Inspire Print 3D - Efficient Design For Additive Manufacturing

Advancements in 3D printing and design optimization for additive manufacturing (AM) is changing the industry’s overall approach to product design. This webinar features Altair Inspire™ a solution for designing parts through additive manufacturing and Amphyon, a complementary partner tool available through the Altair Partner Alliance. Through a combined workflow we’ll demonstrate an alternate and more efficient approach towards generative design. Instead of manufacturing the part, a process simulation in Amphyon is conducted to predict the impact of the AM process to the design. This feedback is then used to optimize design further and improve the manufacturing process by essentially fixing the defects early in the design process.

Technology for designing optimized parts for additive manufacturing, from initial design through simulation of the 3-D printing process will be showcased. An extended example using a customized hip-implant will be used to highlight the various technologies used throughout the process. A brief overview of capabilities will be provided at the beginning, and a summary of benefits will conclude the discussion.

This webinar will take you through the concept and roadmap phase, all the way to the manufacturing process - all within Altair Inspire and Inspire Print 3D, a revolutionary generative design and 3D printing simulation environment that solves real world production challenges. Learn how to rapidly visualize production defects, rectify problems to avoid downstream production issues, save product weight, reduce material consumption and cost all through the use of intelligent complementary design technologies.

This biomedical webinar series highlights solutions for some of the healthcare industry's most complex challenges. Each session covers applications specific to the medical field including how to leverage multiphysics to enhance medical device design, using machine learning to optimize medical stents, improving mechatronics performance with model-based development software, leveraging additive manufacturing for the design of implants, and using optical modeling for biomedical systems and applications.