Optical fibers designed using biocompatible hydrogel could play a role in next-generation, flexible biosensors, according to scientists at Harvard University and MIT. By tracking the quality of light shining through the stretchy fibers, researchers could use the technology in implantable or wearable devices to monitor muscle mobility, tumor growth, or inflammation over time.
Graphene Flagship scientists have developed a graphene-based optical fiber laser capable of emitting ultrashort pulses using only a few wave lengths of light, which could prove useful in biomedical applications. Ultrafast spectroscopy would allow for greater image resolution than has ever been achieved, and surgical lasers using shorter pulses could reduce heat damage to living tissue.
Researchers in Switzerland have produced real-life evidence that implanted devices could one day be powered by solar energy. Study participants who wore solar power measurement devices throughout their regular daily activities generated the energy required to power the average contemporary pacemaker, regardless of the weather, season, or age.
Scientists at the Massachusetts Institute of Technology (MIT) have developed new polymer fibers that are capable of transmitting multiple brain signals simultaneously, delivering drugs, and wirelessly recording brain functions. The new technology improves on many of the drawbacks encountered in traditional neural prosthetic devices.
Scientists have developed a nanoparticle that is compatible with six different kinds of biomedical imaging tests, which could lead to a more comprehensive diagnostic image than any existing machine can currently produce. If the technology is safe, it could reduce the number of tests necessary for clinical diagnosis.
The FDA has approved the VisuMax Femtosecond Laser for small incision lenticule extraction (SMILE) procedures, which are indicated for the correction of nearsightedness in patients age 22 and older. Carl Zeiss Meditec (Zeiss) developed the SMILE procedure as a less-invasive alternative to LASIK and PRK surgery.
Successfully miniaturized multimodal optical technology combines three nonlinear imaging techniques into one probe, said German scientists.
Scientists from the European Organization for Nuclear Research (CERN) have taken the technology used to create the Large Hadron Collider (LHC) and made it small enough to be installed in hospitals. A miniature linear accelerator (mini-Linac), said developers, could be used for future cancer treatments, as well as the production of radioisotopes used in medical imaging and sterilization of medical equipment.
New technology may provide a minimally invasive alternative to traditional muscle biopsies, which are commonly used to diagnose patients showing symptoms of muscular disorders, diseases, or infections.
By substituting a glass surgical needle for the endoscope, a proof-of-concept study in mice has demonstrated technology that might lead to a minimally invasive method for imaging deep brain tissue, one that could provide a better understanding of neurological conditions.
Scientists at the University of Houston (UH) have developed a new approach to glucose-sensing contact lenses by integrating an optical sensor. Though the correlation between glucose levels in tear samples and traditional blood samples is not yet established, the researchers said that their “smart” contact lens prototype demonstrates the versatility of their biosensing technology and a possible non-invasive alternative to existing glucose monitors.
German scientists have produced a camera, using additive manufacturing with a femtosecond laser printer, capable of building free-form optics. Researchers claim that technology opens possibilities for micro- or nano-optical devices, such as endoscopes and mini-robots with autonomous vision, and paves the way for a “paradigm shift” in medical imaging that could be injected into the body through a syringe.
Novel needle technology developed at the University of Adelaide (UA) uses a tiny fiber optic camera and infrared light to guide neurosurgeons through dangerous procedures. Computer software connected to the needle can recognize blood vessels and alert the surgeon, preventing a potentially life-threatening bleed.