New bioprinting technology to be developed by UMC Utrecht, regenHU. Partnering experts in 3D bioprinting with experts in biomanufacturing has resulted in the first melt electrospinning device that incorporates the use of bio-inks. Housed at the Utrecht Biofabrication Facility, this combination of techniques may lead to improved and more accurate 3D bioprinting for therapeutic use. The Utrecht Biofabrication Facility was established with support of Utrecht University and the UMC Utrecht in 2013. Continue reading “New bioprinting technology to be developed by UMC Utrecht, regenHU (VIDEO)”
Partnership for bio-printing of hair, signed by Poietis and L’Oreal. L’Oreal has been committed to tissue engineering for almost 30 years and holds unique knowledge and expertise in the field of bio-printing of hair. With this exclusive research partnership, L’Oreal and Poietis are giving themselves the means to pursue a new scientific challenge: bio-printing a hair follicle, the small organ that produces hair, using a bio-printer. Continue reading “Partnership for bio-printing of hair, signed by Poietis and L’Oreal”
Researchers in AMBER, the Science Foundation Ireland funded materials science centre, hosted in Trinity College Dublin, have created a process to support 3D printing of new bone material. Continue reading “AMBER researchers create 3D bioprinting technology to provide alternatives to bone grafts”
Nano3D Biosciences Inc., a small business funded by the National Science Foundation Small Business Innovation Research program, uses a magnetic 3-D bioprinting technology to reimagine cell culture models and tissue engineering.
The city of Utrecht in Netherland is already famous for the outstanding achievements made by the tissue factory subordinated to the University Medical Center Utrecht to a great extent. This tissue factory has recently accomplished the 3D bioprinted rabbit shoulder implantation experiment. Now, this city is attracting more biologic printing institutions. With the cooperation of the University Medical Center Utrecht, Hogeschool Utrecht and ProtoSpace Fund, a new bioprinting lab Utrecht3DMedical is established. Continue reading “Utrecht3DMedical – 3D Bioprinting Lab in Utrecht”
Organovo Holdings, Inc., a three-dimensional biology company focused on delivering scientific and medical breakthroughs using its 3D bioprinting technology, today announced a publication in the scientific journal, PLOS One, which demonstrates the superiority of Organovo’s 3D bioprinted human liver tissues to effectively model drug-induced liver injury and distinguish between highly-related compounds with different toxicity profiles. Continue reading “Research Proves Superiority of 3D Bioprinted Human Liver Tissues in Assessing Drug-Induced Toxicity”
Scientists at the University of Bristol have developed a new kind of bio-ink, which could eventually allow the production of complex tissues for surgical implants.
The new stem cell-containing bio ink allows 3D printing of living tissue, known as bio-printing. Continue reading “New stem cell-containing bio ink allows 3D printing of living tissue”
A trio of high-tech companies have teamed up to develop a space hardened 3D bioprinter capable of manufacturing human organs and tissues in orbit. A June 14 test of the consortium’s prototype resulted in the first successful printing of cardiac and vascular structures in zero gravity with adult human stem cells. The experiment was performed 30,000 feet over the Gulf of Mexico aboard a Zero Gravity Corporation aircraft capable of repeatedly producing several seconds of sustained microgravity. Continue reading “First successful printing of cardiac and vascular structures in zero gravity (Video)”
THREE-dimensional (3D) printing continues to drive innovations in many disciplines, including engineering, manufacturing, aerospace, global security, and medicine, to name only a few. Most 3D products are made of plastics or metals, but cutting-edge 3D printing techniques have been leveraged in the biomedical engineering field using bioinks—a fluid with biological components—to manufacture vascularized tissue. Once refined, this approach could be used to engineer complete human organs for implantation and to assess medical treatments. Continue reading “Cutting-edge 3D printing techniques have been leveraged in the biomedical engineering field using bioinks”
Using a sophisticated, custom-designed 3D printer, regenerative medicine scientists at Wake Forest Baptist Medical Center have proved that it is feasible to print living tissue structures to replace injured or diseased tissue in patients. Continue reading “Researchers prove feasibility of printing living tissue structures to replace injured or diseased tissue”