Bringing a whole new meaning to the phrase "wireless mouse," a team of Stanford scientists has implanted wirelessly charging LED lights into the brains of mice. The experiment was undertaken as part of a study of optogenetics, the method of using light to control brain activity. In what sounds like the beginning of a sci-fi movie, Stanford scientists altered neurons in the mice's brains with green algae genes, modifying them so they would be responsive to light.
Once the mice are implanted with LED lights, Stanford scientists can observe which parts of their brain respond to certain activities. Up until now, the LED lights involved in optogenetics had to be tethered to a charger which significantly limited study. This team of Stanford scientists has created a peppercorn-sized device which charges wirelessly when the mouse is placed in an electromagnetic chamber.
The Stanford scientists' study of optogenetics could have a significant impact on the study of neurological issues such as Parkinson's disease or even affect what the world knows about mental health.
What Makes This Trend Stand Out
- Wireless Brain Interface
- Opportunities for the development of wireless brain interfaces that enable wireless communication and charging of implanted devices.
- Optogenetics Advancements
- Advancements in the field of optogenetics that leverage wireless technology for improved brain activity control and study.
- Miniaturized Implantable Devices
- The development of miniaturized implantable devices that can wirelessly charge and monitor brain activity in small animals.
Sectors Adopting This
- Medical Devices
- Disruptive innovation opportunities exist in the medical devices industry for companies creating wireless brain interfaces and miniaturized implantable devices.
- Healthcare Research
- The healthcare research industry can leverage optogenetics advancements to further understand and tackle neurological issues and mental health conditions.
- Wireless Technology
- Companies in the wireless technology industry can explore opportunities to develop wireless charging solutions for implantable devices in the field of neuroscience.
