PROOF THEY WILL POWER THESE DATA CENTERS WITH YOUR NEURONS WIRELESSLY
Remember when I said they were gonna use your brain to power these data centers?
Here's more proof.
"Note they're doing this wirelessly"
Wireless power routing to and from neurons is achieved through several emerging technologies that eliminate the need for physical wires or bulky batteries, primarily using magnetic induction, magnetoelectric films, and ultrawideband radio.
pmc.ncbi.nlm.nih.gov/article…
Magnetic Induction and Resonant Coupling
The most mature method involves wireless inductive charging, where an external transmitter coil generates a magnetic field that induces current in a receiving coil within the implant.
NEURALINK
Neuralink uses this approach with a compact inductive charger placed behind the ear to power its N1 implant, which stores energy in a small battery for continuous operation.
neurapod.com/blog/how-does-n…
OPTOGENETIC SYSTEMS
No tethering needed !!!!!!
Optogenetic systems couple microscale light-emitting diodes (µLEDs) with millimeter-scale coils to deliver instantaneous, biologically safe power to stimulate neurons in the visual cortex without tethering.
phys.org/news/2019-06-biotec…
NEAR FEILD MAGNETIC RESONANT COUPLING
Research into near-field magnetic resonant coupling at frequencies like 13.56 MHz allows for flexible, injectable probes that maintain power transmission efficiency even when bent to tight radii, enabling deep brain stimulation.
pmc.ncbi.nlm.nih.gov/article…
Magnetoelectric (ME) Film Interfaces
THIS PART IS IMPORTANT & SHOWS YOU WHY THEY EMULATING PHYSICAL HARDWARE
Recent innovations utilize magnetoelectric films as direct neural interfaces that generate electrical polarization from alternating magnetic fields (AMFs) WITHOUT ONBOARD ELECTRONICS.
pmc.ncbi.nlm.nih.gov/article…
These films can modulate neuron activity via nonresonant frequencies, triggering sodium and calcium channels through capacitive-like charge injection.
This method offers a minimally invasive, low-cost alternative for deep brain stimulation, as it requires only simple electromagnetic coils & avoids the absorption or reflection issues associated with light or ultrasound.
High-Bandwidth Radio and RF Transmission
For high-data-rate applications, wireless brain-computer interfaces (BCIs) use radio frequency (RF) or ultrawideband links to transmit processed neural data and receive power.
pmc.ncbi.nlm.nih.gov/article…
DATA STREAMING
The Brain Interface Chip (BISC), a flexible 3 mm³ device, uses a custom ultrawideband radio link operating at 100 Mbps to bridge the implant with external computers, supporting both power delivery and high-throughput data streaming.
sciencedaily.com/releases/20…
WIRELESS BRAIN CONTROL INTERFACE
Earlier prototypes, such as those led by Brown University, utilized radio transceivers to beam processed neural spikes at 48 megabits per second to a receiver a few meters away, using approximately 30 milliwatts of power.
technologyreview.com/2015/01…
Future Directions: Unwired Bipolar Electrodes
Beyond power delivery, wireless bipolar electrodes are being explored to promote biological nerve repair at injury sites.
By using conducting materials as unwired electrodes, external electric fields can interact with neural tissue to encourage dynamic nerve growth and functional compensation without implanting physical wiring that substitutes for natural neural signals.
pubmed.ncbi.nlm.nih.gov/3835…