Manufacturing Layout Design Using SolidWorks and 3D Laser Scanning

Manufacturing Layout Design Brisbane Using 3D Laser Scanning

Manufacturing layout projects often begin with a straightforward question:

Where should the new equipment be installed?

The practical answer usually requires much more than measuring an available area on the factory floor.

A reliable manufacturing layout must consider the position of existing machinery, structural columns, overhead steelwork, factory services, conveyors, operator access, maintenance clearances, forklift movement and the installation path for the proposed equipment.

Hamilton By Design provides manufacturing layout design services across Australia, including support for manufacturing and industrial facilities throughout Brisbane and South East Queensland.

By combining engineering-grade 3D laser scanning, mechanical engineering and coordinated CAD modelling, proposed factory layouts can be developed around measurable existing conditions.

Manufacturing layout design in Australia showing a 3D laser-scanned factory, production lines, industrial equipment, conveyors and a FARO LiDAR scanner.

Why Accurate Factory Layouts Matter

Manufacturing facilities often develop incrementally.

New machinery is installed, production lines are altered, services are rerouted and structures are modified as operational requirements change.

Over time, the available drawings may no longer represent the current factory.

This can create uncertainty when planning:

new machinery installations
production-line modifications
conveyor extensions
equipment replacement
factory expansions
process changes
access platforms
service connections
maintenance shutdowns

A basic floor plan may show the factory walls and major equipment positions, but it may not show the overhead constraints, surrounding services or access requirements that affect the proposed installation.

A manufacturing layout developed from accurate site information can help identify these constraints before machinery is ordered, fabricated or delivered to site.

3D Laser Scanning for Brisbane Manufacturing Facilities

Hamilton By Design can use engineering-grade 3D laser scanning to capture the visible condition of an existing factory or production area.

A terrestrial LiDAR scanner records millions of measurable points across the surrounding environment.

Multiple scan positions can be registered together to create a coordinated point cloud showing:

factory walls
floor levels
structural columns
roof beams
production machinery
tanks and vessels
conveyors
chutes and transfer equipment
platforms and stairs
pipework
ventilation systems
cable trays
access routes
nearby services

The point cloud provides a spatial reference for the proposed manufacturing layout.

Rather than relying only on manual measurements, the modeller can review the new equipment against the surrounding factory environment.

Capturing Congested Production Areas

Industrial production areas can be difficult to measure manually.

Machinery may be closely arranged, while pipework, ducting, cable trays and structural steel can restrict visibility and physical access.

Manual measurement can also be challenging where:

production must remain operational
access time is limited
equipment is difficult to reach
overhead services affect the layout
several machines must be coordinated
existing drawings are incomplete
shutdown periods are short

Laser scanning can capture a broad area from multiple positions while reducing the need to measure every feature individually.

The resulting point cloud can then be reviewed offsite during the layout-development process.

Developing Manufacturing Layouts from Point-Cloud Data

The point cloud can be imported into suitable design and coordination software as a reference for layout development.

Depending on the project, selected factory features may be converted into simplified or detailed CAD geometry.

These may include:

floors
walls
structural columns
overhead beams
adjacent machinery
conveyors
access platforms
major services
equipment foundations
installation interfaces

It is not always necessary to model the entire factory.

The modelling scope can focus on the objects that influence the proposed machinery installation or production-line change.

This targeted approach helps retain the required spatial information without creating unnecessary modelling work.

Positioning Supplier Equipment Models

New manufacturing machinery is commonly supplied with a three-dimensional CAD model.

Supplier models may be available as:

STEP files
SAT files
Parasolid files
SolidWorks assemblies
Autodesk Inventor models
IFC files
Revit models

These models can be positioned within the existing-condition factory environment.

This allows the project team to review:

equipment orientation
overall footprint
loading and discharge points
operator positions
control-panel access
maintenance zones
removal clearances
conveyor connections
service interfaces
surrounding structures

Where a detailed supplier model is unavailable, a simplified equipment envelope may be developed from drawings, specifications or measurements.

Brisbane Production-Line Layouts

Production-line modifications often involve several connected machines rather than one isolated item of equipment.

A proposed line may include:

processing equipment
conveyors
packaging machinery
inspection stations
robotic cells
workstations
palletising equipment
storage or accumulation areas
dust-extraction systems
product-transfer equipment

Changing the position of one machine may affect every connected process downstream.

A coordinated layout can help review the complete production sequence and identify whether the proposed arrangement supports efficient movement through the facility.

Material Flow Through the Factory

Manufacturing layout design should consider how materials and products move between each stage of production.

Depending on the facility, this may include:

raw-material delivery
initial processing
transfer between machines
product accumulation
packaging
palletising
finished-goods storage
waste handling
dispatch

The layout may also need to account for:

forklift routes
pallet movement
pedestrian walkways
loading zones
cleaning access
maintenance activities
emergency access

A machine may fit physically within the available floor space while creating a poor material path or a conflict with existing traffic movements.

Reviewing these issues during the layout stage can support a more practical factory arrangement.

Conveyor Layouts and Equipment Interfaces

Conveyors are frequently used to connect manufacturing equipment.

Their position is influenced by:

equipment inlet and outlet locations
transfer heights
conveyor centre lines
product direction
drive and take-up positions
support structures
guarding
cleaning access
maintenance clearances
overhead and floor-level constraints

A conveyor should be coordinated with the machinery and factory layout rather than treated as a separate item after the equipment positions have been finalised.

The scanned factory environment can help identify potential conflicts with columns, beams, pipework, platforms or other surrounding assets.

Maintenance and Equipment-Removal Access

A practical manufacturing layout must provide enough space to maintain the equipment after installation.

This may include access for:

motors
gearboxes
bearings
pumps
valves
conveyor pulleys
machine guards
electrical cabinets
inspection panels
removable covers

The design may also need to consider how major components will be removed.

Equipment-removal planning can involve:

forklift access
overhead crane access
mobile lifting equipment
withdrawal paths
temporary removal of surrounding components
removable handrails
maintenance platforms
access through doors or roller shutters

Clearance zones can be represented within the CAD layout to help communicate these requirements.

Factory Services and Utilities

Manufacturing machinery commonly requires connections to existing services.

These may include:

electrical power
compressed air
water
steam
gas
drainage
hydraulic systems
ventilation
dust extraction
data and controls
process pipework

The available service locations can influence where machinery should be positioned.

Laser scanning can capture visible service routes, while the coordinated layout can help assess possible connections and routing constraints.

Brownfield Manufacturing Projects in Brisbane

Brownfield manufacturing projects involve modifying an existing operating facility.

These projects may need to account for:

restricted shutdown windows
limited installation space
active production areas
incomplete drawings
multiple equipment interfaces
access restrictions
surrounding services
structural constraints

Identifying potential conflicts during layout development can help reduce changes during fabrication and installation.

Examples of issues that may be identified include:

machinery clashing with a structural column
insufficient space to remove a motor
conveyor alignment conflicts
inaccessible control panels
clashes with overhead services
inadequate lifting access
restricted forklift movement
insufficient cleaning space

Resolving these issues digitally can be less disruptive than resolving them during installation.

Manufacturing Layout Deliverables

Manufacturing-layout deliverables can be tailored to the project stage and intended use.

Typical outputs may include:

registered point-cloud data
existing-condition floor plans
proposed equipment layouts
production-line arrangements
conveyor layouts
general arrangement drawings
sections and elevations
coordinated 3D CAD models
supplier-model coordination
maintenance-clearance studies
equipment-removal envelopes
clash-review models
installation drawings
fabrication drawings
PDF drawing packages
DWG and DXF files
STEP, SAT or Parasolid models
SolidWorks or Autodesk Inventor files

The deliverable scope should be defined at the beginning of the project so the scanning and modelling effort is matched to the intended outcome.

A Staged Manufacturing Layout Process

A staged approach can help keep the project focused and allow the layout to develop progressively.

Stage 1 — Define the requirement

Confirm the machinery, production objective, available information and required deliverables.

Stage 2 — Review existing drawings

Assess the reliability of factory plans, supplier drawings and available CAD models.

Stage 3 — Scan the relevant factory area

Capture the machinery, structures, services and access constraints that influence the project.

Stage 4 — Register the point cloud

Combine the individual scan positions into a coordinated dataset.

Stage 5 — Develop the existing-condition reference

Model or identify the factory features required for the project.

Stage 6 — Import the proposed equipment

Position supplier models or simplified equipment envelopes within the layout.

Stage 7 — Develop layout options

Compare alternative machinery arrangements where appropriate.

Stage 8 — Review access and interfaces

Assess maintenance, material flow, services, conveyors, structures and installation requirements.

Stage 9 — Prepare drawings and models

Develop the selected layout into coordinated engineering documentation.

Stage 10 — Verify the installed condition

Where required, complete additional scanning or drawing updates after installation.

Manufacturing Layout Support Across Brisbane

Manufacturing layout and 3D laser-scanning services can support projects across Brisbane and surrounding industrial areas, including:

Brisbane
Wacol
Darra
Rocklea
Acacia Ridge
Eagle Farm
Pinkenba
Hemmant
Murarrie
Lytton
Carole Park
Brendale
Logan
Ipswich
Redlands
Moreton Bay

Projects can also be supported throughout regional Queensland where industrial, manufacturing or processing facilities require accurate existing-condition information.

Why Combine LiDAR Scanning with Manufacturing Layout Design?

A manufacturing layout is more reliable when the proposed equipment is coordinated with the actual factory environment.

Combining LiDAR scanning with mechanical engineering and CAD modelling can help project teams:

understand the available space
coordinate machinery and conveyors
identify clashes
review maintenance access
plan equipment removal
assess installation paths
coordinate supplier models
improve layout drawings
reduce site uncertainty
support contractor planning

The process creates a practical link between the existing facility and the proposed manufacturing changes.

Learn More About Manufacturing Layout Design

Hamilton By Design provides engineer-led manufacturing layout design, factory scanning, equipment coordination and mechanical drafting support throughout Brisbane and across Australia.

The service can support machinery installations, production-line modifications, conveyor layouts, factory expansions and brownfield industrial upgrades.

Read the main service page:

Manufacturing Layout Design Australia – Hamilton By Design

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