Carbyne and fullerene are the ultimate combination.

"Schematic representation of carbyne stabilized inside small diameter double walled carbon nanotubes. Credit: Emil Parth, Faculty of Physics, University of Vienna, Edited" (ScitechDaily, Atomic Eavesdropping: How Carbyne Talks Through Quantum Vibrations)

Carbyne and fullerene are the ultimate combination. "Scientists in Vienna have successfully created a stable form of carbyne, the world’s strongest material. Carbyne is a linear acetylenic carbon – an infinitely long carbon chain. It can be considered as a one-dimensional allotrope of carbon. Carbyne has a chemical structure with alternating single and triple bonds: (−C≡C−)n. This structure of carbon gives an impressive Young’s modulus (a measure of the tensile stiffness of a solid material) of 32.7 TPa, which is forty times that of diamond, and thirty times that of carbon nanotubes." (LabCharge, Carbyne: Officially the Strongest Material in the World) 

The carbyne chemical bond structure, the triple bond between two carbon atoms that alternates with the single bond gives this carbon chain an ultimate strength. Unlike the regular single bond carbon, fullerene the triple bond in carbon allows that part of the triple bond to open. And then those opened bonds act as quantum antennas that conduct energy out from the carbyne. If there is the possibility to make this kind of structure into the fullerene that makes this structure stronger than regular fullerene because those quantum spikes transport energy out from the structure more effectively than in simple graphene layers. 

There are no limits to the length of the carbyne chain. There is the possibility that carbyne is used in nano-canvas, which is like normal canvas, but the carbyne chain replaced normal yarn. The nano-canvas formed of the squares of the carbyne. Another way to use the carbyne is to put it into the fullerene nanotubes. The carbyne chains that are in the fullerene nanotubes can conduct energy out of the structure. This thing makes those carbon tubes sustain the energy loads. 

That opens the road to the new armor. The carbyne chain can also make it possible to create new and effective sensors. When some energy impulse hits the nanotube, that oscillates the carbyne. And the laser beam can detect that movement. There is also the possibility that the carbyne-nanotube combinations make it possible to create miniature flying devices. The system brings energy to the carbyne. That makes carbyne heat. And it can make the nanotube hover. 

The energy that travels out from the carbyne makes a fully symmetrical effect around the system. This means the carbyne-fullerene combination turns hovering. The system makes a halo around it and the system can hover in that halo or acoustic bubble. In computing networks, the system can push and pull the carbyne stick back and forth. That allows the transmission of information in a short-distance mechanical network. The carbyne stick pushes the nano-button and sends zeros and ones like Morse code to the receiver. 

The carbyne stick can also act as an antenna that transmits energy impacts to targets. The idea is that the energy impacts are aimed to carbyne straight. Or through the fullerene tubes. That makes it possible to create new quantum tools that can move and manipulate objects. 

The virtually negative material means the case that energy flows only away from the structure. This material causes the need to rethink material limits. It can make new types of solutions possible. And those solutions can open roads to the new information superhighways. 

https://www.labxchange.org/library/items/lb:LabXchange:0f37aae6:html:1

https://scitechdaily.com/atomic-eavesdropping-how-carbyne-talks-through-quantum-vibrations/

The new metal alloy can keep its form in a very long temperature scale.

"A POSTECH research team has developed a nickel-based high-entropy alloy (HEA) that maintains its strength and ductility across extreme temperatures from -196 °C to 600 °C. This temperature-insensitive “Hyperadaptor” alloy, reinforced by nanoscale precipitates, shows promise for aerospace, automotive, and energy applications. (Artist’s concept). Credit: SciTechDaily.com" (ScitechDaily, Korean Scientists Develop Super Metal That Remains Strong No Matter the Temperature)

The Korean researchers created a new metal that keeps its strength and ductility from -196C to 600 Celsius. That metal can give new tools for aeronautics. And some other technologies. 

That new metal can have potential in some gas tanks. Or in some sensors. When the temperature rises higher level than 600 degrees that metal can melt and then let air travel to the sensor. The metal is called a nickel-based high-entropy alloy HEA. The HEA itself is a pilot material that can used in systems that warn the layer overheating. The idea is the same as the wood metal in sprinkler systems. 

The wood's metal melts at 71C. And that metal is used to close sprinkler ventilation. When a fire starts to burn temperature melts the metal and allows the water to go to the flame. 

The 600C melting  HEA metal can burn or melt away from the layer. 

That opens the sensor to the outer air. And the system can begin counteractions against overheating. 

The problem is that the new metal alloy cannot keep its abilities. If there is liquid hydrogen whose temperature is -253C. The liquid hydrogen requires a new tank solution. 

And one possible solution is the so-called thermos solution. The tank would have one or more vacuum layers between the liquid hydrogen and outside it. New nanotechnical and quantum materials are the tools that make the dream of a new type of airplane or so-called space planes real. The problem is that the temperature outside the aircraft changes from melting heat to freezing cold. 

Another possible solution for the high-speed flight's temperature problem can be the active freezer. The active freezer allows the ram-air or freezing cold gas from the tank to travel below the layer. That liquid, very cold gas can pull thermal energy in it. That liquid gas can be stored in the tank. 

https://scitechdaily.com/korean-scientists-develop-super-metal-that-remains-strong-no-matter-the-temperature/

https://en.wikipedia.org/wiki/Wood%27s_metal

Chinese researchers created a 2D metal structure.

"Researchers from the Chinese Academy of Sciences have developed a breakthrough technique called vdW squeezing to create large, stable, atomically thin 2D metals at angstrom-scale thickness. This method enables precise control over metal layer thickness and opens up new possibilities for advanced quantum, electronic, and photonic devices." (ScitechDaily, Beyond Graphene: Scientists Create Ultra-Thin 2D Metals for the First Time)

Researchers have theorized about 2000 materials that can form 2D atomic lattices. Hundreds of those compounds and monoatomic materials are made in laboratories. The most well-known 2D material is graphene, carbon's allotropic form. The graphene's strength base is in its monoatomic form.

When something hits its carbon net that point delivers its energy to other carbon atoms. The monoatomic structure denies the form of energy pockets in the structure. And because energy travels in that lattice easily. That makes graphene very strong. Sometimes is planned to use nano-diamonds. 

Carbon atom structures that look like diamond or fullerene nanotubes transport energy out from graphene. The multilayer graphene where fullerene or some other nanostructures like DNA bites keep those layers separate. That makes it possible to create a nano-armor. That can be very strong. 

However, these 2D carbon structures have their limits have limits. The new step in the route of the 2D materials is the ability to form 2D metal lattices. The problem with those lattices is been that those lattices must win the van der Waals force that turns those lattices into curves. The ability to make a 2D metal structure is one of the things. That opens new visions for electric, ion, and other kinds of technologies. 

Self-sufficient 2D metal structures are interesting structures. It's possible to put that metal layer over graphene. Making new types of layered nanomaterials possible. 

There are multiple futuristic things where those kinds of systems can be used. 

Those materials have a magnetic ability. That makes it possible to use them in ion technology. The metal-graphene stylus can inject those ions precisely into the wanted points. That makes the advancement in ion-based 3D printing technology. And it's possible to make things like plasma stealth systems to reality. The plasma stealth can be connected with the aerodynamic structures of aircraft. 

The 2D material pumps the ions or anions around the aircraft from between those layers. The ion accelerators can be in that 2D layered material. This kind of material can make it possible to create radar systems that see all directions from the air- or spacecraft. This system makes it possible to create a protective system that can shoot incoming asteroids or meteoroids with anti-electron bursts. 

Theoretically, if that kind of material can be created on a large scale that makes it possible to create the "UFO"- saucer-shaped aerial vehicle that uses electron-positron annihilation. The system can use anti-electrons to give a punch propellant. The annihilation can expand things like hydrogen in the chamber in the middle of the craft. And then. Ventilation controls the point where that vapor travels out from the structure. 

https://scitechdaily.com/beyond-graphene-scientists-create-ultra-thin-2d-metals-for-the-first-time/

Machine learning and AI are tools for nanotechnology.

Machine learning and AI are the best in business when they create large-scale and very accurate models of the universe and other large structures. Nanotechnology consists large mass of physical and chemical variables. Nanotechnology consists of many bonds and chemical compounds that can exist or form only in a certain chemical environment and physical environment. 

The AI can use many types of sources to find out conditions where some chemical compound can form. It can search the stellar and exoplanet databases. 

If the mass spectrometers see some compounds. Near some stars, the system can model things like energy levels that the compounds get from the star. 

But then we can think about the nanomaterials and their "cousins" the quantum materials. Those things can make many things possible, that were been like Sci-Fi before this. The material research units can use mesh networks to combine results from many measurement and production units. AI and networks are tools that can combine many production units into one entirety. 

The system can drive large data mass very fast and effectively. By beginning the drive in multiple points which means the process is more effective than ever. 

"In Caltech’s new fingerprint technique, a single molecule adsorbs onto the phononic crystal resonator device. Then scientists measure the frequency shifts of four different vibrational modes of the device, allowing them to create a four-dimensional fingerprint vector—a unique identifier that can then be used to determine the mass of the molecule. Credit: Nunn/Caltech" (ScitechDaily, Machine Learning Meets Nanotech: Caltech’s Breakthrough in Mass Spectrometry)

 A laboratory that uses network-based AI is the most effective research tool in the 

The system might have different chemical and physical conditions in every reaction chamber. That allows the system to follow the reactions. When some reaction chamber reaches the wanted results, the system can scale those conditions to all other chambers. 

The system can handle multiple measurement points at the same time. AI-based material research units require highly advanced observation and manipulation systems. 

Those systems are things like,  attosecond lasers,  scanning photon microscopes, and mass spectrometers. Those systems can search for the formation of chemical bonds. 

Nanomaterials are new tools for stealth- and computer technology. Those stealth materials are dummy or passive materials. Intelligent materials. That involves microchips and locally controlled abilities. It makes it possible to create more effective things than those passive materials. The microchip network makes it possible to control those materials with very high accuracy. 

When we talk about a thing called cyber metals. That technology makes it possible to create the type of machines. That we see in Terminator movies we talk about one type of drone swarm. 

In that kind of drone swarm the robots touch each other with things like nano-wires. Those wires touch to potholes of other nanorobot shells. Those entireties require new types of nanotechnical processors that can operate as networks. 

https://scitechdaily.com/machine-learning-meets-nanotech-caltechs-breakthrough-in-mass-spectrometry/

The new lidar can revolutionize nanotechnology and anti-stealth technology.

 

"The new OPA replaces the multiple emitters of traditional OPAs with a slab grating to create a single emitter. This design enables a wide field of view without sacrificing beam quality. Credit: Hao Hu, the Technical University of Denmark" (ScitechDaily/Smaller, Cheaper Lidar With New Chip-Based Beam Steering Device). 

The new lidar that uses the chip-based technology can use in the new nanotechnology. And it can also have the ability to operate in an anti-stealth role. The new very small-size lidars (laser radars) can make the next big step in nanotechnology. The lidar means optical-radar or long-range laser scanner. Sometimes it describes that it's optical area radar. (Wikipedia, Lidar). The lidar can use like radar. But it's a more multi-use system. 

Lidar can see soft targets, like animals. And things like regular stealth systems cannot affect that scanner. The optical stealth suits also cannot resist the lidar scanners that are making 3D images of the surface. 

Things like clouds cannot stop the lidar system. There is the possibility that lidar will use higher power to remove clouds and things like smoke away from its way. The lidar will rip water droplets from its route by using more power. 

And that same system can also use in the very high accurate laser radars in long-range systems. The name of this new technology is chip-based OPAs (Optical Phrase Arrays). In Lidar magazine is the story, that OPAs are the next generation tools for lidar systems. (Lidar magazine/Why Optical Phased Array is the Future of Lidar for Autonomous Vehicles)

The old fashion OPAs have poor ray quality. But in the new design, those problems are solved. The description of that system is in the article on ScitechDaily.com. (ScitechDaily.com/ Smaller, Cheaper Lidar With New Chip-Based Beam Steering Device)

The difference between lidar and laser-tool is very small. The only difference between a laser sensor and a laser machine tool is the power. That the system uses. 

And that makes lidar so powerful tool. When lidar sees things like small hills on the surface, it can increase its power. That makes it possible that this type of system can remove even atom-size anomalies. 

The new lidar can make extremely thin laser rays that can observe the form of the nanomachines. The lidar will transfer a smaller energy load to the nanostructure than regular lasers. And that means it has a smaller effect on the complicated structures of the nanomachine molecules than so-called regular laser systems. 

The lidar systems can use to scan the surfaces. That kind of ability makes it possible to find the anomalies from the things like graphene. And OPA-systems can also revolutionize graphene production. 

The lasers can use to remove extra layers of carbon atoms from graphite. But the chip-based system makes it possible to create a laser system that covers larger areas. When a laser system detects an anomaly it can increase its power and remove that anomaly with pinpoint accuracy. 

The laser system can vaporize graphite or carbon atoms of graphite layer by layer. In this case, the layer will be smooth. And graphite will be put to cover that layer. Then the laser starts to remove atoms layer by layer until there is only a 2D carbon atom structure left. 

But the OPA:s can make many other things. It can form a group of separated laser rays, that can scan areas. And this kind of system can use to detect stealth fighters. The ability to use optical areas to detect stealth aircraft increases the abilities of the radars to detect many types of targets. 

https://lidarmag.com/2021/08/18/why-optical-phased-array-is-the-future-of-lidar-for-autonomous-vehicles/

https://scitechdaily.com/smaller-cheaper-lidar-with-new-chip-based-beam-steering-device/

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

https://en.wikipedia.org/wiki/Phased-array_optics

Image:) https://scitechdaily.com/smaller-cheaper-lidar-with-new-chip-based-beam-steering-device/

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