Showing posts with label cyborgs. Show all posts
Showing posts with label cyborgs. Show all posts

Tuesday, July 22, 2025

Combat and law-enforcement terminators, the real-life skinwalkers.



Above is an image of Robot Janus. Janus was a Roman god who guarded entrances. That god was also the god of beginning. And Janus was the god of the end. Janus was the god of changes, like the god of beginning years. The remarkable detail in Janus was two faces. When another face smiles, the other face grimaces. His two faces represent vigilance and the ability to see both forward and backward. They can also symbolize good and evil, or the transitions between war and peace.



Man-shaped combat and surveillance robots can already be true. 


In 1984, James Cameron introduced Terminator, the killer robot that was eliminating enemies of the Skynet computer. In that time, the Terminator was the Sci-Fi tool that could not be dangerous. But things like large language models, LLMs that control robots, can turn Terminators into reality. The Terminator is one of the examples of what militarized AI can do, if it controls robots. When we talk about risks of AI, we always forget that in the cases of militarized AI, the AI is meant to harm people. When AI-controlled robots operate on the battlefield, that system is made for harming people on purpose. 

And that causes risks. The human-shaped robots that work in warehouses are things that might look cute. The problem is that human-shaped robots can operate with every tool that humans can. That means the same robot that operates in warehouses can also operate on battlefields. Another thing that can be interesting about the human-shaped robots is law enforcement. The law enforcement might want to use AI-controlled robots for cover-up missions like intercepting criminal organizations. Those robots will not change their sides. 

The robot can look like a mannequin. That system can stand in the window and wait for something to happen. When the system sees risky things, the robot can activate its combat mode. The problem is that the robot doesn’t think. Those security androids follow their programs. And in the cases of the robots, it is possible that somebody, like hostile hackers, can rig the operating system. That means when that kind of robot sees things like a targeted person, that kind of robot can attack that person immediately. And that is the risk in robotics. In the wrong hands, those systems are not toys. 


Robots don’t rebel. People rebel. That means it’s possible that some hostile actor buys warehouse robots and puts them to make crimes, like acting as assassins. The human-shaped robot can act as a surgeon, gardener, or security guard. But the same system can act as an illegal actor. The robot can have so-called ghost- or shadow protocol. The shadow protocol, or shadow program, means that there are people who are targeted by robots. When a robot recognizes the targeted person, it can make an attack. And those things might look like accidents. The warehouse robot can make a simple mistake and drop some boxes on the targeted person. Or a robot car can push the gas pedal at the wrong moment. When a robot completes its mission, the ghost protocol can be erased. 

They can transmit all data that they collect to the police HQ, and that decreases risks of those operations. There is a possibility that people can have a cyborg twin who goes on dangerous missions instead of humans. That kind of system makes scenarios where the system operators can replace a person with a robot. The robot operator can be a real-life skin walker. The system can mimic anything from humans to dogs. And the robot dogs and other robots can be very dangerous tools in the hands of psychological warfare specialists. Those systems can involve things like infra- and ultrasound systems that can be used to transmit subliminal messages to the people. The robot animal can slip past the system that uses ultra- and infrasound at the same time to the enemy camp. That system can deny the enemy sleep. 

But robot animals can do many things that humans cannot do. They can observe animals in their natural environment without disturbing them. Robot animals can also search for things like illegal hunting, and they can be used as area surveillance tools. But the problem is that robot animals can handle things that real animals cannot. The thing is that those systems that might look like monkeys can cut the network wires and use weapons. 


Sunday, July 13, 2025

The new cyborg insects and spiders are coming.


"Illustration of mind-controlled bees equipped with the world's lightest brain controller, depicted as an artificial illustration."(RudeBaquette)

Microchip implants turn bees and other insects into spies. Those microchips allow the controllers to use a joystick to control things like bees. The cyborg insects can transport microchips to the bird’s and fish’s stomachs. And those things help to map their food and environmental threats. Things like flies can search bodies from the area. But the cyborg bees and insects can be used as reconnaissance and weapon tools. 

Robot insects can search people, and they can transport things like eavesdropping tools into rooms. And those things can transport very small eavesdropping microchips on the computers. Those systems can search and listen to data that travels in the computer’s wires. 

That is one of the things that the microchipped cyborg bugs can do. The thing is that those cyborg insect swarms can act as similar as drone swarms. Those microchips can share and receive data. And that allows those microchips to use cloud-based non-centralized data processing models. That kind of system can collect and process data. That makes those insects far away from the natural insects. 

But when we think about this technology more carefully those microchip-controlled insects can also act as biological robot weapons. They can transport microbes that destroy food or turn oil into powder. The last one could destroy the entire fuel storage. But cyborg bugs and spiders are things that can have multiple weapon solutions. 

What if some sniper or some other military operator gets the bee sting just at a critical moment? And the other thing that the weaponization of that technology allows authorities to do is to use the bee swarms as riot controllers. People like leaders in authoritarian states don’t care about the people’s safety and opinions. But there is a possibility that things like black widow spiders will be turned into biological weapons. The microchip-controlled spider can be a tool that makes some horror movies look like children’s games. 

The black widow is a very poisonous spider and that spider can cause death. And in the wrong hands implant technology can be more dangerous than we even dare to believe. Things like implanted snakes and other animals can be perfect assassination tools. And that is the thing that can interest people like Kim Jong-Un and his friends. The fact is that a new race of systems is born. Those systems are multitasking tools. And their developers and users determine where they want to use those systems. 

https://www.rudebaguette.com/en/2025/07/these-bees-are-now-spies-china-stuns-world-by-controlling-insects-with-ultra-light-brain-chips-igniting-fears-of-next-level-espionage/



Sunday, September 25, 2022

Fireflies can be the particles of the next-generation cyborg bug swarms.



Cyborg bugs or microchip-controlled bugs are a reality. Those things are normal insects that operate under the control of microchips. The cyborg insects are the next-generation tool for many things. The problem with mechanical drones is that their operational time is so short. 

But the living bug can eat nutrients, and their neurons can interact with nano-technical microchips. Microchip-controlled bugs like cyborg fireflies can make a swarm. That is very flexible and hard to destroy. The interaction between neurons of those bugs and microchips is making it possible to benefit those fireflies' light organs in the communication of those cyborg insects. 

The microchip will interact with the neurons of those insects, and it can be connected with the relay systems which can be helicopters, drones, or even satellites. If those microchips can control the flashes of the insects' light organs they can use optical communication at a longer distance. 

The system can decode the electric impulses of those fireflies. Or the microchip can equip with nano-size optical instruments that see those flashes. The problem with nano-drones is the communication with the controller. The reason for that is that nano-size microchips cannot create powerful electric signals. 



The microchip-neuron compilation is a powerful tool for the half-organic microsystems. 


Living neurons can give electricity to nano-size microchips. Feeding those neurons is easier than creating low-power electricity that will not destroy those microchips. That technology makes it possible to create powerful computers that don't need very much power. 

The data can transfer to neurons through those microchips. And then the decoder can transfer that data to computer screens. In some models, the neurons are between two layers of those extremely small microchips. But if those microchips are implanted in insects. 

They can create an extremely flexible intelligent drone swarm. That cyborg bugs are offering highly mobile platforms for AI-controlled entireties. 

The nanotechnical microchips can take their electricity from the nervous system of the insects. That thing will make it possible to create low-power electricity. That is needed for those microscopical systems. Living neurons are making it possible to create needed low-voltage electricity that will not jump over the switch. 


Image 1: https://scitechdaily.com/physicists-unlock-secret-to-synchronization-from-flashing-fireflies-to-cheering-crowds/


Image 2: https://www.nextbigfuture.com/2012/01/darpa-hybrid-cyborg-insects.html

Monday, September 5, 2022

Japanese researchers created remote-controlled cyborg cockroaches.



Insects are good tools for researchers. And they can transform into cyborgs very easily. The insect must just equip with a microchip that sends electric impulses to the insect's neural system. That thing makes it possible to remote-control those bugs. If researchers can decode the neural signals of the insects. They can use the senses of insects as sensors. 

In the cases where researchers can decode the insect's EEG, that signal can send to computers. That makes it possible that researchers can see what insects are seeing on the computer's screens. That thing requires the development of neural link microchips that allow remote control of the insects and receive the feedback of their nervous system by using the Internet. 

The control signals for those insects can deliver by using drones. The system can use satellite-controlled drones as flying relay stations. Drones transmit information to neuro link-chips that are controlling insects. 

The researchers can easily use the natural behavior of the insects to search for things like hidden bodies. Bluebottles can equip with RFID systems. The drones can are following those insects. Drones can use satellite communication and that allows operators to control them from another side of Earth. 

 And they can find the place where they start to swarm. Also, wasps can grow on nutrients where is plastic explosives or narcotics. Then they will equip with RFID systems. Those insects are connecting those explosives with nutrients and their swarming can help to detect explosives or narcotics. In the future, cheaper GPS systems can also use for those markings. And that allows following those swarms by using satellites. 


Image and sources: 

https://scitechdaily.com/japanese-scientists-create-remote-controlled-cyborg-cockroaches/

Monday, February 14, 2022

Microchip-controlled robot fish is a pathfinder for robotics and organ transplants.



The autonomous biohybrid fish made by human cardiac cells is opening new roads to create new hybrid organisms and cyborgs. It opens the new visions for making artificial organs for an organ transplant. There is the possibility that the next generation organ transplant. Bases genetically engineered pigs where the organs are grown. Or researchers maybe clone organs. By using the own cells of the human. There is the possibility that the cancer cells can use as the base for that kind of thing. 

The genomes of the wanted organ are taken from the cells that are forming the organ. Then they are turned into viruses that are injected into those cancer cells. The artificial virus can equip with the genetic code that makes the cell destroy its DNA. And then the virus can replace the genome by using synthetic DNA that transforms the cell into a wanted cell. 

But in some visions, the genetically engineered cells are the next-generation doping. The cardiac cells are extremely strong and that thing makes the visions create normal muscles by using cardiac muscle cells. And that thing is possible by making the genome transplant to the regular muscles. Also, genomes from the gorillas and reptilians like Anacondas can connect with human muscles. And that thing makes those muscles stronger than anything before. 

The cloned organs and muscle cells can connect with robots. The living tissues allow making flexible structures. That makes it possible to create the cyborg animals like robot fishes and birds. Microchip-controlled animals can be the next-generation tools for research and intelligence work. Artificial muscles can be connected to the metal skeleton. But in the perfect models, the computers can control the cloned body. 

The use of living tissues allows robots to fix the damages themselves. The robot doesn't need powerful internal computer systems. The thing that robot needs are a powerful data connection. That connection allows the supercomputers that are in the data center to control robots. When the robot loses its connection it must just find the map of GSM connections and then walk to the area where the connection can be re-establish. 

That thing makes it possible to create a real-life cyborg. Those cyborgs can use the fuel cells for making electricity for their computers. That means the system can use any kind of hydrocarbon for making electricity. And in the most interesting visions, the cyborg could be the so-called "gastro-bot". 

What kinds of robots are eating the same things as humans. And that thing makes them useful for many types of operations from undercover actions to complicated research and development work. Maybe this kind of remote-control robot that is acting so-called "external bodies" and allows the enhanced reality experience are things that analyze the first samples from planet Mars. The operators can use those robots by using virtual reality tools. And maybe they can use the BCI (Brain-Computer Interface) for allowing borderless cooperation between robot and operator. 


https://arstechnica.com/science/2022/01/the-genetic-engineering-behind-pig-to-human-transplants/


https://scitechdaily.com/autonomous-biohybrid-fish-made-from-human-cardiac-cells-swims-like-the-heart-beats/


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


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


Image:)https://scitechdaily.com/images/Biohybrid-Fish-Swim.gif


https://thoughtsaboutsuperpositions.blogspot.com/

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