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#3DExpress: Enhanced Ocean Conservation Through 3D Printing
We are back with #3DEXPRESS to show you all the highlights of the news from the additive manufacturing sector this week! First up, QOROX partners with CyBe Construction to leverage 3D printing for artificial reefs, promoting biodiversity and habitat reconstruction…
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We are back with #3DEXPRESS to show you all the highlights of the news from the additive manufacturing sector this week! First up, QOROX partners with CyBe Construction to leverage 3D printing for artificial reefs, promoting biodiversity and habitat reconstruction for various marine species. Next, American company Honeywell has turned to French manufacturer Prodways to improve the manufacturing process for its turboprop engines. Moving forward, NEVO3D and KIMYA launch a new material for the rail industry, harnessing the benefits of 3D printing for repairs. Wrapping up, Solukon updates its SFM-AT350 Solution, enhancing the system with various upgrades. Let’s get started!
3D Printing and Ocean Conservation
3D printing is increasingly being leveraged to preserve our planet, develop recycling solutions, and protect our oceans and biodiversity. A notable example of this is the project led by Eke Panuku and QOROX in New Zealand, which demonstrates the innovative potential of concrete 3D printing. Collaborating with CyBe Construction, the two partners have created artificial coral reefs, which serve as microhabitats for various marine species. These 3D printed marine crustaceans provide essential shelter, contributing to ocean conservation of marine ecosystems.

(Photo Credits: QOROX)
Honeywell Partners with Prodways
American company Honeywell, known for its solutions in the nuclear, aerospace, and construction sectors, has turned to French manufacturer Prodways to improve the manufacturing process for its turboprop engines. The company turned to ceramic 3D printing technology to design molds for turbine blades. Prior to using additive manufacturing, Honeywell used the conventional lost-wax casting process, which was much more time-consuming and costly. The teams explain that they can now manufacture a turbine blade in 7 to 8 weeks, compared with one to two years previously! Additionally, these 3D printed molds are more resistant to wear and corrosion, and enable a whole series of tests and validations to be carried out much more easily.





