>
Smotrich Says Israel Has Plans Drawn Up To Establish Three Jewish Settlements in Gaza...
Virginia's New Gun Laws are Already Costing Jobs
FARA Docs: Israel is Spying On Millions Of Christian Americans In Their Churches
Grand Theft World Podcast 293 | Neocon Maga Zombies with guest Matthew Ehret
World's first hotel entirely staffed by robots to open in 2027
Researchers in China are ignoring bug spray, citronella, and netting.
Our bodies may be able to regrow lost limbs after all
Chinese cars go blacker than black via hybrid nano tech
World first: Human embryo model grows its own organs – in the lab
Dead lithium batteries revived to 95% capacity via electrochemical bath
Compact laser engraver levels up your DIY crafts setup
'Groundbreaking' Potential Lupus Cure Sends Patients into Remission, Allowing Dreams...
Speculations on What Could Show Physics Beyond the Standard Model
SpaceX Orbital Travel and Orbital Hotels Need Starfall – Getting Back Safe and Cheap is Exciting

The device is still deeply experimental but a new proof of concept study demonstrates it working effectively in rodent models.
In the world of brain implants the chasm between science fiction and reality is still quite vast. Apart from some exciting human tests showing paralyzed individuals with implants regaining a sense of touch or controlling computers with their mind, most research in the field is still nascent.
Animal tests have demonstrated incremental technological advances, such as pigs broadcasting neural activity or monkeys playing Pong. Now, an interface that can detect pain signals in one part of the brain and immediately respond with stimulation to another part of the brain targeted to relieve that pain has been developed.
The system is called a closed-loop brain-machine interface. These devices have previously been explored for detecting and treating epileptic seizures but this is the first time the system has been used to treat pain.
The experimental device proposed in the study interfaces with two brain regions. An electrode array detects and decodes pain signals in the anterior cingulate cortex, while an optogenetic system stimulates pyramidal neurons in the prelimbic region of the prefrontal cortex to provide pain relief. This creates a real-time neurofeedback loop suppressing pain as soon as it arises.
Jing Wang, senior author on the new study, says the automated nature of the system reduces the risk of overuse and tolerance because subjects have no control over activation of the pain relief. Plus, as the system focuses on inhibiting pain processing in the brain it shouldn't be tied up with the opioid reward regions known to cause addiction problems.