A non re sorbable cellular structure with absorbency and limited fluid storage capacity, excellent hardness and radiopacity
Innovative Plastics and Molding, Inc. began as a small business specializing in molding, extrusion, and 3D printing biocompatible materials. The company evolved into a prominent 3D printing solution provider of biocompatible, cellular structure's with amphiphilic 'bone-like' parts.
Our team is comprised of experts in 3D printing technology, specializing in the use of biocompatible materials. We are passionate about what we do and are committed to providing our clients with the best possible service.
We offer a wide range of 3D printing services, including rapid prototyping, custom part production, and product design, utilizing 3D printing biocompatible materials. Our advanced FibreTuff Technology enables us to deliver high-quality results, such as the printed clavicle above.
Robert Joyce participated on a panel at SVSU - Saginaw Valley State University on August 15, 2025 to discuss M/L and AI
Lightweight Revolution: Unlocking Sustainability and Efficiency panelists included Robert Joyce joined by Steve Sopher, Isabelle Wright and Bridget Grewal.
Robert Joyce presented at the 3D printing conference Rapid+TCT 2025 in Detroit, MI. He looks forward to presenting next year.
Robert Joyce will present at three conferences during the fall of 2024. He will be attending the SPE FOAMS 2024 conference in King of Prussia from September 17-20, the Advanced Manufacturing Minneapolis 2024 on October 16-17, and the AMI Performance Polyamides in Cleveland in November. During these events, he will share insights from his
Robert Joyce will present at three conferences during the fall of 2024. He will be attending the SPE FOAMS 2024 conference in King of Prussia from September 17-20, the Advanced Manufacturing Minneapolis 2024 on October 16-17, and the AMI Performance Polyamides in Cleveland in November. During these events, he will share insights from his 20+ years of experience in developing innovative foaming technology, including advancements in 3D printing biocompatible materials. His work has led to the creation of FibreTuff PAPC+Nylon66, which is amphiphilic, exhibiting bone-like performance.
The Military Medicine publication highlights the use of 3D printing biocompatible materials, specifically the FibreTuff PAPC, which is a biocompatible 3D printer filament ideal for austere deployment and point-of-care rapid fabrication. This innovative fibre material has enabled the production of a variety of 3D printed medical supplies,
The Military Medicine publication highlights the use of 3D printing biocompatible materials, specifically the FibreTuff PAPC, which is a biocompatible 3D printer filament ideal for austere deployment and point-of-care rapid fabrication. This innovative fibre material has enabled the production of a variety of 3D printed medical supplies, including human tissues and bioactive bandages, suitable for prolonged field care scenarios.
The 3D printing of FibreTuff PAPC represents one of the best biocompatible materials available, designed to replicate bone-like properties. This innovative biocompatible 3D printer filament allows for the construction of both cortical and cancellous bone. Additionally, it produces a nonbinary radiographic image that is neither radiolucent
The 3D printing of FibreTuff PAPC represents one of the best biocompatible materials available, designed to replicate bone-like properties. This innovative biocompatible 3D printer filament allows for the construction of both cortical and cancellous bone. Additionally, it produces a nonbinary radiographic image that is neither radiolucent nor radiopaque. The radiopacity is optimally balanced, making it suitable for showing bone bridging without the need for implant removal to verify evidence-based healing.
Communicating new ideas to customers who require 3D printable biocompatible amphiphilic materials that exhibit bone-like performance and qualities.
An orthopedic surgeon and University Department Leader evaluates a 3D printed femur bone made with FibreTuff PAPC. He drills into the bone models and comments on the robust properties of 3D printing biocompatible materials, highlighting the strength and ductility of the amphiphilic parts.
The YouTube video highlights the 3D printing biocompatible materials as a bone scaffold. The bone scaffold had 200 micron pore sizes. The collagen would be dispensed onto the printed FibreTuff PAPC scaffold demonstrating excellent adhesion both mechanical and chemical bonding.
Mon | 09:00 am – 05:00 pm | |
Tue | 09:00 am – 05:00 pm | |
Wed | 09:00 am – 05:00 pm | |
Thu | 09:00 am – 05:00 pm | |
Fri | 09:00 am – 05:00 pm | |
Sat | Closed | |
Sun | Closed |
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