3D scanning

High-precision 3D scanning

The highest resolution and accuracy for the smallest details: tools, turbine blades, jewellery, medical products and research specimens.

Objects
small parts and specimens
Method
structured light, optical metrology
Stages
5
Output formats
STLOBJPLYSTEPIGESE57LASPDF report
About

What and why

High-precision 3D scanning is used across a wide range of industries and is becoming an increasingly important tool in many fields. One of the most interesting of them is industrial manufacturing.

In mechanical engineering and manufacturing it is used more and more to build detailed digital models of products, parts and structures. The technology lets engineers and manufacturers test and optimise designs, find defects and improve quality control.

Scientists and researchers use high-precision 3D scanning to create detailed, accurate digital models of objects and specimens. It allows them to study and analyse the physical properties of an object non-invasively, without damaging or altering the original.

One of the most common applications is archaeology, where high-precision 3D scanning produces digital models of ancient artefacts, buildings and monuments. Researchers can examine them in unprecedented detail and gain valuable insight into the past.

In medicine and biology, high-precision 3D scanning is used to create detailed digital models of human anatomy for research and education. It lets researchers study the human body in great detail, learn how the organism works and how to diagnose and treat disease better, and manufacture custom implants.

3D scanning is also increasingly used in the jewellery industry to create digital models that serve for wax patterns for casting, reproduction of existing pieces, design optimisation, made-to-order jewellery and more. It helps jewellers design faster and more efficiently while cutting costs and improving the quality of the final product.

In short, high-precision 3D scanning is a powerful tool used in fields ranging from archaeology and medicine to engineering and manufacturing. It lets scientists, researchers, engineers and manufacturers study, analyse and optimise a wide range of objects and structures with unprecedented accuracy, speed and efficiency.

How we work

5 stages from brief to result

  1. 01

    Request

    A photo, drawing or description of the object, its dimensions, required accuracy and output format

  2. 02

    Estimate

    We choose the method and equipment and quote the lead time and cost

  3. 03

    Scanning

    At the EXAMETRA office in Almaty or at the customer's site

  4. 04

    Processing

    Point cloud, polygon model, CAD model or deviation report

  5. 05

    Delivery

    We hand over the files and, if needed, the measurement report

Equipment

We use what we supply

See every model in action on your object.

Estimate

We will estimate the price

Attach a photo, drawing or model and we will quote price and lead time.

Deliverable