Scan to CAD Port of Brisbane | 3D LiDAR Scanning

Scan to CAD at the Port of Brisbane showing a 3D LiDAR scanner, container ship, port cranes and point-cloud CAD model of industrial infrastructure.

Scan to CAD Port of Brisbane

Engineering-Grade 3D LiDAR Scanning and CAD Modelling for Port Facilities

Blue 3D LiDAR scanner icon on a tripod with scanning waves

Port facilities are complex industrial environments containing wharves, container terminals, conveyors, ship-loading equipment, cranes, structural steel, pipework, access systems and marine infrastructure.

Over time, port equipment may be repaired, reinforced, relocated, replaced or modified without every change being accurately reflected in the original drawings.

Hamilton By Design provides Scan to CAD services for the Port of Brisbane, converting engineering-grade LiDAR point-cloud data into practical CAD models, drawings and digital engineering information.

Our engineer-led workflow combines LiDAR scanning in Brisbane with point cloud to CAD modelling, mechanical engineering and fabrication-focused drafting.

This enables project teams to design around the actual port facility rather than relying on incomplete drawings, isolated site measurements or assumptions.

What Is Scan to CAD?

Scan to CAD is the process of capturing an existing asset or facility with 3D laser scanning and converting the resulting point cloud into structured CAD geometry.

A typical workflow includes:

Project planning → Site scanning → Point-cloud registration → CAD modelling → Engineering drawings

The completed models and drawings may be prepared for use in:

AutoCAD
SolidWorks
Autodesk Inventor
Navisworks
Revit
Plant-design software
Structural-drafting systems
Fabrication and construction documentation

Hamilton By Design provides more than a visual point cloud. Our engineering-led 3D scanning services in Brisbane are structured around the project’s intended engineering, fabrication, maintenance or construction outcome.

Scan to CAD for the Port of Brisbane

The Port of Brisbane is a major Queensland trade and logistics hub supporting containerised cargo, bulk products, motor vehicles, general cargo and other maritime activities.

Its facilities include container berths, bulk-handling terminals, common-user facilities and the Brisbane Multimodal Terminal, which provides an interface between rail, road and container-terminal operations.

Infrastructure in and around the port may include:

Container-handling equipment
Ship-to-shore cranes
Automated stacking-crane infrastructure
Conveyors and transfer stations
Ship loaders and unloaders
Hoppers and chutes
Wharf structures
Marine loading equipment
Fuel and chemical infrastructure
Rail and road interfaces
Maintenance workshops
Structural-steel platforms
Stairs, ladders and handrails
Pipe racks and process pipework

The Port of Brisbane’s container facilities include multiple container berths operated by major stevedores using automated container-handling equipment.

Scan to CAD provides an accurate digital baseline before modification, maintenance or upgrade work begins.

Why Port Facilities Benefit from Scan to CAD

Traditional site measurement usually requires designers to identify every required dimension before attending site.

When another measurement is needed later, another site visit may be required.

This can be difficult within an operating port environment where access may involve:

Port or terminal inductions
Maritime-security controls
Work permits
Escort requirements
Traffic-management arrangements
Crane and mobile-equipment movements
Restricted wharf access
Work near water
Vessel movements
Limited shutdown windows
Coordination with operations personnel

A coordinated 3D point-cloud scan captures millions of measured points throughout the work area.

Once registered, the point cloud allows engineers and designers to revisit the digital site and review:

Dimensions
Elevations
Clearances
Structural interfaces
Pipework locations
Equipment positions
Access constraints
Installation routes
Surrounding obstructions

This can reduce repeated site attendance while providing a more complete understanding of the existing environment.

Scan Existing Port Infrastructure Once and Use It Repeatedly

A well-planned scan can become a reusable digital reference for engineering, drafting, fabrication and maintenance teams.

The point cloud may be used to support:

Concept development
Detailed design
Equipment replacement
Structural modifications
Fabrication drawings
Clash detection
Installation planning
Shutdown planning
As-built documentation
Maintenance-access reviews
Future upgrade projects

Hamilton By Design’s reality capture services in Brisbane integrate site capture with Scan to CAD, as-built documentation and engineering design.

This means the scan is planned around what the project team needs to achieve, rather than simply collecting large quantities of unstructured data.

Port Equipment and Infrastructure We Can Capture

Wharves and Marine Structures

LiDAR scanning can capture the accessible and visible geometry of:

Wharf decks
Structural framing
Fender-support structures
Bollards
Mooring equipment
Access ladders
Handrails
Service trenches
Crane rails
Wharf-mounted equipment
Pipework and services
Equipment foundations

The resulting CAD model can support maintenance planning, structural modifications, equipment installation and existing-condition documentation.

For projects involving broader building or infrastructure information, Hamilton By Design can also provide Scan to BIM services in Brisbane.

Container-Terminal Infrastructure

Container terminals contain complex interfaces between cranes, automated equipment, road vehicles, rail infrastructure, barriers, services and maintenance areas.

Scan to CAD can assist with projects involving:

Ship-to-shore crane interfaces
Automated stacking-crane areas
Container-transfer equipment
Crane rails
Maintenance access
Safety barriers
Equipment foundations
Cable routes
Traffic interfaces
Structural modifications
Services and utilities

The point cloud allows proposed equipment and structures to be reviewed within the measured terminal environment before fabrication or installation.

Conveyors, Chutes and Bulk-Materials Equipment

Bulk-handling equipment is often congested, elevated and difficult to measure manually.

Hamilton By Design can scan:

Belt conveyors
Transfer stations
Chutes
Hoppers
Bins
Feeders
Ship loaders
Ship unloaders
Scrapers
Support structures
Walkways
Maintenance platforms
Dust-extraction systems

Our chute design and materials-handling services can combine accurate existing-condition data with CAD modelling and engineering design.

This can support chute replacement, conveyor modification, wear assessment and materials-handling upgrades.

Ship Loaders and Port-Loading Equipment

Ship loaders contain large structural, mechanical and materials-handling systems that can be difficult to document with conventional measurement methods.

Scan to CAD can support:

Structural-steel modifications
Conveyor replacement
Chute upgrades
Access-platform design
Mechanical-equipment replacement
Slew and travel interfaces
Maintenance-access studies
Pipework and service modifications
As-built documentation
Installation and shutdown planning

Hamilton By Design’s experience with ship-loader 3D scanning demonstrates how engineering-grade point clouds can support Scan to CAD, port infrastructure modifications and brownfield design.

Mechanical Equipment and Pipework

Scan to CAD can also document:

Pumps
Valves
Pipework
Ducting
Tanks
Mechanical skids
Loading systems
Hydraulic equipment
Equipment supports
Service platforms
Maintenance-access systems
Replacement components

Where existing components must be reproduced or redesigned, the scan can form part of a structured reverse-engineering process.

Rail and Road Interfaces

Port operations depend on coordinated movement between marine, road and rail systems.

LiDAR scanning can capture:

Rail alignments
Road interfaces
Loading areas
Transfer zones
Traffic barriers
Equipment clearances
Structures
Services
Signage supports
Access routes
Vehicle envelopes

The Brisbane Multimodal Terminal provides a designated interface between rail, road and the Port of Brisbane container terminals.

A coordinated point cloud can help project teams assess how proposed modifications interact with these operating areas.

Scan to CAD for Brownfield Port Upgrades

Most port modification projects are brownfield projects.

New equipment must fit around existing structures, pipework, electrical services, access platforms and operating systems.

Even a relatively small dimensional discrepancy can result in:

Fabrication rework
Installation delays
Site cutting and welding
Crane delays
Extended shutdowns
Access problems
Service clashes
Additional engineering work
Increased safety exposure
Higher project costs

Hamilton By Design’s Scan to CAD workflow allows proposed equipment to be developed within the measured site environment.

This helps the project team understand:

What is actually installed
Where surrounding structures are located
Whether sufficient access is available
How the equipment may be installed
Whether fabricated components can reach their final position
Where clashes may occur
Which existing assets may require modification

Supporting Port Modification Projects

Scan to CAD can support a wide range of port projects, including:

Conveyor replacements
Transfer-chute upgrades
New maintenance platforms
Crane-access modifications
Equipment relocations
Pipework upgrades
Dust-extraction improvements
Ship-loader modifications
Wharf-service upgrades
Structural-steel additions
Machine guarding
Safety-access improvements
Demolition planning
Shutdown projects
As-built documentation

Hamilton By Design can combine Scan to CAD with broader engineering services, including mechanical design, structural drafting, 3D modelling and fabrication documentation.

Our Port of Brisbane Scan to CAD Workflow

1. Project Scope and Scan Planning

Before attending site, we establish:

The project objective
The required scan area
The required CAD deliverables
Critical equipment interfaces
Required level of detail
Accuracy expectations
Site-access conditions
Operational restrictions
Safety requirements
Coordinate-system requirements
File-format requirements

Planning the scan around the intended deliverable helps ensure that the required geometry is captured.

2. Site Access and Safety Planning

Port work can involve moving machinery, suspended loads, heavy vehicles, vessel operations, operating conveyors and water-edge hazards.

The scanning methodology may need to consider:

Port and terminal inductions
Safe Work Method Statements
Take 5 risk assessments
Exclusion zones
Traffic movements
Crane operations
Work near water
Restricted areas
Communication requirements
Shutdowns and isolations

Scanning positions are selected to capture the required information while minimising interference with port operations.

3. Engineering-Grade LiDAR Capture

Hamilton By Design uses professional terrestrial LiDAR equipment to capture detailed site geometry.

Multiple scan positions are typically established around the work area to reduce shadows and improve coverage around:

Structural members
Pipework
Mechanical equipment
Conveyor systems
Platforms
Services
Access routes
Equipment interfaces

Further information about our national scanning capability is available through our engineering-grade 3D laser scanning service.

4. Point-Cloud Registration

Individual scans are aligned into a coordinated point-cloud dataset.

The registered point cloud is reviewed for:

Alignment quality
Site coverage
Noise and unwanted data
Missing areas
Critical interfaces
Dimensional consistency
Coordinate control

The registered dataset may then be supplied directly or used as the basis for CAD modelling and engineering documentation.

5. CAD Modelling

Required geometry is extracted from the point cloud and converted into fit-for-purpose CAD information.

Depending on the project, this may include:

Simplified spatial models
Mechanical-equipment models
Structural-steel models
Pipework models
Conveyor models
Equipment envelopes
Platforms and access systems
Existing-condition drawings
Fabrication-ready models

Not every visible object needs to be modelled.

The required level of detail should be established according to the engineering purpose of the project.

6. Engineering and Constructability Review

Where required, the scan-derived CAD model can support:

Mechanical design
Structural-arrangement development
Clash detection
Access reviews
Installation planning
Equipment fit checks
Maintenance-access studies
Fabrication documentation
Engineering verification

Hamilton By Design’s SolidWorks services in Brisbane can be used to develop mechanical models, assemblies and drawings from the measured site data.

7. Project Deliverables

Available project deliverables may include:

Registered point clouds
E57 files
RCP files
RCS files
LAS files
AutoCAD DWG drawings
DXF files
SolidWorks models
Autodesk Inventor models
STEP files
SAT files
Parasolid files
Navisworks coordination models
General-arrangement drawings
Plans, sections and elevations
Fabrication drawings
Existing-condition reports

The final deliverables are agreed during project scoping so the capture, processing and modelling effort remains aligned with the intended use.

Engineer-Led Scan to CAD

The value of a Scan to CAD project depends on more than the scanner being used.

The person planning the capture needs to understand what engineers, designers and fabricators will require from the data.

Hamilton By Design combines:

Mechanical-engineering experience
Industrial LiDAR scanning
Point-cloud registration
SolidWorks modelling
AutoCAD drafting
Structural and mechanical drafting
Fabrication knowledge
Brownfield-design experience
Practical site experience

Our 3D scanning engineering service in Brisbane combines site capture with CAD modelling, mechanical design and fabrication-ready drafting.

This integrated approach helps ensure important interfaces are captured and the final model is appropriate for its intended engineering purpose.

Designing Around Real Port Conditions

Port equipment may have been:

Repaired
Reinforced
Replaced
Relocated
Modified
Distorted
Worn
Supplemented with additional steelwork
Changed without drawing updates

An original drawing should therefore not automatically be treated as a reliable as-built record.

Scan to CAD allows designers to compare physical site conditions against available drawings and establish a more dependable basis for new work.

This is particularly valuable when designing:

Replacement components
New platforms
Conveyor modifications
Pipe supports
Equipment foundations
Structural frames
Guards and barriers
Maintenance-access systems
Retrofit steelwork

Clash Detection Before Fabrication

A scan-derived model can be combined with the proposed design to identify potential clashes before materials are ordered or components are fabricated.

Possible clashes may involve:

Existing structural steel
Pipework
Cable trays
Handrails
Mechanical equipment
Conveyor components
Access routes
Crane operating envelopes
Maintenance-removal paths
Vehicle clearances

Identifying these issues during the CAD stage is generally safer and less disruptive than discovering them during installation or a restricted port shutdown.

Installation and Shutdown Planning

Port shutdowns and installation windows may be tightly controlled.

Scan to CAD can assist project teams in reviewing:

Component sizes
Lift requirements
Crane positions
Installation sequences
Temporary access
Removal paths
Laydown areas
Existing obstructions
Required demolition
Temporary-support requirements

A coordinated point cloud also allows contractors, fabricators and project stakeholders to review the site remotely before mobilisation.

As-Built Verification

Following installation, selected areas may be rescanned and compared with the design model.

This can help verify:

Equipment position
Structural alignment
Pipe routing
Clearances
Installed geometry
Construction tolerances
Differences between design and installation

The resulting model can provide a dependable digital record for future maintenance, modification and asset-management activities.

Scan to CAD Compared with Manual Measurement

Manual measurement remains suitable for simple and accessible assets.

However, conventional measurement becomes more difficult where a project contains:

Complex geometry
Congested equipment
Elevated structures
Multiple operating levels
Restricted access
Large work areas
Irregular surfaces
Numerous equipment interfaces
Limited time on site

LiDAR scanning captures the spatial relationship between assets instead of producing a disconnected collection of individual measurements.

Critical dimensions may still be independently verified where required, but the point cloud provides the broader engineering context.

Benefits for Port Owners and Operators

Scan to CAD can provide:

Better existing-condition information
Reduced reliance on outdated drawings
Fewer repeated site visits
Improved design coordination
Earlier clash identification
Better installation planning
Reduced fabrication uncertainty
Improved asset documentation
A reusable digital record
Safer remote project reviews

Benefits for Engineers and Designers

Engineering teams can use the scan-derived model to:

Design around measured geometry
Check structural and mechanical interfaces
Develop accurate layouts
Create sections through complex areas
Review access and maintainability
Coordinate engineering disciplines
Produce fabrication drawings
Reduce assumptions
Communicate proposed modifications clearly

Benefits for Fabricators and Contractors

Fabricators and contractors can benefit from:

Better-defined interfaces
Clearer fabrication drawings
Reduced dimensional uncertainty
Improved fit-up confidence
Better lift planning
Better installation planning
Fewer unexpected site modifications
Reduced rework
Improved communication with the engineering team

Port of Brisbane Areas Serviced

Hamilton By Design can support Scan to CAD projects throughout:

Port of Brisbane
Fisherman Islands
Lytton
Pinkenba
Bulwer Island
Hemmant
Murarrie
Eagle Farm
Brisbane
South East Queensland
Regional Queensland

Port, wharf and terminal access remains subject to the requirements of the relevant facility owner, operator or tenant.

Why Choose Hamilton By Design?

Hamilton By Design provides an integrated digital-engineering service covering:

3D LiDAR laser scanning
Point cloud to CAD modelling
Mechanical engineering and design
Reality capture in Brisbane
Scan to BIM Brisbane
SolidWorks modelling in Brisbane
Reverse engineering
Structural and mechanical drafting
Fabrication drawings
Brownfield-design support
As-built verification
Installation and shutdown planning

Rather than separating scanning, modelling, drafting and engineering between unrelated suppliers, Hamilton By Design can provide a coordinated workflow from physical site capture through to practical engineering documentation.

Frequently Asked Questions

Can Scan to CAD be completed while a port facility remains operational?

In many situations, yes.

LiDAR scanning is a non-contact measurement method and can often be performed around normal operations. However, scanning may need to be coordinated around traffic, cranes, vessels, conveyors, operating machinery and controlled exclusion zones.

Can you scan conveyors and ship-loading equipment?

Yes.

LiDAR scanning can capture conveyors, transfer chutes, hoppers, ship loaders, support structures, access platforms and surrounding equipment.

Can the point cloud be used in AutoCAD?

Yes.

Registered point-cloud data may be supplied in formats such as RCP, RCS and E57. Structured geometry and drawings can also be developed in AutoCAD DWG format.

Can you create SolidWorks models from the scan?

Yes.

Point-cloud information can be used to develop SolidWorks parts, assemblies, structural layouts, equipment envelopes and mechanical designs.

Do you provide the registered point-cloud data?

Registered point-cloud data can be included within the agreed project deliverables.

The required file format, coordinate system, file size and data-transfer method should be confirmed during project scoping.

Can you model only the project area?

Yes.

Targeted modelling is often more economical than modelling an entire port facility. The model can be limited to the structures, equipment and interfaces relevant to the project.

Can the CAD model be used for fabrication?

Yes, where fabrication-ready modelling and drawings are included within the agreed scope.

A raw point cloud should not automatically be treated as fabrication documentation without engineering interpretation and suitable drawing development.

Can you compare the scan with existing drawings?

Yes.

Existing drawings or CAD models can be compared with the measured point cloud to identify differences and support drawing updates.

Can scanning be performed near a wharf edge?

Potentially, subject to site access and project-specific safety controls.

Work near water may require exclusion zones, suitable personal protective equipment, communication arrangements, controlled access and coordination with port operations.

What scanning accuracy can be achieved?

The achievable accuracy depends on scan distance, site geometry, surface condition, environmental conditions, registration control and the required deliverable.

The appropriate scanning and modelling tolerance should be established during project planning.

Discuss Your Port of Brisbane Scan to CAD Project

Accurate engineering starts with a reliable understanding of the existing facility.

Hamilton By Design provides engineer-led Scan to CAD services for the Port of Brisbane, helping port operators, terminal operators, engineering consultants, contractors and fabricators convert existing infrastructure into reliable digital engineering information.

Whether your project involves a conveyor modification, maintenance platform, pipework upgrade, ship loader, wharf structure, crane interface, equipment replacement or broader brownfield upgrade, we can develop a scanning and modelling scope suited to the project.

Contact Hamilton By Design to discuss 3D LiDAR scanning, point-cloud processing and Scan to CAD services for your Port of Brisbane project.

Contact Us – Talk To Us

Call Us
Now

E-Mail Us
Now

Name

First

Last

Company / Organisation / Private Project

phone Phone Organisation

Your Role / Owner

Would you like us to arrange a phone consultation for you?

Phone

Address

Address Line 1

Address Line 2

City

State / Province / Region

Postal Code

Country

Comment or Message

Our clients:

Port of Brisbane Engineering & 3D Laser Scanning

Port Facility LiDAR Scanning Port of Brisbane | Asset Capture

Mechanical Engineering Port of Brisbane | Plant & Equipment Design

3D Laser Scanning

31 July 20268 September 2026

Port Facility LiDAR Scanning Port of Brisbane | Asset Capture

Port facility LiDAR scanning at the Port of Brisbane showing a FARO scanner, conveyors, wharf infrastructure, cargo ship and coloured point-cloud overlay.

Port Facility LiDAR Scanning Port of Brisbane

Engineering-Grade Reality Capture for Terminals, Wharves, Conveyors and Brownfield Port Infrastructure

Port facilities contain some of the most complex engineering environments in industry. Container-handling equipment, conveyors, transfer stations, structural steel, pipework, access systems, wharf infrastructure and mobile plant often operate within restricted areas and tightly controlled shutdown windows.

Hamilton By Design provides port facility LiDAR scanning at the Port of Brisbane, supporting terminal operators, asset owners, engineering consultants, maintenance teams, contractors and fabricators working across Fisherman Islands, Pinkenba, Lytton, Hemmant and the wider Brisbane port precinct.

Our service is focused on capturing reliable existing-condition data for engineering, asset documentation, maintenance planning, tender development, brownfield modifications and fabrication coordination.

Unlike the broader Port of Brisbane engineering and 3D laser scanning service, this page focuses specifically on facility-wide LiDAR capture, port asset documentation and engineering-ready point-cloud delivery.

Why Port Facilities Need Reliable Existing-Condition Data

Port infrastructure changes throughout its operating life.

Conveyors may be extended, platforms altered, guards replaced, pipework rerouted and equipment upgraded without every modification being transferred back to the original drawings.

This can create uncertainty when planning:

Terminal upgrades
Conveyor replacements
Chute modifications
New access systems
Wharf maintenance
Equipment relocation
Structural alterations
Shutdown work
Fabrication and installation
Asset-management programs

Traditional site measurement can be slow and incomplete when assets are large, congested, elevated or difficult to access safely.

Engineering-grade LiDAR scanning captures millions of spatial measurements and produces a measurable three-dimensional record of the visible environment. Hamilton By Design uses this approach across industrial and infrastructure projects where point-cloud data must support engineering, design and fabrication decisions.

What Is Port Facility LiDAR Scanning?

LiDAR means Light Detection and Ranging. A laser scanner emits light pulses and records the distance to visible surfaces, creating a dense collection of three-dimensional measurement points known as a point cloud.

For a port facility, the registered point cloud may capture the spatial relationship between:

Buildings
Wharves
Conveyors
Transfer towers
Loading equipment
Structural steel
Mechanical assets
Platforms and stairs
Pipework and services
Roads and hardstands
Maintenance areas
Adjacent infrastructure

The point cloud can then be reviewed, measured and converted into suitable engineering or asset-management deliverables.

Port Assets That Can Be Captured

Hamilton By Design can use terrestrial LiDAR scanning to document visible port and terminal assets such as:

Container-terminal infrastructure

Container-handling areas
Crane-support infrastructure
Equipment clearances
Terminal buildings
Maintenance zones
Traffic and operational interfaces

Bulk-material handling systems

Conveyors
Transfer stations
Chutes
Hoppers
Bins
Feeders
Drive stations
Support frames
Walkways and platforms

Wharf and marine-side infrastructure

Wharf-access structures
Loading and unloading equipment
Gangways
Mooring-related structures
Service connections
Pipe bridges
Above-water structural geometry
Crane rails and associated steelwork

Buildings and supporting facilities

Warehouses
Workshops
Plant rooms
Maintenance buildings
Service corridors
Electrical rooms
Equipment foundations
Structural framing

Where below-water geometry is required, terrestrial scanning may need to be combined with hydrographic, bathymetric or specialist subsea survey methods.

Facility-Wide Existing-Condition Capture

A port facility scan can extend beyond one isolated item of equipment.

Where required, Hamilton By Design can establish a broader digital record of:

Multiple conveyor routes
Transfer stations
Terminal buildings
Wharf structures
Road and equipment interfaces
Mechanical plant areas
Access systems
Existing services
Maintenance zones
Surrounding structural steel

This wider capture can help project teams understand how one proposed modification may affect other parts of the terminal.

It can also reduce repeated site visits by allowing engineers, designers and contractors to revisit the measured environment remotely.

Point-Cloud Deliverables

The registered point cloud can be supplied in formats selected to suit the client’s software and intended workflow.

Typical deliverables may include:

E57 point clouds
Autodesk RCP files
Autodesk RCS files
LAS files
Registered scan databases
Scan-location documentation
Coverage images
Selected measurements
Point-cloud viewing files
Cropped project areas
Coordinate or survey-control information where applicable

Hamilton By Design also provides 3D point-cloud scanning in Brisbane for projects requiring traceable, fit-for-purpose spatial information for engineering and construction decisions.

Scan-to-CAD for Port Facilities

A point cloud is a measurement dataset rather than a complete engineering model.

Where required, selected geometry can be converted into CAD representations of:

Structural steel
Conveyors
Chutes and hoppers
Mechanical equipment
Platforms and access structures
Pipework
Machinery guards
Equipment foundations
Buildings and plant rooms
Replacement components

The required modelling level should be defined according to the project purpose.

A broad coordination model may be sufficient for clash detection, while equipment replacement or fabrication work may require more detailed geometry and independently verified interfaces.

Hamilton By Design’s Brisbane scanning and engineering service connects site capture with mechanical and structural engineering, CAD modelling and fabrication-ready drafting.

As-Built Documentation for Port Assets

Port facility LiDAR scanning can support the preparation of:

Existing-condition plans
General arrangement drawings
Floor plans
Sections and elevations
Structural layouts
Equipment-location drawings
Conveyor layouts
Pipe and service layouts
Clearance envelopes
Access-system drawings
Asset registers
Three-dimensional as-built models

These records can provide a more reliable basis for future maintenance, design and tender work than drawings that may not include later site modifications.

Brownfield Port Upgrades

Brownfield work is completed within an existing operational facility, where new equipment must fit around assets that remain in place.

Typical constraints include:

Incomplete drawings
Undocumented modifications
Restricted installation space
Existing services
Active operations
Limited shutdown periods
Difficult lifting access
Corrosion or wear
Multiple project interfaces

Hamilton By Design uses engineering-led LiDAR capture to reduce uncertainty in these environments.

A typical workflow may include:

Defining the intended engineering use of the scan
Capturing the existing facility and relevant interfaces
Registering and reviewing the point-cloud data
Isolating the project area
Modelling the proposed equipment
Positioning the design within the existing point cloud
Reviewing clashes, access and constructability
Preparing drawings for fabrication or installation

This approach is similar to the scan-led workflows Hamilton By Design applies to brownfield port engineering and industrial retrofit projects.

Conveyor and Transfer-Station Scanning

Port conveyors and transfer systems are often difficult to measure because they contain elevated steelwork, guarding, moving equipment, worn components and restricted access.

LiDAR scanning can document:

Conveyor stringers
Gantries
Head and tail stations
Pulley positions
Drive frames
Transfer towers
Chutes
Hoppers
Walkways
Platforms
Guarding
Pipework
Cable trays
Nearby structures

The resulting dataset can support:

Conveyor modifications
Replacement chute design
Guarding upgrades
Access improvements
Structural coordination
Wear assessments
Shutdown planning
Fabrication documentation

Wharf and Berth Infrastructure

Terrestrial LiDAR scanning may be used to document visible wharf and berth infrastructure from safe scanner locations.

Possible applications include:

Wharf-access upgrades
Loading-equipment modifications
Service-routing projects
Gangway replacement
Platform alterations
Structural-steel verification
Clearance studies
Crane-support interfaces
Pipe-bridge modifications
Maintenance planning

A scanner can capture geometry that would otherwise require numerous manual measurements at height or near operational equipment.

All site work remains subject to the port operator’s access, permit, exclusion-zone and water-edge requirements.

Crane and Heavy-Equipment Interfaces

Port cranes and heavy mechanical equipment frequently interact with surrounding steelwork, rails, services and operational areas.

LiDAR scanning can assist with:

Existing equipment envelopes
Crane-support geometry
Crane rail locations
Access-platform modifications
Guarding design
Structural interfaces
Maintenance clearances
Removal and installation paths
Surrounding obstructions
Clash detection

Where a project requires formal alignment, settlement, deformation or high-precision tolerance reporting, specialist survey control or metrology may also be needed.

Shutdown Planning and Work-Pack Development

Port shutdowns can involve significant operational and commercial consequences.

Pre-shutdown scanning may help project teams:

Confirm existing interfaces
Review demolition boundaries
Check replacement-component dimensions
Plan lifting access
Review crane positions
Examine installation routes
Identify obstructions
Coordinate temporary works
Prepare contractor work packs
Reduce dependence on shutdown measurements

The point cloud can be reviewed before mobilisation, allowing more project questions to be resolved while changes remain less expensive.

Clash Detection and Spatial Coordination

Proposed equipment can be positioned within the registered point cloud to identify conflicts with:

Structural steel
Conveyors
Pipework
Cable trays
Platforms
Handrails
Buildings
Existing machinery
Vehicle routes
Maintenance envelopes

Clash detection does not replace engineering verification, but it can identify spatial conflicts before fabrication or installation.

This is particularly valuable where replacement equipment must be fabricated off site before an existing asset is removed.

Asset Management and Digital Baselines

A registered point cloud can provide a digital baseline of a port facility at a specific time.

Depending on the project methodology, future scans may be compared with the baseline to support:

Asset-condition monitoring
Change documentation
Upgrade records
Maintenance planning
Wear studies
Structural reviews
Refurbishment planning
Digital twin development

Reality capture is commonly used as a foundation for digital representations of existing assets and infrastructure. Hamilton By Design’s broader reality-capture services use LiDAR data to support as-built records and digital engineering workflows.

Repeat Scanning and Change Assessment

Repeat scans may help identify geometric change between two points in time.

Applications may include:

Chute wear
Hopper wear
Structural movement
Equipment replacement
Progressive modifications
Stockpile or volume studies
Construction progress
As-built verification

Meaningful comparison requires appropriate control, registration, scan coverage, resolution and consistency between datasets.

The methodology should be defined before the first baseline scan if repeat comparison is an important project requirement.

Scanning Around Operating Plant

Some port areas may be captured while surrounding operations continue, provided the work is permitted and suitable controls are in place.

Important considerations include:

Moving vehicles
Operating conveyors
Rotating machinery
Exclusion zones
Water edges
Lighting
Dust
Weather
Reflective surfaces
Restricted access
Line-of-sight limitations

Moving surfaces may appear incomplete or distorted in the scan.

Where accurate geometry of a belt, pulley, crane component or other moving equipment is required, the equipment may need to be isolated and stationary.

Engineering-Led Scan Planning

A large point cloud is not automatically a useful engineering deliverable.

The scanning plan should consider:

What equipment is being modified
Which interfaces are critical
Required accuracy
Required level of detail
Intended CAD outputs
Survey-control requirements
Areas requiring repeat scanning
Site access restrictions
File size and software compatibility
Fabrication and installation tolerances

Hamilton By Design plans scanning around the intended engineering outcome rather than treating scanning as a standalone photographic exercise.

Typical Port Facility Projects

Port facility LiDAR scanning can support:

Container-terminal modifications
Conveyor upgrades
Chute replacement
Hopper modifications
Wharf-access projects
Crane-support work
Maintenance platforms
Machine guarding
Pipework changes
Warehouse upgrades
Equipment relocation
Structural alterations
Fabrication verification
Shutdown planning
Asset documentation
Brownfield engineering
Construction coordination
Digital twin development

Port Safety and Access Requirements

Work within a port facility may require:

Site-specific inductions
Maritime Security Identification Card requirements
Safe work method statements
Task-risk assessments
Work permits
Working-at-heights controls
Water-edge controls
Traffic-management arrangements
Exclusion zones
Personal protective equipment
Site escorts
Operational coordination
Environmental controls

Hamilton By Design develops the scanning methodology around the requirements established by the relevant facility or terminal operator.

Areas Serviced

Port facility LiDAR scanning can be provided throughout:

Port of Brisbane
Fisherman Islands
Pinkenba
Lytton
Hemmant
Murarrie
Wynnum
Eagle Farm
Greater Brisbane
South-East Queensland

Hamilton By Design also supports port, industrial, mining and infrastructure projects throughout Australia through its national engineering-grade LiDAR service.

Why Choose Hamilton By Design?

Engineering-led site capture

The scan scope is developed around how the data will be used by engineers, designers, contractors and fabricators.

Port and industrial project focus

Our workflows are suited to conveyors, chutes, mechanical equipment, structural steel, platforms and brownfield infrastructure.

Integrated deliverables

Point-cloud processing, CAD modelling, mechanical engineering and drafting can be provided through a coordinated workflow.

Reduced repeat attendance

A well-planned scan can allow measurements and interfaces to be revisited remotely.

Fabrication and installation support

The captured data can be used to prepare models and drawings around verified existing geometry.

Flexible project scope

Projects can range from registered point-cloud delivery to complete scan-to-CAD and engineering documentation.

Frequently Asked Questions

What is port facility LiDAR scanning?

Port facility LiDAR scanning uses terrestrial laser scanners to create a measurable three-dimensional point cloud of visible port infrastructure, buildings, equipment and surrounding assets.

What can be scanned at the Port of Brisbane?

Visible assets may include conveyors, transfer stations, chutes, hoppers, structural steel, platforms, cranes, wharf equipment, buildings, pipework, roads and terminal infrastructure.

Can a complete terminal be scanned?

Yes, subject to project size, access, line of sight, operational restrictions and the required level of detail. Large facilities may be divided into stages or priority zones.

Can scanning be completed during normal operations?

Some areas may be scanned while operations continue, provided the activity is approved and appropriate controls are established. Moving equipment may need to be stopped when precise component geometry is required.

What files can be supplied?

Typical files include E57, RCP, RCS and LAS point clouds, together with CAD models, drawings or selected measurements where these form part of the scope.

Can the scan data be used in SolidWorks?

Yes. Point-cloud data can be used as a reference for SolidWorks modelling, and selected geometry can be converted into engineering CAD models.

Can the scans support fabrication drawings?

Yes. Where the project includes engineering and drafting, the point cloud can support the preparation of general arrangements, fabrication drawings and installation documentation.

Can scans be compared over time?

Yes, provided suitable control, coverage and registration methods are used. Repeat scanning should be planned from the beginning where change assessment is required.

Is Hamilton By Design affiliated with Port of Brisbane Pty Ltd?

No. Hamilton By Design is an independent engineering and LiDAR scanning service provider. This page describes services available for projects in the Port of Brisbane area and does not imply endorsement, appointment or affiliation.

Discuss Port Facility LiDAR Scanning at the Port of Brisbane

Hamilton By Design can assist with:

Facility-wide terrestrial LiDAR scanning
Registered point-cloud delivery
Port asset documentation
Existing-condition capture
Scan-to-CAD modelling
As-built drawings
Conveyor and transfer-station scanning
Wharf and terminal scanning
Clash detection
Shutdown planning
Brownfield project support
Mechanical engineering and drafting

Explore the broader Port of Brisbane engineering and 3D laser scanning service or contact Hamilton By Design to discuss the facility, scan coverage, required accuracy and intended project deliverables.

Contact Us – Talk To Us

Call Us
Now

E-Mail Us
Now

Name

First

Last

Owner for Your

Company / Organisation / Private Project

Your Role / Owner

Would you like us to arrange a phone consultation for you?

Phone

Address

Address Line 1

Address Line 2

City

State / Province / Region

Postal Code

Country

Comment or Message

Our clients:

LiDAR Scanning Brisbane | Engineering Grade 3D Laser Scanning & Scan to CAD

3D Point Cloud Scanning in Brisbane

Mechanical Engineering Port of Brisbane | Plant & Equipment Design

Port of Brisbane Engineering & 3D Laser Scanning

3D Scanning Engineering in Brisbane

Not All Scans, Point Clouds or Meshes Are Equal – The Hamilton By Design Philosophy

31 July 20268 September 2026

Port of Brisbane Engineering & 3D Laser Scanning

Port of Brisbane container terminal and bulk-handling infrastructure being captured with a FARO 3D laser scanner and coloured point-cloud overlay.

Port of Brisbane Engineering and 3D Laser Scanning Services

Engineer-Led LiDAR Scanning, Mechanical Design and As-Built Documentation for Brisbane Port Facilities

The Port of Brisbane is a major multi-cargo port supporting container handling, general cargo, motor vehicles, roll-on/roll-off operations, bulk commodities, warehousing and associated logistics activities. Its terminals and industrial precincts contain a complex mix of wharves, cranes, conveyors, storage systems, buildings, roads and mechanical infrastructure.

Hamilton By Design provides engineering and 3D laser scanning services for projects at and around the Port of Brisbane, Fisherman Islands, Pinkenba, Lytton and surrounding Brisbane industrial areas.

Our services combine engineering-grade LiDAR scanning with mechanical engineering, point-cloud processing, reverse engineering, 3D CAD modelling and fabrication-ready drafting.

This integrated approach allows port operators, terminal operators, engineering consultants, maintenance teams, contractors and fabricators to work from reliable existing-condition information rather than incomplete drawings or manually measured approximations.

Accurate site capture, engineering-ready point clouds and practical design documentation for complex port and industrial environments.

Engineering Services for Port of Brisbane Projects

Port facilities are continually maintained, upgraded and modified. Original drawings may no longer accurately represent what is physically installed because of previous repairs, plant modifications, equipment replacements and undocumented site changes.

Traditional measurement can also be difficult where equipment is:

Large or geometrically complex
Installed above conveyors or operating machinery
Surrounded by structural steel, services or pipework
Close to wharves or exposed water edges
Located within active vehicle or cargo-handling areas
Accessible only during a planned shutdown
Difficult to measure safely using tapes and hand tools

Our 3D scanning services in Brisbane capture millions of spatial measurements from multiple scanner positions to create a detailed three-dimensional record of the facility.

The resulting point cloud can support engineering, design, verification, fabrication, construction planning and maintenance without relying solely on repeated site measurements.

Port of Brisbane 3D Laser Scanning

Hamilton By Design uses terrestrial LiDAR scanning to document the visible geometry of port infrastructure, industrial equipment and surrounding structures.

Our broader Brisbane 3D scanning service can be applied to projects involving:

Container-terminal infrastructure
General-cargo facilities
Bulk-material handling systems
Conveyor systems
Transfer stations
Hoppers and bins
Chutes and wear liners
Wharves and berths
Crane rails and support structures
Loading and unloading equipment
Maintenance platforms
Stairs and handrails
Pipework and mechanical services
Warehouses and workshops
Equipment foundations
Roads, hardstands and vehicle clearances
Marine and waterfront infrastructure

The captured point cloud provides a measurable digital representation of the existing area. Engineers, designers and project personnel can navigate the dataset, extract measurements and review spatial relationships after the site visit.

For projects requiring engineering or fabrication decisions, our approach is based on collecting the right information for the intended purpose—not simply creating the largest possible point cloud. This principle is explained further in Not All Scans, Point Clouds or Meshes Are Equal.

Existing-Condition and As-Built Documentation

Accurate existing-condition information is particularly important when new equipment must connect to older port infrastructure.

Hamilton By Design can use registered scan data to prepare:

Existing-condition plans
General arrangement drawings
Floor plans
Sections and elevations
Structural-steel layouts
Equipment-location drawings
Pipe and service layouts
Interface drawings
Clearance envelopes
Dimensional verification drawings
Three-dimensional as-built models

Our engineering-grade 3D point-cloud scanning service in Brisbane can help verify existing geometry, identify spatial constraints and create an accurate foundation for proposed modifications.

Scan-to-CAD Modelling

A registered point cloud contains valuable measurement information, but many engineering projects also require usable CAD geometry.

Hamilton By Design can convert selected point-cloud information into models representing:

Structural steel
Mechanical equipment
Conveyor assemblies
Chutes and transfer stations
Platforms and access systems
Pipework and services
Machinery guards
Buildings and industrial rooms
Equipment foundations
Proposed replacement components

Depending on the project requirements, deliverables may include:

SolidWorks models
Autodesk Inventor models
AutoCAD drawings
STEP files
SAT files
Parasolid files
DWG files
DXF files
Navisworks-compatible coordination models
Registered E57 point clouds
Autodesk RCP or RCS files
LAS point-cloud files

The level of modelling can be matched to the intended project outcome, whether the client requires general spatial coordination, detailed reverse engineering or fabrication documentation.

Mechanical Engineering for Port Infrastructure

Hamilton By Design provides mechanical-engineering support for port, logistics, industrial and materials-handling projects.

Our services can include:

Existing-equipment assessments
Engineering studies
Concept and feasibility development
Mechanical arrangement design
Conveyor modifications
Transfer-chute design
Hopper and bin modifications
Machine-guarding design
Maintenance-access improvements
Equipment replacement planning
Platforms, stairs and handrails
Structural-support concepts
Reverse engineering
Wear and erosion assessments
Design verification
Fabrication drawings
Installation planning
Shutdown planning

Our wider engineering studies and assessments can be combined with LiDAR data to establish the existing condition of an asset before a design or maintenance decision is made.

The principal advantage of integrating engineering and scanning is that proposed designs can be developed directly around verified site geometry.

Conveyor and Bulk-Materials-Handling Projects

Port facilities may include extensive conveyor, loading, storage and transfer infrastructure. These systems frequently contain worn components, irregular geometry, restricted access and modifications that are not shown on the original drawings.

LiDAR scanning can capture:

Conveyor stringers
Conveyor gantries
Head and tail pulley arrangements
Drive stations
Transfer towers
Chutes
Hoppers
Bins
Wear liners
Walkways
Maintenance platforms
Support frames
Adjacent pipework
Electrical services
Access restrictions

The resulting point cloud can support the design of replacement equipment and help determine how proposed components will interface with the surrounding plant.

This is especially valuable where shutdown time is limited and equipment must be designed and fabricated before the existing assembly is removed.

Our approach to establishing a reliable digital baseline for mechanical, structural and piping work is also described in 3D Laser Scanning for SMP Project Delivery.

Wharf, Berth and Marine Infrastructure Scanning

Port projects may involve a combination of mechanical, structural, civil and marine infrastructure.

Three-dimensional laser scanning may assist with:

Wharf-access structures
Loading and unloading equipment
Fender-support arrangements
Mooring infrastructure
Gangways
Access platforms
Crane-support structures
Pipe bridges
Marine-loading equipment
Equipment foundations
Structural-steel verification
Service connections
Clearance studies

Terrestrial LiDAR can document visible above-water geometry from safe and accessible scanner positions.

Where below-water geometry is required, terrestrial laser scanning may need to be coordinated with hydrographic, bathymetric or specialist subsea-survey methods.

Crane and Heavy-Equipment Scanning

Port cranes and heavy mechanical equipment can be difficult to measure using conventional site techniques.

LiDAR scanning may support:

Crane-rail assessments
Existing-geometry verification
Equipment-envelope studies
Structural-member location
Access-platform modifications
Replacement-machinery planning
Guarding design
Exclusion-zone planning
Maintenance-clearance assessment
Clash detection
Installation-path planning

A coordinated point cloud can show the relationship between the crane or mechanical equipment and the surrounding wharf, structural steel, services, access areas and operating environment.

Where formal rail alignment, deformation, settlement or high-precision tolerance reporting is required, the laser-scanning work may need to be supplemented by specialist survey control or metrology.

Reverse Engineering of Existing Port Equipment

Original drawings are not always available for older port equipment. Existing drawings may also be inaccurate because the machinery has been repaired or modified during its operating life.

Hamilton By Design can use laser scanning, direct measurements and 3D CAD modelling to reverse engineer:

Chutes
Hoppers
Machinery guards
Covers
Frames
Brackets
Platforms
Ducting
Pipe supports
Access structures
Wear liners
Replacement structural assemblies
Mechanical components

The resulting CAD model can form the basis for design review, equipment modification and the preparation of fabrication drawings.

Where components contain fine tolerances or small features, LiDAR data may be supplemented with direct measurement, close-range scanning, photogrammetry or specialist metrology.

Brownfield Port Upgrades

Brownfield projects are challenging because new equipment must often fit within an operating facility containing existing structures, services and machinery.

A scan-based project workflow can involve:

Capturing the existing area before detailed design begins
Registering the individual scans into a coordinated point cloud
Identifying relevant interfaces and surrounding obstructions
Creating a model of the proposed equipment
Positioning the proposed design within the point cloud
Reviewing access, clearances and possible clashes
Preparing drawings around verified site geometry
Supporting off-site fabrication
Reviewing installation conditions before mobilisation

This approach can reduce the likelihood of replacement equipment arriving on site and failing to fit the existing interfaces.

Shutdown Planning

Port shutdowns and operational interruptions can be expensive and tightly controlled.

Incomplete drawings, missing dimensions and unexpected obstructions can delay demolition, fabrication or installation activities.

Pre-shutdown laser scanning can assist project teams with:

Confirming equipment interfaces
Planning demolition boundaries
Locating structural members
Checking available lifting space
Reviewing crane access
Planning removal routes
Planning installation routes
Coordinating temporary works
Identifying potential service clashes
Verifying replacement-component dimensions
Developing contractor work packs
Reviewing maintenance access

Project personnel can use the registered point cloud to become familiar with the work area before the shutdown begins.

A detailed digital record can also support future engineering studies and asset assessments after the immediate project has been completed.

Clash Detection and Constructability Review

New equipment can be modelled within the existing-condition point cloud to check how it relates to surrounding infrastructure.

Potential clashes may involve:

Structural steel
Conveyor frames
Pipework
Cable trays
Electrical equipment
Handrails
Access platforms
Existing machinery
Building elements
Vehicle envelopes
Maintenance-removal zones

Clash detection does not replace formal engineering review. However, it can identify obvious spatial conflicts while the proposed design can still be adjusted economically.

Our Brisbane structural drafting and 3D scanning services can also support projects where structural arrangements must be developed around the verified existing environment.

Machine Guarding and Safe Access

Port and materials-handling equipment may require new or upgraded guarding around conveyors, drives, pulleys, shafts, couplings and other moving components.

Laser scanning can help establish:

Existing machinery geometry
Hazard locations
Available mounting positions
Access requirements
Maintenance-removal zones
Guard clearances
Structural attachment points
Relationships with platforms and walkways

Hamilton By Design can then develop machine-guarding concepts and fabrication drawings appropriate to the identified machinery and project requirements.

The final design must be assessed against the legislation, standards, site rules and risk controls applicable to the particular facility and item of equipment.

Platforms, Stairs, Walkways and Handrails

Port and terminal facilities frequently require access improvements to support operation, inspection and maintenance.

Hamilton By Design can assist with the scanning and design of:

Maintenance platforms
Conveyor walkways
Access stairs
Step-over platforms
Crossovers
Handrails
Guardrails
Access ladders
Equipment-support frames
Removable access sections

Capturing the surrounding area helps ensure that the proposed access system accounts for existing machinery, operating clearances and maintenance requirements.

Wear and Erosion Studies

Chutes, hoppers, transfer points and other materials-handling equipment are subject to progressive wear and erosion.

Periodic scanning may help engineering and maintenance teams:

Establish a baseline geometry
Compare an asset at different points in time
Identify visible geometric changes
Locate concentrated wear areas
Quantify material loss where suitable data is available
Plan liner replacement
Prioritise maintenance
Create replacement geometry
Develop a digital condition record

Hamilton By Design’s wear and erosion studies can combine site observations, engineering assessment and digital measurement to support maintenance and refurbishment decisions.

Repeat scans should be collected using a controlled methodology where meaningful comparison between datasets is required.

Typical Port of Brisbane Projects

Hamilton By Design can assist with projects involving:

Container-terminal upgrades
Conveyor modifications
Transfer-chute replacement
Bulk-material handling equipment
Wharf-access improvements
Crane infrastructure
Crane rails and support structures
Maintenance platforms
Machine guarding
Warehouse alterations
Pipework modifications
Equipment relocation
Fabrication verification
Structural-steel detailing
As-built documentation
Shutdown planning
Reverse engineering
Asset-condition capture
Equipment-interface verification
Installation planning
Lift and access planning

Our Engineering and Scanning Workflow

1. Define the Project Requirements

We review the asset, required scan coverage, access conditions, site restrictions, accuracy requirements, final deliverables and intended engineering use of the information.

2. Plan the Site Capture

The scanning methodology is developed around site inductions, work permits, exclusion zones, operating equipment, vehicle movements, water-edge risks and access limitations.

3. Complete the On-Site Scanning

Multiple scanner positions are used to capture the equipment and surrounding environment.

Critical dimensions or important interfaces can also be independently checked where required.

4. Register the Point Cloud

The individual scans are aligned into a coordinated three-dimensional dataset and reviewed for coverage and registration quality.

5. Conduct the Engineering Review

The registered point cloud is examined to identify important interfaces, clearances, obstructions and areas that may require further investigation.

6. Prepare CAD Models and Drawings

Selected geometry is converted into the required CAD models, general arrangements, sections, details or fabrication drawings.

7. Coordinate the Proposed Design

Proposed equipment can be positioned within the point cloud to support clash detection, access assessment and constructability review.

8. Deliver the Project Information

The final information is supplied in the agreed point-cloud, CAD, drawing or report formats.

Why Choose Hamilton By Design?

Engineer-Led Reality Capture

Our scanning work is planned with an understanding of how the captured information will be used for engineering, design, fabrication and installation.

Industrial and Materials-Handling Experience

Our project experience includes conveyors, chutes, hoppers, machine guarding, access structures, mechanical equipment and brownfield plant modifications.

Integrated Project Delivery

Site capture, point-cloud registration, CAD modelling, mechanical engineering and drafting can be delivered through one coordinated workflow.

Reduced Site Reattendance

A comprehensive point cloud allows many measurements and interfaces to be reviewed remotely after the site visit.

Support for Off-Site Fabrication

Fabricators can receive models and drawings developed around captured existing conditions.

Engineering-Ready Information

Our focus is on creating information that engineers, project managers, maintenance teams, contractors and fabricators can use.

Hamilton By Design also provides engineering-grade 3D laser scanning throughout Australia for clients with projects across multiple states or industrial locations.

Port Safety and Site Requirements

Work at an operational port may require:

Site-specific inductions
Maritime Security Identification Card requirements
Work permits
Safe work method statements
Take 5 or task-risk assessments
Working-at-heights controls
Water-edge controls
Traffic-management arrangements
Exclusion zones
Personal protective equipment
Site escorts
Coordination with terminal operations
Weather and lighting considerations
Tidal or marine-operational considerations

The final scanning methodology will be developed around the access, safety and operational requirements established by the relevant site operator.

Areas Serviced

Hamilton By Design can support port, industrial and infrastructure projects throughout:

Port of Brisbane
Fisherman Islands
Pinkenba
Lytton
Hemmant
Murarrie
Wynnum
Manly
Eagle Farm
Brisbane Airport industrial precinct
Greater Brisbane
South-East Queensland

Our main LiDAR scanning Brisbane service also supports industrial, manufacturing, infrastructure, construction and regional Queensland projects.

Travel can be arranged for port, mining and industrial projects throughout Queensland and other Australian locations.

Frequently Asked Questions

What can be scanned at the Port of Brisbane?

LiDAR can capture visible geometry including conveyors, buildings, platforms, structural steel, pipework, machinery, crane infrastructure, wharf equipment and surrounding industrial areas.

Can scanning be completed while a port facility remains operational?

Scanning can often be completed while surrounding operations continue, provided suitable access, permits, exclusion zones and operating controls are established.

Some equipment may need to be stopped where accurate capture of moving components is required.

How accurate is 3D laser scanning?

Accuracy depends on the scanner, distance, site geometry, surface characteristics, environmental conditions, registration method and required deliverable.

The project accuracy requirements should be established before the scanning methodology is selected.

Can point-cloud information be used in SolidWorks?

Yes. Registered point clouds can be used as references when developing SolidWorks models. Selected equipment and structural geometry can also be converted into usable CAD models.

Can Hamilton By Design produce fabrication drawings?

Yes. Fabrication drawings can be prepared for suitable mechanical and structural assemblies, subject to the agreed engineering scope and required design review.

Can equipment above water be scanned?

Visible above-water infrastructure can generally be captured from safe and accessible scanner positions.

Below-water geometry requires an appropriate hydrographic, bathymetric or subsea-survey method.

Can moving conveyors and machinery be scanned?

Stationary infrastructure surrounding operational equipment can often be captured safely, subject to site controls.

Moving belts, rotating machinery and other moving surfaces may appear incomplete or distorted. The equipment may need to be stopped when accurate component geometry is required.

Can scans from different dates be compared?

Yes. Repeat scan datasets may be compared to identify geometric changes where suitable survey control, coverage, resolution and registration methods have been used.

Can Hamilton By Design provide the registered point cloud without modelling?

Yes. A project can be scoped for site scanning and registered point-cloud delivery only.

Additional services such as scan-to-CAD modelling, engineering assessment and drafting can be included where required.

Is Hamilton By Design affiliated with Port of Brisbane Pty Ltd?

No. Hamilton By Design is an independent engineering and 3D laser scanning service provider.

This page describes services that may be provided for projects located at or around the Port of Brisbane. It does not imply endorsement, appointment, partnership or affiliation with Port of Brisbane Pty Ltd.

Discuss a Port of Brisbane Project

Reliable existing-condition information can reduce uncertainty before design, fabrication and installation begin.

Hamilton By Design can assist with:

Engineering-grade 3D laser scanning
Registered point-cloud creation
Existing-condition documentation
Scan-to-CAD modelling
Mechanical engineering
Reverse engineering
Conveyor and chute modifications
Machine guarding
Platforms and access structures
Fabrication drawings
Clash detection
Brownfield upgrade planning
Shutdown engineering support

Explore our broader 3D laser scanning services or contact Hamilton By Design to discuss the equipment, facility, required accuracy and intended deliverables for your Port of Brisbane project.

Contact Us – Talk To Us

Call Us
Now

E-Mail Us
Now

Name

First

Last

Company / Organisation / Private Project

Your Role / Owner

arrange Phone Your

Would you like us to arrange a phone consultation for you?

Phone

Address

Address Line 1

Address Line 2

City

State / Province / Region

Postal Code

Country

Comment or Message

Our clients:

3D Scanning Brisbane

3D Scanning Engineering in Brisbane

Reverse Engineer 3D Scanning

Eng-Grade 3D Scan Australia

Port Facility LiDAR Scanning Port of Brisbane | Asset Capture

Mechanical Engineering Port of Brisbane | Plant & Equipment Design

LiDAR Scanning for ICAM Investigations | Hamilton By Design

LiDAR Scanning and SolidWorks for Kinematic Studies

26 July 20266 September 2026

LiDAR Scanning and SolidWorks for Kinematic Studies

Infographic showing how LiDAR scanning and SOLIDWORKS are combined to create accurate kinematic studies, including point cloud capture, CAD modelling, motion analysis, interference checking, clearance analysis and actuator stroke review.

Combining LiDAR Scanning and SolidWorks for Kinematic Studies

Understanding how machinery moves within an existing industrial environment can be difficult when drawings are unavailable, outdated or do not reflect site modifications.

By combining 3D LiDAR scanning with SolidWorks, engineers can create kinematic studies based on the actual installed geometry of machinery, structures and surrounding plant. This provides a more reliable foundation for assessing movement, clearances, interference risks and proposed mechanical modifications.

What Is a Kinematic Study?

A kinematic study examines the movement of mechanical components without initially focusing on the forces that create that movement.

It may assess:

component position;
direction of movement;
travel distance;
angular rotation;
velocity;
acceleration;
linkage behaviour;
actuator stroke;
motion envelopes;
clearances between components;
potential collisions or interference.

Kinematic studies are commonly used for mechanical linkages, hydraulic cylinders, access doors, gates, chutes, diverters, lifting systems, articulated equipment and other moving machinery.

Why Existing Geometry Matters

A motion study is only as reliable as the geometry used to create it.

Many industrial machines have been modified, repaired or repositioned over time. Original drawings may no longer represent the actual equipment. Manual measurements may also be difficult where machinery is large, complex, elevated or surrounded by operating plant.

LiDAR scanning provides a detailed three-dimensional record of the equipment and its surroundings. The resulting point cloud can be used as a reference for developing an accurate SolidWorks model.

How LiDAR Scanning Supports the Study

A terrestrial LiDAR scanner records millions of measurement points across the visible surfaces of machinery, structures and plant.

The scan can help establish:

shaft and pivot locations;
hinge centres;
actuator mounting positions;
linkage lengths;
equipment orientation;
machine-frame geometry;
surrounding structural steel;
guards and access platforms;
nearby pipework;
operating clearances;
fixed obstructions.

This reduces reliance on assumptions and provides an engineering record of the existing condition at the time of capture.

How SolidWorks Is Used

Once the LiDAR data has been processed, the point cloud can be used to develop simplified or detailed SolidWorks models of the relevant machinery.

SolidWorks can then be used to:

create individual parts and assemblies;
locate pivots, shafts and mounting points;
define mechanical mates and joints;
simulate rotational and linear movement;
represent hydraulic-cylinder extension;
evaluate linkage positions;
calculate displacement, velocity and acceleration;
check component interference;
assess minimum clearances;
determine the swept path of moving equipment;
test proposed modifications before fabrication.

The surrounding plant can also be included as reference geometry so the machinery is analysed within its actual operating environment.

Typical LiDAR-to-SolidWorks Workflow

A typical workflow may include:

Capture the machinery and surrounding plant using a LiDAR scanner.
Register and process the scan data into a coordinated point cloud.
Import or reference the point cloud within the CAD workflow.
Identify the equipment required for the kinematic study.
Create simplified SolidWorks models of the moving components.
Position the models using the scanned geometry.
Define mates, joints, travel limits and actuator movement.
Run the SolidWorks motion study.
Review clearances, collisions and movement envelopes.
Develop recommendations, modifications or fabrication drawings.

Example: Hydraulic Chute Gate

A hydraulic chute gate may include a gate plate, pivot shaft, support frame and hydraulic cylinder.

A LiDAR scan can capture:

the existing chute geometry;
the gate position;
the pivot-shaft location;
upper and lower cylinder mounts;
surrounding structural steel;
platforms, guards and walkways;
nearby services and obstructions.

The geometry can then be recreated in SolidWorks to assess:

the gate opening angle;
the required cylinder stroke;
the relationship between cylinder travel and gate rotation;
potential dead-centre positions;
interference with the chute or surrounding steelwork;
clearances through the full operating cycle;
whether a proposed replacement cylinder will fit;
whether revised mounting points will improve movement.

This allows potential problems to be identified before components are manufactured or installed.

Collision and Interference Assessment

One of the main advantages of combining LiDAR with SolidWorks is the ability to assess moving machinery against the real site environment.

A standalone CAD model may show that a mechanism operates correctly. However, it may not reveal that the moving equipment could contact:

an existing handrail;
a structural beam;
electrical cable trays;
nearby pipework;
a maintenance platform;
machine guarding;
adjacent equipment.

By modelling the mechanism within the scanned environment, these conflicts can be identified before shutdown, fabrication or installation.

Evaluating Hydraulic Cylinders and Actuators

SolidWorks motion studies can assist with assessing actuator geometry, including:

extended and retracted cylinder lengths;
required stroke;
cylinder mounting angles;
connection-point movement;
mechanical advantage;
actuator alignment;
over-travel;
end-of-stroke position;
potential side loading;
approach to dead-centre conditions.

Where forces and loads must also be evaluated, the kinematic model may be expanded into a dynamic motion or structural assessment using suitable engineering inputs.

Benefits for Brownfield Engineering

LiDAR and SolidWorks are particularly valuable for brownfield projects where machinery must be modified within an existing facility.

The combined workflow can provide:

improved confidence in existing dimensions;
reduced dependence on outdated drawings;
fewer manual site measurements;
improved identification of site constraints;
better interference detection;
more reliable actuator selection;
improved design coordination;
reduced fabrication rework;
better shutdown planning;
clearer communication with stakeholders;
visual animations of proposed movement;
a documented digital record of existing conditions.

Static Scanning and Multiple Equipment Positions

A conventional terrestrial LiDAR scanner generally captures static geometry rather than continuously recording fast mechanical movement.

For this reason, equipment may be scanned in several controlled positions, such as:

fully closed;
partially open;
fully open;
maintenance position;
parked position.

These positions can be compared and used to confirm the geometry and range of movement.

Where actual operating speed or time-dependent behaviour is required, LiDAR data may be combined with:

video footage;
shaft encoders;
linear displacement sensors;
accelerometers;
control-system data;
hydraulic pressure records;
machine operating logs.

From Kinematic Study to Engineering Deliverables

The SolidWorks model developed from the LiDAR data can support more than the motion study itself.

Potential deliverables may include:

existing-condition 3D models;
kinematic study reports;
movement-envelope drawings;
interference reports;
clearance assessments;
actuator-stroke calculations;
SolidWorks motion animations;
general arrangement drawings;
modification concepts;
fabrication drawings;
installation planning models;
shutdown work packs;
stakeholder presentation images.

Applications

LiDAR-supported kinematic studies may be suitable for:

chute gates;
diverter gates;
conveyor take-up systems;
hydraulic linkages;
access doors;
lifting mechanisms;
maintenance hatches;
articulated machinery;
robotic systems;
positioning equipment;
stackers and reclaimers;
mobile plant attachments;
mechanical dampers;
valve-actuation systems;
machine guarding;
equipment relocation projects.

A More Reliable Basis for Mechanical Design

Combining LiDAR scanning with SolidWorks allows a kinematic study to be developed around the actual machine and the actual site environment.

LiDAR captures the existing geometry. SolidWorks converts that information into an intelligent mechanical model that can be moved, tested and reviewed.

Together, these tools can help engineers identify movement restrictions, confirm actuator requirements, assess clearances and test proposed modifications before work reaches fabrication or site installation.

LiDAR Scanning and SolidWorks Support

Hamilton By Design provides engineer-led 3D LiDAR scanning, point-cloud processing, SolidWorks modelling and mechanical design support for existing industrial machinery and brownfield facilities.

Our services can assist with:

existing-condition capture;
reverse engineering;
SolidWorks assembly modelling;
kinematic studies;
motion-envelope assessments;
interference checking;
actuator and linkage reviews;
mechanical modifications;
fabrication drawings;
installation planning.

For assistance with a kinematic study, machinery modification or LiDAR-based SolidWorks model, contact Hamilton By Design to discuss the equipment, required movement and project objectives.

Contact Us – Talk To Us

Call Us
Now

E-Mail Us
Now

Name

First

Last

Company / Organisation / Private Project

Your Role / Owner

Would you like us to arrange a phone consultation for you?

Phone

consultation arrange you?

Address

Address Line 1

Address Line 2

City

State / Province / Region

Postal Code

Country

Comment or Message

Our clients:

SolidWorks FEA Simulation

SolidWorks Design Services

SolidWorks 3D Modelling Services

Engineering-Grade LiDAR Scanning for Industrial & Mining Assets

26 July 20264 September 2026

LiDAR Scanning for ICAM Investigations | Hamilton By Design

LiDAR scanner and engineer documenting an industrial incident scene for an ICAM investigation using 3D point-cloud data.

LiDAR Scanning for ICAM Investigations

Accurate 3D Scene Capture to Support Industrial Incident Investigations

Following a workplace incident, investigators need reliable information about what occurred, where equipment was positioned and how the surrounding environment may have contributed to the event.

However, industrial incident scenes can change quickly. Mobile equipment may need to be recovered, damaged components may be removed, production areas may be cleaned, and temporary controls may be installed before the investigation is complete. Once these changes occur, important dimensional and spatial evidence may be difficult to recover.

Hamilton By Design provides engineering-led LiDAR scanning to support ICAM investigations across mining, mineral processing, manufacturing, heavy industry, transport, utilities and infrastructure.

LiDAR scanning creates a measurable three-dimensional record of the incident scene. The resulting point cloud can document plant, equipment, structures, access systems, ground conditions and surrounding infrastructure as they existed at the time of scanning.

The scan does not replace the ICAM investigation or determine the cause of an incident. Instead, it provides investigators, engineers and site representatives with accurate spatial evidence that can support fact-finding, incident reconstruction and engineering assessment.

What Is LiDAR Scanning for an ICAM Investigation?

LiDAR—Light Detection and Ranging—uses laser measurements to capture the position and geometry of physical objects. A terrestrial laser scanner records millions of measurement points from multiple positions around the investigation area.

These individual measurements are registered together to create a three-dimensional point cloud representing the incident scene.

Unlike photographs, which show the scene from selected viewpoints, a point cloud allows authorised project participants to return to the captured environment and take measurements after the site has changed.

The dataset may be used to examine:

Equipment positions and orientation
Distances between plant, people and structures
Clearances around machinery
Access and escape routes
Platform, stairway and handrail geometry
Vehicle travel paths
Ground levels and surface conditions
Impact locations and deformation
Sightlines from operator positions
The relationship between damaged components
The location of guards, barriers and controls

Hamilton By Design’s broader 3D laser scanning services are structured around engineering-grade reality capture and the practical use of point-cloud information.

Why Scan an Incident Scene?

Preserve a Measurable Record

Photographs, witness statements and site sketches are valuable parts of an investigation. However, they may not provide sufficient dimensional information to answer questions that arise later.

A registered point cloud creates a digital record that can be reviewed after equipment has been recovered, repaired or returned to service.

This can be particularly valuable when an investigation expands beyond the questions originally considered during the first site inspection.

Reduce Reliance on Assumptions

Industrial environments are often congested. Structures, conveyors, pipework, vehicles, platforms, guarding and electrical services may all occupy the same working area.

Without reliable measurements, investigators may need to estimate distances or rely on drawings that no longer reflect the installed condition.

LiDAR scanning captures the visible geometry of the actual scene. This gives investigators a stronger factual basis for examining the sequence of events and identifying areas requiring further technical review.

Support Engineering Analysis

An ICAM investigation may identify questions that require mechanical, structural or dimensional assessment.

For example:

Was the available clearance sufficient?
Could the operator see the relevant hazard?
Was equipment aligned with its intended travel path?
Did a structure deform before or during the incident?
Was access restricted by installed equipment?
Could a component move through the available space?
Where were barriers or exclusion-zone boundaries located?
Was the damaged equipment consistent with the documented arrangement?

The point cloud can provide the geometry needed for subsequent engineering models, drawings, clearance studies or deformation assessments.

When Should LiDAR Scanning Occur?

Where practicable, scanning should be considered after the site has been made safe and the appropriate incident-scene controls have been established, but before significant recovery, dismantling, repair or clean-up work begins.

Hamilton By Design works under the direction of the site’s authorised representatives. The investigation team, site management and relevant regulatory or legal stakeholders remain responsible for determining when access is permitted and what evidence-preservation requirements apply.

Before scanning, the proposed scope should identify:

The incident-scene boundaries
Areas that must not be disturbed
Site access and permit requirements
Existing hazards and exclusion zones
Required scan density
Critical components or interfaces
Survey-control requirements
Required photographs and supporting records
File formats and intended deliverables
Restrictions on data access and distribution

Early communication helps ensure the scan captures the information likely to be required during the investigation.

Notebook-style infographic explaining LiDAR scanning for ICAM investigations, including industrial scene capture, investigation benefits, industries, deliverables and recommended scan timing.

Applications Across Mining and Heavy Industry

Hamilton By Design provides engineering-grade 3D scanning for mining and industrial plants, where complex equipment arrangements can make conventional measurements difficult.

Mining and Mobile Plant

LiDAR scanning may support investigations involving:

Haul-truck collisions or rollovers
Light-vehicle and heavy-vehicle interactions
Dozer, loader and excavator incidents
Workshop maintenance events
Uncontrolled equipment movement
Tyre-handling and component-handling incidents
Falling objects or dropped loads
Damaged trays, chassis or mounting points
Equipment contact with structures or services

For incidents involving large mining vehicles, the scanner can capture both the vehicle and the surrounding environment. Hamilton By Design also provides specialised 3D laser scanning for mining haul trucks, supporting geometric assessment of trays, chassis, frames and associated components.

Coal Handling and Mineral Processing

CHPPs and mineral-processing facilities contain interconnected mechanical and structural systems. An incident in one area may involve several surrounding assets.

Relevant scenes may include:

Conveyors and transfer stations
Chutes, bins and hoppers
Access platforms and walkways
Structural steelwork
Drives, pulleys and rotating equipment
Pipework and services
Mobile equipment access areas
Maintenance and lifting zones

Our Hunter Valley CHPP scanning case study demonstrates how LiDAR can capture conveyors, chutes, structural steel, platforms, pipework and surrounding equipment as one coordinated existing-condition dataset.

Manufacturing and Processing Plants

Manufacturing incidents may involve machinery, guarding, access, workstations, forklifts or material-handling systems.

Scanning can document the physical relationship between the machinery, surrounding structures and the area in which the work was being performed.

Steelmaking, Smelting and Heavy Industry

Potential applications include crane and lifting incidents, vessel or ladle events, machinery failures, structural impacts and access-related incidents.

In these environments, remote measurement can also reduce the need to manually measure every feature within a complex or potentially hazardous area.

Ports, Rail and Logistics

LiDAR scanning can support investigations involving loading operations, vehicle interactions, rail infrastructure, conveyors, ship-loading equipment, warehouses and loading docks.

The point cloud may assist with vehicle-path analysis, clearance assessment, operator sightlines and the positioning of surrounding assets.

What Can Be Delivered?

Deliverables are selected according to the investigation requirements and may include:

Registered colourised point clouds
E57, RCP, RCS, LAS or other agreed point-cloud formats
Site overview images
Orthographic views
Plan, elevation and section drawings
Dimensional records
Equipment-position diagrams
Clearance measurements
3D CAD models of selected components
Comparison of damaged and reference geometry
Deformation or alignment assessments
Annotated investigation images
Scan-location and coverage records

The original scan data should generally be retained as the primary record. Any model, drawing or measurement extracted from the point cloud can then be treated as a derived deliverable.

Engineering-Led Evidence Capture

Hamilton By Design is not simply a scanning provider. Our background in mechanical engineering, drafting, fabrication and industrial plant allows the scanning strategy to be developed around how the data may be used.

During planning and capture, attention can be given to:

Mechanical interfaces
Potential movement paths
Structural connections
Damaged mounting points
Equipment alignment
Maintenance access
Guarding and barriers
Fabricated components
Areas of deformation
Critical dimensional relationships

This engineering-led approach helps avoid producing a visually impressive point cloud that does not capture the information needed for the investigation.

Service Locations

Hamilton By Design can provide LiDAR scanning for ICAM investigations throughout Australia, subject to access, availability and project requirements.

Priority service areas include:

Central Coast
Newcastle
Hunter Valley
Sydney
Wollongong and Port Kembla
Regional New South Wales
Brisbane
Central Queensland
Mount Isa
Perth
Kalgoorlie and regional Western Australia
Melbourne and regional Victoria

Projects can range from a local manufacturing incident to remote mining and mineral-processing sites requiring travel, inductions and coordinated site access.

Frequently Asked Questions

Does Hamilton By Design conduct the complete ICAM investigation?

Hamilton By Design primarily provides LiDAR scanning, dimensional evidence, engineering interpretation and 3D scene documentation to support the investigation. The formal ICAM process should remain under the control of the appointed investigation leader and authorised investigation team.

Can scanning determine the cause of an incident?

LiDAR scanning does not determine causation by itself. It records visible geometry and spatial relationships. The data can help investigators test assumptions, compare accounts and identify matters requiring further engineering analysis.

How soon after an incident should the site be scanned?

Scanning should generally occur as early as practicable after the area has been made safe and access has been authorised. Earlier capture reduces the risk that recovery, clean-up or repair activities will alter important spatial evidence.

Will the scanner disturb the incident scene?

Terrestrial LiDAR scanning is a non-contact measurement process. The scanner is positioned at selected locations and records visible surfaces without touching the equipment being examined. Access must still comply with site controls and evidence-preservation requirements.

Can measurements be taken after the site has been cleared?

Yes. One of the main benefits of a registered point cloud is that authorised users can return to the captured dataset and take additional measurements after the physical scene has changed.

Can LiDAR capture internal damage?

LiDAR records surfaces that are visible from a scan position. It cannot see through machinery, structures or enclosed components. Additional scans may be completed during controlled dismantling where staged documentation is required.

Can photographs be included?

Yes. Colour imagery, scanner photographs and separate site photographs may be used alongside the point cloud. Photographs provide visual context, while the point cloud provides measurable geometry.

Can the data be compared with existing drawings or models?

Yes. The point cloud can be compared with existing drawings, CAD models, manufacturer information or earlier scans to identify differences, movement, deformation or undocumented changes.

Is LiDAR scanning suitable for legal or insurance matters?

The data may assist legal advisers, insurers and technical specialists, but the required methodology, controls, data handling and expert evidence arrangements should be agreed before work begins. Hamilton By Design does not provide legal advice.

Arrange LiDAR Scanning for an ICAM Investigation

When an industrial incident occurs, preserving accurate spatial information can improve the quality of the subsequent engineering and incident analysis.

Hamilton By Design provides engineer-led LiDAR scanning to capture mining, industrial and infrastructure incident scenes before critical geometry is altered or removed.

Contact Hamilton By Design to discuss the incident location, access requirements, scene boundaries, required deliverables and the intended use of the scan data.

Contact Us – Talk To Us

Call Us
Now

E-Mail Us
Now

Name

First

Last

Company / Organisation / Private Project

Your Role / Owner

Would you like us to arrange a phone consultation for you?

Phone

/ consultation for

Address

Address Line 1

Address Line 2

City

State / Province / Region

Postal Code

Country

Comment or Message

Our clients:

3D Scanning for Mining Shutdown Projects

3D LiDAR Scanning for As-Built & Brownfield Engineering

Brownfield Port Engineering Services in Sydney

3D Laser Scanning for Industrial Plants

26 July 20266 September 2026

LiDAR Scanning for Mining and Industrial Shutdowns

Engineer using a FARO LiDAR scanner to capture an industrial plant during a planned shutdown for design, fabrication and as-built verification.

LiDAR Scanning for Industrial Shutdowns: Reducing Risk Across Mining, Ports, Manufacturing and Gas Facilities

Industrial shutdowns provide a limited opportunity to inspect, modify, repair and replace critical plant and infrastructure. Every activity must be carefully planned because unexpected site conditions, inaccurate drawings or poorly fitting components can delay the restart of an entire operation.

LiDAR scanning can reduce this uncertainty by capturing a detailed three-dimensional record of the plant before or during the shutdown. The resulting point-cloud data can support engineering design, fabrication, installation planning, clash detection and final as-built verification.

Hamilton By Design provides engineering-grade 3D laser scanning for mining and industrial plants, combining site capture with practical mechanical engineering, CAD modelling and fabrication experience.

Rather than treating scanning as a standalone surveying activity, the objective is to collect the right information for the engineering decisions that follow.

Why Accurate Existing-Condition Data Matters During a Shutdown

Shutdown projects often involve brownfield plant that has been modified repeatedly over many years. Existing drawings may be incomplete, outdated or inconsistent with the current installation.

Small dimensional discrepancies can create major problems when replacement equipment, structural steel, pipe spools, platforms or mechanical components arrive on site. Typical problems include:

Bolt holes that do not align
Pipe flanges with incorrect positions or orientations
Structural members that clash with existing services
Replacement equipment that cannot pass through the planned access route
Platforms or stairs that interfere with nearby plant
Insufficient crane, rigging or installation clearances
Fabricated components that require modification on site

These problems are particularly costly during a shutdown because labour, cranes, contractors and production schedules have already been committed.

LiDAR scanning helps establish a reliable geometric record of what is actually present. Millions of spatial measurements are collected to form a point cloud representing equipment, structures, pipework, access systems and surrounding plant.

This data can then be referenced during design and reviewed before fabrication begins.

Scanning Before, During and After a Shutdown

LiDAR scanning can be used at several stages of the shutdown lifecycle.

Pre-shutdown scanning

Scanning before the shutdown allows the project team to develop a detailed understanding of the existing plant while there is still time to resolve design issues.

Pre-shutdown scanning can support:

Existing-condition verification
Scope development
Mechanical and structural design
Pipework and flange tie-in verification
Equipment replacement planning
Clash detection
Removal and installation studies
Crane and rigging access reviews
Fabrication of replacement components
Constructability reviews

Where the plant remains operational, the scanning plan must consider moving equipment, restricted access, line-of-sight limitations and operational safety requirements.

Scanning during the shutdown

Some areas cannot be captured while the plant is operating. Guards, covers, liners, access panels and equipment components may need to be removed before the relevant geometry becomes visible.

Shutdown scanning can capture:

Internal chute geometry
Hidden equipment interfaces
Wear surfaces
Equipment mounting points
Flange faces and pipework connections
Internal vessel or tank conditions
Structural connections
Areas normally obstructed by operating equipment

This information can assist with unexpected conditions identified after isolation and disassembly.

Post-installation scanning

A final scan can provide an independent record of completed work. It may be used to verify equipment location, clearances, structural geometry and the final arrangement of modified plant.

Post-installation data can also support drawing updates, asset records and future maintenance planning.

LiDAR Scanning for Mining Shutdowns

Mining and mineral-processing facilities contain complex combinations of conveyors, chutes, crushers, screens, pumps, tanks, pipework and structural steel. These assets may operate continuously, leaving only short periods for major inspections and modifications.

Hamilton By Design provides dedicated 3D scanning for mining shutdown projects where reliable existing-condition information is required for plant upgrades and replacement works.

Typical mining shutdown applications include:

Chute and transfer-station replacement
Conveyor upgrades and realignment
Crusher and screen replacement
Pump and piping modifications
Hopper and bin refurbishment
Wear-liner replacement
Structural steel modifications
Platform, stair and handrail upgrades
Equipment foundation verification
Brownfield plant expansions

For a chute replacement, for example, the scan can capture the inlet and discharge interfaces, surrounding structural steel, conveyor geometry, pulley locations, maintenance access and nearby services.

The replacement chute can then be designed within the scanned environment, reducing reliance on isolated manual dimensions or outdated drawings.

LiDAR Scanning for Ports and Bulk Materials Handling

Ports and export terminals often contain large mobile and fixed assets operating around restricted shipping and loading schedules. Access may involve work at height, over water or around active bulk-materials-handling equipment.

LiDAR scanning can support shutdown and maintenance work involving:

Ship loaders and unloaders
Conveyors and transfer towers
Hoppers and loading chutes
Gantries and structural frames
Wharf infrastructure
Rail-mounted equipment
Maintenance platforms
Access stairs and walkways
Hydraulic and mechanical systems
Pipework and services

Scanning is particularly useful when a project requires an understanding of the relationship between multiple systems rather than one isolated dimension.

A ship-loader modification, for example, may require verification of structural geometry, conveyor interfaces, maintenance clearances, access routes and the position of nearby equipment. Capturing these elements within one coordinated point cloud gives designers a broader understanding of the installation environment.

It can also reduce repeated site visits and the amount of time personnel need to spend in difficult-access areas.

LiDAR Scanning for Manufacturing Shutdowns

Manufacturing facilities commonly schedule maintenance and installation work over weekends, public holidays or planned production shutdowns. The available period may be extremely limited, and a delayed restart can affect production targets, customers and downstream operations.

Applications include:

Production-line modifications
New machinery installation
Equipment relocation
Ducting and extraction upgrades
Process-pipework modifications
Utility-routing studies
Machine guarding
Platforms and access systems
Equipment foundation verification
Factory layout documentation

LiDAR scanning can capture the relationship between machinery, building structures, overhead services, pipework, platforms and access areas.

This is valuable when new equipment is being designed or supplied before the existing machinery is removed. The proposed installation can be modelled within the scanned environment to identify possible clashes and confirm maintenance access.

Scanning can also document areas that become visible only when the production line is shut down, cleaned or partially dismantled.

LiDAR Scanning for Gas and Process Facilities

Gas and process facilities require careful management of brownfield interfaces, hazardous areas, permits, isolation requirements and engineering records.

Common scanning applications include:

Pipe-rack documentation
Brownfield piping tie-ins
Flange-position verification
Valve and instrument access studies
Vessel and skid replacement
Nozzle-position verification
Pipe-support modifications
Structural framing upgrades
Removal and installation-path studies
As-built documentation

Where pipe spools are fabricated before a shutdown, accurate tie-in information is essential. The position, angle and orientation of each connection must be correctly understood.

LiDAR scanning can provide a detailed spatial reference for pipework and surrounding plant. However, critical flange faces, bolt patterns and connection details may also require verification using traditional measurement methods or appropriate survey controls.

Scanning should therefore form part of a fit-for-purpose measurement strategy rather than being applied without consideration of the required tolerance.

From Point Cloud to Engineering Deliverables

A point cloud is a valuable source of information, but it is not automatically an engineering solution.

The required deliverables should be established before scanning begins. Hamilton By Design integrates scanning with SMP project delivery and brownfield engineering workflows so that the captured data can be converted into information suited to the project.

Potential deliverables include:

Registered E57, RCP, RCS or LAS point clouds
Existing-condition CAD models
SolidWorks or Inventor assemblies
STEP, SAT or Parasolid geometry
AutoCAD plans and layouts
General arrangement drawings
Plans, sections and elevations
Fabrication-reference models
Pipe and flange interface records
Clash-detection models
Existing-condition reports
Redline and as-built drawing updates

The required modelling level should reflect the intended use. A broad plant-layout study may only require simplified geometry, while a shutdown-critical fabricated component may require more detailed modelling and verification of specific interfaces.

Planning a Fit-for-Purpose Shutdown Scan

A successful scan begins with a clear understanding of the project problem.

Before mobilising, the scanning team should consider:

What is being designed, replaced or inspected?
Which dimensions and interfaces are critical?
What equipment will be operating?
What becomes accessible only during the shutdown?
What scan density and coverage are required?
Are survey controls required?
Are there hazardous-area restrictions?
Will dust, steam, rain or reflective surfaces affect capture?
What file formats are required?
What CAD or drawing deliverables will be produced?

The scanning envelope should include more than the immediate component. Surrounding structures, services, access routes and potential clash points may be equally important.

Hamilton By Design’s broader engineering services allow scanning information to be reviewed in the context of mechanical design, plant modifications, constructability and fabrication requirements.

Frequently Asked Questions

Can LiDAR scanning be completed while the plant is operating?

Yes, in many situations. However, moving machinery, mobile equipment, dust, restricted access and safety requirements must be considered. Some areas may need to be captured after isolation or during the shutdown.

How accurate is industrial LiDAR scanning?

Accuracy depends on the scanner, distance, environment, registration method, surface condition and required deliverable. The project tolerance should be established before scanning. Critical interfaces may require additional verification.

Can scanning prevent fabricated components from not fitting?

Scanning can significantly reduce fit-up risk by providing accurate existing-condition geometry. It cannot eliminate every risk, particularly where surfaces are hidden or project tolerances have not been properly defined.

What can be scanned during a mining shutdown?

Typical assets include conveyors, chutes, crushers, screens, hoppers, pipework, tanks, equipment bases, platforms, stairs, handrails and structural steel.

Can point-cloud data be converted into CAD?

Yes. Relevant geometry can be converted into SolidWorks, Inventor or AutoCAD models and drawings. The amount of modelling required depends on the intended engineering use.

Does every part of the point cloud need to be modelled?

No. Modelling the entire environment may add unnecessary cost and time. A fit-for-purpose model should focus on the equipment, structures and interfaces needed for the project.

Can scanning be used for pipework tie-ins?

Yes. It can capture pipe routes, surrounding structures, supports and connection locations. Critical flange and tie-in details should be verified to the accuracy required for fabrication.

When is the best time to complete the scan?

Where possible, an initial scan should be completed early enough to support design and fabrication. Additional scanning may be undertaken during the shutdown when hidden areas become accessible.

Reduce Shutdown Uncertainty with Engineering-Led LiDAR Scanning

The primary value of LiDAR scanning during a shutdown is not simply the speed of measurement. Its value comes from reducing uncertainty before fabrication and installation begin.

By capturing the plant accurately, project teams can identify clashes, verify interfaces, plan access and develop modifications against the actual site environment.

For mining, ports, manufacturing and gas facilities, engineering-led LiDAR scanning can support safer planning, improved fit-up and a more controlled return to operation.

Contact Hamilton By Design to discuss the scanning envelope, required accuracy, site conditions and engineering deliverables for your next shutdown project.