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Implant

Surgeons used a 3D-printed implant to replace a cancerous vertebra in a 12-year-old boy

According to market-based research firm IDTechEx, the medical and dental market for 3D-printers is set to grow from US$141 million to $868 million by the year 2025. And when you consider the recent spate of groundbreaking medical procedures, it is pretty easy to see why. The latest surgery brought to you by the seemingly endless possibilities of 3D-printing comes at the hands of doctors at China's Peking University Third Hospital, who produced a custom implant to replace a cancerous vertebra in the neck of a 12-year-old boy.  Read More

Fusing 3D-printed beads with antibacterial or chemotherapeutic compounds provides the pote...

A great strength of 3D-printing in the field of medicine is the ability to provide low-cost, personalized implants molded to a patient's anatomy. Researchers from Louisiana Tech University have now taken the technology one step further, loading these custom implants with cancer-fighting and antiobiotic compounds as a means of better targeted drug delivery.  Read More

The ATI Neurostimulator (on skull, at left) and its handheld remote control (Photo: The Oh...

While they may not be quite as well-known as migraines, cluster headaches are even more painful, and can occur several times a day. There's presently no cure, although a new "neurostimulator" is claimed to help control them. A US clinical trial of the device has just begun, with a test subject recently having had one implanted beneath his cheekbone.  Read More

Recent surgery using a 3D-printed spine cage has been hailed a success

While the impacts of 3D printing are indeed far-reaching, the medical industry stands to gain as much as any from this fast-growing technology. Following in the footsteps of patient-specific surgeries and treatments such as skull and jaw implants, as well as custom-molded mouthpieces for sufferers of sleep apnea is the first spinal fusion surgery performed using a 3D-printed spine cage.  Read More

The Restoring Active Memory project is aimed at helping brain-injured veterans and civilia...

Earlier this year, we heard about how DARPA (the Defense Advanced Research Projects Agency) was setting up its new Biological Technologies Office. The goal of that division is to "merge biology, engineering, and computer science to harness the power of natural systems for national security." This week, the agency released details of one of the office's key projects, called Restoring Active Memory. It's aimed at using implantable "neuroprosthetics" to help army veterans and other people recover from memory deficits caused by brain injury or disease.  Read More

A group of researchers has developed a pacemaker powered by an implantable flexible piezoe...

Over the past few decades, cardiac pacemaker technology has improved to the point that pacemakers have become a commonplace medical implant that have helped improve or save the lives of many millions of people around the world. Unfortunately, the battery technology used to power these devices has not kept pace and the batteries need to be replaced on average every seven years, which requires further surgery. To address this problem, a group of researchers from Korea Advanced Institute of Science and Technology (KAIST) has developed a cardiac pacemaker that is powered semi-permanently by harnessing energy from the body's own muscles.  Read More

Quadriplegic Ian Burkhart has been given the ability to move his fingers and hand with his...

In what is being touted as a world first, a quadriplegic man has been given the ability to move his fingers and hand with his own thoughts thanks to the implantation of an electronic device in his brain and muscle stimulation sleeve. Part of a neurostimulation system dubbed "Neurobridge," the technology essentially bypasses the damaged spinal cord and reconnects the brain directly to the muscles.  Read More

Tiny, wirelessly-charged medical devices implanted deep inside the human body could treat ...

Researchers at Stanford University have developed a new way to safely transfer energy to tiny medical devices implanted deep inside the human body. The advance could lead to the development of tiny "electroceutical" devices that can be implanted near nerve bundles, heart or brain tissue and stimulate them directly when needed, treating diseases using electronics rather than drugs.  Read More

These implantable shape changing transistors can grip nerves and tissues, changing shape w...

A multinational group of scientists has developed implantable shape-changing transistors that can grip nerves, blood vessels and tissues. According to the researchers, these soft electronic devices can change shape within the body, while still maintaining their electronic properties, allowing them to be used in a variety of applications and treatments.  Read More

The prototype blood pressure-moderating cuff

High blood pressure can be a very serious condition, and is usually controlled via medication along with lifestyle changes. For approximately 35 percent of patients, however, that medication doesn't work in the long run. That's why a team of researchers from Germany's University of Freiburg are developing an implantable electronic cuff, that may one day control peoples' blood pressure via electrical pulses within the neck.  Read More

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