The intelligent pills and nanosubs are coming to the estrade.

Intelligent pills mean systems that deliver medicine only when the body needs it. The system is a microchip-controlled capsule and sensor pack that analyses things like blood sugar and then releases diabetes medicine into the body. That is one of the most conventional uses of the intelligent pills. The intelligent pills can also detect things like the neural system’s animal functions and release medicine to the blood. 

This kind of thing can help to make people survive neurotoxin exposure. The intelligent pills can release atropine into the blood if a person is under nerve gas exposure. Theoretically, all medicines can be released from intelligent capsules. But the system must recognize the threat. And then release the right medicals. 

The intelligent pills can also map the gut and find things like harmful bacteria from the stomach. The most extreme version of the intelligent pills is the nanosubmarine that can swim in the human blood vessels. And then inject the medications into the right cells. That allows the use of new types of medicals like artificial mRNA to fix the cells.  

"Nanosubmarines, or nanosubs, are synthetic microscopic devices that can navigate and perform specific tasks within the human body. Most of the self-propelled devices will be used to detect substances, decontaminate the environment, perform targeted drug delivery, conduct microsurgery and destroy malicious cells. Nanosubmarines use a variety of methods to navigate through the body; currently the preferred method uses the electrochemical properties of molecules. There have been multiple successful tests using this technology to heal mice with inflammatory bowel diseases. The general goal of nanosubmarines is to be able to produce a machine which can sense and respond autonomously, all while being fueled by its environment."  (Wikipedia, Nanosubmarine)

Above: Artist's view in nanosubmarine in veins. 

The main purpose of a nanosubmarine is to navigate the body and perform a specific task. The most speculated task is the treatment and diagnosis of diseases from within the body. This is supported by the task of detecting substances, as most diseases cause a specific type of protein or other molecule to be made in abundance within the bloodstream. Another speculated task is microsurgery. With this technology, doctors will be able to perform surgery on specific locations from within the body..One example of this could be a treatment for cancer. A nanosubmarine could be built to detect specific cancer cells within the body; after locating the cells, the nanosub would be able to kill only the mutated cells and ignore healthy cells. " (Wikipedia, Nanosubmarine)

But intelligent nanotechnical systems can also make it possible. To perform X-ray fluoroscopy. Or ultrasound research in the human body. In that case, the sensors. Those around the body can send signals that allow for mapping injuries from the body. The system can use receivers that are connected to the skin. The system can use ultrasound to make images of tissues and bones to search and report injuries. The internal systems can also observe blood pressure and oxygen level, and nutrient needs. The internal system can send acoustic or electromagnetic signals from inside the body. And that makes it a more effective way to observe tissues. The system allows real-time observation of the blood pressure, blood flow, oxygen and many other things. 

In the most radical visions, those systems are surgically implanted. That kind of system makes it possible to search injuries from the body using a system that is based on surgically implanted sensors. That system can also communicate with receivers that connect this system to BlueTooth and computers and mobile systems. That kind of tool can be effective in everyday work, military operations, and sports. People like astronauts also need a system that can search injuries in real time. The ultrasound- and X-ray systems in the suit can detect injuries and observe the health of the operator. 

https://retailpharmacymagazine.com.au/micro-submarines-inside-body-could-deliver-meds/

https://www.rudebaguette.com/en/2025/07/these-sensors-see-what-humans-cant-chinese-tech-breakthrough-unleashes-vision-chip-that-surpasses-the-human-eye-and-redefines-machine-perception-forever/

https://scitechdaily.com/caltechs-new-smart-pill-can-read-your-gut-like-never-before/

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

The AI development process continues.

One remarkable thing in modern innovations is that. AI and computing are in the middle of those systems. The difference is this. In the past, computers were only auxiliary systems. In modern systems. Computing is in the middle of the systems. That means those systems are a combination of mechanics that advanced computer programs called AI control. That requires adaptation and a new way to think. 

When progress stops, we must ask why. That is one of the things that we always forget. When somebody stops progress, there must be some reason for that. And what is the reason? We always hear tales that the supreme leaders give orders for stopping projects, or some lawmakers make laws that deny the use of new things. The problem is that we forget to ask why the old thing seems better. 

The main problem with AI development is this: when those systems and algorithms can do something new. The idea is taken from Maslow's Hierarchy of Needs. When somebody creates something new, that need that was satisfied will be replaced by some new need. The need for R&D process starts when somebody notices a new need. And then some other actor must respond to that need by making and satisfying the new need. 

This means that computers require more and more power. When the AI and computers can make something new, a new need arises for the system to do. If the customer feels that they need new tools, they will buy new machines and programs. Then the skill-scale expands, requiring new and more effective ways to compute. That means more effective microchips and more effective systems. 

The new tools should make processes easier to control, but for some reason, the innovations face resistance. When a high leader orders to stop a new project, the question is why that person makes that kind of decision.  The problem with that kind of way to think is that there are also other leaders, leaders who have different goals and different ways to think. 

When we look at things like AI and other things, we always see dystopian visions. That’s why we want to stop AI development. The arguments for that thing are sometimes very good. But the problem is that the person who gave the warning will begin his own AI development project. 

And there are always people who resist AI, because it has the ability to operate in the military field. But then the next step is that we are not prepared for the situation that some other governments are interested in, especially this and its military applications. 

The fact is that we are in the middle of the break. Old-fashion tools and actors are stepping away from people’s eyes. Actors like Intel that dominated microchip production 30 years ago are falling. And their challengers from the U.S. and other nations are rising. That means there are new actors who want to get leading positions in AI development. And why AI development is so important. AI is the soul of the machine. Everything that a robot can do depends on those tools. 

The ability to respond to needs is vital in the modern marketing ecosystem. 

The new technology called General-purpose computing on graphics processing units, GPGPU or GPU compute, means a system that delegates missions that traditionally belong to the CPU to the graphics processors. Those kinds of abilities are raising many visions in front of our eyes. That makes it possible to develop computers where main operations happen in the GPU. This technology makes it possible to create autonomous robots with complicated mission modules. 

The problem with killer robots is that somebody makes them. Somebody wants to change warehouse robots into general-purpose terminators. The problem with robots is that they are multipurpose tools. The same robot that operates in warehouses can also operate on the battlefield. This is the new type of threat. But the problem is that nobody controls AI development. Even if there are some rules in the Western world, there are always governments that don’t have the same values. Those governments' prime objective for AI and its use is to use it as a control tool.

The problem with the human operators is that they can turn rebellious. But in the same way, machines can rebel. If some hackers can put the wrong programs in those systems. There is a theoretical possibility that a hacker can attack the robot army, and then turn those robots against their masters. Or somebody can slip a combat program in the computers that control warehouse robots. Robots are not toys anymore. They are systems that can make many things. 

And one of them is to go to war for humans who made them.  When we make decisions, we must remember that we live in the Western world. Not all people live in countries where laws and values are like those we are accustomed to. Some leaders think differently from our leaders.  Denying things doesn't end their existence. 

Hacking threats to military and civil systems.

Hacking is the new threat in the military and civil world. We can say that the new threat is cyber warfare. And if we are not prepared, that thing can cause many problems. Cyber warfare itself is not a new phenomenon. The idea in that kind of warfare is that the enemy’s computers are infected with computer viruses. Or things. Like homepages that the opposite side uses for sharing information can be loaded with disinformation. 

Cyber intelligence can search for information from enemy equipment, tactics, or key personnel's positions, so that they can be targeted for special forces attacks. Hackers can also search for the positions of important installations. 

Things like energy supply systems are targets for cyber attacks. The modern military uses more and more electricity. The effective combat control systems, like radars and communication platforms, require electricity. But things like new tools, such as laser weapons and drones, also require electricity. The entire system must be protected against cyberattacks. There is a possibility that a hacker who has access to the wrong databases can simply remove those people's access to some systems. Or they can remove the data of the entire military crew. Or in some scenarios, hackers can simply report the key people, like nuclear weapon operators, as dead in an accident, into the system. 

What if the system will not allow them access to the command center?

One example of a destructive cyber attack is an attack that activates power plants' emergency shutdowns. That system can close the energy production in those systems immediately. Basically, hackers can break down things like electric networks by shutting down the main energy production units, like nuclear power plants. That thing activates auxiliary power immediately. When auxiliary power is on, the main energy production units will be activated again. 

Suppose the electric network is not protected against such a situation that causes an overload. So, that is the reason why the electricity must never be loaded onto the electric network from the generator. The other thing is that the electric networks must be based on many small platforms rather than one big central platform. If one of those systems is shut down, the effect on the entire network is smaller. Basically, in the case of a nuclear reactor, only anonymous phone calls to the control room can cause an emergency shutdown. The hacker can say that there is a logic bomb, which means a computer virus that destroys the control program immediately. So, would the reactor crew start to test if those computer viruses are really in the system? 

We have firewalls and antivirus programs. The fact is, if we want to put the computer viruses into the systems, what is needed is a reprogrammed RFID chip or some access card whose microchip is reprogrammed. That thing can transmit a small code that can open the gate to the system. In that case, the small virus will not break the system. It just opens the path to a targeted system. And in some scenarios, the hacker could use the faked VPN connection for that operation if a hacker can somehow fake the computer’s identity to match the computer that has access to the target computer and use a trusted VPN that can allow it to inject malicious code into the system. 

In hacking and computer crimes, productive thinking is the key element. If the hacker can hijack some screens, they can send fake malfunction reports. If the error level of a computer rises and the system reports a damaged hard disk, the system requires service. The attacker can simply try to put an infected hard disk in the computer center. That is one of the threats in computing. If hackers can make their own computer that has access to a targeted system, it can open the road to all data that travels through it. 

 The AI-based firewalls can protect military systems against traditional computer viruses and hackers. But the new threat is nanotechnology. The nanotechnical systems can slip into the computer rooms. They can search the microchips, and then those nanorobots can transmit data that travels through the processors to the controllers. Nanorobots can transmit data to the computers through those microcircuits. Or they can cut microchips off the microcircuits. And then start to transmit their own code to the system. The new tools require new resistance. The nanorobot, or maybe a matchbox-size drone, can travel to the cable connection and detonate itself. That thing can damage the power supply to the computer, or it can cut data communication outside the computer. The drone acts like an anti-radiation missile that can search the WLAN stations and detonate them. 

Underwater drones and flying aircraft carriers are the new tools for drone systems.

"Illustration of the USS Delaware deploying the Yellow Moray spy robot underwater. Image generated by AI" (Sustainability Times, “US Navy Breaks the Silence”: World’s First Reusable Underwater Spy Robot Deployed on Nuclear Submarine"

The U.S Navy released and returned the underwater spy drone to the torpedo tube. That is the new age for the UUV (Underwater unmanned vehicles). The underwater drone or autonomous underwater vehicle, AUV, can operate in exactly the same missions as ground-launched drones. But they have one advantage. Those drones can also operate underwater.  Those small-sized drones can also carry sub-drones. And that thing makes those systems more deadly than anybody expects. 

There is a possibility that just before landing, troops arrive, and small drones can be deployed near the beach. And when orders arrive, those systems can release that drone swarm to sweep the enemy out from the beach. When we think about those systems and their capacity, those drones are mainly platform-independent. They can operate with tanks and against them. Drone swarms can give fire support to other units. 

And they can be carried in any box. Those independently operating kamikaze-drones can use the images of the targets to aim and destroy them. The drone swarms can travel to harbors underwater and then attack against ship’s underwater structures, or they can rise to airborne and cause damage to radars and other systems. Or they can explode themselves on missiles, depth charges, or torpedoes. That can increase damages. The drone is the next-generation system. 

There are plans to use drone motherships. The drones can be multi-level systems. The drone carrier can operate autonomously. The carrier and submarines can operate as data centers for those drones. The human-looking robots can operate on those giant robots. And small-sized drones can also have wireless reload systems. Those carriers can also carry things like 3D printers that allow them to build new quadcopters. 

"Uncrewed Submarine Will Launch, Recover Drone That Can Swim, Fly

Uncrewed submarines loaded with 'multi-domain' drones could offer a new dimension for hunting for enemy naval forces and mines, and more." (Twz.com)

The Chinese are testing a new large mothership drone that is similar to NATO Global Hawk drones, but this drone can launch thousands of kamikaze drones over the battlefield. When we think about flying aircraft carriers. The VTOL aircraft that can hover in the air can allow the smaller drones to fly into their cargo bay and reload their batteries. The idea is taken from The Jetsons and their flying aircraft carrier. The fact is that Chinook or V-22 “Osprey” can operate in that role. The helicopter or aircraft can hover above the operational area, and those drones can fill their electric load in its cargo bay. 

There is no limit to the size of the quadcopters. And that means the nuclear-powered, large-size quadcopters can make it possible to operate drones or even larger aerial vehicles at airborne. The spaceborne aircraft carrier can be a spacecraft or a satellites that operate miniature satellites. Those satellites can operate at the orbiter more or less independently, and when their propellant is finished, those systems can fly to the larger satellite that fills their propellant tank. 

Miniature satellites can act as space spies that observe other satellites. And in wartime, those satellites can act as kinetic energy killer satellites that impact with other satellites. Miniature satellites can also protect bigger satellites. When the kinetic energy ASAT missile closes the satellite, the miniature satellites can impact with that satellite killer. 

https://www.livescience.com/technology/engineering/china-has-developed-the-largest-drone-carrier-in-the-world-and-its-getting-ready-for-takeoff

https://nationalinterest.org/blog/buzz/chinas-drone-aircraft-carrier-what-you-need-know-and-why-it-matters-211085

https://pentoz.com/mothership-drones/

https://www.sustainability-times.com/energy/us-navy-breaks-the-silence-worlds-first-reusable-underwater-spy-robot-deployed-on-nuclear-submarine/

https://www.twz.com/drones-that-swim-and-fly-to-be-launched-recovered-by-uncrewed-submarine

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

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

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

Room-temperature superconductors will be key to the supertechnology.

"University of Illinois Chicago scientists are working on materials that could allow superconductors to function at room temperature, eliminating the need for extreme cooling." (ScitechDaily, University of Illinois Chicago scientists are working on materials that could allow superconductors to function at room temperature, eliminating the need for extreme cooling.)

Race to find room-temperature superconductor is hot. Superconducting magnets and wires will revolutionize computing. And they can make things like compact quantum computers possible. But there is one problem. Regular superconductors require high-power cooler systems. 

And those coolers make those systems ineffective. Another way to create room-temperature superconductors is to increase the pressure in the system. However, the high-pressure system requires gigapascals- pressure. One hole in the tube can cause large-size damage. This is why the room-temperature superconductors are very interesting things. 

The room temperature superconductors make it possible to create magnetic levitation systems that are cheap to use. If the aircraft is created using the superconducting materials that thing allows the Meissner effect to turn the craft levitating. That allows researchers to create virtual antigravity that can benefit a heavy cargo system. And that is why silent levitating crafts are used. The hovering superconductors can turn the craft lighter than it otherwise is. 

And that makes it possible to create silently hovering crafts or radical aviation systems that lift more things than otherwise. And those things can also make it possible to create aviation tools that can hover silently above the ground. Then the small engines can transport that craft out from the city area. Those systems can require the superconducting tracks to work. 

And then it can start the super- or hypersonic flight. The superconducting materials are also extremely good tools for the stealth technology. 

Room-temperature superconductors can make super cannons and cheap space launches possible. The superconducting systems can also make it possible to create trains. That is faster than hypersonic aircraft. 

The railguns can replace the space rockets for satellite launchers. Those railguns can be in. The high mountains mountainside. The railgun will launch a satellite in a small rocket, or aerodynamic capsule to space. The rocket is needed in trajectory maneuvers. The railgun can also connected with centrifugal launchers or spin launchers. Those systems can shoot also nuclear grenades over the ocean. 

The superconducting magnets are tools that can make things like magnetic levitation trains, Maglev trains possible. The maglev technology means that the object hovers above the magnets and uses the magnetic repel effect to keep the train hovering. The system can use the Gauss-track to travel in the vacuum tube. 

Those extremely high-power cargo systems are like particle accelerators. But their size is bigger. Those systems require lots of energy. The main problem with those super-size magnetic systems is that their magnets will turn red because of the whirling magnetic fields. Superconducting systems minimize the need for energy. The maglev trains can travel faster than aircraft because there is no friction in the tube. 

https://scitechdaily.com/superconductors-at-room-temperature-uics-groundbreaking-materials-could-make-it-possible/

https://www.spinlaunch.com

https://en.wikipedia.org/wiki/Levitation_(physics)

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

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

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

The artificial lifeforms can be closer than we even dare to think.

"A simplified synthetic equivalent of a cell would be like a blueprint for life. Credit: EVOLF project" (ScitechDaily, Can Life Be Engineered? Biochemists Take Key Steps Toward Synthetic Lifeforms)

Biochemists take their first steps into artificial life forms. The ability to manipulate and connect DNA bites together makes it possible to create artificial species. The nanotechnology plays a key role in that process. Things like genetically engineered bacteria can transport those DNA bites into targeted cells. 

The DNA is the genetic code that controls all actions in the cell. The DNA code can order a cell to die. Nanotechnology makes it possible to clean DNA from genetic errors. That gives the possibility to remove hereditary diseases from society and that thing can decrease things like crime ratio. If researchers can remove the genome that causes things like sociopathy it makes society safer. 

If researchers want to remove genetic diseases from fetuses. They must only take the DNA out from the morula. Then they must clean the DNA and replace the sick sequences using clean sequences. Then they must remove "dirty" DNA from the cell and inject the clean DNA into that cell. 

The same technology allows researchers to inject new abilities into cells. 

When researchers can combine animals and vegetables by connecting their DNA makes it possible to create new species that do not exist in nature. The ability to create synthetic DNA by connecting amino acids using nanotechnical instruments is one of the biggest advances in biotechnology. 

The artificial organism can be bacteria that destroys the tumor cells. Or it can be a mammal with green skin. The green skin gives that creature the photosynthetic ability. The creators of that thing must connect the animal cells with vegetable cells. 

The ability to manipulate the DNA gives researchers free hands to combine organisms and their abilities. When researchers increase their knowledge of the genetic errors that cause cancer or genetic diseases they can use genetic scissors to remove the abnormal DNA. And then. They can connect the wealthy  DNA to that point. 

This thing makes it possible to create many things that have been impossible before. The human who gets the genome transplant that involves a genome that controls gorillas or anaconda's muscle advancement would be the strongest person in the world. 

Maybe those things are still too far away from today's medical and genetic engineering.  But everything starts from the simple organisms. The genetically engineered bacteria can inject the DNA or mRNA into other bacteria or cancer cells ordering those cells to die. There is no resistance to those DNA bites. The same systems and methods can be used in the new types of weapons. Those weapons are the most lethal things in the world. 

https://scitechdaily.com/can-life-be-engineered-biochemists-take-key-steps-toward-synthetic-lifeforms/

The AI can detect some diseases following the speech.

"New research reveals that while people struggle to distinguish between human and AI-generated voices, their brain responses differ significantly." (ScitechDaily, The Great Voice Trick: Is It AI or Is It Real?)

Some companies plan to transfer their customer service to AI. That thing means that when people discuss recruiters, those people can be photorealistic virtual characters. They can be virtual characters that real people control. In that case, the virtual character only covers the interviewer's identity. But in the full version, the interactive AI controls virtual characters on screen. 

The reason why customer service is a good place to use AI is that there are certain rules, about what those people can offer. The AI can say that let's talk about business if somebody offers dates. The limits make AI a good customer service provider because in those situations there are limited topics that people talk about. 

"Spectrograms to demonstrate the similarity between human and AI voices. Credit: FENS Forum / Christine Skjegstad" (ScitechDaily, The Great Voice Trick: Is It AI or Is It Real?)

Still, the human brain detects the AI-generated voice. But as you see, the AI can imitate human speech very well. The fact is that the AI can also say at the beginning of a discussion that it's AI. The system can use infrasound for that thing. And that means the person realizes that the opponent is synthetic. 

The AI can also analyze speech and find things like lies. It can also detect things like neurological diseases. 

The AI can find the symptoms of neurological diseases like Parkinson's and probably Alzheimer's by following speech. The thing is that this kind of thing offers new possibilities to make diagnoses. The AI can follow a person's speech while the customer speaks with the doctor, and make notices about possible neurological disorders. That thing can help to find patients and start the treatment earlier. 

The AI is the tool that can analyze multiple DNA samples at the same time. That system can see the genetic structures, and then it can compile those genetic structures with the phenotypes of the people. That means the AI can see things like genomes that order the eye colors. The system analyzes the DNA. And then it searches for similarities between persons who gave the DNA samples. 

The idea is that the system analyzes thousands or even billions of DNA samples. And then it tries to find similarities between people. The AI can also search for things like genetic disorders that cause sociopathy. Some different brain structures cause that thing. The AI can collect things that those people write on social media. In the same way, the AI can collect information on how the Altzheimer patients behave in things like social media. Or how they behave before the first memory symptoms are noticed. 

https://scitechdaily.com/jurassic-park-in-real-life-mit-creates-synthetic-amber-for-dna-storage/

https://scitechdaily.com/new-ai-uses-speech-patterns-to-predict-alzheimers-disease-with-astonishing-accuracy/

https://scitechdaily.com/the-great-voice-trick-is-it-ai-or-is-it-real/

https://scitechdaily.com/unlocking-ais-black-box-in-genomics-squids-deep-dive-into-dna-data/