Researchers have used 3D bioprinting technology to create custom-shaped cartilage. They aim to make it easier for surgeons to safely restore the features of skin cancer patients living with nasal cartilage defects after surgery.
Loosening hip implants can cause major damage to the bone and a simple replacement won’t suffice to carry the load during movements. Researchers have turned to bioprinting to solve this problem.
Researchers have repaired traumatic injuries to the skin and bones in a rat model using bioprinting during surgery.
EPFL spin-off Readily3D has developed a novel system that can print biological tissue in just 30 seconds.
The combination of a 2Photon 3D-printer with an innovative hydrogel-based bioink allows the direct printing of 3D structures containing living cells at both the meso- and microscale.
Scientists have discovered that a molecular species known as ulvan aids wound healing in humans.
The lung is rather challenging to create artificially for experimental use due to its complex structure and thinness. Researchers have succeeded in producing an artificial lung model using 3D printing.
Researchers have developed a technique that produces 3D bioprinted bone-repair "scaffolds" that could help in managing bone defects in diabetes patients.
Researchers have found a way to coax particles and droplets into precise patterns using the power of sound.
Researchers have designed a new bioink which allows small human-sized airways to be 3D bioprinted with the help of patient cells for the first time.
Researchers are using a 3D printing method called stereolithography and jelly-like materials known as hydrogels to speed up and improve 3D printing.
A bioprinting method enables advanced tissue fabrication by using a yield-stress support bath that holds bioinks in place until they are cured and works with a wide array of bioinks.
3D printers may one day become a permanent fixture of the operating theatre after scientists showed they could print bone-like structures containing living cells.
Surgeons will soon have a powerful new tool for planning and practice with the creation of the first full-sized 3D bioprinted model of the human heart.
Researchers have developed a 3D printing technique that creates cellular metallic materials by smashing together powder particles at supersonic speed.
In a research-first, scientists from Empa were able to 3D print stable well-shaped microstructures made from silica aerogels for use in biotechnology and precision engineering.
Using 3D printing, researchers replicated an aneurysm in vitro and performed an endovascular repair procedure on the printed aneurysm.
Researchers at Penn State have developed a supportive gel that allows for printing of complex shapes using cell aggregates.
Researchers mechanically reprocess silk into a biologically compatible component of bioinks that improves the structural fidelity of 3D-printed hydrogels containing cells for use in drug development and regrowing lost or damaged body
Radiator-like fluid systems adjust the genetic wiring inside human liver cells in preliminary work toward artificial organ-tissue engineering.
Researchers have developed an approach to print tiny tissues that look and function almost like their full-sized counterpart.
Researchers have developed an oxygen-releasing bioink that may be useful in 3D printing bioengineered cell constructs.
A tiny, thin-film electrode with a 3D-printed housing has been implanted in the peripheral nervous system of songbirds, where it successfully recorded electrical impulses that drive vocalizations.
Researchers have developed a groundbreaking process for multi-material 3D printing of lifelike models of the heart's aortic valve and the surrounding structures.
Scientists have paired 3D-printed, living human brain vasculature with advanced computational flow simulations to better understand tumor cell attachment to blood vessels.
Scientists have shown that 3D printing can be used to control stem cell differentiation into embryoid bodies that replicate heart cells.
Engineers are developing a 3D printed artificial blood vessel that allows doctors and patients to keep tabs on its health remotely.
Researchers have developed a tiny, 3D-printed technology that can be assembled like Lego blocks and help repair broken bones and soft tissue.
Scientists have developed a way of using laser-sintering of powdered sugars to produce highly detailed structures that mimick the body’s intricate, branching blood vessels in lab-grown tissues.
