Perovskite can use in a new type of quantum- and nanotechnology.

   

"The Advanced Materials cover illustration shows the surface of the halide perovskite structure being modified by a large organic cation. The cation diffuses through the thin film to reconstruct the surface structure. Credit: Advanced Materials"  (ScitechDaily.com/Revolutionizing the Future of Energy: Advancement in Halide Perovskite Solar Cell Technology)

Perovskite can have multiple uses in nano- and quantum technology. 

Perovskite can use in advanced nanotechnical armor. When something hits the structure. That is in the picture above this, it presses the upper cubes flat. That ties impact energy while ammunition penetrates the core. And because the material is elastic. Ammunition transmits energy slower to that material than to regular steel. That makes this type of nanotechnical armor more effective than regular armor. 

Perovskite can use in a new type of quantum technology. It can revolutionize solar panels. But that structure can also make it possible to create a new type of scanning tunneling microscopes or quantum computers. And perovskite can make gamma-ray lasers possible. 

Perovskite structure makes a new type of solar panels possible. 

Perovskite is a cube standing on its tip, as you can see from the image at the top. And that structure makes the solar panel more effective. The tapered tip conducts energy to the bottom of the structure. 

And that structure also collects energy from the top to the structure's tip. The perovskite structure is also interesting in the tools like the scanning tunneling microscope and quantum computer. 

Scanning tunneling microscope. 

The perovskite can use to hover ions or electrons over the layer. The scanning tunneling microscope uses the hovering particle for measuring details in materials. But the problem is that the observation area of the tunneling microscope is very thin. 

The perovskite structure allows making lots of observation pikes for scanning tunneling microscope. And that thing makes it possible to observe larger areas with incredible accuracy. 

Perovskite can also use in nanotechnology. 

The perovskite structure allows creating the new type of systems for nanotechnology. The system can use similar technology to scanning tunneling microscopes. The system anchors the nano-size particles between the layers. And the perovskite forms the pylons that keep the layers of that nanosystems away. 

Then the system positions nanomachine parts in the right position by shooting them with lasers and magnetic fields. To make this process successful. The system must know each particle's position and its location in the system. So that requires ultimate highly accurate observation systems. 

Perovskite in quantum computers. 

Perovskite can use to position the electrons in the right positions in the quantum computer. The system puts electrons to hover at the tip of the perovskite. Then the laser ray will make the channel between those electrons. In that case, the electromagnetic shadow between those electrons will make the channel between them. Then the system shoots energy impulses to them. 

And that should form photon pair between those electrons. Then the system will superposition and entangle those photons. The electrons form an array that sends and receive information to and from that quantum entanglement. The perovskite structure makes it possible to create multiple quantum entanglement lines that are acting at the same time. 

And finally, perovskite can make it possible to create gamma-ray lasers without the need for annihilation.

If the electron stick of superpositioned and entangled electrons that are forming the gamma-ray laser's laser element can position straight in the middle of the perovskite crystals. That would be a very powerful system. If energy impulses to those lined electrons can give straight from perovskite. 

That makes the system more powerful than if the system must use some ion or electron layer as the energy aimer. The lined perovskite crystals can use to aim energy impulses straight at the laser element. Regularly gamma-ray lasers use electron or ion clouds to make energy pulses. 

The idea is that the system will anchor electrons or negative ions to the tip of perovskite. Then in the middle of that system is the line of superpositioned and entangled electrons. Because the energy level on another side of that electron line is higher than the other, the system can aim an energy burst in the wanted direction. 

Then the system will aim energy impulses at those ions or electrons that hang around that electron stick. When energy pumping ends the system those ions send the energy impulse to those electrons. 

https://scitechdaily.com/revolutionizing-the-future-of-energy-advancement-in-halide-perovskite-solar-cell-technology/

https://astronomyandtechnology.blogspot.com/

Researchers created nanomaterial that allows isolating hydrogen straight from seawater.

Hydrogen production is one of the most promising things for solving energy problems. Hydrogen is easy to produce by using wind generators or any other electric source and is suitable for use in electrolysis chambers. And the biggest problem is finding a green energy source that is suitable for large-scale hydrogen production. 

Maybe the Australian researchers found the answer. " The team says its results, using cobalt oxide with chromium oxide on its surface as the catalyst, had similar performance to a standard process of applying platinum and iridium catalysts to highly purified and deionized water". (https://www.engadget.com/clean-hydrogen-fuel-split-seawater-214042411.html?guccounter=1)

The idea of the new system is that cleaning sea water is not necessary. When the system drives salt- or seawater to the electrolysis chamber it also produces chlorine and sodium. The electrolysis breaks the sodium chloride into chlorine and sodium. Those things are important elements in chemical factories. 

This thing is a very interesting method to produce hydrogen. When we think about nanoweb that separates hydrogen and oxygen from seawater. These things can be useful in the new type of long-operating underwater robots. The underwater robot can use hydrogen and oxygen in its power systems. And that thing opens the road to the "underwater perpetual motion machine". The system separates hydrogen and oxygen from the seawater and then drives it to fuel cells. 

Seawater includes lots of sodium. Sodium is an alkali metal that is suitable for producing hydrogen itself. The chemical reaction between an alkali metal and water releases lots of hydrogen. But sodium can also use for making electricity for the nanotechnical electrolysis electrodes. 

Seawater includes lots of sodium. So if there is possible to remove chemical compounds of sodium chloride or salt is possible to release lots of sodium in the electrolysis chamber. The thing that makes this process interesting is that sodium is an alkali metal. That means it can use to produce hydrogen because the alkali metals release lots of hydrogen when they touch the water.

But sodium can use in nanotechnical electrolysis. The sodium electrode is an effective system in an electrolysis chamber because it can connect with other metals like gold. And that allows the electrodes can produce their electricity. The nanoweb where is sodium and gold atoms as towers can produce hydrogen from salt water. And that system can be very effective both in civil and military operations. 

What if you can put a rocket into the water, and then it creates its fuel by splitting water into hydrogen and oxygen inside the rocket's body? 

There is the possibility that the next-generation space center locates underwater. The water allows clean energy and clean fuel production for those launching stations. The spacecraft will launch to the surface like SLBM (Submarine-Launch Ballistic Missile). Or the floats will pull them near the surface. And there, in the underwater position they can launch their engines. Clean energy allows the splitting of water molecules into hydrogen and oxygen. The energy can produce by using nuclear reactors. But producing energy by using clean or green energy is safer. 

Sometimes is introduced that some so-called UFOs are diving into the water. For making hydrogen for fuel. There is the possibility that the two-layer nanomaterial can use to create hydrogen and oxygen straight from the seawater for rockets and aircraft. 

To the body of the vehicle will put two layers of nanoweb there are gold and iron towers between those layers. This makes the structure act as a nanotechnical electrolysis chamber. That system can use for making hydrogen and oxygen for rockets and aerial systems straight from the seawater. Those things can use as fuel for airplanes and especially space rockets. 

https://www.chemistryworld.com/news/producing-hydrogen-from-sea-water/3003305.article

/https://www.engadget.com/clean-hydrogen-fuel-split-seawater-214042411.html

https://www.eteknix.com/elon-musk-thinks-ticket-mars-will-cost-around-500000/

https://scitechdaily.com/new-nanomaterial-produces-clean-energy-hydrogen-fuel-from-seawater/

https://www.pv-magazine.com/2023/01/31/australian-scientists-unveil-method-to-produce-hydrogen-straight-from-ocean

https://www.teslarati.com/spacex-installs-starship-nosecone-east-coast-progress/boca-chica-orbital-starship-nose-install-vs-mars-starship-nasaspaceflight-bocachicagal-3/

https://astronomyandtechnology.blogspot.com/

The new artificial plume robot can act as the ultimate observation tool.

The new light-driven robot looks like a plume. Its controllers control that machine by using light. The robot itself looks like a plume. That makes it very interesting. The artificial plume can land on the human body and observe things like neural electric signals. That new nano- or miniature robot can operate along with quadcopters that are transmitting signals to it. 

The light gives power to that robot, but the same light can use to give commands to that robot's tiny computers. And that means they can slip into houses and other things. Those tiny robots can interact with larger quadcopters. And they can be the ultimate couple in the recon missions. 

Miniature robots are always very interesting tools. And there are many problems with those systems. But those systems have a big opportunity in observation, recon, and all kinds of things. 

The first one is how to make microchips that are agile enough. Those miniature robots can collect samples from liquids like oils. They can check if the person is alive. And they can also operate as recon and intelligence missions. If those systems have seismic sensors they can listen to the surface oscillation and send that data to the headquarters which can be on another side of the Earth. 

The large group of miniature robots can also use to fix holes in the ship's hull or even in flying aircraft. The miniature robots will cover the hole and act as the support structure for repairing compression. And that kind of thing can make many things safer in the future. The field of miniature robots is unlimited. The imagination limits the use of those systems. 

They can observe chemicals or animals in nature. The miniature robots can make recon and intelligence missions. They can place themselves in the clothes and slip into the targeted building.  Those robots can slip into the computers and then send all data from those systems to their operators. The miniature robots can also use to give things like botulinum injections to targeted people. And that kinds of things are making them extremely dangerous. 

Miniaturized robots are the next-generation tools for many things like sensing air pollution, and searching for fire in buildings. Observe rooms and tack unauthorized people. Or they can simply observe air quality in tomorrow's buildings. 

https://scitechdaily.com/magical-marvel-tiny-fairy-like-robot-flies-by-the-power-of-wind-and-light/

https://shorttextsofoldscholars.blogspot.com/

New cellular machines can help with ALS and Alzheimer's treatment.

Sometimes somebody said that if people would have sandpaper that is thin enough. That thing could clean the hole between neurons where Alzheimer's is forming plaque. The new type of artificial proteins called motor proteins can make that dream true. 

"Motor proteins are tiny molecular machines that animal and fungi cells use to convert chemical energy into mechanical work. They are miniature “vehicles” traversing a cell via a network of tracks referred to as the cytoskeleton, hauling a cellular payload and generating forces to aid in many vital processes and functions". (ScitechDaily.com/Analysis of Cellular “Vehicles” Sheds New Light on Alzheimer’s, Parkinson’s, and ALS)

New cellular machines, or rather saying. Nanomachines are helping in ALS and Alzheimer's treatment. The new motor proteins are machines that can clean the neural network from plaque. And the biggest problem is how those motor proteins can find the precise right point from the neural network that can clean synaptic cleft. The answer could be in the neurotransmitters. 

If that kind of nanomachine can detect and home to the right point using neurotransmitters as the aiming tool. That thing makes it possible to target the nanomachine to the right point. There is also possible to use a miniature microchip. The nanomachine can destroy the plaque in two ways. The first method is that the cells will destroy the plaque by using enzymes and use it as a nutrient. 

Another version is that motor protein will shoot the sub-protein through neurons. And then remove the plaque by using mechanic removing where that protein acts like sandpaper. That kind of thing can make the next generation of neural medicines possible. 

https://scitechdaily.com/analysis-of-cellular-vehicles-sheds-new-light-on-alzheimers-parkinsons-and-als/

https://designandinnovationtales.blogspot.com/

T-1000 can be a reality sooner than we thought.

New robots can turn their state of matter from solid to liquid and backward. And they can make T-1000 a reality closer in the future than we expected. 

Above this text is the "jailbreak" of the next-generation robot that can change its state of matter from solid to liquid and backward. Maybe quite soon. The T-1000 robots from the "Terminator" movies turn into a reality. 

The new robot is a combination of magnetic particles and gallium. Gallium is a soft metal with a melting temperature of 29,76 degrees Celsius. "The researchers embedded a gallium matrix with magnetic particles, creating what they call a "magnetoactive solid-liquid phase transitional machine"." (ScienceAlert.com/Scientists Create Shapeshifting Humanoid Robot That Can Liquefy And Reform)

The nanotechnology-based microchips could control the magnetic state or the magnetic field's strength. And that kind of solution requires a large group of miniature microchips that control the state of matter in that gallium matrix. Those microchips can also operate as the entirety or cloud-based application that controls the movements of that next-generation system. 

The size of microchips determines how flexible that robot is. The liquid robot can clean surfaces in the computers. But they also can have many operating areas in medical and military technology. 

The liquid robot can close leaks in tubes in factories and power plants. Or they can close hemorrhage. 

Maybe researchers cannot make the T-1000 robot yet. But there is lots of use for that kind of machine. The liquid robot can travel inside blood vessels and clean them. The system can also operate in cancer treatment by closing blood vessels that transport nutrients to the tumor. 

The image above the fictional T-1000 is coming from the floor. 

There could also be military applications for that system. The liquid robot can slip into the building. There it can collect data from its environment. And if the liquid robot has some kind of photoelectric sensors. It can place itself around the optical cable and collect data. That is traveling inside it. 

And that system can operate as an assassination tool. The liquid robot can slip into the targeted victim's body. And then close some blood vessels in the body. 

That makes this type of nanotechnology multipurpose. And in the wrong hands, that kind of machine can be devastating. The same system can have multiple uses. And that makes nanotechnology an interesting but same time dangerous tool. Many laboratories in the world are developing tools based on nanotechnology. 

https://www.sciencealert.com/scientists-create-shapeshifting-humanoid-robot-that-can-liquefy-and-reform

https://likeinterstellartravelingandfuturism.blogspot.com/

Contactless manipulation is usable in robotics, microchips, and other nanotechnology.

The new metasurface material allows to manipulation of objects without internal power sources. The system manipulates a comb-looking structure will by using outcoming soundwaves. That thing makes resonance in that structure. The prongs of the comb transmit those soundwaves between them. And then that structure can operate as sound tweezers. 

Traditional sound wave-based hovering system requires that objects are smaller than sound waves. The soundwave-based levitation system can use a layer. The loudspeakers can aim sound waves at that layer. If there are small towers in that layer the soundwaves can cross between them. And that allows putting small machine parts to hover between those small towers. 

Manipulating objects without touching them by using sound waves is one of the most fantastic ideas in the world. The idea is that the sound waves are making objects hover above the layer. And then by controlling the symmetry of those soundwaves. The controller can move objects over the special layer where the loudspeakers are. 

The difference between soundwave-based manipulation. And magnetic manipulation is when the soundwaves do not affect the object's magnetization. And that allows developers to assemble extremely small microchips to the extremely small machines. 

When those loudspeakers are hovering objects above a special layer. The system can use LRAD- or aimed soundwaves to move objects in the wanted direction. The system can be very accurate. And one place where that pressure-based system can be useful is in synthetic chemical environments. There is possible that small bites of molecules can turn by using extremely thin sound waves. 

The problem with magnetic manipulation is that the system will affect the magnetization and kernel programming of nano-size microchips. Assembling nanomachines and very small microchips require an extremely high purity level. The operators must not touch those micro components.

Because if they touch something those parts will lose their electricity. In nanomechanics, sometimes the electric polarity of those extremely small objects acts like glue. And that thing requires the ability to move those objects without touching them. The ability to move objects without contact is necessary in some cases. Where molecular-size machines are in an assembly line. 

https://scitechdaily.com/not-science-fiction-a-new-method-to-move-objects-without-contact/

https://designandinnovationtales.blogspot.com/

The new integrated data security requires hardware and software-based solutions.

New nanotechnology makes it possible to hack computers, even if they are off the internet. The cyborg bug or small robot can carry a microchip to the microcircuit. And then, the system can put that microchip on the wire or microprocessor. 

The microchip can record and transmit information to the relay station that resends to the satellites or the internet. Even if that microchip doesn't have powerful data transmitters, the system can use a chain of miniature relay stations that transmit data to the drone or a fixed station that can be a cell phone that communicates with those microchips by using BlueTooth. 

Those microchips can also transmit electromagnetic impulses to wires. And they can use to deliver computer viruses or spyware to polluted computers. 

If we think of the traditional locking system. The AI can easily make copies of the physical keys. The AI-based camera just photographs the keys, and then it can measure the length of the key. The system can also use sonar or laser scanners. And then, it can transmit that data to the CAM (Computer-Aided Manufacturing) system. 

That system can involve a 3D printer and machine tools. There is the possibility that the attackers have laser systems that they can use to finish the job. Modern burglaries can work for governments. And in that case, they can have high-tech support systems. 

The fact is that the wrong microchips can cause a very bad situation. There is a possibility that those microchips are equipped with logic bombs. In that case, those systems can deliver computer viruses to the system. Or they can transmit information that flows through them to a third party.  

And even if those microchips don't carry malicious code to the targeted system. They can cause very big risks. If hostile forces know the resonance frequency of those microchips. They can use acoustic weapons to make physical damage to microchips. That causes oscillation and breaks the core of the microchip. 

The data security of tomorrow must base the solutions that are hard to break. When we think about things like electronic locks there is the possibility that in the future, cell phones with biometric recognition systems can use to open electronic locks. 

But when the telephone communicates with locks it must use a very fast algorithm. The recognition algorithm can be unique. And that makes it easy to track the device. That code is used for authorized access in physical or software-based systems. 

The burst of code, hidden in empty code makes it difficult to steal the key. When the telephone starts transmitting it sends an "empty code". Then the key code is hidden in that message. The next-generation systems are not just denying access. It stores the unauthorized keys in memory, and that defender can find out where the attacker stole the code. 

https://scitechdaily.com/the-security-system-of-the-future-electronic-devices-could-use-logic-locks-to-fend-off-malicious-attacks/

https://networkedinternet.blogspot.com/

Researchers from Aalto-University created Viking knots to Bose-Einstein condensate.

"In Borromean rings, each circle holds the pattern together by passing through the other two circles. Credit: Alexandr Kakinen / Aalto University" (ScitechDaily.com/Viking Knots Linked With Quantum Vortices – A Vortex Structure That Is Impervious to Decay)

Researchers of Aalto University, Finland. Stabilized Viking knots to Bose-Einstein condensate. For the first time in history. Researchers made stable forms of super-cold atoms. 

The thing that makes this case critical is that makes possible the creation of nano- or quantum-scale machines or microchips. The stable and static form in atom-size structures is the key to create of nano-scale transistors and gates. 

One of the biggest problems with nano-scale robots is to develop control units that are small enough. In normal or room temperatures, the problem is resistance, which can destroy those atomic-scale systems. 

Changes in temperatures can destroy atomic-scale wires. So the system requires extreme stability. That can make by using extremely low temperatures or extremely high pressure. 

When researchers develop molecule-size machines. They must connect the right atoms at precisely the right points in the molecule. The nano-scale robots could make that thing. But the problem is how to control that system.

Nanorobots can act like regular-size drone swarms. Those nano-drone-swarms can be quite independent. 

But there is one problem. The size of the control units must be small. 

Also, the chemical and physical conditions of the operation must be extremely stable so that connecting molecules precisely in the wanted points would work. The size of robots that are making those complicated molecules is very small. 

There is a possibility that the medical use of future nanomachines against cancer and bacteria includes two components. 

The artificial DNA molecule. That involves wanted information and transporter. The transporter transports the molecule to the targeted cells. If that transporter is part of the cyborg cell. That DNA bite requires protein cover that denies its release before it is at the absolute right point. If that DNA includes the code that orders the cell to die. That thing means that it must not be released in the wrong position. 

And there should be a nano-submarine that removes the destroyed cell. So that it would not launch non-controlled pre-programmed cell death in the body. The DNA bite that orders cells to die could be the next-generation medicine against bacteria and cancer. But that requires a futuristic two-stage transporter system. 

1) The nano-size submarine. That thing can be a cyborg cell that travels to a non-wanted cell and injects DNA bite into that targeted cell. 

2) DNA bite that includes information that orders the cell to die. That kind of system can be called a "Death virus". 

The artificial virus includes pre-programmed cell death. So when the nanomachine selects the non-wanted cell. That nanomachine just slips that DNA bite in it. And that DNA bite orders the cell to die. 

But the DNA transfer can also make it possible that the cancer cells and their descendants to start to create proteins that give immune cells the order to destroy those cells. The problem with cancer cells is that they are hard to track. 

There is a possibility that researchers can put the artificial DNA bite into the human body. That is after the programmed cell death in the DNA. That tells the immune system that some cells are overaged. And orders immune cells to destroy those overaged cells. 

In the cases like material development, the nanomachines can operate under high pressure or at extremely low temperatures. Those things make molecules stable. And it makes it easier to handle them. 

These kinds of carefully controlled conditions make it possible to use superconduction technology in the nanomachines that make the complicated molecules. And that allows the creation of more and more effective and complicated materials. 

https://scitechdaily.com/viking-knots-linked-with-quantum-vortices-a-vortex-structure-that-is-impervious-to-decay/