
Handheld 3D printers help to treat musculoskeletal injuries
Biomedical engineers developed a handheld 3D bioprinter that could revolutionize the way musculoskeletal surgical procedures are performed.
Biomedical engineers developed a handheld 3D bioprinter that could revolutionize the way musculoskeletal surgical procedures are performed.
This battery could have a wide range of applications in various types of devices, from soft robots to wearable devices.
A 3D printed microneedle vaccine patch delivers stronger immune response than a vaccine shot.
In surgery, wearable technologies can assist, augment, and provide a means of patient assessment before, during and after surgical procedures.
Researchers have developed a biocompatible energy storage device.
A team of Texas A&M University has designed a 3D-bioprinted model of a blood vessel that mimics the native vascular function and disease response.
Bioengineers have developed biocompatible generators that create electrical pulses when compressed by body motions.
Thanks to their swimming robot modeled after a lamprey, EPFL scientists may have discovered why some vertebrates are able to retain their locomotor capabilities after a spinal cord lesion.
Researchers are taking steps to incorporate actual muscles or neurons into a robotic system.
Researchers have developed the first-ever transient pacemaker — a wireless, battery-free, fully implantable pacing device that disappears after it’s no longer needed.
Scientists have created flexible, metal-free electrode arrays that conform to the body - avoiding damage to organs.
Scientists have captured the real-time electrical activity of a beating heart, using a sheet of graphene to record an optical image of the faint electric fields generated by the rhythmic firing of the heart's muscle cells.
Researchers have developed a 3D printing technique that allows them to create incredibly small and complex biomedical implants.
With the aid of a virtual reality model, researchers from the Knappschaftskrankenhaus Bochum have examined, which errors can occur during the communication between the brain and robotic prosthesis.
Researchers look to a future someday in which doctors can hit a button to print out a scaffold on their 3D printers and create custom-made replacement skin, cartilage, or other tissue for their patients.
4D printing helps create a biomimetic microchannel scaffold made of collagen and hydroxyapatite.
Engineers have created a tiny wireless implant that can provide real-time measurements of tissue oxygen levels deep underneath the skin.
Researchers have created life forms that self-assemble a body from single cells and do not require muscle cells to move. They're faster, live longer, and can now record information.
Researchers have developed an injectable hydrogel that could help repair and prevent further damage to the heart muscle after a heart attack.
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.
Engineers have created a 3D printed smart gel that changes shape when exposed to light and becomes an "artificial muscle".
Neuroscientists have demonstrated that the brain does not remap itself even with long-term bionic limb use, posing challenges for the development of realistic prosthetic limbs.
Engineers have developed a diagnostic tool, based on nuclear magnetic resonance, that could be used to detect fatty liver disease and liver fibrosis.
Researchers have used bacteria to produce intricately designed three-dimensional objects made of nanocellulose.
Scientists are researching salamanders unique superpower - they can regenerate their spinal cords and regain full functionality.
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.
An ingenious device, only a few micrometers in size, enables to study the reaction of individual biological cells to mechanical stress.
Researchers have developed an oxygen-releasing bioink that may be useful in 3D printing bioengineered cell constructs.
Researchers used AI and genetic analyses to examine the structure of the inner surface of the heart using 25 000 MRI scans.
Scientists have showed that applying "temporal pressure" to the skin of mice can create a new way to deliver drugs.
Researchers have 3D printed a functioning centimeter-scale heart pump with real human cells in the lab.
Thanks to a variety of smart technologies, high-tech clothing today is capable of analyzing body functions or actively optimizing the microclimate.
New muscle has successfully been created in mice using a minimally invasive technique dubbed ‘intravital 3D bioprinting’.
Scientists have improved upon the bioprinting technique they developed to engineer skeletal muscle as a potential therapy for replacing diseased or damaged muscle tissue.
Bioengineers have developed a prototype patch that does the same job as crucial aspects of heart tissue.
Researchers are 3D printing "groovy" tissue-engineering scaffolds with living cells to help heal injuries.
Researchers have developed a super-stretchy, transparent and self-powering sensor that records the complex sensations of human skin.
A scientist thinks the future of health care looks like the blinking check engine light on the dashboard of your car.
In a proof-of-concept work, scientists demonstrated their photonics-based sensors using fibers and liquid-filled petri dishes.
A 3D printing technique allows fabrication of multilayer blood vessels that have the unique biomolecules needed to transform into functional blood vessels when they are implanted.
A new 3D printing platform is able to fabricate multi-component scaffolds that “steal from nature” to engineer tissues organized like native tissues.
A new microelectrode that penetrates the cell membrane unassisted and, when placed in an array, allows scientists to follow electrical activity as it spreads through tissues.
Organ-on-a-chip technology has the potential to revolutionize drug development. Researchers have succeeded in putting various types of tissue onto chips.
Scientists have now developed a new type of biomaterial that could help the healing of injuries, especially of severed nerve tracts.
Researchers from the University of Bath are developing a new tool for detecting the presence of Dengue fever early on, helping prevent people from suffering potential life-threatening complications.
Engineers have combined CRISPR with electronic transistors made from graphene to create a new hand-held device that can detect specific genetic mutations in a matter of minutes.
Researchers have developed the first wearable probe that enhances the sense of touch by imaging and quantifying the elasticity of biological tissue.
Scientists have developed microscopic, hydrogel-based muscles that can manipulate and mechanically stimulate biological tissue.
Scientists plan to edit their genomes to correct rare genetic mutations and slow or halt progression of their diseases.
Seemingly out of science fiction, the virtual dissection table brings the future of gross anatomy and clinical science education to real life.
Researchers developed a novel method of growing whole muscles from hydrogel sheets impregnated with myoblasts and incorporated these muscles into a biohybrid robot.
A robotic approach to mass-producing organoids could accelerate regenerative medicine research and drug discovery.
Researchers have developed a highly elastic biodegradable hydrogel for bioprinting of materials that mimic natural human soft tissues.
MIT engineers have developed new technology that could be used to evaluate new drugs and detect possible side effects before the drugs are tested in humans.