The BCI (Brain-Computer Interface) is the next-generation user interface.

The technical remote view makes it possible to create BCI (Brain-Computer Interface) without any visible things like implanted microchips or electrode hats. The idea is that the radio wave is acting as a carrier wave. 

That carrier wave transmits the EEG to the antenna in a computer. The transmitter will be behind the head. And when the computer sends the receiving it will send the synthetic EEG to the receiver that is behind the user. 

The technical remote-view normally means that the radio wave is shot through the human brain. That radio wave acts as the carrier wave that carries the EEG to the computer. That system can use to make the next generation BCI systems that interact directly with the computers. 

That thing makes it possible to create a new type of simulated reality. Where the person can control virtual things in the memory of the computer.

But there is possible to connect these kinds of systems with physical robots. When a person controls a physical robot by using the BCI (Brain-Computer Interface) that thing is called "the enhanced reality". That means the person is controlling things like nanorobots or human-looking robots by using the EEG signals. 

When we are thinking of the movies like TRON. That kind of thing where people are living in a simulation might be partially true. If we want to create the BCI (Brain-Computer Interface) that doesn't require implanted microchips or some kind of electrode hat that transmits the EEG to the computer there is another way to connect brains to computers. The system can simply shoot the radio wave through the brain. 

And then that radio wave acts as a carrier that makes it the computer possible to observe the EEG of the human brain from remote distances. The EEG will transmit to the receiving antenna and then to the computer. And the system can interact with brains by sending the data from the computer through the brains to the receiver that is behind the user of this type of wireless BCI system. 

Scientists observed memories from human brains.

For the first time, scientists see what happens in brains. When people see things. Every single sensor that person has its neuron group. That neuron group stores the stimulus, that comes from a certain sensor. 

When a person gets some stimulus from the senses. That stimulus activates certain neuron groups in the brain. When a person hears some voice that has a connection with something that means something to the person that thing launches the emotional reaction. 

This kind of research is important for criminal investigators who must make sure that person tells truth. If somebody makes the faked police report of the violence the system sees that the memory neurons are activating. 

But because there is no emotional connection with the case. The faked story doesn't activate the neuron that is controlling the feelings. Also in the case of violence, the neurons that are handling the memories. Which are connected to touch are not activating. 

Reading memories from brains is theoretically a very simple thing. An idea of this system is that a certain image activates a certain group of neurons. Researchers must only show something like a spider or some other item to the person.

And then, the system sees what brain areas are activating during those things. The problem is, how to connect the certain neuron group with the certain memory? This kind of research is interesting. And maybe someday of tomorrow researchers can see other people's memories from the computer screen.

The research of the neurons. And especially memories make a revolution in learning and computing. Our skills are memories. If we know how memories are forming we can program our brains like computers. And that thing opens interesting visions for tomorrow. The knowledge of how our neurons are learning can use for creating new learning neural networks. And interconnect the internet with our brains. 

https://www.quantamagazine.org/scientists-watch-a-memory-form-in-a-living-brain-20220303/

https://en.wikipedia.org/wiki/Brain%E2%80%93computer_interface

https://thoughtsaboutsuperpositions.blogspot.com/

 Cyborg insects, fishes, and spiders 

Microchips can also implant in sea living organisms. And they can control fishes and crabs. 

The microchip implanted insects are not always flying bugs. The thing is that also many other animals than just some flying insects can be implanted with microchips. Also, water-living organisms like fishes,  crabs, and spiders can equip with microchips. The krill is one of the most promising groups of animals that can equip with microchips. That is collecting data about things like water temperature. 

There is the possibility that the microchip is ordering the krill or fish. Rise to the surface after a certain time. And then that microchip is delivering data that is stored in it. That data can deliver to satellites or aircraft or drones by using laser-LEDs. Also, acoustic microchips can deliver their data to the submarines. The military forces are interested in that kind of advanced biological weapons like remote-control animals. 

If things like dogs can be remotely controlled, by using EEG implants. That thing means those dogs don't need education. And that means the dogs can step into service very fast. But those systems are turning all kinds of animals into remote-controlled robots. 

The biorobots like crabs can use to carry surveillance or sabotage devices to the ground. Small-size detonators can be delivered to the positions like underwater cables by using remote-control animals. 

The AI-based technology allows decoding the memories and transmitting the senses of the other species. To the screens of the operators. Maybe this technology is not yet in use. But these kinds of things are under development. 

The thing is that microchips can be used to control those animals. And that thing allows controllers to use them as biological recon robots. The big crabs can also use to bring things to the surface from the ocean floors. The thing is that the microchips that are implanted into the nervous systems of the things like sharks are turning them into robots. 

The wireless communication between the microchip implant and the controller can make the sharks perfect recon tools and the perfect advanced biological weapons. The microchip can be implanted by using submerged drones. And if the electric signals of the nervous system can decode. That thing allows that operators can see the things that the shark sees. And the sharks and big crabs are also powerful tools for damaging things like underwater cables. Of course, those things can use to harm people. And that is the shadow-side of that technology. 

Image: 

https://www.insidescience.org/news/brief-worlds-smallest-remote-controlled-cyborg-bug

Researchers can read the jellyfish's mind.

 Researchers can read the jellyfish's mind.

For making new. And more effective BCI chips (Brain-Computer Interfaces). Researchers should know precisely how the neurons are working. In the human brain is 200 billion neurons which is making observation of the actions of single neurons difficult. That's why the research must begin by using species whose neural systems are simpler than humans. And one of them is jellyfish. 

The deep knowledge of the actions of neurons helps to connect certain changes in EEG curves to certain actions in the body. The BCI can make the revolution in nanotechnology and robot control. But when we are thinking about the possibility to model the simple neural structures. Researchers can create new and more independent nanomachines. There are three types of BCI systems that are under development. 

1) The BCI (Brain-Computer Interface) is connected with human brains. And that thing is the thing that is used to control prosthetics. But the same systems can also control robots or give commands to computers. In some systems, the user of the BCI is moving the virtual character on the screen. 

The same system can use to move prostheses can use to move the virtual characters.  And then, the movements are transferred to a physical robot. The BMI (Brain-Machine Interface) is acting through the computers. And it can be the next-generation tool for robots which mission is to operate in extreme conditions. 

2) The microchips that are communicating with cloned neurons. In that case, the half-organic and half-silicon-based microchip can solve problems and control the things like nanomachines very independently. 

This kind of microchip is the neuron cell culture that is connected to the normal microchips. The use of living neurons makes it possible that the small-size system can be very independent. Because the living neurons are giving those systems very high power computing capacity. 

3) The microchips that are used to control animals. The CBI (Computer-Brain Interface) is the opposite acting system. To the BCI where brains are controlling computers.  The CBI system can use to control the behavior of the animals like birds, fishes, and bugs. 

The bugs can carry the sensors to the targets. The microchips are used to make biorobots. And if those microchips are connected to animals they are turned to intelligent. So what would you do with the wolf that has human intelligence? And the implanted microchips can make things like intelligent army ants real. That kind of thing is called ABW (Advanced Biological Weapons) 

But those systems can make things that are beyond the worst nightmares. The CBI or opposite acting BCI microchips can use to control things like ants. And if the microchip is installed on the army ant. That means those systems can use to make those ants act as the eliminators. They can slip into houses and then use to attack people or destroy things like gas masks. Those microchips can turn every bug in the world into a weapon. 

https://scitechdaily.com/caltech-researchers-read-a-jellyfishs-mind/

https://en.wikipedia.org/wiki/Army_ant