Close Menu
AM ChronicleAM Chronicle
  • Content
    • News
    • Insights
    • Case Studies
    • AM Infocast
  • Focus Regions
    • India
    • Asia Pacific
    • Middle East
    • North America
    • Europe
  • Industries
    • Automotive
    • Aerospace
    • Defence
    • Energy
    • Construction
    • Healthcare
    • Tooling
    • Engineering
  • Training
  • Magazine
    • Digital Issues
    • Print Subscription
  • Events
Facebook Instagram YouTube LinkedIn
  • About us
  • Media Kit
  • Contact us
Facebook Instagram YouTube LinkedIn
AM ChronicleAM Chronicle
  • Content
    1. News
    2. Insights
    3. Case Studies
    4. AM Infocast
    5. View All
    3D Systems Closes Systemic Bio, Founder Continues Mission

    3D Systems Closes Systemic Bio, Founder Continues Mission

    July 26, 2025
    Kre8+ Unveils Advanced Manufacturing Capabilities at Recent Colloquium

    Kre8+ Unveils Advanced Manufacturing Capabilities at Recent Colloquium

    July 25, 2025
    The 3D Printed Schools Project is expected to be completed by the end of 2025

    Qatar to Construct World’s Largest 3D-Printed Building

    July 14, 2025
    Qatar Unveils Largest 3D-Printed Boat by GORD 3D, Credits: GORD 3D

    Qatar’s Largest 3D-Printed Boat Manufactured at GORD 3D Center

    July 4, 2025
    Digital Twin Integration in Additive Manufacturing Systems: Revolutionizing Design, Production, and Lifecycle Management

    Digital Twin Integration in Additive Manufacturing Systems: Revolutionizing Design, Production, and Lifecycle Management

    July 4, 2025
    LACS equipment set-up to add a coating to repair a panel aircraft wing

    Laser-assisted cold spray: a new generation of innovative manufacturing technology

    July 3, 2025
    Oerlikon Reaches 25,000 3D-Printed Suppressors Milestone, Advancing Next Generation Defense Applications, Credits: Oerlikon

    Oerlikon Reaches 25,000 3D-Printed Suppressors Milestone, Advancing Next Generation Defense Applications

    June 24, 2025
    ArianeGroup and Nikon SLM Solutions Join Forces to Advance Ultra-Large-Scale Additive Manufacturing for Space Applications

    ArianeGroup and Nikon SLM Solutions Join Forces to Advance Ultra-Large-Scale Additive Manufacturing for Space Applications

    June 21, 2025
    Formlabs fuse 1+

    How Imaginarium Helped Kaash Studio Scale with the Right 3D Printing Technology

    April 12, 2025
    The Formlabs Fuse 1+ 30W

    Kaash Studio Optimized Service Bureau Operations with Formlabs 3D Printers- Case Study

    January 30, 2025
    Namthaja Unveils Worlds First 3D Printed Marine Gangway

    Worlds First 3D Printed Marine Gangway unveiled by Namthaja

    August 8, 2024
    RusselSmith Material Performance Improvement Whitepaper

    RusselSmith Whitepaper : Improving Material Performance with Microstructural Refinement

    May 9, 2024
    Sustainable Production of Metal Powder for Additive Manufacturing

    Sustainable Production of Metal Powder for Additive Manufacturing with Bruce Bradshaw

    February 15, 2024
    Meeting Evolving Customer Demands in the Additive Manufacturing Industry with Tyler Reid

    Meeting Evolving Customer Demands in the Additive Manufacturing Industry with Tyler Reid

    February 9, 2024
    Innovation is at the heart of AMUG with Diana Kalisz

    Innovation is at the heart of AMUG with Diana Kalisz

    March 7, 2023
    3D Printing Workshops at AMUG with Edward Graham

    3D Printing Workshops at AMUG with Edward Graham

    March 7, 2023
    3D Systems Closes Systemic Bio, Founder Continues Mission

    3D Systems Closes Systemic Bio, Founder Continues Mission

    July 26, 2025
    Kre8+ Unveils Advanced Manufacturing Capabilities at Recent Colloquium

    Kre8+ Unveils Advanced Manufacturing Capabilities at Recent Colloquium

    July 25, 2025
    The 3D Printed Schools Project is expected to be completed by the end of 2025

    Qatar to Construct World’s Largest 3D-Printed Building

    July 14, 2025
    Digital Twin Integration in Additive Manufacturing Systems: Revolutionizing Design, Production, and Lifecycle Management

    Digital Twin Integration in Additive Manufacturing Systems: Revolutionizing Design, Production, and Lifecycle Management

    July 4, 2025
  • Focus Regions
    • India
    • Asia Pacific
    • Middle East
    • North America
    • Europe
  • Industries
    • Automotive
    • Aerospace
    • Defence
    • Energy
    • Construction
    • Healthcare
    • Tooling
    • Engineering
  • Training
  • Magazine
    • Digital Issues
    • Print Subscription
  • Events
Subscribe
AM ChronicleAM Chronicle
Home » Case Studies

Rebuilding components with Additive Manufacturing

Case Studies By Aditya ChandavarkarOctober 2, 20194 Mins Read
10.Manufacturing of the part via laser sintering technology. Detail of the T shaped attachment bracket scaled
LinkedIn Twitter Facebook WhatsApp Pinterest Email Copy Link

Additive Manufacturing can be applied to many cases, including the reproduction of broken or worn components, whose spare parts are difficult to obtain or no longer available. Circumstances like these are even more and more frequent nowadays; the impossibility or delays in finding spare parts can compromise the workflow of production cycle with consequent loss of time and money.

The reverse engineering process, combined with professional 3D printing and high-performance composite materials, allows the broken or worn production tool component to be quickly reconstructed and replaced, allowing the production system to immediately return to operational status, saving a great deal of time and money. The following case study, can be extended to the situations above.

It is about the reconstruction of a T-shaped attachment bracket using reverse engineering process, selective laser sintering technology and Carbon-fiber reinforced composite material. The T-shaped attachment bracket is fixed to a linear actuator for large electro-mechanical blinds.

1.T shaped attachment brackets
Fig 1.T-shaped attachment brackets for industrial blinds. On the right ( close-up) the part rebuilt via reverse engineering process and selective laser sintering technology using Carbon-composite Windform® SP 3d printing material from CRP Technology’s TOP-LINE range of composite materials. In the background (left side) the original part broken in three pieces and then bonded

Due to wear and prolonged use, this part broke into three parts making it impossible to open and close the blinds.`The setback has been turned into an occasion for a field-testing, to demonstrate that the most advanced technologies are vital when – for example – obsolete spare parts are no longer available. In fact, advanced technologies can quickly rebuild components, allowing the production process to get back to operate immediately, with a huge savings of time and money.

CRP Technology, the 3D printing company based in Italy and world leader in the field of the most advanced additive manufacturing technologies and composite materials, conducted the field-testing. The CRP Technology’s manufacturing path starts with the evaluation of the 3D file of the component to be built.

Already at this point, however, the CRP Technology experts found themselves facing an obstacle: the impossibility to get the 3D file of the T-shaped attachment bracket.

Thanks to the experience gained and 3D laser scanning technology, the CRP Technology team has managed to overcome the issue by using reverse engineering: this is a process that replicates a design by Laser scanning, to create 3D data that allows for modifications, adaptations or reconstruction of the part. CRP Technology’s expert team then applied reverse engineering process:

  • Digitization phase – Data captured from the surface of the T-shaped attachment bracket by scanning, to obtain its initial geometry.
7.Real time scan image
Fig 2.Real-time scan image. cloud of points that the laser detects during scanning, visible on the monitor
  • Reconstruction phase – Data processing

From the mesh, through the use of special engineering CAD software the solid geometry is reconstructed and fitted to the original shape.

Data processing screenshot
Fig 3. Data processing screenshot

Production phase – Manufacturing of the functional part via professional 3d printing and Carbon-composite material

Once the 3D .STL file was produced after reverse engineering, CRP Technology team proceeded with the creation of the T-shaped attachment bracket using Windform® TOP-LINE composite materials and selective laser sintering technology. As a manufacturing material, Windform® SP was chosen, a polyamide-based Carbon composite material from the CRP Technology’s TOP-LINE range of high-performance composite materials. The material has excellent mechanical properties, with high level of impact strength and elongation at break, as well as excellent resistance to high temperatures.

The overall manufacturing, from the reverse engineering phase to the construction via 3D printing, took place in just a few days. The CRP Technology team inspected the Windform® SP, T-shaped attachment bracket, and were very satisfied with the result obtained.

Dimensional control, validation and assembly on site

Fig. 4 New T-shaped attachment bracket mounted on the linear actuator
Fig. 4 New T-shaped attachment bracket mounted on the linear actuator

The Windform® SP T-shaped attachment bracket has been scanned again to check for dimensional accuracy to ensure its conformity with the original. Once the validation phase was completed, the Windform® SP T-shaped attachment bracket has been mounted in place of the original. Field-tests led to excellent results, and the correct functioning of the Blinds was restored. The use of cutting-edge technologies has allowed the reconstruction and implementation of the component in a short time. The material used, the highly performing Windform® SP, has guaranteed the full restoration of the original functions of the structure.

Aditya Chandavarkar
Aditya Chandavarkar
Website
Aditya Chandavarkar is a established entrepreneur with business interests in manufacturing, innovative technology, training and consulting. Among other activities he the Co-Founder of Indian 3D Printing Network and is a subject matter expert on 3D Printing/Additive Manufacturing with good grasp of Additive Manufacturing trends in the Region including India, APAC, Middleeast and Africa.
3DPrinting AdditiveManufacturing Carbon Fibre Casestudy CRP laser sintering SLS Windform
Aditya Chandavarkar
  • Website

Aditya Chandavarkar is a established entrepreneur with business interests in manufacturing, innovative technology, training and consulting. Among other activities he the Co-Founder of Indian 3D Printing Network and is a subject matter expert on 3D Printing/Additive Manufacturing with good grasp of Additive Manufacturing trends in the Region including India, APAC, Middleeast and Africa.

NAMIC GLOBAL AM SUMMIT 2025
LATEST FROM AM
3D Systems Closes Systemic Bio, Founder Continues Mission News

3D Systems Closes Systemic Bio, Founder Continues Mission

July 26, 20252 Mins Read
Kre8+ Unveils Advanced Manufacturing Capabilities at Recent Colloquium News

Kre8+ Unveils Advanced Manufacturing Capabilities at Recent Colloquium

July 25, 20251 Min Read
The 3D Printed Schools Project is expected to be completed by the end of 2025 News

Qatar to Construct World’s Largest 3D-Printed Building

July 14, 20252 Mins Read

CONNECT WITH US

  • 126 A, Dhuruwadi, A. V. Nagvekar Marg, Prabhadevi, Mumbai 400025
  • [email protected]
  • +91 022 24306319
Facebook Instagram YouTube LinkedIn

Newsletter

Subscribe to the AM Chronicle mailer to receive latest tech updates and insights from global industry experts.

SUBSCRIBE NOW

Quick Links

  • News
  • Insights
  • Case Studies
  • AM Training
  • AM Infocast
  • AM Magazine
  • Events

Media

  • Advertise with us
  • Sponsored Articles
  • Media Kit

Events

  • AM Conclave 2025
    24-25 September 2025 | ADNEC, Abu Dhabi
  • AMTECH 2025
    3-4 December 2025 | KTPO, Whitefield, Bengaluru
CNT Expositions & Services LLP
© 2025 CNT Expositions & Services LLP.
  • Privacy Policy
  • Cookie Policy

Type above and press Enter to search. Press Esc to cancel.



0 / 75