
Gel instrumental in bioprinting tissues
Researchers at Penn State have developed a supportive gel that allows for printing of complex shapes using cell aggregates.
Researchers at Penn State have developed a supportive gel that allows for printing of complex shapes using cell aggregates.
A dose of artificial intelligence can speed the development of 3D-printed bioscaffolds that help injuries heal.
A new way of 3D printing soft materials such as gels and collagens offers a major step forward in the manufacture of artificial medical implants.
Skin and cartilage are both strong and flexible – properties that are hard to replicate in artificial materials. But a new fabrication process brings lifelike synthetic polymers a step closer.
Researchers have created a machine learning algorithm that can detect subtle signs of osteoarthritis on an MRI scan taken years before symptoms even begin.
Researchers have developed a microneedle patch to deliver mesenchymal stem cells (MSCs) into the skin.
Researchers have developed a method to 3D print liquid crystal elastomers so that they form complex structures with physical properties that match those of complex biological tissues, such as cartilage.
Researchers have developed a printable bioink that could be used to create anatomical-scale functional tissues.
Researchers have created a material with a unique set of properties, which could act as a replacement for human tissue in medical procedures.
The University of Zurich has sent adult human stem cells to the International Space Station to explore the production of human tissue in weightlessness.
Researchers are 3D printing "groovy" tissue-engineering scaffolds with living cells to help heal injuries.
In a proof-of-concept work, scientists demonstrated their photonics-based sensors using fibers and liquid-filled petri dishes.
Researchers have developed a novel methodology to provide non-invasive analysis of meniscal implants.
A new 3D printing platform is able to fabricate multi-component scaffolds that “steal from nature” to engineer tissues organized like native tissues.
Scientists hope we will soon be using 3D-printed biologically functional tissue to replace irreparably damaged tissue in the body.
Bioscientists are moving closer to 3D printed artificial tissues to help heal bone and cartilage typically damaged in sports-related injuries to knees, ankles and elbows.
Researchers use the biodegradable material cellulose to produce implants for cartilage diseases using 3D printing.
Swinburne research contributes to novel solution for repairing cartilage damage using the latest technologies in stem cell science.