3D SCANNING SERVICE

At Taito 3D, we are proud to offer professional 3D scanning services designed to meet the diverse needs of individuals and businesses. Using state-of-the-art scanning technology, we capture precise, high-resolution digital models of physical objects, regardless of size or complexity.

Whether you're looking to reverse engineer a product, create a detailed replica, or digitise an intricate design for further development, our 3D scanning services provide unmatched accuracy and efficiency. With a commitment to quality and innovation, Taito 3D ensures that your vision is transformed into precise digital data, ready for applications in prototyping, manufacturing, or creative projects.

What is 3D Scanning?

3D scanning is a cutting-edge technology that captures the physical shape and intricate details of an object to create a highly accurate digital model. Using advanced equipment, such as laser scanners, structured light, or photogrammetry, 3D scanning collects data points from the surface of an object to generate a 3D representation.

This non-invasive process is ideal for a wide range of applications, from reverse engineering and quality control to product design and digital archiving. By transforming real-world objects into digital assets, reverse engineering enables precise measurements, detailed visualisation, and seamless integration into CAD software or 3D printing workflows.

3D printing Scanning for custom parts and prototypes in Johannesburg south africa - Taito 3D

3D SCANNING PROCESS

Object Preparation

Step 1: The object is cleaned, stabilised, and prepped with any necessary finishes or markers to ensure accurate scanning results

Object Cleaning.
Object Fixturing.
Scanning Angle Set-Up.
Markers Set-Up.

3D Scanning

Step 2: The prepared object is scanned from multiple angles using advanced equipment to capture precise digital data

Object Positioning.
Scanner Mode Selection.
Real-Time Monitoring.
Rescan (if necessary).

3D Scan Preparation

Step 3: The raw scan data is cleaned, aligned, and optimised, creating a detailed 3D model ready for use.

Clean Up the Scan Data.
Align and Merge Scans.
Fill Holes and Gaps.
Optimise the Mesh.

3D Printing

Step 4: The processed 3D model is sliced and printed layer by layer, transforming the digital file into a physical object.

File Exportation (STL).
Model Integrity Verification.
Print Setting Set-Up
Model Slicing.

3D SCANNER MODES

At Taito 3D, we offer expert 3D scanning services using advanced technologies like blue laser and NIR scanning. These methods are chosen based on your specific needs, whether for intricate designs or delicate objects. Below, we highlight the benefits of each scanning technique to ensure optimal results for your project.

Blue Laser 3D Scanning

Blue laser scanners uses blue light emitted by a laser to capture an object's shape and surface details. Blue lasers are preferred for their shorter wavelength, which provides higher accuracy and finer resolution, making them ideal for intricate details. The laser is projected onto the object's surface, and a sensor records the light pattern deformation to create a 3D model. This method is effective for scanning small to medium-sized objects with complex geometries and is commonly used in manufacturing, quality control, and reverse engineering.

NIR 3D Scanning

NIR (Near-Infrared) 3D scanners uses infrared light to capture an object's geometry and surface features. Unlike visible light or laser scanning, NIR scanning is better for capturing details on sensitive, reflective, or transparent materials, as it is less likely to cause damage. This technology is ideal for objects with challenging surfaces and is commonly used in cultural heritage preservation, biomedical imaging, and automotive design, providing precise and non-invasive results.

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BENEFITS OF 3D SCANNING

Reverse Engineering offers a wide range of benefits, establishing itself as an essential tool for industries that demand high precision and efficiency. It streamlines processes such as reverse engineering, quality control, and prototyping by capturing highly accurate digital models of physical objects. This technology eliminates many of the traditional challenges in design and manufacturing, allowing for faster, more reliable results.

Whether it's improving product designs, ensuring quality standards, or creating custom prototypes, 3D scanners enhances both the speed and accuracy of these processes. Here are five key advantages of using 3D scanners that can help optimise workflows and drive innovation.

High Precision and Accuracy - Reverse Engineering captures detailed and accurate measurements, ensuring that digital models closely match the physical object.
Time and Cost Efficiency - It speeds up the design and prototyping process, reducing the need for manual measurements and iterative testing.
Complex Geometries - Reverse Engineering can capture intricate shapes and complex features that may be difficult to measure with traditional methods.
Non-Destructive - The scanning process is non-invasive, preserving the original object while creating a digital replica for further analysis or reproduction.
Improved Quality Control: - Scanning allows for quick comparisons between the scanned model and original specifications, helping identify defects or deviations early in the process.

In conclusion, Reverse Engineering provides key benefits such as high precision, efficiency, and the ability to capture complex shapes. Its non-destructive nature and role in quality control make it essential across industries, helping to improve accuracy and streamline workflows.

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FULL COLOUR 3D SCANNING

24-bit full-colour scanning captures an extensive range of colours by using 24 bits per pixel across the three primary colour channels: red, green, and blue (RGB). This results in over 16 million colour variations, providing exceptional depth and detail in colour representation. The technology uses high-resolution sensors to record each object’s surface colours with great accuracy, ensuring that even the subtle shades and textures are faithfully captured. This method is particularly beneficial for applications where colour fidelity is critical, such as product design, where accurate colour reproduction is essential for visualisation, or in art preservation, where maintaining the original hues of artworks is crucial.

Additionally, for customisation purposes, 24-bit colour scanning allows for precise replication of the colours and geometry of an object, making it ideal for producing personalised items with true-to-life colours. This advanced scanning technique guarantees that both the form and appearance of an object are accurately reflected in the 3D model, which can then be used for printing, analysis, or virtual display.

Full Colour 3D Scanning

24-bit full-colour scanning captures a full spectrum of colours using 24 bits per pixel across red, green, and blue (RGB) channels, resulting in over 16 million colour variations. This method is ideal for applications requiring colour fidelity, such as product design, art preservation, and customisation, ensuring both the geometry and colours of an object are accurately replicated in the 3D model.

Use Cases

Product Design and Prototyping.
Cultural Heritage Preservation.
Customisation and Personalisation.
Medical and Dental Applications.
Virtual and Augmented Reality.

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3D SCANNER USE CASES

Manufacturing

In the manufacturing sector, 3D scanners are used for quality control, ensuring parts meet design specifications by comparing the scanned data to CAD models. It is also used in reverse engineering to recreate parts when original designs are unavailable or need to be improved.

Additionally, rapid prototyping is enabled, allowing manufacturers to create and test physical models quickly before mass production.

Healthcare

In healthcare, reverse engineering aids in creating custom prosthetics and implants by capturing precise measurements of a patient’s anatomy. It is also used in dental care to create accurate crowns, bridges, and orthodontic models.

Furthermore, medical imaging benefits from 3D scans to assist in surgeries, patient diagnosis, and preoperative planning, offering a more detailed view of the body’s internal structures.

Architecture

Architects and engineers use 3D scanners to capture accurate measurements and textures of buildings, bridges, and other structures. This data can be used for designing new projects, conducting renovations, and creating accurate as-built models.

The technology is also invaluable for historical preservation, enabling digital reconstructions of old or deteriorating buildings, making it easier to plan restorations and document heritage sites.

Automotive

In the automotive industry, reverse engineering is employed to inspect the precision of parts, ensuring they meet high-quality standards and specifications. 3D scanners also allows for reverse engineering of obsolete or hard-to-manufacture components.

Additionally, scanning is used in the design and development of prototypes, speeding up the process of innovation and ensuring accuracy before full-scale production.

Aerospace

3D scanners are crucial in the aerospace industry for inspecting and ensuring the accuracy of complex parts used in aircraft and spacecraft. It helps engineers to check for any defects, measure tolerances, and maintain compliance with strict industry standards.

Additionally, reverse engineering allows for reverse engineering of legacy parts and the rapid prototyping of new components for testing and development.

Entertainment and Gaming

In the entertainment industry, 3D scanners are used to create detailed and lifelike digital models for movies, television, and video games. Scanning allows for the capture of real-world objects, environments, and faces to create realistic digital assets, making it ideal for visual effects, animation, and virtual reality experiences.

Artists & designers also use 3D scans to streamline the creation of props, costumes, and set designs.

Cultural Heritage and Museums

3D scanners have the potential to play a vital role in preserving cultural heritage by digitally capturing artefacts, sculptures, and historical landmarks. This provides a way to store and study objects without risking damage to fragile items.

It also allows for virtual exhibitions and the creation of replicas for educational purposes, ensuring that cultural treasures are preserved for future generations and can be shared globally.

Fashion

In the fashion industry, 3D scanners are used to create digital models of garments, shoes, and accessories, helping designers visualise their creations before production. The technology allows for precise measurements, helping to create custom-fitted clothing or footwear tailored to an individual’s body.

Additionally, 3D scanners enable virtual try-ons and enhances the online shopping experience by offering highly accurate digital representations of products.

Art and Design

Artists and designers use 3D scanners to capture intricate sculptures and artworks, creating digital copies for preservation, modification, or reproduction. It also allows for the replication of complex designs, helping artists to work with digital models before producing physical works.

Whether for creating personalised art pieces or exploring new forms of digital art, 3D scanners help bring creative ideas to life with high precision and detail.

3D SCANNING SPECIFICATIONS

Experience precision 3D scanning with advanced technology, offering dual modes for capturing objects of all sizes. With high resolution, fast speeds, and full-colour capabilities, it’s ideal for diverse industries, from manufacturing to cultural preservation. Compact and lightweight, it’s perfect for professional use.

Blue Light

Scanning Mode: Utilises seven blue parallel laser lines for high-precision scanning of small to medium-sized objects.
Accuracy: Up to 0.02 mm at 100 mm.
Scanning Speed: Up to 60 frames per second.
Scanning Volume: Minimum scanning volume of 5 x 5 x 5 mm.
Working Distance: 150–400 mm.

Infrared (NIR)

Scanning Mode: Employs infrared binocular structured light for scanning larger objects and capturing intricate details.
Accuracy: Up to 0.1 mm.
Scanning Speed: Up to 20 frames per second.
Scanning Volume: Minimum scanning volume of 150 x 150 x 150 mm
Working Distance: 170–1000 mm.

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3D SCANNING COST

When determining the cost of a 3D scanning project, several factors influence the overall pricing. These considerations range from the size and complexity of the object to the specific scanning technology and post-processing requirements. Understanding these factors can help you better plan your project and ensure you receive the most accurate and high-quality results for your investment.

Additionally, post-processing requirements—such as data cleaning, editing, or converting scans into CAD-ready formats—add to the overall expense. Other factors include the desired resolution and accuracy of the scan, the file format needed, and whether additional services like texture mapping or colour capture are required. Understanding these considerations allows you to better plan your project, set realistic expectations, and ensure you receive the most accurate and high-quality results for your investment.

Object Size:- Larger objects require more time and effort to scan, often leading to higher costs.
Surface Complexity - Intricate or detailed surfaces demand higher precision and additional scanning time, increasing expenses.
Scanning Technology - The type of scanner used (laser, structured light, or NIR) and its precision significantly affect pricing.
Colour and Texture Capture - Scanning with full-colour or texture reproduction involves more resources and expertise, raising costs.
Post-Processing Requirements - The level of editing, clean-up, or file preparation for specific uses can add to the cost.
Scanning Environment - Difficult locations or the need for on-site scanning can increase logistical and operational costs.

By considering these factors, you can make informed decisions about your 3D scanning needs and budget. With the right approach, reverse engineering offers exceptional value, delivering precise and detailed digital models for a wide range of applications.

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3D SCANNING AND VIRTUAL REALITY

Our 3D scanning service enhances Virtual Reality (VR) and Augmented Reality (AR) experiences by capturing accurate digital models of real-world objects and environments. Using advanced scanning technologies, such as laser scanners and structured light systems, we create high-quality 3D models that can be seamlessly integrated into VR and AR platforms. This service enables businesses and creators to bring realistic, interactive environments or objects into virtual and augmented spaces, perfect for applications in training, design, gaming, and more. We help bridge the gap between the physical and digital worlds, unlocking new possibilities for innovation and immersive experiences.

Environment Capturing for Immersive Experiences - Scanning real-world locations and converting them into 3D environments for VR and AR applications, such as training simulations, virtual tourism, or gaming.
Creating Realistic 3D Models - Using 3D scanners to digitise objects or people for integration into AR and VR content, ensuring lifelike and accurate representations.
Product Visualisation - Enabling brands to scan and display products in AR or VR for marketing, e-commerce, or design review purposes.
Medical and Healthcare Applications - Using 3D scanners to create accurate models of anatomy for medical training or patient education in VR and AR environments.
Education and Training - Providing lifelike and detailed content for VR/AR training modules, such as technical skill development or safety drills.
Retail and Interior Design - Scanning rooms or objects to allow users to virtually place and visualise furniture, decor, or products in their real-world spaces.