SYS Systems (Stratasys UK Platinum Partner)’s Post

*While most of us are still understanding 3D printing, here's 4D printing of... Blood vessels!!* 4D printing is an extension of 3D printing that adds the dimension of time. 4D-printed objects can change shape or function over time in response to environmental stimuli such as heat, light, or moisture. *4D-printed blood vessels* are a promising new technology that could revolutionize tissue engineering and the treatment of cardiovascular diseases:  a)     Adaptability: 4D-printed blood vessels can change shape or function in response to biological cues, such as changes in blood pressure. This adaptability allows the vessels to grow and function better, and to provide optimal support for the affected blood vessel.  b)     Self-assembly: 4D-printed blood vessels can self-assemble into complex vascular networks after being implanted.  c)      Reduced complications: 4D-printed blood vessels could reduce the need for additional surgeries to replace or modify the stent, and reduce the risk of complications.  d)     Improved heart bypass outcomes: Artificial blood vessels could improve heart bypass outcomes.   

3D-printed artery models made from transparent and flexible resin provide an advanced training solution for medical professionals and students seeking a better understanding of anatomy and surgical procedures. Special thanks to Samuel GUIGO for providing educational content on printing arteries with Formlabs. In this video I printed a part of the training model that he designed. This model is an aorta model in two pieces, allowing students to deploy an aortic prosthesis, reopen the model, retrieve the prosthesis, and repeat the procedure on the same model. If biocompatibility is not required, you may consider printing with Formlabs Flexible 80A or Elastic 50A. Check out this interesting use case: https://lnkd.in/dJtXF3yP We also got a biocompatible versions: With Formlabs' BioMed Flex 80A Resin and BioMed Elastic 50A Resin, professionals can enjoy the benefits of traditional elastomeric and biocompatible materials, combined with the ease of use and streamlined workflow offered by Formlabs resin 3D printers. These BioMed materials undergo ISO 10993 and USP Class VI testing and are manufactured in an FDA-registered, ISO 13485-certified facility. This ensures that medical professionals can use these products with confidence. As Formlabs continues to expand its library of biocompatible materials, 3D printing becomes a viable option for more workflows and applications, ultimately improving patient care, reducing costs, and expanding possibilities.

Did you know that the first 3D printing technology was first established in 1984? 🖨️ This tool only started gaining traction when the first prosthetic leg was printed in 2008, two years after the printers became commercially available. Since then, 3D printing has gained popularity and advanced in incredible ways! We picked a few examples to take a look at, particularly in the medical field, as well as the benefits of using this method. Patient-Specific Implants • Customized orthopedic and cranial implants improve fit and functionality.  • Surgeons can design them tailored to an individual's unique anatomy, enhancing patient outcomes. Surgical Tools and Guides • 3D-printed surgical instruments aid precision during procedures.  • Surgical guides ensure accurate placement of implants, reducing errors and time. Anatomical Models • 3D printing patient-specific models help surgeons plan complex procedures!  • These models allow visualization and optimization of surgical approaches. 3D printing has transformed medicine, offering personalized solutions, improved surgical outcomes, and innovative approaches. As technology continues to evolve, we can expect even more groundbreaking applications in healthcare! This educational article covers the use of 3D printing in a hospital environment: https://lnkd.in/eU74qDfD #3DPrintedProsthetics #AdditiveManufacturing #HealthcareInnovation

Personalized, precision medicine is on the rise. New tools and advanced technologies are bringing doctors closer to patients, delivering treatments and devices customized to better serve each unique individual. Advances in medical 3D printing technology have made tremendous contributions to fields throughout healthcare. For patients, new tools and therapeutic methods developed through 3D printing can bring new degrees of comfort and personalization to treatment. For doctors, this newly accessible technology allows for a greater understanding of complex cases and provides new tools that can ultimately result in a higher standard of care. From patient-specific surgical models to 3D printed medical devices, read on to discover five ways 3D printing in healthcare is taking off, why many medical professionals are excited about the potential of 3D printing in the medical field, and how different types of 3D printing technology can be utilized for specific healthcare applications. For more information and first hand experience visit us on www.afsuham.com #3dprinting #3dmodeling #roboticsurgery #medicaleducation #roboticprocessautomation #medicaldevicemanufacturing #medicaladvancements #medicalimaging #patienteducation #artificialintelligenceinhealthcare #medicaladvancements #augmentedreality

3D Printed Medical Devices ? A recent study by Additive Manufacturing Research predicts the 3D printed medical device market will explode to $16.5 billion by 2034, with a growth rate of 12% annually. Reasons it could be a game changer ... Custom prosthetics that perfectly match a patient's needs. Custom built limbs allow us to consider prosthetics as an extension to the human body instead of replacements. The cost of developing new medical devices could plummet Think bionic ears and 3D-printed organs... 3D printing is pushing the boundaries of medical innovation, with exciting possibilities on the horizon. Prosthetics, audiology, and dentistry are just the beginning. What are your thoughts on 3D printing? #3Dprinting #healthcare #medicaldevices #futureofmedicine #personalizedmedicine

😆 Daily Sharing 🔦 Title: 3D and 4D printing of biomedical materials: current trends, challenges, and future outlook 📝 Written by Gayan A. Appuhamillage, Sankalya S. Ambagaspitiya, Rohan S. Dassanayake, Achintha Wijenayake 🏷 Keywords: #3Dprinting #4Dprinting tissue engineering drug delivery biomedical engineering biomedical materials additive manufacturing smart materials 💪 Curious to know more? Dive into the article: https://lnkd.in/g5j4DtMY #ExplorMed

😆 Daily Sharing 🔦 Title: 3D and 4D printing of biomedical materials: current trends, challenges, and future outlook 📝 Written by Gayan A. Appuhamillage, Sankalya S. Ambagaspitiya, Rohan S. Dassanayake, Achintha Wijenayake 🏷 Keywords: #3Dprinting #4Dprinting tissue engineering drug delivery biomedical engineering biomedical materials additive manufacturing smart materials 💪 Curious to know more? Dive into the article: https://lnkd.in/gWqPdS5E #ExplorMed

I recently watched this video on YouTube about the applications of 3D printing in healthcare and wanted to share it. The video dives into the incredible advancements being made possible by 3D printing technology. It's truly amazing to see how this technology is revolutionising the creation of prosthetics, implants, and medical devices, making them more accessible, personalised, and cost-effective. One of the most exciting aspects highlighted in the video is how 3D printing allows for custom-fitted prosthetics and implants that perfectly match a patient's anatomy. This precision not only improves the comfort and functionality of these devices but also enhances the overall recovery process. Additionally, the ability to quickly produce specialised medical tools tailored to specific procedures is a game-changer for surgeons, leading to better outcomes for patients. #3DPrinting #HealthCare #Innovation

Did you know that 3D printing technology is being used to create personalized and anatomically accurate models for surgical planning and medical education? It enhances training and improves patient outcomes by providing a hands-on learning experience. 🏥 #MedicalEducation #SurgicalPlanning

Find out, how kernel, threshold, slice sickness and software affect segmentation accuracy, learn how digital editing can compensate for limited imaging quality and how gaussian error propagation can be used to calculate the accuracy of the final printed model. Check out our latest publication! https://lnkd.in/ebt8sdjK #welove3dprinting #medical #3d #printing #pointofcare Martin Schulze Julian Hasselmann Robert Rischen Max Tönnemann