its findings belong in the same record so the structure has one history rather than two.

Can this be done without stopping the terminal?

That is most of the reason to do it this way. Capture is planned around the operation, and the parts that genuinely need a closure are far fewer once a routine condition record exists.

Does it work on rail as well as port?

The corridor capture is the same operation: geometry, drainage, embankment and vegetation along a linear asset. Track geometry to measurement standards remains a track-recording job, and the platform holds those results rather than replacing them.

What standards do you report against?

Whatever your regime uses. We hold the finding, the evidence and the assessment; the classification follows PIANC, EN or your own asset standard depending on what you are audited against.

Bring the whole portfolio under one layer. Start with one site.