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On this page
  • What is 3D Scanning / Digital Reconstruction?
  • Get Started
  • Picking a Technology
  • Comparison
  • Limitations
  • Artec Scanners
  • Photogrammetry
  • Leica BLK360 Terrestrial Scanner
  • Z+F Terrestrial Laser Scanner
  • NavVis VLX 3

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  1. 3D Scanning |3DS|

3D Scanning at the NExT Lab

This article introduces 3D Scanning & Digital Reconstruction and associated workflows within the context of the NExT Lab.

PreviousMold Making and CastingNext3D Scanning Use Cases

Last updated 1 month ago

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What is 3D Scanning / Digital Reconstruction?

3D Scanning and Digital Reconstruction are technologies and workflows that can convert physical data into digital data. They are powerful tools that reconstruct physical models physically. Digital reconstruction has been used by many professions as a powerful through reconstructed digital models, examples include:

By using the reconstructed digital models, you can

  • Heritage & Preservation

  • Digital Twins

  • Analysis

  • Asset Creation


Get Started


Picking a Technology

Once you have completed the training and gotten access from above, pick the most appropriate workflow for your project. The NExT Lab supports 3 main workflows; suitable for different scales:

Data Capture Workflows can directly and precisely read from the physical world.

Data Generation Workflows requires an intermediate medium, to calculate/estimate data from the physical world.

Comparison

Workflow

Quality

Speed

Ease of Use

Scale

Artec EVA Handheld - Portable

★ ★ ★ ☆ ☆

★ ★ ★ ☆ ☆

★ ★ ☆ ☆☆

  • Small - Medium Objects

Artec LEO Handheld - Portable

★ ★ ★ ★ ☆

★ ★ ★ ★ ☆

★ ★ ★ ★ ☆

  • Small - Medium Objects

Leica BLK 360 Terrestrial - Stationary

★ ★ ★ ☆ ☆

★ ★ ☆ ☆ ☆

★ ★ ★ ☆ ☆

  • Buildings and Spaces

  • Environments

VLX 3 Terrestrial - Wearable

★ ★ ☆ ☆ ☆

★ ★ ★ ★ ★

★ ★ ★ ★ ★

  • Buildings and Spaces

  • Environments

Z+F Terrestrial - Stationary

★ ★ ★ ★ ★

★ ★ ☆ ☆ ☆

★ ☆ ☆ ☆ ☆

  • Buildings and Spaces

  • Environments

Photogrammetry Flexible

★ ★ ★ ☆ ☆

★ ★ ★ ☆ ☆

★ ★ ★ ★ ☆

  • Small - Large Objects

  • Buildings and Spaces

Limitations


Artec Scanners

The Artec family of scanners are professional-grade and lightweight handheld scanners which uses Artec Studio, a proprietary companion software used to post-process and extract data from the scanners.

The scanners use Structured Light Technology (SLT) - a light pattern is projected from the scanner where its distortion on surfaces is understood as 3D data by its sensors.

Artec EVA

Artec LEO

  • Must be tethered to a laptop, which is used as a viewport for feedback as you scan.

  • Power may be portable or tethered.

  • Scan data is immediately available for processing.

  • Completely portable with battery power.

  • Heavier but easier to scan with more freedom to move around objects.

  • Touchscreen acts as the viewport for feedback as you scan.

  • Data must be transferred to the processing laptop separately.

Use Case + Scale: The Artec family is mostly recommended for scanning objects medium-sized objects where a high level of accuracy is required. Best practice is walking around the stationary object to be scanned.

Time: Overall scanning time can be varied based on object size and complexity, on top of time needed for post-processing with Artec Studio. A simple object with automated settings can be completed within 10-20 minutes, however best practice can take upwards a few hours.

Ease of Use: This is potentially the most difficult method of digital reconstruction, it may take a few hours to get comfortable with the hardware and software environment, but once the basics are learned, the software and hardware is quite intuitive.

Dimensional Accuracy: The Artec family of scanners provides up to 0.2mm accuracy.


Photogrammetry

Photogrammetry is a process that converts a series of 2D photos into 3D spatial data using a camera and software. Agisoft Metashape is the photogrammetry software of choice in the MSD. This software can be used to generate point cloud and mesh data. A little skill in photography is required as these photos will need to be taken manually.

Use Case + Scale: Photogrammetry-based digital reconstruction is recommended for medium to large objects, ranging from scale models to sculptures, rooms and buildings.

Time: With some planning ahead and analysis of the subject that is to be photographed, photogrammetry can be very quick. Do note that processing may take up to a day depending on the quality of the final outcome.

Ease of Use: Photogrammetry is straightforward and highly accessible, all you need is a camera (preferably a DSLR camera).

Dimensional Accuracy: Can vary from project-to-project, photo quality and the size of the subject - photogrammetry is accurate to 3mms for small objects but up to 50mms for large buildings. The disadvantage of a Data Generation workflow is that it is dependent on the intermediate medium of photography, there may be minor distortions to the image compared to a precise Data Capture workflow.


Leica BLK360 Terrestrial Scanner

The Leica BLK360 Laser Scanner is a very portable, lightweight terrestrial scanner. It uses a rotating + spinning laser with time-of-light technology to directly capture an environment. Chain together a series of these scans to generate accurate colour point cloud data.

Use Case + Scale: Terrestrial scanning is recommended for room-scale, buildings and larger environments.

Dimensional Accuracy: The BLK360 can expect consistent deviation of 4mm at 10m assuming good links between all the scans in a project.

Ease of Use: The BLK360 workflow is by far the simplest to use. Paired with an iPad, scanning is practically one-touch and the software is straight-forward.

Time: Scanning speeds of the BLK360 are fast, but the workflow can be quite slow waiting for data transfer and processing through the software.


Z+F Terrestrial Laser Scanner

Use Case + Scale: Terrestrial scanning is recommended for room-scale, buildings and larger environments.

Dimensional Accuracy: The Z+F has far less deviation compared to the BLK360 and VLX.

Ease of Use: The Z+F workflow is more complicated in both scanning and processing, but provides much more scanning options; such as rescanning certain sections, and more processing options for filtering and cleaning.

Time: Scanning speeds of the Z+F are fast, but data processing is slow.

For use, please contact NExT Lab.


NavVis VLX 3

Use Case + Scale: Wearable scanners are a faster way to achieve terrestrial scale results. Depending on site conditions and ease of navigation, it can be an alternative to tripod-mounted terrestrial scanners.

Dimensional Accuracy: Similar to the BLK360, the VLX has a consistent deviation of around 5mm ta 10m.

Ease of Use: The VLX is one of the simplest scanners but you will be walking around with a 8kg weight.

Time: Scanning with the VLX is very fast.

As all the technologies use light in some way, they do not deal well with transparent and highly reflective objects. More information on how light and vision affects the outcome can be found.

3D Scanning Use Cases

Training LMS ⧉

Complete relevant 3D Scanning training modules to access Equipment Loans.

Equipment Loan ⧉

Loan from the Media Hub once you have finished your training.

Consultations ⧉

Consult one of our Technicians about your projects or for technical guidance.

Learn

Use our guides and articles found on the left.

here

Get Started ⇥

Get Started ⇥

Get Started ⇥

BLK360 dataset in CloudCompare
Z+F dataset rendered in Blender