• Project : 
    CNC_02865
  • Type : 
    Product
  • File : 
    10_151_02
  • Client : 
    Biesse Group_GIMAC
  • Timeframe : 
    On-going
2023
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Software for Variable Manufacturing

Biesse Group_GIMAC

custom code
electrical engineering
material engineering
FDM
robotics

We developed an in-house research and development initiative that resulted in the creation of an advanced additive manufacturing system for industrial robots specifically designed for medical purposes, capable of working with multiple materials.

  • Project : 
    CNC_02865
  • Type : 
    Product
  • File : 
    10_151_02
  • Client : 
    Biesse Group_GIMAC
  • Timeframe : 
    On-going
2023
_ongoing
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Category :
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To develop an advanced multimaterial additive manufacturing system for our industrial robots, specifically designed for medical applications. This project aims to revolutionise medical robotics by empowering our industrial robots with a cutting-edge additive manufacturing system. The resulting solution will enhance our capability to produce high-quality medical components, driving advancements in healthcare innovation and contributing to improved patient care.

"A system that could definitively change the production of orthoses for the medical sector."

Simone Maccaghnan
GIMAC

Process

The intricate process behind developing the advanced multimaterial additive manufacturing system has so far involved the fusion of engineering expertise, innovative design, and rigorous prototyping. From conceptualisation to refinement, we’re revolutionising medical robotics and pushing the boundaries of additive manufacturing technology.

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Prototype of first time sculpting

Technology

The integration of technology has empowered our robots to create complex medical components with precision, versatility, and efficiency, setting new standards in the world of healthcare innovation. Read below for more.

Electronics, automation & robotics

Developed custom hardware designs that seamlessly integrated with CAD models, enabling precise control and automation for consistent and accurate material deposition.

Machining and Material Engineering

Utilized industrial machining techniques for precise component fabrication and customized materials suitable for a wide range of multimaterial applications, ensuring structural integrity and durability.

Digitisation and Computational Design

Used photogrammetry to capture detailed 3D models, creating digital twins for rapid prototyping and iterative improvements during design, simulation, and testing phases testing phases.testing phases.testing phases.testing phases.fffffff

Outcome

Witness the transformative outcome of our pioneering project, as industrial robots equipped with advanced additive manufacturing systems redefine the landscape of healthcare, producing high-quality medical components with speed, accuracy, and customization.

Equipped with an array of precision tools and sensors, the robot's mechanical arms operate with remarkable dexterity and accuracy.
Equipped with an array of precision tools and sensors, the robot's mechanical arms operate with remarkable dexterity and accuracy.
Equipped with an array of precision tools and sensors, the robot's mechanical arms operate with remarkable dexterity and accuracy.
Equipped with an array of precision tools and sensors, the robot's mechanical arms operate with remarkable dexterity and accuracy.