• Researchers Create Intravenous Transfusion Valve Compatible For Humans Using 3D Printing

    A group of researchers from Alfred State College, one of eight Colleges of Technology within the State University of New York (SUNY) system used 3D printing and SOLIDWORKS modeling to develop a novel, imprinted micro check valve for Intravenous Transfusions. Using a Form 2 3D Printer, they were able to print the parts modeled at SOLIDWORKS, which included Ball, Valve Inlet and Perforated Ring Outlet which was then coated with thin layer of parylene for safety in humans. The tests showed that the check valve design allowed for zero backward flow while also allowing flow through the device in the proper direction at a rate of 98.6 μl/sec

  • Egyptian Project Nitrous Working For People With Disabilities

    Giza Systems recognized the project called Project Nitrous inspired by the work of Mohamed El-Hossary and Ahmed Mohsen, whose aim was to support and boost the work being done for people with disabilities (PwDs). Project Nitrous is extending its work into four main tracks: Creating assistive devices, Giving people with disabilities the technical knowledge to design their own tools, Creating a startup extension of the project run by people with disabilities and Providing a blueprint for others who want to start similar businesses and creating an open-source community where designs and tools are accessible to all. Project Nitrous was officially born in February 2018, and has helped 23 people so far, with 18 additional projects currently in progress.

  • 3D Printed Phantoms That Can Help Better Understand Cancer Treatment

    Researchers’ team from Louisiana State University led by Wayne Newhauser, director of the medical physics program at LSU, is working towards creating better Phantoms—models used as patient dummies when figuring out treatments and dosages. Using these dummies, the research team plans to carry out multiple trials of treatment for Cancer using Radiation therapy to kill neoplastic cancer cells in human bodies. These 3D Printed Phantoms are relatively cheaper method and quicker means to accessing information against Cancer.

  • Plastic Weed Containers Get Recycled Into 3D Printed Prosthetics For Children

    Halifax resident Jacob Boudreau, who works for a logistics company, was inspired to open his own non-profit e-NABLE chapter, called Kindness3D. After legalization of marijuana in Canada, he stood for the waste management by recycling plastic waste from what he refers to as the “excessive cannabis packaging conundrum” of the NSLC (Nova Scotia Liquor Corporation), the province’s legal cannabis distributor. Using Kindness3D modified a paper shredder at Boudreau’s Dalhousie University Sexton Campus operation, recycled plastic was converted into 3D Printed Prosthetics for children. Additionally, he started a petition in hopes of convincing the NSLC to collect and donate all of its used cannabis packaging to Kindness3D.

    Source: https://www.cbc.ca/news/canada/nova-scotia/cannabis-packaging-3d-printer-prosthetic-limbs-1.4878440

  • Formlabs Technology Used to Make 3D Printed Anatomic Models of Young Patients Palate and Nasal Cavity

    7-year-old, Isaiah Onassis Goberdhan was diagnosed with an aggressive tumor in his palate and nasal cavity that caused him breathing difficulties. Using Formlabs Technology, Neha A. Patel, MD, a Northwell pediatric otolaryngologist at Cohen Children’s Medical Center, was able to plan the surgery with 3D Printed anatomical model of Goberdhan using CT and MRI scans. Onassis Goberdhan has now successfully recovered without complications after the surgery planned with 3D Printing.

  • 3D Printed Bioprinted Lungs Through Collaboration Of CollPlant and United Therapeutics Corporation

    CollPlant and United Therapeutics Corporation have recently announced their licensing, development, and commercialization agreement for 3D Bioprinted Lung Transplants. Combining United Therapeutics’ organ manufacturing and regenerative medicine capabilities through Lung Biotechnology PBC with CollPlant’s BioInk and proprietary recombinant human collagen (rhCollagen) technology, CollPlant will receive an initial upfront payment of $5 million to kick start the project.

  • PLA And PCL Composites Have Better Compliance For 3D Printed Stents

    To meet the requirements of a perfect stent like induction of rapid endothelialization to restore the functions of vascular tissue and compliance with medical requirements, particularly the flexibility required to facilitate placement, researchers approached 3D Printing these Stents with PLA and PCL composites. Using Tubular 3D Printer, they 3D Printed the stents which were then seeded with cells and left for three days, and then tests were performed to assess the morphological features, cell proliferation, cell adhesion, degradation rate and radial behavior. Both PCL and PLA showed themselves to be biocompatible, and the composite stents showed the most promise, with medium levels of degradation rates and mechanical modulus.

  • Magnet Plastic Heart Through 3D Printed Artificial Heart Pumps Like Real Heart

    Kai von Petersdorff-Campen, a doctoral student in the mechanical and process engineering department at ETH Zurich, revealed his prototype of Magnet-Plastic Heart made through 3D Printing which took him 15 hears. The method, so called embedded magnet printing, involved 3D printing the magnets directly in the plasti and making processing them into filament strands, before they are 3D printed using FDM technology. The prototype of 3D printed heart pump was able to successfully pump 2.5 liters per minute with 1,000 rotations, but still needs to meet the required standards.

  • Dental Implants Better With 3D Printing Than Conventional Methods

    Dr. Les Kalman at Western University’s Schulich School of Medicine and Dentistry has developed a dental implant abutment system called the Tempcap in collaboration with ADEISS, a 3D Printing Company dedicated to medical and dental 3D printing solutions. Using Renishaw 3D printers,  ADEISS worked on designing and 3D printing a version of the dental device in dental-grade titanium for testing, which was proved to increase the provisional crown quality and reduce the time required to fabricate the provisional crown for mandibular implant sites.

  • Hot Melt Extrusion Combined With FDM For Drug Delivery Systems

    A group of researchers from the University of Sussex are working towards Drug Delivery Systems by combining FDM technology with Hot-Melt Extrusion (HME) which involves blending of Active pharmaceutical ingredients (APIs) with a thermoplastic polymer, and extrusion as filaments. Through pairing of HME with FDM technology, the researchers can help increase the range of usable FDM polymers and improve the usability of FDM 3D printers across many industries. HME, which does not require the use of a solvent, can be used to make drugs with a less bitter taste, while also lowering production times and increasing process efficiency.

  • Tumor Analysis Platform A Unique Device By 3D Printing For Customized Cancer Treatment

    Researchers from MIT and Draper University have developed a 3D Printed Microfluidic Device called Tumor Analysis Platform or TAP that simulates cancer treatments on biopsied cancerous tissue. 3D Printable in about an hour, the Chip device uses the biopsied tumor fragments placement in a chamber connected to a network of deliver fluids to the tissue and contains a new type of biocompatible resin, Pro3dure GR-10 Resin, that can support the long-term survival of biopsied tissue. The TAP is cheap and easy to fabricate and adaptable for clinical use.

  • 4D Bioprinting Can Have Miraculous Potential In Regenerative Medicine

    Ramiah Martin, Susquehanna Valley, PA, was born with a rare medical condition called the Tracheal Agenesis, which left her without trachea and improperly formed esophagus. The doctors at Penn State Hershey Children’s Hospital used 3D Printing Technology to create a 3D Print Model of her esophageal passage and plan the surgeries ahead of time when she was 4 months old. Although she may require further interventions in future, the kid has been discharged with ventilator support at age of 13 months.

  • Bioprinting Company Allevi Releases Their Own Bioprint Ink Coaxial Extrsion Kit

    Allevi, a Bioprinter Company launched in 2014 has been famous for bioprinters such as Allevi One to Allevi 6, but they are also selling the Ink Kits usable with their printers, aiming at binding customers, getting revenue and building stronger relationship with their customers. After the FRESH Kit, they have launched Coaxial Extrusion Kit, which can create perfusable microchannels with hydrogels and cast endothelial microchannels, thus extending their use in all sorts of tissue types from Cartilage, Skeletal muscle, hearts and tumors.

  • Spanish Hospital Acquires Stratasys FDM Technology For Complex Surgeries

    Biodonostia Health Research Institute, a medical research institute in Basque, Spain, recently partnered with Tecnun, a specialist division of the Universidad de Navarra, and Tknika, a regional Research and Applied Innovation Center for Vocational Education and training, in order to help its surgeons harness FDM 3D printing technology from Stratasys to help in surgical preparation and planning. With the help from partnership, the surgical teams can receive highly accurate 3D printed medical models, made with Stratasys’ FDM technology, within 24 hours which can help patient care by reducing the amount of time patients spend in surgery, especially surgeries for complex thoracic wall tumors.

  • Aspect Biosystems Collaborate With Maastricht University For 3D Printed Kidney Tissue

    The Institute for Technology-Inspired Regenerative Medicine (MERLN) at Maastricht University, Netherlands, have announced their partnership with Aspect Biosystems, a tissue engineering and 3D bioprinting company. Through this collaboration, RX1 Bioprinting Platform by Aspect will be placed inside Professor Lorenzo Moroni’s Lab at the university, which then will be used by Dr. Carlos Mota to work towards 3D Printed Kidney Tissue. There, Dr. Carlos Mota, the head of bioprinting research, will put it to good use developing 3D bioprinted kidney tissue.

  • 4D Bioprinting Can Have Miraculous Potential In Regenerative Medicine

    A group of Portugese Researchers are working towards 4D Bioprinting in Regenerative medicine and ultimately pave the path for bioprinting human tissues for medical uses. With 3D Printing enhanced with 4th dimension, the researchers point out the potential to have greater control over size, shape and interconnectivity. Through 4D Bioprinting, researchers will be able to morph bioinks into viable cells and tissues without the boundaries of nature, however, this is yet to be explored in terms of temperature, peripheral chemicals, stress and UV light exposure, and ofcourse, the nature itself.

  • Startup Kijenzi Paves New Path For 3D Printing And Health In Kenya

    Kijenzi, a tech startup with co-founders John K. Gershenson, Benjamin Savonen and students, was born out of Penn State Humanitarian Engineering and Social Entrepreneurship program (HESE), and their recent objective was to provide 3D printers to clinics in more distant areas of Kenya. To further the cause, they worked on CAD files that can be accessed by the medical teams at Kenyan clinics to fabricate their own 3d printed equipments. Their new system of 3D Printing and Medical Supply Chain has won them the second place in IdeaMakers Challenge also.

  • Astrophysics Combined With 3D Printing Yields Ultimate 3D Print Models

    UK researchers, I. Brewis and J.A. McLaughlin, at Northumbria University unveiled their new research that combines astrophysics with 3D Imaging and Printing in cardiovascular health care. Using the astrophysics in creating new image-processing techniques for viewing the human heart, transferring the data to an .stl file and then 3D printing a medical model, they finally produced a precise 3D model of a patient’s heart with Aortic Aneurysm using Netfabb and SLA 3D Printer.

  • Randomized Trial By Chinese Researchers Prove Potential Of 3D Printed Models In Orthopedics Management

    A research conducted at The Second Affiliated Hospital and Yuying Children’s Hospital of Wenzhou Medical University in Zhejiang, China, provides insights to the use of 3D Printing in medical field. 48 patients suffering from distal radius fractures (one of the most common type of upper body injuries) participated in the study, with a 3D model made of each break using CT scans and Mimics software before being 3D Printed in PLA. The research concluded the advantage with more accurate diagnosis and surgery, faster procedure time, less blood loss in patients, and frequency of intraoperative fluoroscopy.

  • Stratasys First J750 3D Printer Shines At Argentinas University

    Argentina’s 3D Printing Community recently received first Stratasys J750 in December 2018 at the Technological Institute of Buenos Aires (ITBA) University, of which 8 3D Printers can be accessed by students and faculty any day of week in facility. The Stratasys J750 PolyJet 3D printer is designed to carry out surgical simulations, medical preparations, surgical guides and development of final products for industrial use. The university also aims to direct their innovative student’s minds towards building prototypes for some of the famous companies like Techint.

  • 3DHeals Event Explores Possibilities

    3DHEALS is an organization, founded by CEO Jenny Chen, aims at building a global platform for people to learn and collaborate on healthcare 3D printing and bioprinting, and related technologies through events around the globe. The event involved local speakers like Adam Jakus, Co-founder of Dimension Inx, Steven Morris, CEO of BIOLIFE4D, Stephen Anderson from Renishaw and Alejandro Espinoza from Rush; who gave 10 minute summaries of their work for an audience of additive manufacturing professionals in Chicago.

  • Researchers Suggest 3D Printing For Rhinoplasty Better Than Traditional Methods

    Researchers at Pohang University of Science and Technology (POSTECH) are working on improving the Rhinoplasty, a surgery of nose resconstruction, with the help of 3D Printing. Using the facial editing software to plan the surgery, and then converiting it to files for modeling and 3D Printing, followed by filling of hydrogel with patient’s cells and injecting into 3D Printed nasal implant. This whole process offers advantages such as shorter, comfortable and streamlined procedure with much accuracy in hand.


    3D Printed Spine Models Pave Path For Better Surgical Training

    Researchers from the Barrow Neurological Institute in Phoenix, Arizona studied the five models for use in training with simulation of both Freehand and Percutaneous Pedicle Screw Placement, with all models evaluated and then scored by junior and senior residential spine surgeons. All 3D Printed Barrow Biomimetic Spine model were created with Meshmixer software, imported back into Simplify3D software, and then 3D printed on a FlashForge Creator Pro with an affordable cost of $50-$70.

  • Man Receives New 3D Printed Eye Thanks To 3D Print And UC Davis Surgeons

    Joseph Michael was attacked in his home in 2013 leaving him with damage to eye socket and causing double vision. The Surgeons from UC Davis Medical Center, California, used CT scans of his left eye and converted the data into 3D Data, which was then used to 3D Print the exact replica for his right eye using Desktop Printer Ultimaker 3 Extended. The mirroring of left eye for re-building the right one, along with reconstructing the orbit and cheekbone was one of the finest process they UC Davis Doctors achieved.

  • After Bones Researchers Move To 3D Printing Meniscus Prototype

    Researchers at the Istituto Orthopedico in Rizzoli, Bologna made an attempt to improve on current methods for making tissue repairs and replacement by creating 3D Printed Meniscus Prototype. Using the real MRI Scans and converting them to .stl file, then proceeding to create a model from which to make the meniscus prototype and resulting scaffolds. The researchers used the 3D printed model of the knee to assist in reconstruction of the meniscus. They used a series of 2D cross sections to create tool paths, using LifeInk 200 bio-ink as the material for printing cells, and then 3D Printing the final product of Meniscus Prototype.

  • Three Tier Study Of Sydney Proves Value Of 3D Printing For Cardiac Phantoms

    Researchers from University of Sydney, including Kamarul Amin Abdullah, performed a three-tiered study that included: 3D printing a cardiac insert phantom created from volumetric CT image datasets, investigating the 3D printed phantom in evaluation an IR algorithm and evaluating optimal IR algorithm strengths for low-tube voltage CCTA protocols. They came up with the Lungman anthropomorphic chest phantom which is equipped with a phantom that mimics the heart, and the insert was created on a Creatbot DM Plus 3D printer. They also discovered that 3D printing was suitable for dose optimization studies, allowing for investigation of IR algorithm on dose reduction.

  • Researchers Select The Winner Scaffold For Bone Formation With 3D Printing

    A team from the Research Center for Nano-Biomaterials at Sichuan University worked on four groups of scaffolds, namely: PCL, PCL/PVAc, PCL/HA and PCL/PVAc/HA. By 3D Printing them on 3D Bioprinter V2.0 (manufactured by Hangzhou Regenovo Biotechnology Co., Ltd, China), they revealed that although they had almost similar porosity, the mechanical properties were different. PCL/PVAc/HA scaffold was selected the winner with more favorable characteristics during in vitro cell culture experiment and in vivo bone formation.

  • 3D Printing The Realistic Custom Eye Prosthetics

    A Team led by Professor Yoon Jin-sook from Severance Hospital, South Korea worked on 3D Printing Custom Eye Prosthetics on a large scale by solving the production cost and time. Following the scan of patient’s eye and conversion of data into STL file, the Eye were 3D Printed using Carima DS131 and Biocompatible Photopolymer Resin (FotoTec DLP.A, Dreve Inc.). To give them much realistic look, the Sublimation Transfer Technique was used to print the image of the iris and blood vessels on the 3D-printed ocular prosthesis.

  • Futuristic Skin Bio Printer Successfully Completed By Wake Forest Researchers

    A team from Wake Forest Institute for Regenerative Medicine (WFIRM) has successfully developed Mobile Skin Bioprinting System that provides rapid on-site management of full-thickness wounds using 3D Printing, however waiting human trials. It consists of a hand-held 3D scanner and a printing head with an XYZ movement system containing eight 260 µm diameter nozzles, each driven by an independent dispensing motor with a ZScanner Z700 scanner. It 3D prints directly on the wound a double layered skin substitute consisting dermal fibroblasts and epidermal keratinocytes cells that exactly match the patient’s wound.

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