
A promising future for soft bioelectronic interfaces
Researchers have demonstrated MRI compatibility in their soft electrode arrays – a crucial step in translation to the clinic.
Researchers have demonstrated MRI compatibility in their soft electrode arrays – a crucial step in translation to the clinic.
Researchers at University of Sydney have developed a new moisture test for bionic devices such pacemakers and cochlear implants.
Researchers have fabricated 3D scaffold implants containing antibiotics at high temperatures. These scaffolds support bone regeneration and manage the bone infections.
Researchers have developed a method to produce graphene-enhanced hydrogels with an excellent level of electrical conductivity.
Researchers have shown that lab-created heart valves implanted in young lambs for a year were capable of growth within the recipient.
Researchers have developed a new type of retinal implant that partially restores the visual field and can significantly improve the quality of life.
World-first 3D printed oesophageal stents developed by the University of South Australia could revolutionize the delivery of chemotherapy drugs.
Researchers are using 3D printing to produce a new type of bioresorbable airway stent. This could greatly simplify the future treatment of upper airway obstruction.
Researchers have invented a smartphone-controlled soft brain implant that can be recharged wirelessly from outside the body.
Researchers are creating a smart port to the brain that will use artificial intelligence to selectively stimulate tissue regrowth and seizure intervention.
Transmitting sensory signals from prostheses to the nervous system helps leg amputees to perceive prosthesis as part of their body.
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.
Scientists have designed a hydrogel membrane that may be used to house optical glucose sensing materials toward building a biosensor for monitoring sugar levels in diabetics.
Researchers have enabled a quadriplegic man to control a pair of prosthetic arms with his mind.
More researchers and companies are moving into the brain-computer interfaces, yet major challenges remain, from user training to the reality of invasive brain implant procedures.
Researchers have developed a chip that is powered wirelessly and can be surgically implanted to read neural signals and stimulate the brain with both light and electrical current.
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 developed a 3D printing technique that creates cellular metallic materials by smashing together powder particles at supersonic speed.
Researchers have produced biodegradable stents with esophageal-derived bioink to directly treat radiation esophagitis.
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.
Researchers reported they designed a flexible and implantable sensor that can monitor various forms of nitric oxide (NO) and nitrogen dioxide (NO2) gas in the body.
Researchers have developed rubbery a bioelectronic implantable device that can monitor and treat heart diseases.
Researchers have created fundamental electronic building blocks out of tiny structures known as quantum dots and used them to assemble functional logic circuits.
Two ALS patients, implanted with a brain-computer interface via the jugular vein and without the need for open brain surgery, successfully controlled their personal computer through direct thought.
Researchers have developed a ceramic artificial bone coating with triple the adhesion strength compared to conventional coating materials.
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.
Self-powered biosensors that could one day lead to wearable devices that do not need to be recharged, or even sensors that are powered by the very bodily process they are designed to monitor.
A dose of artificial intelligence can speed the development of 3D-printed bioscaffolds that help injuries heal.
Linking the human brain to a computer is usually only seen in science fiction, but now scientists have harnessed the power of 3D printing to bring the technology one step closer to reality.