3D Printing Biocompatible Polymer Composite having "bone like" qualities
A non-re sorbable yet absorbent PAPC composition having a cellular structure with porous and non porous surface.
The 3D Printed "Bone Like" behavior Of FibreTuff PAPC
Fall 2024 Presentations - 3D printing FibreTuff PAPC for Additive Manufacturing
Military Medicine 2023: Additive Manufacturing for Fabrication of Point-of-Care Therapies in Austere Environments
Military Medicine 2023: Additive Manufacturing for Fabrication of Point-of-Care Therapies in Austere Environments
Robert Joyce will present at (3) conferences during the fall of 2024. The SPE FOAMS 2024 conference in King of Prussia September 17-20 / Advanced Manufacturing Minneapolis 2024 - October 16-17 and AMI Performance Polyamides in Cleveland November. He will share his 20+ years of growing innovative foaming technology to eventually 3D print PAPC+Nylon66 having bone like performance.
Military Medicine 2023: Additive Manufacturing for Fabrication of Point-of-Care Therapies in Austere Environments
Military Medicine 2023: Additive Manufacturing for Fabrication of Point-of-Care Therapies in Austere Environments
Military Medicine 2023: Additive Manufacturing for Fabrication of Point-of-Care Therapies in Austere Environments
Military Medicine publication of 3D printing FibreTuff PAPC in austere deployment and point-of-care rapid fabrication. A variety of 3D printed examples include medical supplies, including human tissues and bioactive bandages, in prolonged field care scenarios. In this pilot project, the aim was to investigate the ability to 3D print a ran
Military Medicine publication of 3D printing FibreTuff PAPC in austere deployment and point-of-care rapid fabrication. A variety of 3D printed examples include medical supplies, including human tissues and bioactive bandages, in prolonged field care scenarios. In this pilot project, the aim was to investigate the ability to 3D print a range of potential biomedical supplies and solutions in an austere field environment. FibreTuff is thankful for being selected as the biocompatible filament of choice.
FibreTuff PAPC awarded in the Top 10 3D Printing Trends in Healthcare (2023)
Military Medicine 2023: Additive Manufacturing for Fabrication of Point-of-Care Therapies in Austere Environments
FibreTuff PAPC awarded in the Top 10 3D Printing Trends in Healthcare (2023)
FibreTuff is listed in the Top 10 3D Printing Trends in 2023 by StartUs insights for Biocompatible Materials. We're very Thankful for the recognition. The printed PAPC has been tested in vivo and by University's in vitro without any adverse effects to cells and tissues. Matter of fact, Bioactivity was present and there has been osteoblast
FibreTuff is listed in the Top 10 3D Printing Trends in 2023 by StartUs insights for Biocompatible Materials. We're very Thankful for the recognition. The printed PAPC has been tested in vivo and by University's in vitro without any adverse effects to cells and tissues. Matter of fact, Bioactivity was present and there has been osteoblast adhesion without hydroxyapatite (Ha). We have a huge upside because FibreTuff PAPC has non resorbable ingredients without pore closure.
IMECE 2023 Conference includes 3D printed FibreTuff PAPC+Nylon 66 bone scaffolds.
3D Printed Methods can Naturally Generate Surface Porosity with FibreTuff Technology
FibreTuff PAPC awarded in the Top 10 3D Printing Trends in Healthcare (2023)
The 3D Printing of FibreTuff PAPC is the best material to replace bone like properties. One can construct cortical and cancellous bone, plus, there is a nonbinary radiographic image not radiolucent or radiopaque. The radiopacity isn't too bright for showing bone bridging and we believe won't require implant removal to identify evidence ba
The 3D Printing of FibreTuff PAPC is the best material to replace bone like properties. One can construct cortical and cancellous bone, plus, there is a nonbinary radiographic image not radiolucent or radiopaque. The radiopacity isn't too bright for showing bone bridging and we believe won't require implant removal to identify evidence based healing. Further, we believe this radiopacity will be very beneficial to ascertain data for Artificial Intelligence - process optimization for quality of micropore construction.
3D Printed Methods can Naturally Generate Surface Porosity with FibreTuff Technology
3D Printed Methods can Naturally Generate Surface Porosity with FibreTuff Technology
3D Printed Methods can Naturally Generate Surface Porosity with FibreTuff Technology
The printed FibreTuff PAPC anatomical bone models like this vertebrae are printed with filaments even powders. After 3D printing the bone models, they can be sterilized by standard methods such as Autoclave. The printed FibreTuff PAPC+Nylon66 has hydrophilicity helping attract antibiotic liquids to minimize infection. This printed PAPC fe
The printed FibreTuff PAPC anatomical bone models like this vertebrae are printed with filaments even powders. After 3D printing the bone models, they can be sterilized by standard methods such as Autoclave. The printed FibreTuff PAPC+Nylon66 has hydrophilicity helping attract antibiotic liquids to minimize infection. This printed PAPC features surpasses several Chinese scientist’s whom have identified a nano mineralized Hydroxyapatite Nylon66 (HaNylon66) replacement of titanium, more specifically, PEEK for spinal implants. Reference: Zhipeng Deng, Bowen Hu, Xi Yang, Lei Wang, and Yueming Song The improved bioactive n- HA/PA66 cage versus the PEEK cage in anterior cervical fusion: results from a 6-year follow- up and a case-matched study.
3D Printed FibreTuff PAPC+Nylon66 implanted as a Dental Bone Graft
3D Printed Methods can Naturally Generate Surface Porosity with FibreTuff Technology
3D Printed Methods can Naturally Generate Surface Porosity with FibreTuff Technology
The 3D Printing of FibreTuff PAPC+Nylon66 has been implanted for a Dental Bone Grafting Material. This printed PAPC biomaterial was autoclaved at 250C for 20min at 28psi, immersed in antibiotics, then customized to the desired shape, implanted and closed with sutures.
3D Printed PAPC Biological Performance
Benchmarking the 3D printing of FibreTuff PAPC material for Bioreactor development
Christophe Marquette benchmarking the 3D printing of FibreTuff PAPC material for bioreactor development. The CAD design was produced by the 3d.FAB platform team. The design was performed by Lucas Lemarié, PhD student at SEGULA Technologies , a great example of thread integration.
Bioactivity Investigation of 3D Printed FibreTuff Microporous Cellular Structure
Dr Sikder of Cleveland State University performed a Bioactivity investigation of 3D printing FibreTuff, having microporous cellular structure. Dr Sikder immersed the microporous disc made with FibreTuff in Simulated Body Fluids (SBF). The SEM showed printed FibreTuff was biocompatible and had apatite formation.
3D Printed FibreTuff Cellular Structure shows Apatite Formation
The 3D printing of FibreTuff has been investigated for bioactivity. The results showed biocompatible behavior with unprecedented apatite formation. These results with FibreTuff displayed improved results versus HaPEEK or AMPPEEK. FibreTuff PAPC has passed USP Class VI testing performed by NAMSA for temporary implant status.
3D Printed Bone Tissue Engineering Investigation shows Osteoblast Adhesion without Hydroxyapatite
The 3D Printing of porous scaffolds made with FibreTuff PAPC were investigated in vitro and showed osteoblast adhesion. These bone tissue engineering tests were preformed by Dr Safadi at the Medical college in Northeast Ohio.
3D Printed PAPC with Conformal Circuits
3D Printing Conformal Circuits on FibreTuff
FibreTuff is the first bone like 3D printing product with biocompatible ingredients to utilize printed circuits to include but not limited biocompatible bar codes. nScrypt has demonstrated this unique feature which can be applied to CMF for cases where vestibular issues may exist. Strain gages, RF circuits and capacitive touch.
3D Printed FibreTuff PAPC has Bone Like Behavior with Absorbent Features
The 3D printing FibreTuff PAPC is the best material to replace bone like behavior. The printed PAPC once exposed to fluids becomes more flexible with improved impact.
Radiographic Image of a 3D Printed Femur Bone without Traditional Radio pacifiers
The FibreTuff PAPC - Polyamide, Polyolefin and Cellulose is an advanced biomaterial with radiopacity. This 3D printing FibreTuff PAPC micropore cellular structure has a radiographic image - CT Scans, Xray and Ultrasound. Further, the printed FibreTuff PAPC image can be -200HU to 200HU, less or equal to the attenuation of real bone. The advantage is identifying bone bridging or the healing process.Not radiopaque or radiolucent.
3D Printed FibreTuff PAPC conforms to RSNA standards
A Dr Hartman, cranio maxillofacial surgeon at Hartman Oral and Maxillofacial Surgery, P.C. has printed FibreTuff medical grade filament and produced anatomical bone like models for CT scans.His work confirms 3D printing FibreTuff meets the standards set by the Radiological Society of North America (RSNA) per the November 2018 published paper
3D Printed Medical Grade Filament for Cranio Maxillofacial Applications
A Dr Cafino in the Philippines worked with FibreTuff customer service for a couple hours to get the appropriate print settings to produce this temporal bone. The printed temporal bone made with FibreTuff filament. After 3D printing a successful temporal bone model for pre surgical planning he drilled into the model at 20,000 RPM for simulation. His goals were achieved and more. This highly sophisticated print, temporal bone was printed in 3 hrs.
3D Printed Dentistry Opportunities Utilizing Micropores
FibreTuff biocompatible filament has been 3D printed in a micropore cellular structure exposed to simulated body fluids without pore closure. Possible opportunities and collaboration for 3D Printing regenerative tissues. Write robert@fibretuff.us for more information.
FibreTuff Technology
Patents and Trademark
3D Printing "FibreTuff®”
- MOLDED PARTS WITH THERMOPLASTIC BIOPOLYMER COMPOSITIONS HAVING ORIENTED FIBERS FOR MEDICAL DEVICES AND IMPLANTS. U.S Patent 11,497,837
- CELLULOSE FIBER THERMOPLASTIC COMPOSITION HAVING A COSMETIC APPEARANCE AND MOLDING THEREOF. U.S Patent 10,233,
Composition of matter for thermoplastic biopolymer
- CELLULOSIC INCLUSIONS THERMOPLASTIC COMPOSITION AND MOLDING PARTS THEREOF. U.S. Patent 8,546,470
- CELLULOSIC INCLUSIONS THERMOPLASTIC COMPOSITION AND MOLDING PARTS THEREOF. U.S. Patent 9,109,118
Molded Parts made with "FibreTuff®" - MOLDED ARTICLE U.S patent 7,214,420
- MOLDED ARTICLE Canadian Patent 2,547,523
- WOOD COMPOSITE ALLOY COMPOSITION HAVING A COMPATIBILIZER THAT IMPROVES THE ABILITY TO PROCESS AND COMPRESS CELLULOSIC FIBER. U.S. Patent 7,994,241
- USPTO Registered Trademark FibreTuff® S/N 85/955,521
Bone Scaffold Research and Technical Publications
ASME Technical Presentation FibreTuff PAPC bone scaffolds November 2023
ASME Technical Presentation FibreTuff PAPC bone scaffolds November 2023
ASME Technical Presentation FibreTuff PAPC bone scaffolds November 2023
INVESTIGATION OF THE INFLUENCE OF NYLON-6 VS. NYLON-66 ON THE MECHANICAL PERFORMANCE OF COMPOSITE BONE TISSUE SCAFFOLDS
The research will be published through ASME and presented by Dr Ross Salary and Robert Joyce @
2023 IMECE® International Mechanical Engineering …
ASME
3D Printed Bone Scaffold Technical Publications
ASME Technical Presentation FibreTuff PAPC bone scaffolds November 2023
ASME Technical Presentation FibreTuff PAPC bone scaffolds November 2023
1) Abigail Chaffins, Mohan Yu, Pier Paolo Claudio, James B. Day, Roozbeh (Ross) Salary. Investigation of the Functional Properties of Additively-Fabricated Triply Periodic Minimal Surface-Based Bone Scaffolds for the Treatment of Osseous Fractures. August 4, 2021
https://asmedc.silverchair.com/MSEC/proceedings/MSEC2021/85062/V001T03A004/1115357
2) Daguan Zhao, Christoph Hart, Nathan A. Weese, Chantz M. Rankin, James Kuzma, James B. Day,
Roozbeh (Ross) Salary. Experimental and Computational Analysis of the Mechanical Properties of Biocompatible Bone Scaffolds, Fabricated Using Fused Deposition Modeling Additive Manufacturing Process. January 15, 2021 https://pressurevesseltech.asmedigitalcollection.asme.org/MSEC/proceedings/MSEC2020/84256/V001T03A008/1095705
3D Printed Bone Scaffold Research with FibreTuff PAPC
BioProducts and Biomaterials that drive sustainability in a medical market
BioProducts and Biomaterials that drive sustainability in a medical market
1) Paavana Krishna Mandava, James B. Day, Robert Joyce, Roozbeh (Ross) Salary. Investigation of the Mechanical Properties and Bioactivity of Additively Manufactured Bone Tissue Scaffolds, Composed of Polyamide, Polyolefin, and Cellulose Fibers. Published MSEC and ASME June 27, 2022
https://asmedigitalcollection.asme.org/MSEC/proceedings/MSEC2022/85802/V001T01A023/1146907
2) Paavana Krishna Mandava, Joshua Blatt, Zachary Preston, Jacob Kirkendoll, Robert Joyce, Roozbeh (Ross) Salary. An Image-Based Convolutional Neural Network Platform for the Prediction of the Porosity of Composite Bone Scaffolds. IMECE November 2, 2022
BioProducts and Biomaterials that drive sustainability in a medical market
BioProducts and Biomaterials that drive sustainability in a medical market
BioProducts and Biomaterials that drive sustainability in a medical market
Glad to contribute to the publication at Degruyter with editing by Bhima Vijayendran. Well worth the time to tell a quick story - Chapter 26 on how the FibreTuff PAPC evolved into a novel biomedical composition and products. Will look forward to working again with Bhima. Thanks Bhima
Talking Additive Podcast with Robert Joyce
A newly released podcast Episode 37 by global printer manufacturer Ultimaker branded as "Talking Additive" has Matt Griffin and Robert Joyce, Founder of Fibretuff discussing 3D printing automotive to medical printing development and commercialization. October 17th, 2022