Three-dimensional bioprinting is an emerging technology that has the potential to build human tissue, on demand, to treat a wide range of human diseases. However, bridging the gap from research at the benchtop to clinical translation requires a host of resources, time, and energy. A new Science Translational Medicine perspective authored by researchers in Carnegie Mellon University’s
Research team makes mind-reading possible with electronics and AI University of Minnesota Twin Cities researchers have developed a more accurate, less invasive technology that allows amputees to move a robotic arm using their brain signals instead of their muscles. Many current commercial prosthetic limbs use a cable and harness system that is controlled by the
A new type of lightweight 3D-printed back brace capable of sensing how effectively it fits patients could lead to improved treatment for scoliosis, its developers say. Scoliosis, a common form of spine deformity, affects around three percent of the population, most often between the ages of 10 and 15. It can be corrected in younger
Spinal fusion is frequently performed to restore spinal stability in patients with spinal diseases, such as spinal stenosis, vertebral fractures, progressive deformities, and instability. In the past two decades, there has been marked increase in the number of people over 65 years in age who have needed spinal fusion surgery. While autogenous bone grafts have
Precision medicine is, broadly speaking, a sweeping aspiration that will be achieved, or not, depending on the convergence of many different disciplines. The most important of these disciplines are molecular genetics and cell biology. Besides contributing to precision medicine directly, they also contribute through 3D bioprinting. In 3D bioprinting, molecular genetics and cell biology are
In the United States alone, over 100,000 people are on the organ transplant list. Around 17 of these people will die per day without having received the transplant. It’s clear that organs from human donors will never be adequate for everyone looking for a transplant. Thus, scientists have been researching alternatives, such as using organs made from repurposed stem
If having bioprinters available to medical practitioners and hospital workers could have a huge impact on their work, then just imagine what handheld bioprinters would do for the treatment of traumatic injuries. These new devices, a few of which we have encountered in the past couple of years, are not all that common and usually highly customized,
A joint research team of POSTECH, The Catholic University, and City University of Hong Kong developed an ‘in vivo priming’ with heart-derived bioink.Using engineered stem cells and 3D bioprinting technology, they began developing medicines for cardiovascular diseases. The heart is the driving force of circulating blood in the body and pumps blood to the entire
Biomedical engineers at the UConn School of Dental Medicine recently developed a handheld 3D bioprinter that could revolutionize the way musculoskeletal surgical procedures are performed. The bioprinter, developed by Dr. Ali Tamayol, associate professor in the School of Dental Medicine biomedical engineering department, enables surgeons to deposit scaffolds–or materials to help support cellular and tissue
Researchers at EPFL have developed a new, high-precision method for 3D-printing small, soft objects. The process, which takes less than 30 seconds from start to finish, has potential applications in a wide range of fields, including 3D bioprinting. It all starts with a translucent liquid. Then, as if by magic, darker spots begin to form
