Point clouds: empowering industries, inspiring the future
Discover the diverse applications of point clouds across industries, from architecture and engineering to virtual reality and autonomous vehicles.

What are point clouds?
A point cloud is a set of data points in a three-dimensional coordinate system. Each point in the cloud contains multiple measurements, including colour and luminance, as well as its position along the XYZ axes.

How point clouds are produced
Point clouds start with data gathered from 3D scanning technologies like LiDAR (Light Detection and Ranging) or structured light scanning. LiDAR systems emit laser beams in a space and measure the time it takes the beams to reflect back. This information can be used to create a point cloud that accurately represents the structures and surfaces in the scanned area. Â
The accuracy of the 3D models produced from point clouds makes them a valuable tool to many industries. In architecture, point clouds help capture the current conditions and layout of a building, while measurement data is vital for construction and restoration projects. In the world of manufacturing, 3D models powered by point clouds allow product refinement and production at scale.
The use of 3D point clouds contributes to improved accuracy and efficiency across industries.
Accurate representation
Point clouds offer an accurate and detailed 3D representation of a scanned environment or object.
Capture precise spatial data
Aid visualisation and analysis
Comprehensive data capture
Point clouds capture a large amount of complex data in a single scan.
Efficient information gathering
Easier measurement and modelling
Nondestructive data acquisition
Scanning techniques like LiDAR enable nondestructive data acquisition.
Scan objects without touching them
Analyse hard-to-reach spaces
Time and cost efficiency
Using point cloud software saves time and budget compared to traditional methods.
Eliminate physical reconstructions
Skip the manual measurements
Enhanced visualisation and communication
Point clouds can facilitate visualisation of spaces and collaboration among stakeholders.
Create as-built 3D models
Allow for walkthroughs and simulations
Precise measurements and analysis
Point clouds accurately measure distances, volumes, angles and other geometric properties.
Support detailed analysis
Make inspection more efficient
Data preservation and documentation
Point clouds can serve as a digital record of the scanned object or environment.
Enable historical preservation
Create a permanent data set
Interoperability and compatibility
Point clouds can be integrated with many software applications and workflows.
Allow seamless data exchange
Streamline project management
Architecture, engineering, construction, and operations (AECO)
AEC industries use point clouds to create accurate as-built models of existing buildings, infrastructure and sites.


Art Graphique & Patrimoin
Using point clouds for restoration and preservation
Autodesk and Art Graphique & Patrimoin captured 3D scans and used point clouds for the restoration of Notre-Dame de Paris Cathedral.

Grand Egyptian Museum
Managing and protecting ancient artefacts with point clouds
The Grand Egyptian Museum uses point clouds to complete construction and maintain antiquities.

BUREAU OF RECLAMATION
Maintaining critical infrastructure with point clouds
Photorealistic 3D point clouds help Bureau of Reclamation identify risks and opportunities at the Glen Canyon Dam.
Discover the benefits of real-time data, from improving cross-team collaboration to project management.
Learn how BIM is changing the architecture, engineering and construction (AEC) industry.
See how digital collaboration is fuelling the restoration of a historic New Zealand church.
Point clouds are generated with scanning and sensing technologies and methods like LiDAR, structured-light scanning, time-of-flight cameras, sonar, radar and photogrammetry. These methods capture data about the geometry and spatial information for objects and environments by measuring distances, light patterns or wave reflections. The captured data is then processed and converted into a set of 3D points, each based on a specific position in space. Post-processing steps are often taken to refine the data, improve its accuracy, and translate it across trades and applications.
Point clouds can be used for a variety of purposes, primarily in industries like architecture, engineering, construction, entertainment, forensics, geospatial mapping, manufacturing and robotics. They offer a detailed 3D representation of real-world objects or environments, enabling complex tasks like as-built modelling, reverse engineering, virtual-reality experiences (US site), precise measurements and data visualisation. The use of point clouds makes many nuanced processes much more efficient, making them a versatile tool for capturing, analysing and using 3D spatial data.
An example of point cloud data is the representation of an object or environment captured using laser scanning technology or photogrammetry. Consider a building: To create a 3D point cloud of a building, a 3D scanner could be used to capture multiple data points and perspectives. Each point would represent a specific location in the building’s structure. The data points collected are then combined to form a point cloud that represents the 3D geometry of the building. In essence, point cloud data is any information gathered via laser scan or photogrammetry, then used to create the point cloud.
The difference between a point cloud and photogrammetry is in the way the data is captured and represented. A point cloud is a set of 3D points that represent the geometry of an object or space. Point clouds are typically generated using scanning technologies like LiDAR, or image-based methods like photogrammetry. Photogrammetry involves capturing multiple images of an object or environment from a variety of angles, then using software to calculate dimensions and plot precise points in 3D space.
A key difference between point clouds and mesh models is found in their digital representation and data structure. Point clouds are collections of individual points depicted in 3D space. Each point represents a specific location and can contain additional information like colour or intensity. In contrast, mesh models are surfaced-based representations built from interconnected polygons like triangles or quadrilaterals. They provide a closed surface that approximates the shape of the object, with edges, faces and vertices defining its structure. Point clouds retain the raw data and details, while mesh models offer a more compact and structured representation.
Point-cloud accuracy can vary based on the technology used for data capture, the scanning setup and the data processing methods applied. Advanced scanning technologies like LiDAR can achieve sub-centimetre or even sub-millimetre accuracy, while other methods may be slightly less precise. Factors like sensor limitations or movement within the scanned space can impact point-cloud accuracy as well. Accurate point clouds are often produced from multiple scans, and a thorough quality control process can minimise errors and ensure data is gathered effectively.