FMCG 3D LiDAR Scanning Australia | Food & Beverage Plants

FMCG 3D LiDAR scanning in an Australian food and beverage manufacturing plant showing a FARO laser scanner, production line and point-cloud overlay.

FMCG 3D LiDAR Scanning Australia

Engineering-Grade 3D Laser Scanning for Food, Beverage, Packaging and Fast-Moving Manufacturing Facilities

Fast-moving consumer goods manufacturing is built around production.

Food, beverage, packaging and consumer-product facilities depend on machinery, conveyors, pipework, utilities, structural steel and automated systems operating together in increasingly congested production environments.

The challenge is that these facilities rarely remain exactly as they were originally designed.

Production lines change. New machinery is installed. Conveyors are extended. Pipework is rerouted. Packaging systems are replaced. Platforms are modified. Automation is introduced. Utilities are relocated.

Over time, the physical factory can become significantly different from the drawings available to the engineering team.

Hamilton By Design provides FMCG 3D LiDAR scanning services across Australia, capturing accurate existing factory conditions to support production-line upgrades, machinery installation, plant modifications, engineering design and as-built documentation.

Our approach combines engineering-grade reality capture with mechanical engineering, 3D CAD modelling and drafting so the captured data can be used to solve practical industrial problems.

For projects requiring the captured factory to be developed into coordinated BIM or digital models, see our Factory Scan to BIM Australia service.


The Biggest Problem: The Factory Changes Faster Than the Drawings

One of the biggest engineering problems within an FMCG facility is not necessarily the machinery itself.

It is knowing exactly what is already there.

Food, beverage and consumer-goods factories can undergo numerous modifications during their operating life.

Individual projects may alter:

  • production machinery;
  • conveyors;
  • packaging lines;
  • pipework;
  • valves;
  • pumps;
  • ducting;
  • structural steel;
  • access platforms;
  • guarding;
  • cable trays;
  • electrical services;
  • compressed-air systems;
  • process utilities;
  • equipment foundations; and
  • maintenance access.

Those changes are not always incorporated into the original drawings.

The result is a familiar brownfield engineering problem:

Tomorrow’s production equipment may be designed using yesterday’s factory information.

In an FMCG environment, this becomes particularly important because installation work may need to occur during tightly controlled shutdown periods.

If a new machine, conveyor, platform, pipe spool or structural component does not fit when it arrives on site, the problem can quickly become more than an engineering inconvenience.

It can affect production.

3D LiDAR scanning helps reduce this uncertainty by creating a measurable digital record of the facility as it exists today.


What Is FMCG 3D LiDAR Scanning?

3D LiDAR scanning uses laser measurements to capture the geometry of an existing factory, production line or industrial environment.

Multiple scanner positions can be combined to create a registered 3D point cloud representing the physical facility.

The point cloud can capture the spatial relationship between:

  • machinery;
  • conveyors;
  • pipework;
  • platforms;
  • structures;
  • services;
  • equipment;
  • access areas; and
  • surrounding building geometry.

Hamilton By Design’s 3D Laser Scanning for Engineering Projects service is focused on using captured site information as an engineering resource rather than simply producing a visual scan.

Depending on the project, the resulting information can support:

  • 3D CAD modelling;
  • Scan to BIM;
  • equipment layout design;
  • general arrangement drawings;
  • existing-condition documentation;
  • clash assessment;
  • mechanical design;
  • fabrication planning; and
  • installation engineering.

Why 3D Scan an FMCG Factory?

Traditional site measurement can work well when only a small number of dimensions are required.

The difficulty arises when a project has to interact with an entire production environment.

A single equipment installation may need to account for:

  • floor levels;
  • surrounding machinery;
  • access clearances;
  • structural columns;
  • overhead steelwork;
  • pipework;
  • cable trays;
  • conveyors;
  • maintenance access;
  • operator access;
  • hygiene zones; and
  • installation pathways.

Rather than attempting to predict every dimension that may be required later, 3D laser scanning captures a broader representation of the existing environment.

This provides engineers with a digital reference that can be reviewed after the site visit.

For broader manufacturing and industrial projects, Hamilton By Design also provides 3D Laser Scanning for Industrial Plants, combining plant capture with point-cloud-to-CAD, Scan to BIM and engineering applications.


3D Scanning for Food Manufacturing Plants

Food manufacturing facilities can contain complex combinations of processing machinery, conveyors, pipework, tanks, vessels, platforms and building services.

A proposed upgrade may need to integrate into an operating environment where space is already heavily utilised.

3D LiDAR scanning can support projects involving:

  • process-line modifications;
  • new production equipment;
  • conveyor changes;
  • packaging-line upgrades;
  • pipework modifications;
  • plant-room alterations;
  • new platforms and access;
  • utility changes; and
  • factory redevelopment.

Existing-condition capture can be particularly valuable where the original drawings are incomplete or numerous plant changes have occurred over time.

Hamilton By Design already supports food, beverage and manufacturing businesses through its broader Mechanical Engineering Services on the Central Coast, including plant upgrades, component replacement and 3D LiDAR scanning.


3D Laser Scanning for Beverage Plants

Beverage-production facilities often combine process equipment with extensive pipework, tanks, conveyors, filling machinery and packaging systems.

A relatively small modification can therefore involve several engineering interfaces.

Typical applications may include:

  • bottling-line modifications;
  • filling equipment;
  • tank installations;
  • process pipework;
  • conveyor rerouting;
  • packaging equipment;
  • palletising systems;
  • structural platforms;
  • access modifications; and
  • service coordination.

Capturing the surrounding environment before design begins provides a more reliable basis for positioning new equipment and identifying potential conflicts.


Packaging-Line 3D Scanning

Packaging lines can involve closely integrated machinery operating within limited floor space.

Equipment may include:

  • fillers;
  • cappers;
  • labellers;
  • wrappers;
  • case packers;
  • carton systems;
  • conveyors;
  • inspection equipment;
  • palletisers; and
  • robotic handling systems.

When one piece of machinery is replaced, the new equipment may still have to connect with the existing upstream and downstream production systems.

3D scanning can capture those interfaces so the engineering team can assess the available space before the replacement equipment is installed.


Production-Line Modifications

Production lines evolve.

New products may require different machinery.

Higher throughput may require new conveying systems.

Manual operations may be automated.

Existing machines may need to move.

The surrounding factory does not necessarily move with them.

This means a production-line modification may have to fit between existing machinery, structural columns, platforms, services and access areas.

An engineering-grade point cloud can provide the design team with an accurate reference for developing the revised production layout.

For projects where a full digital representation of the factory is required, our Factory Scan to BIM Australia service can convert existing-condition capture into practical BIM and CAD information for factory upgrades.


New Machinery and Equipment Installation

Installing new equipment into an existing FMCG factory is fundamentally different from placing machinery in an empty building.

The proposed machine may need to fit around:

  • existing production equipment;
  • conveyors;
  • structural steel;
  • services;
  • access routes;
  • maintenance zones;
  • existing foundations;
  • floor penetrations;
  • overhead obstructions; and
  • operator working areas.

3D scanning before detailed design can help establish these interfaces.

The proposed equipment can then be modelled within the captured environment.

This can assist the engineering team in answering practical questions such as:

Will the machine fit?

Can it be installed?

Can it be maintained once installed?

Will existing equipment obstruct access?

Do surrounding services need to move?

Will the new conveyor align with the existing production line?


Brownfield Engineering for FMCG Facilities

Most existing FMCG upgrade projects are brownfield projects.

The new engineering has to work around what already exists.

This may include equipment installed decades earlier, later modifications, undocumented steelwork, relocated services and machinery that cannot easily be moved.

Hamilton By Design’s broader Engineering Services combine reality capture with mechanical engineering, modelling and drafting for brownfield and retrofit projects.

The advantage of integrating scanning with engineering is that the scanning strategy can be developed around what the project team actually needs to design.

The purpose is not simply to capture everything.

The purpose is to capture the information required to make better engineering decisions.


FMCG Factory As-Built Surveys

Accurate as-built documentation can be difficult to maintain in a continuously evolving production facility.

Drawings may show what was originally installed rather than what exists today.

A LiDAR-based as-built survey can create a new spatial reference for the factory.

This may be useful where:

  • drawings are unavailable;
  • existing drawings are outdated;
  • equipment has moved;
  • pipework has changed;
  • platforms have been added;
  • production systems have been modified;
  • multiple contractors have changed the facility; or
  • future upgrades are being planned.

For larger digital documentation projects, Hamilton By Design’s national Scan to BIM Australia services provide a pathway from measured reality to structured digital models.


Scan Before the Shutdown

Production shutdowns can represent one of the most expensive periods of an FMCG engineering project.

The installation window may be fixed while numerous contractors and activities compete for access.

Where practical, scanning before the shutdown allows engineering work to begin while the plant is still operating.

A typical workflow can become:

3D Site Scanning

โ†“

Point-Cloud Registration

โ†“

Existing-Condition Review

โ†“

3D CAD Modelling

โ†“

Engineering Design

โ†“

Fabrication Planning

โ†“

Shutdown Installation

The more engineering that can be completed before the shutdown begins, the less work needs to be resolved while production is offline.

Hamilton By Design’s 3D Laser Scanning for Engineering service is specifically focused on using accurate existing-condition data to support brownfield upgrades, shutdown engineering and fabrication planning.


Conveyor and Materials-Handling 3D Scanning

Conveyors are common throughout FMCG production and packaging systems.

They may connect several machines across a production line and frequently pass beneath or around existing structures and services.

3D scanning can capture:

  • conveyor centre lines;
  • conveyor elevations;
  • support frames;
  • transfer locations;
  • machinery interfaces;
  • surrounding structures;
  • access areas;
  • guarding;
  • platforms; and
  • overhead restrictions.

This information can support conveyor extensions, production-line changes and new machinery integration.


Pipework, Utilities and Factory Services

Food, beverage and FMCG plants can contain extensive networks of mechanical and electrical services.

Depending on the facility, these may include:

  • process pipework;
  • compressed air;
  • water;
  • steam;
  • cleaning systems;
  • drainage;
  • electrical services;
  • cable trays;
  • ventilation;
  • ducting; and
  • equipment utilities.

These services often occupy congested spaces above, below and around production equipment.

3D laser scanning provides a way to capture their spatial relationship to the surrounding factory.

The resulting point cloud can then support routing studies, plant modifications and equipment connections.


Structural Steel, Platforms and Access

New equipment does not exist independently of the surrounding structure.

Manufacturing facilities may contain:

  • structural columns;
  • beams;
  • roof trusses;
  • equipment support structures;
  • platforms;
  • stairs;
  • handrails;
  • equipment frames;
  • walkways; and
  • mezzanines.

Capturing this geometry provides engineers with a reference when developing equipment layouts or assessing structural interfaces.


From FMCG Point Cloud to CAD and BIM

The registered point cloud is only the starting point.

Depending on the project requirement, captured factory information can be converted into engineering geometry.

This may include:

  • SolidWorks models;
  • AutoCAD drawings;
  • BIM models;
  • equipment layouts;
  • mechanical arrangements;
  • structural interfaces;
  • sections and elevations;
  • general arrangement drawings;
  • fabrication reference geometry; and
  • existing-condition models.

Hamilton By Design’s Scan to BIM Sydney service demonstrates the broader workflow of combining LiDAR scanning with BIM to establish accurate digital representations for design, maintenance and asset-management applications.


Engineer-Led FMCG 3D Scanning

A factory can be scanned in many different ways.

The most appropriate scanning strategy depends on what the project needs to achieve.

An engineering-led approach considers questions such as:

  • What is being modified?
  • Which interfaces are critical?
  • What equipment is being replaced?
  • Which dimensions will matter during installation?
  • Does the surrounding structure need to be modelled?
  • What CAD system will be used?
  • Does fabrication need to occur before the shutdown?
  • Which areas are difficult to access?
  • What level of modelling is actually required?

Hamilton By Design combines 3D scanning with mechanical engineering and design experience so the scanning scope can be developed around the downstream engineering requirement.


FMCG 3D LiDAR Scanning Across Australia

Hamilton By Design provides FMCG, factory and industrial 3D laser scanning services for projects across Australia.

We can support projects in:

  • Sydney;
  • Newcastle;
  • Central Coast NSW;
  • Wollongong;
  • Brisbane;
  • Gold Coast;
  • Melbourne;
  • Adelaide;
  • Perth;
  • Darwin;
  • regional NSW;
  • regional Queensland;
  • regional Victoria;
  • regional South Australia;
  • regional Western Australia; and
  • other industrial locations throughout Australia.

For broader national reality-capture requirements, see our 3D Laser Scanning services.


FMCG Industries We Can Support

3D LiDAR scanning can support a wide range of fast-moving manufacturing environments, including:

  • food manufacturing;
  • beverage production;
  • dairy processing;
  • bakeries;
  • bottling plants;
  • breweries;
  • confectionery;
  • frozen-food production;
  • meat processing;
  • packaging plants;
  • consumer-product manufacturing;
  • personal-care manufacturing;
  • household-product manufacturing;
  • warehousing;
  • logistics;
  • automated production;
  • palletising facilities; and
  • general manufacturing.

The common requirement is an existing production environment where new engineering must fit around the real facility.


Typical FMCG 3D Scanning Deliverables

Project deliverables can be tailored to suit the downstream engineering workflow and may include:

  • registered 3D point clouds;
  • E57 files;
  • RCP/RCS datasets;
  • LAS files;
  • 3D CAD models;
  • BIM models;
  • SolidWorks models;
  • STEP files;
  • SAT files;
  • AutoCAD DWG files;
  • DXF files;
  • general arrangement drawings;
  • sections;
  • elevations;
  • equipment layouts;
  • existing-condition plans; and
  • engineering documentation.

Not every project requires every deliverable.

The appropriate output should be determined by what the engineering team needs to achieve.


Frequently Asked Questions

What is FMCG 3D LiDAR scanning?

FMCG 3D LiDAR scanning uses laser-based reality capture to document the existing geometry of food, beverage, packaging and consumer-goods manufacturing facilities. The resulting point cloud can support engineering, CAD, BIM and plant-upgrade projects.

Can you scan an operating food or manufacturing factory?

Many facilities can be scanned while normal operations continue, subject to site safety requirements, access restrictions and the nature of the production process.

Can production machinery be included in the scan?

Yes. Machinery, conveyors, structural steel, platforms, services, pipework and surrounding building geometry can be captured according to the requirements of the project.

Can scanning help before installing new machinery?

Yes. Capturing the surrounding environment before equipment installation allows the proposed machinery and its interfaces to be evaluated against existing factory geometry.

Can you scan conveyor systems?

Yes. Conveyor geometry, supports, interfaces, transfers, surrounding structures and associated equipment can be included in the scan.

What happens if our factory drawings are outdated?

This is one of the main reasons to consider reality capture. 3D scanning records the existing physical condition rather than relying entirely on legacy drawings.

Can FMCG scan data be used for Scan to BIM?

Yes. Where required, point-cloud information can be developed into BIM or CAD models. See our Factory Scan to BIM Australia service for more information.

Can the scan data be used in SolidWorks?

Point-cloud information can be used as reference data for developing appropriate engineering geometry for SolidWorks workflows.

Do you provide FMCG 3D scanning outside Sydney?

Yes. Hamilton By Design supports 3D laser scanning and engineering projects throughout Australia.


Planning an FMCG Factory Upgrade?

A successful factory modification starts with understanding what is already there.

Before designing a new production line, installing machinery, modifying conveyors or fabricating equipment around old drawings, capture the existing facility accurately.

Hamilton By Design provides FMCG 3D LiDAR scanning, Factory Scan to BIM, mechanical engineering, 3D modelling and drafting services across Australia.

Our goal is to provide engineering teams with a reliable digital starting point for brownfield projects where fit, access, interfaces and shutdown duration matter.

Capture the existing factory. Understand the interfaces. Engineer the upgrade around reality.


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Gold Mine 3D Scanning NSW | Mineral Processing Engineering

Gold mine 3D scanning NSW infographic showing a mineral processing plant, LiDAR point cloud, CAD model, conveyors, chutes and mechanical engineering services.

Gold processing plants across Central West NSW are continually changing. Conveyors are extended, chutes are replaced, pumps are upgraded, platforms are modified, pipework is rerouted and new equipment is installed around infrastructure that may have been operating for decades.

The challenge is that the engineering drawings available for an established plant do not always represent what actually exists on site.

For brownfield projects, even a relatively small dimensional discrepancy can result in fabrication problems, clashes, installation delays or additional work during a planned shutdown.

Hamilton By Design provides engineer-led 3D laser scanning, mechanical engineering, reverse engineering and CAD modelling to support gold mines and mineral-processing facilities throughout regional NSW.

Our broader Mining NSW engineering and 3D scanning services support mine operators, engineering teams, maintenance departments and contractors that need reliable existing-condition information before plant modifications are designed.

Engineering Starts With Understanding What Is Actually There

A common challenge in an operating gold processing plant is the difference between the original design and the plant’s current configuration.

Over years of operation, equipment may have been replaced, structural steel altered, platforms added and process lines rerouted. Maintenance modifications may never have been incorporated into the original drawings.

When another upgrade is required, engineers can therefore find themselves designing from incomplete or inaccurate information.

Engineering-grade 3D LiDAR scanning provides another approach.

Hamilton By Design can capture the existing plant as a detailed three-dimensional point cloud, providing a measurable representation of equipment, structures and surrounding interfaces.

For regional projects, our engineering-grade 3D LiDAR scanning in Parkes NSW demonstrates how this approach can be applied to processing plants, conveyors, transfer points, structural steel, pipework and access platforms throughout Central West NSW.

The objective is simple:

Scan the existing plant before designing the modification.

What Can Be Captured in a Gold Processing Plant?

Terrestrial LiDAR scanning is particularly useful where many different systems occupy a congested area.

A scanning scope can include:

  • crushers and screens;
  • conveyors and transfer stations;
  • chutes and hoppers;
  • feeders;
  • pumps and pump bases;
  • pipework;
  • tanks and process equipment;
  • structural steel;
  • maintenance platforms;
  • stairs and walkways;
  • guards;
  • motors and gearboxes;
  • equipment foundations; and
  • surrounding interfaces.

Multiple scan positions can be registered together to create a coordinated point cloud of the required area.

Hamilton By Design’s broader engineering-grade 3D laser scanning services across Australia are specifically directed toward producing engineering-useful information for mining, heavy industrial and brownfield projects.

Rather than treating reality capture as the final deliverable, the scan can become the dimensional foundation for the engineering project.

Mechanical Engineering for Mineral Processing Plant Upgrades

Once existing conditions have been captured, the point cloud can be brought into the mechanical design environment.

Hamilton By Design provides mechanical engineering for mining infrastructure, supporting equipment associated with extraction, mineral processing and materials handling.

Typical brownfield engineering scopes may include:

  • conveyor modifications;
  • replacement transfer chutes;
  • hopper modifications;
  • equipment replacement layouts;
  • crusher and screen interfaces;
  • pump arrangements;
  • equipment support frames;
  • maintenance access;
  • machinery guarding;
  • structural/mechanical interfaces; and
  • plant retrofit projects.

This creates a practical Scan โ†’ Model โ†’ Design โ†’ Document workflow.

Instead of designing a new component independently and hoping it fits the existing plant, the proposed arrangement can be developed around captured site geometry.

That can be particularly valuable when fabrication is completed off site and installation must occur within a tightly controlled shutdown window.

Gold Mine 3D Scanning NSW notebook infographic showing LiDAR scanning, CAD modelling, conveyors, chutes, reverse engineering and mineral processing plant upgrades.

Conveyors, Chutes, Hoppers and Transfer Points

Materials handling is one of the strongest applications for this workflow.

Gold-processing facilities depend on reliable movement of crushed ore and processed material between different stages of the plant. Transfer points can consequently become important areas for maintenance, wear management and future upgrades.

Hamilton By Design provides engineering support for bulk material handling in mining, including conveyors, transfer points, chutes, ROM bins, hoppers and associated steelwork.

For an existing transfer station, scanning can establish the position of:

  • conveyor centre lines;
  • head and tail pulleys;
  • surrounding steelwork;
  • existing chute geometry;
  • platforms;
  • handrails;
  • drives;
  • guards; and
  • adjacent plant.

A replacement chute or conveyor modification can then be modelled within this captured environment.

This provides greater confidence that interfaces, access requirements and surrounding infrastructure have been considered before fabrication begins.

Reverse Engineering Existing Mining Equipment

Not every plant problem requires completely new equipment.

Regional mining facilities can contain equipment that is no longer adequately documented or has been modified throughout its service life. In other cases, replacement parts may be difficult to source or the original manufacturer may no longer support the equipment.

Hamilton By Design’s reverse engineer 3D scanning service combines reality capture with engineering judgement and CAD modelling to assist with large industrial assets.

Depending on the component, reverse-engineering projects can establish existing geometry and interfaces before a replacement or improved design is developed.

Applications in a mineral-processing environment may include:

  • obsolete equipment components;
  • worn chute assemblies;
  • equipment bases;
  • housings;
  • fabricated structures;
  • guards;
  • ducting;
  • support frames; and
  • replacement mechanical assemblies.

The aim is not simply to copy an existing item. It is to understand how the component fits into the surrounding plant and develop an appropriate engineering solution for the required application.

Supporting Shutdown Engineering

Shutdowns provide limited opportunities to complete modifications to operating mineral-processing equipment.

Discovering that a fabricated component does not fit after the shutdown has commenced can result in significant pressure on maintenance and construction teams.

Hamilton By Design provides 3D scanning for mining shutdown projects to support plant upgrades, mechanical design, Scan-to-CAD modelling, structural verification and layout assessment before the shutdown begins.

Early scanning can allow engineering teams to investigate:

  • equipment installation envelopes;
  • structural interfaces;
  • pipework conflicts;
  • removal paths;
  • maintenance clearances;
  • access requirements;
  • conveyor interfaces; and
  • fabrication dimensions.

Proposed equipment can then be checked against captured existing conditions while there is still time to modify the design.

Scanning cannot remove every shutdown risk, but better existing-condition information can reduce the number of assumptions entering the engineering process.

From Point Cloud to Fabrication Documentation

Capturing the plant is only useful if the information can be converted into practical engineering deliverables.

Depending on the project scope, scan information can progress into:

  • registered point clouds;
  • existing-condition CAD models;
  • SolidWorks models;
  • STEP or SAT geometry;
  • equipment layouts;
  • general arrangements;
  • sections and elevations;
  • fabrication drawings;
  • DXF files;
  • bills of materials; and
  • installation information.

Hamilton By Design also provides mechanical drafting services across Australia for mining, industrial and plant projects, allowing the project to continue from site capture through design development and into documentation for fabrication.

This integrated approach can be valuable for regional mines because the same project information can be carried through multiple stages rather than being repeatedly interpreted by separate scanning, drafting and engineering providers.

Australian Standards for Mineral Processing Engineering

The standards applicable to a project depend on the particular equipment, design scope and site requirements.

For mechanical and structural modifications within mineral-processing facilities, applicable Australian Standards may include:

AS/NZS 4024 โ€“ Safety of Machinery
Relevant to machinery risk reduction, guarding and safety considerations associated with mechanical equipment and conveyor systems.

AS/NZS 4024.3610 โ€“ Conveyors โ€“ General Requirements
Potentially relevant where engineering modifications involve conveyor systems, transfer areas, guarding and associated safety requirements.

AS 1657 โ€“ Fixed Platforms, Walkways, Stairways and Ladders
Important where equipment modifications affect plant access, maintenance platforms, stairs, ladders, walkways and handrails.

AS 3990 โ€“ Mechanical Equipment โ€“ Steelwork
May apply to steelwork associated with mechanical equipment and equipment-support arrangements.

AS 4100 โ€“ Steel Structures
Relevant where a plant modification requires structural steel design, alteration, support frames or strengthening.

AS 3774 โ€“ Loads on Bulk Solids Containers
May be applicable when assessing loads associated with bins, hoppers and other structures containing bulk solids.

Other Australian Standards, client engineering specifications and statutory requirements may apply depending on the equipment and project.

Standards should therefore be identified as part of the project-specific engineering scope rather than assuming the same standards apply to every modification.

Gold Mine 3D Scanning Across Central West NSW

Hamilton By Design can support gold mines, mineral-processing facilities and industrial operations throughout Central West and regional NSW, including areas around:

Tomingley, Dubbo, Narromine, Peak Hill, Parkes, Orange, Bathurst, Mudgee and surrounding mining regions.

Site work can be combined with off-site point-cloud processing, CAD modelling, mechanical engineering and drafting.

This model is particularly suited to regional brownfield projects where the central engineering problem is straightforward:

The plant has changed, but the drawings have not.

By capturing the existing facility first, engineers can develop modifications using information that represents the plant as it exists today rather than relying entirely on historical documentation.

Engineer-Led Reality Capture for Brownfield Gold Plants

Hamilton By Design combines practical mechanical engineering experience with terrestrial LiDAR scanning and CAD modelling.

For mineral-processing projects, that means the scanning process can be planned around the engineering problem.

If the project involves replacing a transfer chute, modifying a conveyor, installing new equipment or reverse engineering an existing asset, the scan can focus on the interfaces needed to complete that work.

The result is more than a point cloud.

It is a digital engineering workflow designed to help turn existing plant conditions into practical information for design, fabrication, installation and future asset documentation.


Frequently Asked Questions

What is Gold Mine 3D Scanning?

Gold mine 3D scanning uses terrestrial laser scanning or LiDAR to capture accurate three-dimensional information about mining and mineral-processing infrastructure. The resulting point cloud can be used for CAD modelling, plant modifications, equipment replacement, reverse engineering and existing-condition documentation.

Can Hamilton By Design scan an operating gold processing plant?

Yes. Appropriate scanning scopes can capture conveyors, chutes, processing equipment, structural steel, pipework, platforms and other infrastructure. Site access, safety requirements and operational restrictions need to be considered when planning the work.

Can you design the modification after completing the scan?

Yes. One of the main benefits of an engineer-led scanning workflow is the ability to continue from reality capture into CAD modelling, mechanical engineering, clash checking and drafting.

Can you scan conveyors and transfer stations?

Yes. Conveyors, transfer stations, chutes, supporting steelwork, drives, platforms, guarding and surrounding equipment are well suited to terrestrial 3D laser scanning.

Can 3D scanning assist with shutdown preparation?

Yes. Scanning before a shutdown can provide existing-condition information for equipment replacement, fabrication, structural modifications, access planning and installation interfaces before the shutdown starts.

Does Hamilton By Design provide reverse engineering?

Yes. Existing industrial and mining assets can be captured using 3D scanning and developed into engineering CAD geometry where reverse engineering forms part of the project scope.

Which Australian Standards apply to mineral-processing plant modifications?

The standards depend on the equipment and scope. Commonly relevant standards can include AS/NZS 4024 for machinery safety, AS/NZS 4024.3610 for conveyors, AS 1657 for fixed access systems, AS 3990 for mechanical equipment steelwork, AS 4100 for structural steel and AS 3774 where bulk-solids-container loading is applicable.

Does Hamilton By Design service Central West NSW?

Yes. Hamilton By Design supports regional NSW mining and industrial projects, with site-based reality capture able to be combined with off-site point-cloud processing, CAD modelling, mechanical engineering and drafting.

Planning a Gold Processing Plant Upgrade?

If existing drawings cannot be trusted, obtaining reliable existing-condition information before detailed engineering begins can significantly improve the quality of a brownfield project.

Hamilton By Design can assist with 3D LiDAR scanning, mechanical engineering, reverse engineering, CAD modelling and fabrication documentation for gold mines and mineral-processing plants throughout Central West NSW and regional Australia.

Scan what exists. Engineer what is required. Design it to fit.


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Copper Mine Concentrator Mechanical Engineering & 3D Scanning NSW

Hero image showing a copper mine concentrator in regional NSW with conveyors carrying ore, a crusher and transfer structures, while an engineer in high-visibility clothing uses a tripod-mounted 3D laser scanner in the foreground. A blue point-cloud overlay highlights the plant, with headline text reading โ€œCopper Mine Concentrator Mechanical Engineeringโ€ and supporting text about 3D scanning, conveyors, crushers, chutes and mineral processing.
Blue Gear and Spanner icon

Copper mineral processing plants operate in demanding environments where crushers, conveyors, transfer chutes, hoppers, pumps, pipework and supporting structures must work together continuously and reliably. When these facilities are modified or upgraded, one of the biggest engineering challenges is often not designing the new equipmentโ€”it is establishing exactly what already exists.

Across established mining areas such as Cobar and Nyngan in regional NSW, concentrators and materials-handling plants may have undergone decades of repairs, equipment replacements and incremental modifications. Original drawings may no longer accurately represent the installed plant.

Hamilton By Design provides mechanical engineering, 3D laser scanning, CAD modelling and engineering drafting services to support brownfield mineral-processing projects. Our approach combines practical mechanical engineering with accurate existing-condition capture so modifications can be developed around the actual plant rather than assumptions based on historical drawings.

For operations in the Cobar mining region, our broader Mining Engineering Services in Cobar NSW can support projects involving crushing, conveying, materials handling and plant upgrades.

Mechanical Engineering for Copper Mineral Processing Plants

A copper concentrator contains interconnected mechanical systems. A modification to one area can have consequences elsewhere in the process.

Replacing a crusher, for example, may change discharge geometry, chute arrangements, access requirements or structural loads. Increasing conveyor capacity may require changes to transfer points, liners, skirting, supporting structures or maintenance access.

Hamilton By Design can assist with mechanical engineering associated with:

  • crushers and crusher interfaces
  • belt conveyors and conveyor modifications
  • transfer stations
  • chutes and spoon arrangements
  • feed and discharge hoppers
  • bins and bulk-material storage
  • feeders
  • screens and equipment interfaces
  • slurry pumps and pump arrangements
  • process pipework
  • mechanical equipment supports
  • machinery guarding
  • maintenance platforms and access
  • brownfield equipment replacements
  • plant layout changes
  • fabrication and installation documentation.

Our broader approach to Mechanical Engineering in Mining Infrastructure considers conveyors, crushing and screening equipment, pumping systems, slurry transport, chutes, bins and mechanical plant modifications as interconnected parts of the processing facility.

Engineering Around Existing Plant Geometry

One of the greatest risks on a brownfield mineral-processing project is relying on information that no longer reflects the plant.

A drawing may show where a conveyor was originally designed to run, but the installed conveyor may differ slightly. Structural steel may have been altered during previous shutdowns. Platforms, pipework, cable trays, guards and equipment may have been added over time.

Small dimensional differences can become significant when a new chute, conveyor section, pump skid or structural frame has already been fabricated.

This is where Hamilton By Design’s 3D Laser Scanning for Cobar Mining can become an important part of the mechanical engineering workflow.

Engineering-grade LiDAR scanning can capture the existing arrangement of:

  • conveyors
  • crusher structures
  • pulleys
  • transfer stations
  • structural steel
  • equipment bases
  • floors and concrete
  • pipework
  • platforms
  • stairs
  • guards
  • surrounding services.

The resulting point cloud can be used directly within the mechanical design process.

Rather than treating scanning as an isolated surveying exercise, Hamilton By Design uses an engineering-led capture approach. Our Engineering-Led LiDAR and Mechanical Design services in Cobar are intended to connect site capture directly with engineering design, modelling and documentation.

Conveyor Engineering and Materials Handling

Conveyors form critical links between crushing, screening, storage and downstream mineral-processing operations.

Mechanical engineering may be required when changing:

  • conveyor head or tail arrangements
  • drive locations
  • pulley positions
  • conveyor trajectories
  • discharge arrangements
  • loading zones
  • supporting frames
  • guards
  • access platforms
  • transfer chutes.

For belt conveyors handling bulk material, AS/NZS 4024.3611 โ€“ Safety of machinery, Conveyors โ€“ Belt conveyors for bulk materials handling is particularly relevant. It establishes lifecycle safety requirements for belt conveyors used for bulk-material handling.

The broader AS 4024 Safety of Machinery series may also apply when considering machinery hazards, guarding, access and risk reduction.

For a copper concentrator, compliance needs to be considered as part of the mechanical design process rather than added to the design afterwards.

Chutes and Transfer Points

Transfer points can have a disproportionate effect on mineral-processing plant performance.

A poorly performing chute can contribute to:

  • excessive liner wear
  • belt mistracking
  • spillage
  • dust
  • blockages
  • poor material presentation
  • high impact loads
  • maintenance problems
  • shutdown requirements.

Hamilton By Design provides Conveyor Transfer Chute Design for Mining as part of its mechanical and bulk-materials-handling capability.

Where required, chute development can consider material trajectory, impact zones, wear areas, replaceable liners, access, fabrication requirements and the relationship between the chute and surrounding equipment.

For more difficult material-flow problems, our approach to Chute Design in the Mining Industry can incorporate accurate as-built geometry and engineering analysis, with DEM simulation considered where appropriate.

The objective is not simply to make a chute that fits. It is to develop a practical mechanical arrangement that considers flow, wear, maintainability, safety and fabrication.

Hoppers, Bins and Feed Arrangements

Copper processing plants can include feed hoppers, surge bins and other bulk-solids containment equipment.

When modifying these systems, engineers may need to consider:

  • material density
  • stored volume
  • wall loads
  • discharge conditions
  • eccentric loading
  • flow characteristics
  • liners
  • feeder interfaces
  • supporting steelwork.

AS 3774 โ€“ Loads on bulk solids containers may be relevant where the equipment falls within the standard’s scope. The standard deals with determination of loads used in designing structures for the mass storage of bulk solids.

Supporting steelwork may also require assessment against AS 4100 โ€“ Steel structures, together with relevant structural design actions under the AS/NZS 1170 series.

Slurry Pumps and Process Pipework

Mechanical engineering in a copper concentrator extends beyond dry materials handling.

Once ore enters wet processing stages, slurry pumping and process-water systems become important elements of plant reliability.

Hamilton By Design can assist with engineering and modelling associated with:

  • pump replacement arrangements
  • pump bases and supports
  • suction and discharge layouts
  • pipe routing
  • equipment clearances
  • maintenance access
  • existing pipework verification
  • plant modifications around pumps and piping.

Where pressure piping falls within its scope, AS 4041 โ€“ Pressure piping may be applicable.

The exact design standard should be established during the project because mineral-processing pipe systems vary significantly in pressure, material, duty and service conditions.

Maintenance Access and Machinery Safety

A mechanical modification also needs to be maintainable.

A technically functional chute or conveyor modification is of limited value if maintenance crews cannot safely inspect it, remove liners, access bearings or replace components.

AS 1657 โ€“ Fixed platforms, walkways, stairways and ladders is therefore particularly relevant to mineral-processing projects where modifications affect permanent access for operators and maintenance personnel.

Mechanical design should consider access requirements early enough that platforms, stairs, handrails and equipment removal paths form part of the plant arrangement.

Machine guarding and hazardous machinery interfaces should similarly be considered against the applicable AS 4024 series requirements.

Structural Steel Supporting Mechanical Equipment

Although the project may be driven by mechanical engineering, mineral-processing equipment must usually connect to structural steel.

New chutes, conveyors, pumps and equipment can introduce loads into existing structures.

Relevant standards can include:

  • AS 4100 โ€“ Steel structures
  • AS/NZS 1170 series โ€“ Structural design actions
  • AS/NZS 5131 โ€“ Structural steelwork fabrication and erection
  • AS/NZS 1554 series โ€“ Structural steel welding.

The specific standards and engineering checks required depend on the scope, existing structure, loads and mine requirements.

Engineering for Shutdown Installation

Mineral-processing shutdowns place additional pressure on brownfield design.

Fabricated equipment may have only a short installation window. Discovering during shutdown that a chute does not fit, a pipe clashes with structural steel or a support frame is incorrectly dimensioned can quickly affect the shutdown schedule.

Hamilton By Design’s approach to 3D Scanning for Mining Shutdown Projects is based on capturing existing conditions before the shutdown and using that information for mechanical design and verification.

The workflow can be:

Site inspection โ†’ 3D laser scanning โ†’ registered point cloud โ†’ mechanical CAD model โ†’ design development โ†’ clash checking โ†’ fabrication drawings โ†’ shutdown installation.

Our additional 3D Scanning Engineering services in Cobar can support the transition from existing-condition capture through to usable engineering information for plant modification projects.

Practical Mechanical Engineering for Regional NSW Mining

The value Hamilton By Design brings to mineral-processing projects is the combination of mechanical engineering, practical manufacturing knowledge and digital site capture.

For copper concentrator projects around Cobar, Nyngan and regional NSW, this approach can support everything from a relatively small chute modification through to larger conveyor, crusher, pump or processing-plant upgrades.

The objective is straightforward: understand the existing plant accurately, engineer the modification practically and identify potential problems before fabrication and shutdown installation.

Australian Standards are then incorporated according to the actual scope of work, including machinery safety, conveyor safety, access, structural steel, bulk-solids loads, piping and fabrication requirements.


Frequently Asked Questions

What mechanical engineering services can Hamilton By Design provide for a copper concentrator?

Hamilton By Design can assist with conveyor modifications, transfer chutes, crusher interfaces, hoppers, feeders, slurry pump arrangements, process pipework, mechanical equipment layouts, machinery guarding, maintenance access, equipment supports, reverse engineering and fabrication documentation.

Why use 3D laser scanning before modifying a mineral-processing plant?

Brownfield plants frequently differ from historical drawings. Laser scanning captures the actual location of equipment, structural steel, pipework and surrounding infrastructure so mechanical modifications can be designed around existing conditions.

Can Hamilton By Design design conveyor transfer chutes?

Yes. Transfer chute work can include existing-condition capture, mechanical arrangement development, material trajectory considerations, wear areas, liners, supporting structures, maintenance access and fabrication documentation.

What Australian Standard applies to mining conveyors?

AS/NZS 4024.3611 specifically addresses safety requirements for belt conveyors used for bulk-material handling. Other parts of the AS 4024 series may also apply depending on the machinery and hazards involved.

What standard applies to mining access platforms and stairs?

AS 1657 covers fixed platforms, walkways, stairways and ladders and is commonly relevant when designing permanent access around mineral-processing equipment.

What Australian Standards may apply to hoppers and bins?

AS 3774 may apply to the determination of loads for bulk-solids containers where the equipment falls within its scope. AS 4100 and the AS/NZS 1170 series may also apply to supporting structural steel.

Can existing plant be scanned before a shutdown?

Yes. This can be one of the most valuable uses of engineering-grade 3D scanning. The existing plant can be captured before shutdown so equipment can be modelled, designed and checked while the plant remains in service, subject to site access and operational requirements.

Can Hamilton By Design produce fabrication drawings?

Yes. Mechanical design can progress into 3D CAD models, assemblies, fabrication drawings, DXF information, bills of materials and installation documentation as required by the project.

Does Hamilton By Design only provide 3D scanning?

No. The key distinction is that Hamilton By Design combines 3D scanning with mechanical engineering and CAD design. For mineral-processing projects, scanning is used to obtain reliable existing-condition information that supports the engineering process.

Which Australian Standards apply to a copper concentrator modification?

There is no single Australian Standard covering every concentrator modification. Depending on the project, relevant standards may include AS/NZS 4024.3611, the AS 4024 series, AS 1657, AS 4100, AS/NZS 1170, AS 3774, AS 4041, AS/NZS 5131 and AS/NZS 1554. The applicable standards should be established for each engineering scope, together with the mine operator’s specifications and statutory requirements.


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Engineering Governance Documentation Support for Rosebery, Tasmania

Rosebery is a working mining and processing town where engineering decisions need to be clear, traceable and practical.

On brownfield mining sites, the issue is often not just the design itself. The issue is whether the information behind the design can be trusted. Old drawings may not match the plant. Modifications may have been made during shutdowns. Fabrication details may sit across emails, markups, PDFs, contractor sketches and site knowledge held by fitters and supervisors.

Hamilton By Design supports Rosebery and Tasmaniaโ€™s west coast with engineering governance documentation, mechanical engineering support, 3D laser scanning, scan-to-CAD, drafting and reverse engineering for mining, concentrator and industrial sites.

What Is Engineering Governance Documentation?

Engineering governance documentation helps show how technical decisions were made, checked and controlled.

For mining and processing sites, this may include:

  • drawing registers
  • revision control
  • design basis documents
  • site measurement records
  • scan-to-CAD records
  • engineering markups
  • redline drawing updates
  • scope clarification documents
  • fabrication drawing control
  • as-built verification
  • inspection records
  • change documentation
  • technical queries and responses
  • document transmittals
  • approval workflows

The goal is to reduce confusion between site, engineering, fabrication and installation teams.

Why It Matters in Rosebery

Remote mining locations can make poor documentation expensive. If the wrong drawing is used, or if a fabrication package is based on outdated information, the result can be rework, delay, unsafe access or a failed installation during a shutdown.

Engineering governance documentation helps answer important questions:

  • What drawing is current?
  • What was measured on site?
  • What changed from the original design?
  • Who reviewed the information?
  • What assumptions were made?
  • What needs client approval?
  • What information is still missing?
  • What is suitable for fabrication?
  • What is suitable for construction or installation?

For Rosebery mining and concentrator work, this is especially useful where plant areas have been modified over many years.

Supporting Fitters, Riggers and Maintenance Teams

Fitters, riggers and maintenance supervisors often know the plant better than anyone. They can see what has worn, what does not fit, what is hard to access and what will cause problems during installation.

Hamilton By Design helps turn that site knowledge into controlled engineering documentation.

This can include:

  • site inspection notes
  • redline markups
  • measured sketches
  • 3D scan records
  • updated CAD drawings
  • fabrication-ready details
  • installation planning documents
  • clash and clearance checks
  • reverse engineering records
  • documented assumptions and exclusions

This gives the site team a clearer path from โ€œwe know there is a problemโ€ to โ€œwe have controlled information we can act onโ€.

3D Scanning as a Governance Tool

3D laser scanning is not only a measurement tool. Used properly, it becomes part of the engineering record.

Hamilton By Design can capture existing plant conditions using 3D laser scanning services and use the scan data to support drawing updates, fabrication checks, design reviews and as-built verification.

This is useful for:

  • chute and hopper replacements
  • conveyor transfer point upgrades
  • slurry pipework changes
  • pump and baseplate replacement
  • access platform modifications
  • guarding changes
  • shutdown planning
  • brownfield plant upgrades
  • concentrator plant documentation

Mechanical Engineering and Drawing Control

Hamilton By Design provides mechanical engineering support for practical plant issues where documentation needs to support real-world fabrication and installation.

This may include:

  • reviewing existing drawings
  • identifying missing information
  • checking fit-up constraints
  • developing design options
  • preparing general arrangement drawings
  • preparing fabrication drawings
  • maintaining drawing registers
  • managing revision changes
  • recording design assumptions
  • supporting technical clarification with site teams

The aim is not paperwork for the sake of paperwork. The aim is controlled information that helps people build, install, inspect and maintain with confidence.

Reverse Engineering Documentation

Where parts are worn, obsolete or poorly documented, Hamilton By Design can assist with reverse engineering with 3D scanning.

This can support:

  • replacement components
  • pump parts
  • brackets and supports
  • chute liners
  • pipe spools
  • guards
  • baseplates
  • custom mechanical parts

The reverse engineering process can be documented so that future repairs are not dependent on memory, guesswork or one-off site sketches.

Secondment and Embedded Documentation Support

For longer projects, shutdowns or ongoing plant upgrades, Hamilton By Design can also provide secondment services.

This allows experienced engineering, drafting or site-support personnel to work alongside your team to help manage technical documentation, drawing updates, site measurement records and engineering deliverables during peak workload periods.

Servicing Rosebery and Tasmaniaโ€™s West Coast

Hamilton By Design can support engineering governance documentation for Rosebery and nearby Tasmanian west coast locations, including:

  • Tullah
  • Zeehan
  • Queenstown
  • Strahan
  • Burnie
  • Devonport
  • broader Tasmanian mining and industrial sites

Need Engineering Governance Documentation Support in Rosebery?

If your Rosebery project needs clearer drawings, controlled revisions, scan-backed as-built records, fabrication documentation or engineering support for brownfield plant changes, Hamilton By Design can assist.

Contact Hamilton By Design to discuss engineering governance documentation, mechanical engineering, 3D scanning, scan-to-CAD or secondment support for Rosebery, Tasmania.

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Smelter Scan to CAD Services in Newcastle NSW

Engineering pencil drawing illustrating Smelter Scan to CAD Services in Newcastle NSW, showing LiDAR laser scanning, point cloud registration and conversion into accurate 3D CAD models for brownfield smelter and heavy industrial facilities.
Blue line-art icon of an industrial smelting furnace pouring molten metal into a ladle, representing engineering-grade 3D LiDAR scanning services for smelters, brownfield plant upgrades and as-built documentation.

Heavy industrial facilities rarely remain unchanged. Smelters are continually upgraded to improve production, replace ageing equipment, meet environmental regulations and increase operational efficiency. Over decades of operation, countless modifications are made, many of which are only partially documented or never recorded at all. As a result, engineering teams are often forced to work with outdated drawings, incomplete documentation or no reliable three-dimensional CAD model of the facility.

Hamilton By Design provides Smelter Scan to CAD Services in Newcastle NSW, transforming high-accuracy terrestrial laser scan data into engineering-grade CAD models that accurately represent existing plant conditions. These models provide a trusted foundation for brownfield engineering projects, shutdown planning, equipment replacements, structural modifications and future asset management.

Whether your project involves replacing conveyors, upgrading process equipment, modifying structural steel, rerouting pipework or expanding a processing facility, having an accurate digital model of the existing plant dramatically reduces project risk while improving engineering confidence.


Why Existing Smelter Drawings Cannot Always Be Trusted

Many smelters operating throughout the Newcastle and Hunter Region have been in service for decades. During this time they have experienced numerous shutdowns, maintenance campaigns and capital improvement projects.

Typical undocumented changes include:

  • Additional platforms and access walkways
  • Modified conveyor systems
  • Pipe rerouting
  • Structural steel alterations
  • Equipment replacements
  • Cable tray additions
  • Temporary modifications becoming permanent
  • New services installed around existing infrastructure

While individual projects may have produced updated drawings, these revisions are not always consolidated into a complete plant model. Over time, engineering documentation becomes fragmented, making it increasingly difficult to determine the true “as-built” condition of the facility.

This creates significant challenges whenever new engineering work is required.


The Cost of Working from Outdated Information

When engineering teams lack an accurate three-dimensional representation of the plant, projects become more complex than necessary.

Common issues include:

  • Unexpected clashes during installation
  • Fabrication errors
  • Incorrect field measurements
  • Delayed shutdowns
  • Increased site rework
  • Additional crane time
  • More site welding and modifications
  • Higher project costs
  • Safety risks associated with unforeseen obstacles

Every incorrect assumption increases project risk.

Accurate Scan to CAD services eliminate much of this uncertainty by providing engineers with an engineering-grade digital representation of the existing facility before design work begins.


What is Scan to CAD?

Scan to CAD is the process of converting terrestrial laser scan data into intelligent engineering models.

Rather than relying solely on old drawings or manual measurements, millions of highly accurate laser measurements are captured throughout the facility to create a complete three-dimensional point cloud.

Experienced engineers then interpret this data to develop accurate CAD models representing existing equipment, structures and plant layouts.

The result is an engineering model that reflects the current state of the facilityโ€”not how it looked twenty years ago.


Our Scan to CAD Workflow

Hamilton By Design follows a structured engineering workflow designed specifically for complex industrial facilities.

1. High-Accuracy Laser Scanning

Using professional terrestrial laser scanners, millions of survey-grade measurements are captured throughout the plant.

Typical assets include:

  • Furnace buildings
  • Material handling systems
  • Pipework
  • Tanks
  • Chutes
  • Hoppers
  • Structural steel
  • Platforms
  • Conveyors
  • Cable trays
  • Mechanical equipment
  • Access structures

Large facilities can be captured with complete overlap to ensure comprehensive coverage and minimal shadowing.


2. Point Cloud Registration

Individual scans are registered into one accurate coordinate system.

This creates a unified digital representation of the entire facility while maintaining engineering-grade accuracy suitable for detailed design work.


3. Engineering Interpretation

Unlike automated modelling software, engineering interpretation identifies:

  • Structural members
  • Mechanical equipment
  • Process pipework
  • Equipment interfaces
  • Critical connection points
  • Existing plant constraints

Engineering judgement ensures the model reflects functional plant assets rather than simply reproducing raw geometry.


4. CAD Model Development

Point cloud data is converted into engineering CAD models suitable for design and documentation.

Depending on project requirements, deliverables may include:

  • Mechanical equipment
  • Structural steel
  • Pipework
  • Access platforms
  • Stairs
  • Handrails
  • Tanks
  • Ducting
  • Buildings
  • Foundations

Models can be produced to the required Level of Detail (LOD) to support conceptual studies, detailed engineering or fabrication.


5. Verification

Critical dimensions are checked against the registered point cloud before project completion.

Verification commonly includes:

  • Flange locations
  • Bolt centres
  • Equipment centres
  • Structural interfaces
  • Pipe elevations
  • Nozzle positions

This verification process gives engineering teams greater confidence that the CAD model accurately reflects existing site conditions.


Typical Smelter Applications

Scan to CAD services support a wide range of engineering activities, including:

Brownfield Plant Modifications

Existing infrastructure is accurately modelled before new equipment is designed.

This significantly reduces installation conflicts.


Shutdown Planning

Shutdown durations are often measured in hours rather than days.

Accurate CAD models enable:

  • Off-site fabrication
  • Installation planning
  • Lift studies
  • Construction sequencing
  • Clash reviews

Better planning helps minimise production downtime.


Conveyor Upgrades

Conveyor replacements frequently require precise integration with existing structures.

Scan to CAD provides engineers with accurate structural interfaces before fabrication begins.


Structural Modifications

Existing platforms, access systems and support structures can be accurately modelled before alterations are designed.

This improves fabrication accuracy while reducing field modifications.


Equipment Replacement

Replacement pumps, tanks, vessels, ductwork and process equipment can be designed to fit existing plant geometry before arriving on site.


Engineering Software Compatible Deliverables

Hamilton By Design can supply deliverables compatible with many common engineering platforms, including:

  • SOLIDWORKS
  • Autodesk Inventor
  • AutoCAD
  • Autodesk Plant 3D
  • Autodesk Revit
  • Navisworks
  • STEP
  • SAT
  • DWG
  • DXF
  • IFC
  • E57
  • RCP
  • LAS

This flexibility allows engineering teams to continue working within their preferred software environment.


Benefits of Accurate Scan to CAD Models

Investing in accurate engineering models provides measurable project benefits:

  • Reduced site measurements
  • Improved design accuracy
  • Lower fabrication risk
  • Fewer installation clashes
  • Reduced shutdown duration
  • Better project planning
  • Faster engineering workflows
  • Improved asset documentation
  • Enhanced maintenance planning
  • Long-term digital asset management

For facilities undertaking ongoing brownfield improvements, a reliable CAD model becomes a valuable engineering asset that continues delivering value long after the initial scanning project is complete.


Supporting Newcastle’s Heavy Industry

Newcastle has long been recognised as one of Australia’s major industrial centres, supporting steel manufacturing, mineral processing, bulk materials handling, port infrastructure and heavy engineering. Many of these facilities have evolved through decades of expansion, leaving engineering teams with incomplete or outdated documentation.

Hamilton By Design specialises in engineering-led Scan to CAD services that bridge this gap. By combining high-accuracy terrestrial laser scanning with mechanical engineering expertise, we produce practical CAD models that support real-world engineering decisions.

Whether your project involves a single process area or an entire smelter, our workflow provides engineering teams with accurate digital information they can rely on for design, fabrication and construction.


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Why Choose Hamilton By Design?

Hamilton By Design understands that successful brownfield projects begin with accurate existing-condition information. We combine terrestrial laser scanning with practical engineering experience to deliver CAD models that are not only geometrically accurate but also structured for engineering use.

Our services are tailored to the needs of heavy industry, with experience supporting shutdowns, equipment upgrades, structural modifications, process improvements and long-term asset management. From initial site capture through to verified CAD deliverables, we focus on reducing uncertainty so your engineering team can design with confidence.

If your Newcastle smelter or heavy industrial facility lacks reliable 3D CAD models, Hamilton By Design can help convert reality into accurate engineering dataโ€”providing the digital foundation needed for safer, faster and more cost-effective projects.

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Aluminium Smelter Laser Scanning Services in Tomago NSW

Engineering-grade LiDAR laser scanning inside an aluminium smelter in Tomago NSW supporting brownfield upgrades, shutdown planning, Scan-to-CAD modelling and mechanical engineering.

Brownfield engineering projects are among the most technically demanding activities undertaken within an aluminium smelter. Unlike a new (greenfield) facility, every modification inside an operating smelter must integrate with decades of existing infrastructure, often installed during multiple expansion and upgrade phases. Over time, plant layouts evolve, undocumented modifications occur, and original engineering drawings become outdated or incomplete.

For facilities such as Tomago Aluminium in Tomago NSW, accurate existing-condition information is essential before any engineering design, shutdown planning or equipment installation begins. Without reliable dimensional data, project teams risk discovering clashes, incorrect fabrication dimensions and unforeseen site conditions only after installation has commencedโ€”when delays are most costly.

Hamilton By Design provides engineering-grade 3D laser scanning services that create highly accurate digital representations of existing assets. Using advanced LiDAR technology, millions of measurement points are captured in a matter of minutes, producing an engineering-quality point cloud that forms the foundation for mechanical design, structural engineering, Scan-to-CAD workflows and brownfield project delivery.

Whether your project involves replacing conveyors, upgrading process equipment or planning a major shutdown, laser scanning dramatically reduces uncertainty while improving safety, engineering confidence and project outcomes.


Why Accurate Measurement Matters in an Aluminium Smelter

Aluminium smelters operate continuously, twenty-four hours a day, every day of the year. Every hour of lost production has significant financial consequences, making shutdown windows tightly planned and carefully managed.

Unlike manufacturing facilities with spare production capacity, major engineering work often needs to occur within limited shutdown periods where multiple contractors work simultaneously.

This creates several engineering challenges:

  • Existing structures may not match historical drawings.
  • Pipework has often been modified over decades.
  • Equipment relocations are poorly documented.
  • Platforms and walkways have changed.
  • Electrical cable trays have expanded.
  • New services compete for limited installation space.
  • Structural members have been strengthened without drawing revisions.

Traditional surveying techniques simply cannot capture the complexity of these environments efficiently.


The Brownfield Engineering Challenge

Every brownfield project starts with one simple question:

What actually exists today?

Unfortunately, this is rarely easy to answer.

Many aluminium smelters have been operating for forty years or more. During that time, thousands of engineering changes may have occurred.

Common examples include:

  • Emergency repairs
  • Maintenance modifications
  • Temporary installations becoming permanent
  • Equipment replacements
  • Structural strengthening
  • Additional pipe supports
  • New cable routes
  • Instrument upgrades
  • Maintenance access improvements

Many of these modifications were completed under shutdown pressure where updating engineering drawings was understandably not the highest priority.

The result is that engineering teams often begin projects using documentation that no longer accurately reflects the physical plant.


Why Traditional Site Measurement Falls Short

Historically, engineers relied upon:

  • Tape measures
  • Total stations
  • Hand sketches
  • Photographs
  • Manual dimensions

While these methods still have their place, they become increasingly impractical inside large industrial facilities.

Consider attempting to measure:

  • 40 metres of overhead pipework
  • Multiple elevations
  • Congested cable trays
  • Structural steel connections
  • Existing conveyors
  • Crane beams
  • Process vessels

Access alone may require elevated work platforms, confined space permits, scaffolding and isolation procedures.

Even after several days onsite, only selected dimensions have been captured.

If additional information is later required, another site visit becomes necessary.


How Engineering Laser Scanning Changes the Process

Laser scanning fundamentally changes how brownfield engineering projects are delivered.

Instead of recording hundreds of manual dimensions, terrestrial LiDAR scanners collect millions of highly accurate measurements covering the complete work area.

The result is an engineering-grade point cloud that accurately represents existing plant geometry.

This digital environment allows engineers to perform much of their work from the office rather than returning repeatedly to site.

Once captured, the scan data can be converted into accurate Scan-to-CAD models and engineering drawings, enabling mechanical, structural and piping designers to work confidently using verified as-built information.

Typical benefits include:

  • Complete site capture
  • Reduced survey time
  • Improved design accuracy
  • Fewer site visits
  • Better collaboration
  • Improved documentation
  • Reduced engineering risk

Typical Areas Scanned Within an Aluminium Smelter

Engineering projects commonly occur throughout the facility, including:

Potlines

  • Structural modifications
  • Busbar alterations
  • Access platform changes
  • Mechanical equipment installation

Casthouse

  • Furnace upgrades
  • Casting equipment
  • Overhead cranes
  • Hydraulic systems
  • Cooling systems

Carbon Plant

  • Conveyors
  • Crushers
  • Dust extraction
  • Structural supports
  • Material handling systems

Utility Systems

  • Cooling water
  • Compressed air
  • Natural gas
  • Fire services
  • Hydraulic systems
  • Electrical substations

Highly congested service corridors benefit significantly from comprehensive reality capture.


Supporting Shutdown Engineering

Shutdowns represent one of the highest-value applications for engineering laser scanning.

Every task within a shutdown depends upon accurate planning.

When equipment has already been fabricated, there is little tolerance for discovering dimensional discrepancies during installation.

Laser scanning supports shutdown engineering and brownfield project planning by providing:

  • Existing-condition verification
  • Installation planning
  • Crane access studies
  • Temporary works design
  • Pipe spool verification
  • Structural modification planning
  • Clash detection
  • Construction sequencing

The result is improved confidence before shutdown activities begin.


Mechanical Engineering Applications

Mechanical engineering projects commonly include:

  • Pump replacements
  • Conveyor upgrades
  • Chute redesign
  • Tank modifications
  • Ducting replacement
  • Pressure vessel connections
  • Machine foundations

Instead of estimating dimensions from old drawings, engineers can design directly against the current plant geometry.

This greatly improves fabrication accuracy.


Structural Engineering Benefits

Structural engineers frequently encounter undocumented modifications.

Laser scanning enables accurate modelling of:

  • Structural steel
  • Columns
  • Bracing
  • Platforms
  • Stairways
  • Handrails
  • Crane beams
  • Pipe supports

Existing structures can then be verified before additional loads are introduced.


Digital Twins and Asset Management

Laser scanning also provides the foundation for developing digital twins.

Rather than relying solely on historical drawings, operators gain access to an accurate digital representation of the physical plant.

Benefits include:

  • Asset management
  • Maintenance planning
  • Future project planning
  • Condition assessments
  • Engineering verification
  • Operator training
  • Long-term documentation

Where legacy equipment has little or no documentation, Hamilton By Design can also provide reverse engineering services to recreate accurate CAD models and manufacturing drawings directly from laser scan data.


Engineering Software Used

Hamilton By Design supports engineering workflows using industry-recognised software, including:

  • FARO Focus terrestrial laser scanners
  • FARO SCENE
  • Autodesk ReCap
  • Autodesk Navisworks
  • SOLIDWORKS
  • Autodesk Inventor
  • AutoCAD
  • AutoCAD Plant 3D
  • Revit
  • E57 point cloud exchange
  • STEP and Parasolid mechanical models

This enables seamless collaboration with engineering consultants, asset owners and contractors.


Typical Deliverables

Every project is tailored to client requirements, but deliverables may include:

  • Registered point clouds
  • E57 files
  • Autodesk ReCap projects (RCP/RCS)
  • Scan-to-CAD drawings
  • Existing-condition layouts
  • General arrangement drawings
  • Mechanical models
  • Structural steel models
  • Pipework models
  • Equipment verification
  • Clash detection reviews
  • Engineering mark-ups
  • As-built documentation

Why Tomago NSW Is an Ideal Application

Tomago is one of Australia’s most significant heavy industrial precincts, and engineering projects are continually undertaken to improve safety, reliability and production efficiency.

Many upgrades involve integrating modern equipment into infrastructure that has evolved over decades.

This makes accurate existing-condition information invaluable.

Laser scanning enables project teams to:

  • Reduce uncertainty
  • Improve engineering quality
  • Minimise shutdown risk
  • Support prefabrication
  • Improve contractor coordination
  • Reduce costly rework

For brownfield engineering, accurate information at the beginning of the project often determines the success of the entire installation.


Hamilton By Design logo displayed on a blue tilted rectangle with a grey gradient background

Conclusion

Brownfield engineering projects succeed when decisions are based on accurate information. In aluminium smelters operating in Tomago NSW, where infrastructure has evolved over decades, relying on outdated drawings or incomplete measurements introduces unnecessary risk, delays and cost.

Engineering-grade laser scanning provides a reliable foundation for mechanical upgrades, shutdown planning, structural modifications and future asset management. By capturing millions of accurate measurements in a single survey, project teams gain confidence that new equipment will fit, fabrication can proceed with certainty, and installation risks are significantly reduced.

If your next project involves upgrading conveyors, replacing process equipment, modifying structural steel or planning a major shutdown, Hamilton By Design can deliver the accurate reality capture and engineering support needed to reduce uncertainty and keep your project moving forward. By combining advanced LiDAR technology with practical engineering expertise, we help aluminium smelter operators make better decisions, minimise rework and achieve safer, more efficient brownfield project outcomes throughout Tomago NSW.

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https://www.hamiltonbydesign.com.au/scan-to-bim-services-australia-lidar-point-clouds-cad-modelling