Mechanical Engineering | 3D Scanning | 3D Modelling
Tag: point-cloud-data
Hamilton By Design provides registered point-cloud data and processing services for industrial facilities, buildings, machinery and fixed plant.
A point cloud is a three-dimensional collection of measured points captured using LiDAR or other 3D scanning technology. Together, these points create a measurable digital representation of the visible surfaces, geometry and spatial relationships within an existing environment.
Our point-cloud data can support:
Existing-condition and as-built documentation
Scan-to-CAD and Scan-to-BIM modelling
Industrial plant and machinery layouts
Brownfield modifications and equipment upgrades
Clash detection and clearance checking
Shutdown and installation planning
As-built and installation verification
Digital asset records
Individual scan positions are processed and registered into a coordinated dataset. Quality checks can include registration review, coverage assessment, visual alignment checks and identification of inaccessible or incomplete areas.
Deliverables may include E57, RCP or LAS files, scan plans, viewing files and data prepared for use in ReCap, AutoCAD, SolidWorks, Inventor and Navisworks workflows.
The required file format, coordinate system, accuracy, point density and project scope should be agreed before scanning. Point-cloud accuracy depends on the scanning method, site conditions, registration approach and intended application.
Hamilton By Design can also convert relevant areas of the point cloud into 2D drawings, 3D CAD models or BIM models at an agreed level of detail.
Engineering-Grade Reality Capture for Better Building Information
Across Australia, Scan to BIM is becoming an important part of how buildings, plants, infrastructure and industrial facilities are measured, documented and managed.
For existing assets, traditional drawings are often incomplete, outdated or missing. Scan to BIM helps solve this problem by using 3D laser scanning and point cloud data to create accurate digital building information models.
At Hamilton By Design, Scan to BIM is approached from an engineering and information-management perspective โ not just as a modelling exercise.
What is Scan to BIM?
Scan to BIM is the process of capturing real-world site conditions using 3D laser scanning, LiDAR or reality-capture equipment, then converting that point cloud data into useful BIM or CAD information.
This may include:
Existing building geometry
Structural steel and framing
Mechanical services and pipework
Plant rooms and industrial equipment
Access platforms, stairs and handrails
As-built verification
Clash checking and design coordination
The result is a more reliable digital record of the asset.
Why Scan to BIM Matters in Australia
Australian projects often involve brownfield sites, live facilities, mining infrastructure, commercial buildings, hospitals, schools, utilities and industrial plants. In these environments, guessing from old drawings creates risk.
Scan to BIM supports better decisions by providing:
More accurate existing-condition information
Reduced site rework
Improved design coordination
Safer planning before site works
Better asset information for future maintenance
Stronger alignment with ISO 19650 information-management principles
For a deeper academic discussion on the benefits, limitations and future direction of Scan to BIM, refer to this related article:
Scan to BIM becomes more valuable when it is managed under a clear information-management framework.
ISO 19650 provides guidance on organising, naming, sharing and controlling information across the asset lifecycle. This is important because a 3D model is only useful if the information is structured, reliable and suitable for the project purpose.
Hamilton By Design has also written about this in more detail here:
A good Scan to BIM workflow is not simply about creating a visually impressive model. It should support engineering, construction, safety and maintenance outcomes.
This means understanding:
What level of detail is required
What accuracy is suitable
Which areas are critical for design
How the model will be used
What information should be included or excluded
How the data will be controlled and updated
This is especially important for mining, infrastructure, manufacturing, commercial buildings and complex brownfield environments.
Conclusion
Scan to BIM in Australia is helping improve the way existing assets are captured, understood and managed. When combined with engineering experience and ISO 19650 information-management principles, it provides a practical foundation for better design, safer construction and more reliable asset information.
For Australian projects requiring 3D scanning, point cloud processing, Scan to CAD or Scan to BIM support, Hamilton By Design provides engineering-led reality capture services across a range of industrial and built environments.
When existing facilities, equipment, structures, and process plants need to be modified, expanded, or documented, accurate information is critical. Unfortunately, many sites across Perth and Western Australia rely on outdated drawings, incomplete documentation, or site measurements that do not reflect what has actually been built.
Hamilton By Design provides professional Scan to CAD Perth services, combining engineering-grade LiDAR scanning with experienced mechanical and structural drafting to create accurate CAD models and drawings from real-world assets.
Rather than relying on tape measures or assumptions, we capture the existing environment using advanced 3D laser scanning technology and convert the resulting point cloud data into usable engineering deliverables.
What is Scan to CAD?
Scan to CAD is the process of converting physical assets into accurate digital engineering models and drawings.
The workflow typically includes:
Site scanning using LiDAR technology
Registration of the point cloud data
Creation of CAD models
Production of engineering drawings
Verification against captured site conditions
The result is a highly accurate digital representation of the existing asset that can be used for engineering, maintenance, fabrication, and future upgrades.
Why Use Scan to CAD?
Many projects fail because existing site information is incorrect.
Common challenges include:
Missing drawings
Outdated drawings
Unrecorded modifications
Unknown equipment locations
Limited shutdown windows
Expensive site revisits
Fabrication errors
Installation clashes
Scan to CAD helps eliminate these issues by providing a reliable digital record of the actual site conditions.
Hamilton By Design uses engineering-grade LiDAR scanning equipment to capture millions of measurement points across the site.
Applications include:
Mining facilities
Processing plants
Structural steel installations
Pipework systems
Conveyor systems
Water treatment facilities
Manufacturing plants
Marine facilities
2. Point Cloud Registration
Individual scans are combined into a single registered dataset.
This process creates a coordinated point cloud representing the complete facility.
Deliverable formats can include:
E57
RCP
RCS
LAS
3. CAD Modelling
The point cloud is imported into engineering software where accurate models are developed.
Software used includes:
SOLIDWORKS
AutoCAD
Autodesk Inventor
Navisworks
Models may include:
Structural steel
Pipework
Mechanical equipment
Platforms and access systems
Buildings and facilities
Process infrastructure
4. Engineering Drawings
Once modelling is complete, the information can be converted into detailed engineering documentation.
Typical deliverables include:
General Arrangement Drawings
Fabrication Drawings
As-Built Drawings
Layout Drawings
Structural Steel Drawings
Mechanical Drawings
Pipework Drawings
Industries We Support in Perth
Hamilton By Design supports clients throughout Perth and Western Australia including:
Mining
Iron Ore
Gold
Lithium
Nickel
Mineral Processing
Manufacturing
Food Processing
Packaging Facilities
Industrial Production
Energy
Power Generation
Renewable Energy Facilities
Oil and Gas Infrastructure
Water Infrastructure
Water Treatment Plants
Pump Stations
Wastewater Facilities
Marine and Ports
Ship Repair Facilities
Port Infrastructure
Bulk Handling Equipment
Benefits of Scan to CAD
Reduce Site Visits
Capture everything during a single visit and continue working remotely.
Improve Design Accuracy
Design directly from measured site conditions.
Reduce Fabrication Risk
Accurate models help reduce costly fabrication errors.
Improve Safety
Less time measuring equipment in operational environments.
Support Future Projects
Create a digital record that can be reused for future upgrades.
Typical Scan to CAD Deliverables
Hamilton By Design can provide:
Point Cloud Files
AutoCAD Drawings
SOLIDWORKS Models
Inventor Models
STEP Files
SAT Files
DWG Files
DXF Files
Structural Steel Models
Mechanical Equipment Models
Pipework Models
Fabrication Drawings
Why Hamilton By Design?
Hamilton By Design combines reality capture technology with practical engineering experience.
Our team understands:
Mechanical Engineering
Structural Steel Design
Fabrication Workflows
Mining Infrastructure
Process Plants
Site Installation Requirements
This means we do more than simply collect scan data. We transform site information into practical engineering deliverables that support project execution.
If you require accurate site information for design, fabrication, maintenance, or asset management, Hamilton By Design can help.
Our engineering-led Scan to CAD Perth services transform real-world assets into accurate digital engineering deliverables, helping projects move forward with confidence.
Hamilton By Design โ Engineering, LiDAR Scanning, CAD Modelling and Drafting Services Across Perth and Western Australia.
FARO Blink: Making Reality Capture Faster, Simpler and More Accessible
The reality capture industry continues to evolve at an incredible pace.
For many years, 3D laser scanning and LiDAR technologies were considered specialist tools used primarily by surveyors, metrology professionals, and engineering teams with extensive training and experience. While the benefits of reality capture were well understood, the technology often required significant expertise, specialised software, and dedicated workflows to achieve successful outcomes.
Today, that is beginning to change.
The introduction of Blink by FARO represents another significant step toward making reality capture more accessible to a wider range of users. Designed to simplify the process of capturing, managing, and sharing digital site information, Blink demonstrates how automation, cloud connectivity, and intuitive workflows are reshaping the way organisations document and understand their physical assets.
For asset owners, facility managers, project teams, engineers, and contractors, the implications are substantial.
The easier it becomes to capture accurate information about the real world, the easier it becomes to make better decisions.
Why Reality Capture Matters
Before discussing Blink specifically, it is worth understanding why reality capture has become such an important part of modern engineering and asset management.
Many industrial facilities were built decades ago.
Over time they undergo:
Plant modifications
Equipment upgrades
Maintenance projects
Structural alterations
Utility relocations
Expansion works
Unfortunately, documentation does not always keep pace with these changes.
Many facilities operate with:
Incomplete drawings
Outdated CAD models
Missing records
Unknown modifications
Conflicting documentation
When engineers begin a new project, they often discover that the available information does not accurately reflect existing site conditions.
This creates risk.
Design errors, fabrication clashes, installation delays, and costly rework often result from inaccurate site information.
Reality capture helps solve this problem by creating an accurate digital representation of existing conditions.
Instead of guessing what exists, project teams can work from measured reality.
What is FARO Blink?
Blink by FARO has been developed to simplify the process of reality capture by combining laser scanning hardware, automated processing, cloud-based workflows, and digital collaboration tools.
Rather than requiring users to become experts in registration workflows, point cloud processing, and data management, Blink focuses on creating a streamlined experience that allows information to move quickly from site capture to project insights.
The goal is simple:
Capture reality quickly, process it efficiently, and make the information available to the people who need it.
For many organisations this removes some of the barriers that traditionally prevented them from adopting reality capture technology.
Benefit 1: Faster Site Documentation
One of the biggest advantages of modern reality capture systems is speed.
Traditional site measurement often involves:
Tape measures
Hand sketches
Manual notes
Laser distance meters
Photographs
This approach can be time consuming and often requires multiple visits to site.
When information is missed, the team must return to collect additional measurements.
Reality capture dramatically reduces this risk.
By capturing millions of measured points within the environment, teams create a digital record that can be referenced long after the site visit has been completed.
This means:
Fewer return visits
Reduced travel costs
Faster project commencement
Improved confidence in measurements
For remote sites, mines, ports, power stations, and manufacturing facilities, this benefit alone can provide significant value.
Benefit 2: Improved Project Collaboration
Modern projects often involve multiple stakeholders.
These may include:
Asset owners
Engineers
Contractors
Draftspersons
Project managers
Maintenance teams
Operations personnel
Historically, communication between these groups relied heavily on drawings, reports, photographs, and site visits.
Reality capture provides a common visual reference that everyone can understand.
Instead of discussing what might exist, project teams can review actual site conditions.
This improves:
Communication
Decision making
Design reviews
Stakeholder engagement
Project planning
The result is fewer misunderstandings and more efficient project delivery.
Benefit 3: Better Asset Management
Asset owners increasingly recognise the value of maintaining accurate digital records of their facilities.
Reality capture supports:
Asset verification
Facility documentation
Maintenance planning
Future upgrades
Capital works programs
Rather than relying on historical documentation, organisations can maintain current digital representations of their facilities.
This creates a foundation for long-term asset management and digital engineering initiatives.
Benefit 4: Reduced Project Risk
One of the greatest causes of project cost overruns is unexpected site conditions.
Examples include:
Pipework clashes
Structural interference
Equipment access issues
Missing clearances
Undocumented modifications
Reality capture helps identify these issues before construction begins.
By working with accurate site information, engineers can identify problems early when they are less expensive to resolve.
This reduces:
Rework
Variation claims
Fabrication errors
Installation delays
Safety risks
The result is greater project certainty.
Benefit 5: Supporting Digital Transformation
Many organisations are currently pursuing digital transformation initiatives.
These may include:
Digital twins
Asset management systems
BIM environments
Digital engineering platforms
Smart infrastructure programs
Accurate site information forms the foundation of these initiatives.
Without reliable data, digital transformation becomes difficult to achieve.
Reality capture provides the measured information required to build digital representations of physical assets.
This enables organisations to move toward more connected and data-driven operations.
Benefit 6: Easier Adoption of Reality Capture
Historically, one of the challenges associated with laser scanning has been the level of expertise required.
Specialist operators often needed extensive experience with:
Scanning hardware
Registration software
Point cloud management
Data processing
Quality control
Automation is helping reduce this complexity.
Systems such as Blink focus on making reality capture easier to deploy and easier to use.
This means more organisations can benefit from digital site documentation without needing to become scanning specialists.
As technology continues to evolve, reality capture is becoming increasingly accessible across industry.
Benefit 7: Enhanced Visualisation
Many people find it easier to understand visual information than technical drawings.
Reality capture provides rich visual context that can support:
Design reviews
Stakeholder presentations
Maintenance planning
Safety assessments
Operational discussions
Visual access to site information helps project teams communicate more effectively and make decisions with greater confidence.
Benefit 8: Better Information Retention
Facilities change over time.
Personnel change.
Knowledge is lost.
Documentation becomes outdated.
Reality capture creates a permanent digital record of a facility at a specific point in time.
This information can be referenced years later when:
Maintenance is required
Equipment is replaced
Upgrades are planned
Incidents are investigated
The value of this historical record often increases over time.
Technology is Only Part of the Solution
While advances such as Blink are making reality capture more accessible, it is important to recognise that technology alone does not solve engineering challenges.
The true value comes from transforming captured information into usable engineering deliverables.
This may include:
3D CAD models
General arrangement drawings
Fabrication drawings
Structural models
Mechanical assemblies
As-built documentation
Asset registers
Collecting data is only the first step.
Engineering expertise remains essential for converting information into practical project outcomes.
Where Hamilton By Design Fits In
At Hamilton By Design, we view reality capture as part of a broader engineering workflow.
Our objective is not simply to capture data.
Our objective is to help clients make better engineering decisions.
We provide:
Engineering-grade LiDAR scanning
3D laser scanning
Scan-to-CAD services
Reverse engineering
Mechanical engineering
Structural drafting
Asset verification
Digital engineering support
Our team combines decades of experience in engineering, manufacturing, maintenance, drafting, and industrial project delivery.
This means we understand not only how to collect data, but also how that information is ultimately used within engineering projects.
As reality capture technology continues to evolve, organisations that combine accurate data with engineering expertise will be best positioned to deliver safer, smarter, and more successful projects.
Trimble Scanners vs FARO Scanners |Which Technology Is Right for Your Project?
The laser scanning industry has evolved significantly over the last decade. Modern reality capture systems can document entire buildings, processing plants, infrastructure assets, mining operations, and manufacturing facilities with remarkable speed and accuracy.
Two of the most recognised names in the terrestrial laser scanning market are Trimble and FARO Technologies.
Both manufacturers produce capable scanning equipment, but they were developed with different target markets and project requirements in mind.
The question is not necessarily which scanner is better.
The real question is:
Which scanner is best suited to the type of project you are trying to complete?
At Hamilton By Design, we focus primarily on engineering, industrial facilities, manufacturing plants, mining infrastructure, reverse engineering, and Scan-to-CAD projects. Because of this, our requirements differ significantly from those of surveyors, construction layout teams, BIM consultants, or mobile mapping providers.
This article explains where Trimble systems excel, where FARO systems excel, and which technology may be the best fit for your application.
Understanding Laser Scanning Objectives
Before comparing scanner brands, it is important to understand the purpose of the project.
Most scanning projects fall into one of the following categories:
Surveying
Surveyors typically require:
Geospatial accuracy
Coordinate control
GIS integration
Large-scale topographic surveys
Infrastructure corridors
Road and rail mapping
Construction
Construction projects often require:
BIM coordination
Progress monitoring
Clash detection
Layout verification
Digital twins
Engineering
Engineering projects typically require:
Mechanical design
Reverse engineering
Fabrication drawings
Plant modifications
Structural steel detailing
Pipework design
Asset Management
Asset owners often require:
Digital records
Facility management
Lifecycle documentation
Maintenance planning
Different scanners have been optimised for different objectives.
Their ecosystem integrates effectively with coordinate control networks.
FARO Registration
FARO’s software platform, particularly FARO SCENE, has become a well-established standard for industrial registration.
Strengths include:
Target-based registration
Cloud-to-cloud registration
Engineering workflows
Industrial documentation
For plant environments, SCENE remains a highly capable platform.
Surveying Applications
Where Trimble excels:
Large Survey Projects
Examples include:
Highways
Rail networks
Airports
Utility corridors
Trimble’s heritage in surveying makes these projects a natural fit.
Construction Control
Projects requiring:
Set-out
Coordinate control
Site surveys
benefit from Trimble’s integrated ecosystem.
Engineering Applications
Where FARO excels:
Reverse Engineering
Examples include:
Pumps
Conveyors
Structural steel
Mechanical assemblies
The ability to create engineering-grade point clouds is critical.
Plant Modification Projects
Examples include:
Pipe rerouting
Chute redesign
Conveyor upgrades
Equipment replacement
The scanner becomes the foundation of the design process.
Fabrication Projects
Fabrication projects often require:
As-built verification
Fit-up confirmation
Clash detection
FARO scanners are commonly used for these tasks.
Mining Industry Comparison
Mining presents unique challenges.
Projects often involve:
Dust
Restricted access
Complex plant layouts
Trimble in Mining
Common uses:
Site surveys
Civil infrastructure
Haul roads
Tailings facilities
FARO in Mining
Common uses:
CHPP plants
Conveyors
Crushers
Structural steel
Transfer stations
Engineering teams frequently prefer detailed plant scans for design work.
Scan-to-CAD Workflows
This is where many engineering firms spend most of their time.
The objective is not merely collecting data.
The objective is producing:
CAD models
Drawings
Fabrication packages
Trimble Workflow
Often integrated into:
BIM
Construction
Survey deliverables
FARO Workflow
Frequently integrated into:
AutoCAD
SolidWorks
Inventor
Navisworks
Plant design software
For engineering-driven Scan-to-CAD workflows, FARO has become particularly popular.
Metrology Comparison
This category creates the biggest distinction between the two companies.
Trimble
Trimble’s focus is largely:
Geospatial
Construction
Infrastructure
FARO
FARO offers dedicated metrology products such as the:
FARO Quantum Arm
Applications include:
Manufacturing inspection
Tooling verification
Reverse engineering
Precision measurement
Measurement uncertainty can be measured in fractions of a millimetre.
This is an entirely different category from traditional terrestrial scanning.
Digital Twin Applications
Both systems can contribute to digital twin projects.
Trimble Advantages
Particularly strong when projects involve:
BIM integration
Construction workflows
Asset management
FARO Advantages
Particularly strong when projects involve:
Engineering assets
Industrial plants
Manufacturing facilities
Cost Considerations
Scanner purchase decisions should not be based solely on hardware cost.
Consider:
Software
Training
Registration
Processing
Deliverables
The cheapest scanner often becomes the most expensive solution if it fails to meet project requirements.
When Trimble Is the Better Choice
Choose Trimble when your primary focus is:
Surveying
Geospatial control
Land surveying
Corridor mapping
Construction
BIM coordination
Progress monitoring
Site verification
Infrastructure
Roads
Rail
Utilities
Mobile Mapping
Vehicle-based capture
Large-area mapping
When FARO Is the Better Choice
Choose FARO when your primary focus is:
Mechanical Engineering
Equipment design
Reverse engineering
Plant modifications
Industrial Facilities
Refineries
Processing plants
Manufacturing sites
Structural Steel
Existing structure capture
Fabrication verification
Scan-to-CAD
AutoCAD workflows
SolidWorks workflows
Inventor workflows
Metrology
Inspection
Precision measurement
Manufacturing verification
The Hamilton By Design Perspective
At Hamilton By Design, our work typically involves:
Mining plants
Manufacturing facilities
Process equipment
Structural steel
Conveyors
Chutes
Pipework
Mechanical upgrades
We are generally not:
Surveying housing estates
Mapping road corridors
Building GIS databases
Performing civil infrastructure surveys
Our goal is usually to answer engineering questions such as:
Will the new chute fit?
Can the conveyor be upgraded?
Does the pipe clash?
Can the fabricated structure be installed?
What does the existing plant actually look like?
For those objectives, the combination of:
FARO Focus S70
FARO SCENE
AutoCAD
SOLIDWORKS
provides an efficient engineering workflow.
Conclusion
Neither Trimble nor FARO is universally better.
They were developed to solve different problems.
Trimble is exceptionally strong in:
Surveying
Construction
Geospatial workflows
Infrastructure mapping
Coordinate control
FARO is exceptionally strong in:
Mechanical engineering
Industrial facilities
Reverse engineering
Scan-to-CAD
Metrology
Plant modification projects
If your objective is mapping kilometres of roadway, Trimble may be the logical choice.
If your objective is redesigning a conveyor transfer chute, replacing a pump station, upgrading a processing plant, or creating fabrication-ready CAD models from existing infrastructure, FARO is often the more suitable engineering-focused solution.
The best scanner is not the one with the longest specification sheet. The best scanner is the one that produces the deliverable your project actually needs. For many industrial engineering projects, that deliverable is not a point cloudโit is an accurate model, drawing package, fabrication detail, or engineered solution built from the scan data.
At Hamilton By Design, technology investments are made with one objective in mind: delivering practical engineering outcomes for our clients.
Over the years, the reality capture market has expanded significantly, with a wide range of terrestrial scanners, mobile mapping systems, handheld scanners and metrology solutions available. While each technology has its place, we have chosen to build our reality capture and reverse engineering workflow around the FARO ecosystem because it aligns closely with the work we perform every day.
Our projects typically involve industrial facilities, mining infrastructure, manufacturing plants, process equipment, structural steel, pipework systems, shutdown planning, reverse engineering and Scan-to-CAD workflows. These applications require more than point cloud collection. They require engineering-grade information that can be transformed into practical deliverables.
A Complete Measurement Ecosystem
One of the key strengths of FARO is the breadth of its measurement portfolio.
The FARO platform spans multiple levels of measurement capability:
Large-Scale Reality Capture
The FARO Focus Series provides terrestrial laser scanning solutions capable of capturing facilities ranging from small plant rooms through to large industrial complexes and infrastructure projects.
These systems allow engineers to capture existing conditions with confidence while generating data suitable for:
Scan-to-CAD
Digital twins
Asset management
Plant modifications
Structural steel detailing
Mechanical design
Construction verification
Mobile Reality Capture
The FARO Orbis platform introduces mobile mapping capability while remaining connected to the wider FARO ecosystem.
For large facilities requiring rapid data acquisition, mobile scanning provides an efficient solution while maintaining compatibility with engineering workflows.
Portable Metrology
The FARO Quantum Arm extends capability beyond facility measurement into precision engineering applications.
This allows organisations to move seamlessly from measuring an entire processing plant to inspecting a single component with metrology-grade accuracy.
Applications include:
Reverse engineering
Quality control
Manufacturing inspection
Component verification
Precision measurement
Large Volume Precision Measurement
The FARO Vantage Laser Tracker platform provides another layer of capability for applications requiring high accuracy over large distances.
Industries including aerospace, power generation, heavy manufacturing and industrial construction rely on this technology for alignment and verification tasks where traditional surveying methods may not provide the required level of precision.
Engineering Integration Matters
For Hamilton By Design, scanning is not the final deliverable.
The point cloud is only the beginning of the engineering process.
Our clients generally require:
AutoCAD models
SolidWorks models
STEP files
Fabrication drawings
General arrangement drawings
Structural steel details
Mechanical engineering documentation
Because of this, we place significant value on workflows that integrate effectively with engineering software.
Our reality capture workflow commonly includes:
FARO Focus
FARO SCENE
Autodesk ReCap
AutoCAD
SolidWorks
Navisworks
This enables captured information to move efficiently from the field into engineering and manufacturing environments.
From Entire Facilities to Individual Components
One of the reasons the FARO ecosystem is particularly attractive for engineering organisations is its scalability.
A single project may involve:
Scanning an entire processing plant using a FARO Focus scanner.
Measuring a critical pump housing using a FARO Arm.
Verifying installation geometry using a FARO Laser Tracker.
Delivering engineering models through AutoCAD and SolidWorks.
All of these activities can occur within a connected measurement ecosystem.
This capability allows engineers to select the most appropriate tool for each measurement challenge rather than forcing every project into a single workflow.
Supporting Industrial Engineering Projects
Hamilton By Design operates primarily within industrial environments.
Typical projects include:
Mining operations
Mineral processing facilities
Manufacturing plants
Conveyor systems
Chute and hopper design
Pipework modifications
Structural steel upgrades
Shutdown planning
Reverse engineering of legacy equipment
These projects require practical engineering solutions supported by reliable measurement data.
The FARO ecosystem provides a range of tools capable of supporting these requirements, from large-scale reality capture through to precision metrology.
Engineering-Led Reality Capture
Technology alone does not guarantee project success.
The value of reality capture comes from the ability to transform measurement data into actionable engineering information.
At Hamilton By Design, our objective is not simply to collect point clouds. Our objective is to help clients make informed engineering decisions, reduce project risk, improve constructability and accelerate project delivery.
The FARO ecosystem supports this objective by providing measurement solutions that span reality capture, mobile mapping, portable metrology and large-volume precision measurement.
For engineering organisations seeking a scalable measurement platform capable of supporting projects from facility-scale scanning through to component-level verification, FARO continues to provide one of the most comprehensive portfolios available within the industry.
By combining proven measurement technology with practical engineering expertise, Hamilton By Design delivers reality capture solutions that move beyond visualisation and into real-world engineering outcomes.
Why Hamilton By Design Has Invested in the FARO Ecosystem
At Hamilton By Design, technology investments are made with one objective in mind: delivering practical engineering outcomes for our clients.
Over the years, the reality capture market has expanded significantly, with a wide range of terrestrial scanners, mobile mapping systems, handheld scanners and metrology solutions available. While each technology has its place, we have chosen to build our reality capture and reverse engineering workflow around the FARO ecosystem because it aligns closely with the work we perform every day.
Our projects typically involve industrial facilities, mining infrastructure, manufacturing plants, process equipment, structural steel, pipework systems, shutdown planning, reverse engineering and Scan-to-CAD workflows. These applications require more than point cloud collection. They require engineering-grade information that can be transformed into practical deliverables.
A Complete Measurement Ecosystem
One of the key strengths of FARO is the breadth of its measurement portfolio.
The FARO platform spans multiple levels of measurement capability:
Large-Scale Reality Capture
The FARO Focus Series provides terrestrial laser scanning solutions capable of capturing facilities ranging from small plant rooms through to large industrial complexes and infrastructure projects.
These systems allow engineers to capture existing conditions with confidence while generating data suitable for:
Scan-to-CAD
Digital twins
Asset management
Plant modifications
Structural steel detailing
Mechanical design
Construction verification
Mobile Reality Capture
The FARO Orbis platform introduces mobile mapping capability while remaining connected to the wider FARO ecosystem.
For large facilities requiring rapid data acquisition, mobile scanning provides an efficient solution while maintaining compatibility with engineering workflows.
Portable Metrology
The FARO Quantum Arm extends capability beyond facility measurement into precision engineering applications.
This allows organisations to move seamlessly from measuring an entire processing plant to inspecting a single component with metrology-grade accuracy.
Applications include:
Reverse engineering
Quality control
Manufacturing inspection
Component verification
Precision measurement
Large Volume Precision Measurement
The FARO Vantage Laser Tracker platform provides another layer of capability for applications requiring high accuracy over large distances.
Industries including aerospace, power generation, heavy manufacturing and industrial construction rely on this technology for alignment and verification tasks where traditional surveying methods may not provide the required level of precision.
Engineering Integration Matters
For Hamilton By Design, scanning is not the final deliverable.
The point cloud is only the beginning of the engineering process.
Our clients generally require:
AutoCAD models
SolidWorks models
STEP files
Fabrication drawings
General arrangement drawings
Structural steel details
Mechanical engineering documentation
Because of this, we place significant value on workflows that integrate effectively with engineering software.
Our reality capture workflow commonly includes:
FARO Focus
FARO SCENE
Autodesk ReCap
AutoCAD
SolidWorks
Navisworks
This enables captured information to move efficiently from the field into engineering and manufacturing environments.
From Entire Facilities to Individual Components
One of the reasons the FARO ecosystem is particularly attractive for engineering organisations is its scalability.
A single project may involve:
Scanning an entire processing plant using a FARO Focus scanner.
Measuring a critical pump housing using a FARO Arm.
Verifying installation geometry using a FARO Laser Tracker.
Delivering engineering models through AutoCAD and SolidWorks.
All of these activities can occur within a connected measurement ecosystem.
This capability allows engineers to select the most appropriate tool for each measurement challenge rather than forcing every project into a single workflow.
Supporting Industrial Engineering Projects
Hamilton By Design operates primarily within industrial environments.
Typical projects include:
Mining operations
Mineral processing facilities
Manufacturing plants
Conveyor systems
Chute and hopper design
Pipework modifications
Structural steel upgrades
Shutdown planning
Reverse engineering of legacy equipment
These projects require practical engineering solutions supported by reliable measurement data.
The FARO ecosystem provides a range of tools capable of supporting these requirements, from large-scale reality capture through to precision metrology.
Engineering-Led Reality Capture
Technology alone does not guarantee project success.
The value of reality capture comes from the ability to transform measurement data into actionable engineering information.
At Hamilton By Design, our objective is not simply to collect point clouds. Our objective is to help clients make informed engineering decisions, reduce project risk, improve constructability and accelerate project delivery.
The FARO ecosystem supports this objective by providing measurement solutions that span reality capture, mobile mapping, portable metrology and large-volume precision measurement.
For engineering organisations seeking a scalable measurement platform capable of supporting projects from facility-scale scanning through to component-level verification, FARO continues to provide one of the most comprehensive portfolios available within the industry.
By combining proven measurement technology with practical engineering expertise, Hamilton By Design delivers reality capture solutions that move beyond visualisation and into real-world engineering outcomes.
Why Scanner Stability Matters When Accuracy Matters
LiDAR stands for Light Detection and Ranging. It uses laser light to measure distance and create a 3D digital representation of the real world.
But in engineering, the distance measurement is only part of the story.
To produce reliable design, drafting and fabrication data, the scanner also needs to know exactly where it was positioned, how it was orientated, and how every measurement relates to the rest of the site.
That is why stable, engineering-grade scanning matters.
Scan as You Walk Has Its Place
Walk-through LiDAR systems such as NavVis-style mobile scanners are impressive technologies. They allow an operator to move through an environment while capturing large volumes of spatial data quickly.
For some applications, this is a major advantage.
Scan-as-you-walk systems can be useful for:
Facility documentation
Asset walkthroughs
Digital tours
Large building capture
Universities
Shopping centres
Hospitals
National parks
General spatial records
If the objective is to document a large area quickly, mobile scanning can be a practical solution.
But speed is not the same as engineering certainty.
Engineering Accuracy Requires More Than Walking Through a Site
When a scanner is moving, the system must continuously calculate:
where the scanner is located
which direction it is facing
how fast it is moving
how it is rotating
how each scan position connects to the next
This is normally achieved using SLAM, cameras, IMUs and software-based positioning.
These systems are powerful, but they can still be affected by drift, movement, poor geometry, reflective surfaces, repetitive structures and weak reference points.
In engineering, small errors can become expensive problems.
A point cloud may look good on screen, but that does not always mean it is suitable for mechanical design, structural detailing or fabrication.
Why Hamilton By Design Uses FARO Focus Technology
At Hamilton By Design, we use FARO Focus terrestrial laser scanning for engineering-grade reality capture.
The FARO Focus scanner is set up on a stable tripod position. It captures high-density scan data from fixed locations, allowing the point cloud to be registered, checked and used for design work with confidence.
This approach is slower than simply walking through a site, but it provides the quality of data required for engineering deliverables.
We use FARO scanning for:
Scan-to-CAD
Reverse engineering
Mechanical design
Structural steel modelling
Pipework layouts
Fabrication drawings
As-built documentation
Clash detection
Plant room scanning
Industrial site verification
Shutdown planning
When structural steel needs to fit, pipework needs to align and fabricated components need to be manufactured from the captured data, accuracy matters.
The Difference Is the Final Outcome
A walk-through scan may be suitable when the purpose is general documentation.
A FARO Focus scan is more suitable when the data will be used to design, manufacture, install or verify engineered components.
That difference matters.
If the objective is to walk through a national park, a mobile scanner may be the right tool.
If the objective is to make sure structural beams, pipe spools, platforms, chutes, hoppers or mechanical components fit together correctly, then engineering-grade LiDAR scanning is the safer choice.
Because when the fabrication team arrives on site, the steel either fits or it does not.
Real-World Engineering Experience
Hamilton By Design is often asked to revisit sites where previous scan data was not suitable for engineering use.
In recent weeks, we have been requested multiple times to rescan building and industrial sites after earlier walk-through scanning did not provide the level of accuracy or detail required for design and drafting.
This does not mean mobile scanning is wrong.
It means the scanning method must match the intended use.
For general site capture, speed may be the priority.
For engineering, fabrication and installation, accuracy must come first.
LiDAR Measures Distance. Engineering Requires Position Certainty.
LiDAR uses light to measure distance.
However, engineering-grade point clouds require more than distance. They require confidence in the scanner position, orientation, registration and final geometry.
A simple way to explain it is this:
A tape measure may be accurate, but if you do not know exactly where the measurement started, the result can still be wrong.
The same applies to LiDAR scanning.
The laser may measure accurately, but if the scanner position is uncertain, the final point cloud may not be suitable for engineering work.
Where FARO Focus Scanning Adds Value
Hamilton By Design provides engineering-led LiDAR scanning for clients who need usable design data, not just a visual point cloud.
Our scanning and modelling services support:
Industrial plants
Mechanical rooms
Processing facilities
Mining infrastructure
Conveyor systems
Structural platforms
Pipework and services
Equipment layouts
Existing buildings
Brownfield modification projects
We do not just scan the site.
We understand how the scan data will be used in design, drafting, fabrication and installation.
That engineering understanding is what makes the difference.
Engineering-Grade Deliverables
Depending on the project requirements, Hamilton By Design can provide:
Registered point clouds
E57 files
RCP / RCS files
Scan-to-CAD models
AutoCAD drawings
SolidWorks models
Inventor models
STEP / SAT / Parasolid files
General arrangement drawings
Sections and elevations
Fabrication drawings
As-built verification models
Our focus is to provide practical engineering information that can be used by designers, fabricators, builders, installers and asset owners.
Choose the Right Scanner for the Right Job
Scan-as-you-walk systems are fast and useful for many documentation tasks.
FARO Focus scanning is better suited to engineering-grade work where accuracy, registration and point cloud quality are critical.
At Hamilton By Design, we believe the technology should be selected based on the outcome required.
If you need to document a large space quickly, mobile scanning may be suitable.
If you need structural steel, pipework or mechanical components to fit together first time, FARO Focus scanning is hard to go past.
Hamilton By Design โ Engineering-Led LiDAR Scanning
Hamilton By Design provides engineering-grade LiDAR scanning, Scan-to-CAD, reverse engineering, mechanical drafting and structural design support across Australia.
We combine reality capture with practical engineering experience to help clients move from existing site conditions to accurate design and fabrication deliverables.
For industrial, mechanical and structural projects, the question is not just how fast the site can be scanned.
The real question is:
Can the scan data be trusted when it is time to design, fabricate and install?
That is where engineering-grade LiDAR scanning matters.
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