
Multicellular liver-on-a-chip for modeling fatty liver disease
Researchers have developed a structurally representative liver-on-a-chip model which mimics the full progression sequence of NAFLD.
Researchers have developed a structurally representative liver-on-a-chip model which mimics the full progression sequence of NAFLD.
Researchers have developed a new tissue-section analysis system for diagnosing breast cancer based on artificial intelligence.
Researchers have developed an injectable hydrogel that could help repair and prevent further damage to the heart muscle after a heart attack.
New hydrogel-based materials that can change shape in response to psychological stimuli, such as water, could be the next generation of materials used to bioengineer tissues and organs.
Researchers are developing technology to improve high-resolution bioimaging of structures and tissues located deep within the body.
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.
The work could lead to efficient, detailed artificial bone tissue, opening doors to disease modeling, in vitro cell research on targeted therapies and drug screening.
The patch, which can be folded around surgical tools, may someday be used in robotic surgery to repair tissues and organs.
Researchers have used lasers and molecular tethers to create perfectly patterned platforms for tissue engineering.
Recent breakthrough developments in technologies for real-time genome sequencing, analysis, and diagnosis are poised to deliver a new standard of personalized care.
Engineers have developed a diagnostic tool, based on nuclear magnetic resonance, that could be used to detect fatty liver disease and liver fibrosis.
Microneedle patches could provide a means for extracting interstitial fluid to study possible new biomarkers.
Researchers aim to better explain the way plasmas interact with biological materials to help pave the way for plasma use in wound healing and cancer therapy.
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 used bacteria to produce intricately designed three-dimensional objects made of nanocellulose.
Researchers have developed a neural cell delivery microrobot that connects neural networks by accurately delivering neurons to the intended locations under the in vitro environment.
Researchers at Penn State have developed a supportive gel that allows for printing of complex shapes using cell aggregates.
A new device inspired by an octopus’s sucker rapidly transfers delicate tissue or electronic sheets to the patient, overcoming a key barrier to clinical application.
A bioceramic implant has proved to stimulate regeneration of natural skull bone so that even large cranial defects can be repaired in a way that has not been possible before.
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.
Scientists have invented an optical platform that will likely become the new standard in optical biointerfaces.
An ingenious device, only a few micrometers in size, enables to study the reaction of individual biological cells to mechanical stress.
Researchers have developed a new method of 3D printing gels and other soft materials.
A dose of artificial intelligence can speed the development of 3D-printed bioscaffolds that help injuries heal.
Researchers have developed an oxygen-releasing bioink that may be useful in 3D printing bioengineered cell constructs.
Researchers have created a 3D printed self-adjusting smart swab that could be used for COVID-19 testing.
A new class of medical instruments equipped with an advanced soft electronics system could improve the diagnoses and treatments of a number of cardiac diseases and conditions.
Researchers have created the first microscopic robots that incorporate semiconductor components, allowing them to be controlled with standard electronic signals.
Researchers have invented a new type of surgical glue that can help join blood vessels and close wounds faster and may also serve as a platform to deliver pain relief drugs.
Robotic surgery for patients with early stage, oropharyngeal squamous cell cancer is associated with improved health outcomes, including better long-term survival.
Scientists have shown that 3D printing can be used to control stem cell differentiation into embryoid bodies that replicate heart cells.
Researchers have developed an AI algorithm that uses computer vision to analyze tissue samples from cancer patients.
Researchers have developed a tiny, 3D-printed technology that can be assembled like Lego blocks and help repair broken bones and soft tissue.
Surgeons have implanted a patient suffering from a congenital defect with a novel, absorbable soft tissue reconstruction scaffold.