The high pressure and miniature technology can make the room-size quantum computer possible.

The quantum computer (left) can install in a similar structure. That is used as the pressure vessel of the nuclear reactor (right). That pressure vessel allows rising the pressure around the quantum computer. And the water of the cooling system can replace by using liquid hydrogen. This thing means. The same systems made for nuclear power can use in quantum computers. 

The problem with room-temperature quantum computers is that the oscillation of atoms or other things in the qubit must stabilize. The oscillation of the qubits is removed. By decreasing the temperature of the system to zero kelvin degrees. And the researchers must protect the system against outcoming radiation that can disturb qubits. 

Researchers can find One of the answers for the structure of quantum computers from the nuclear power plants that are used. The quantum computer will put in the place of the nuclear fuel elements. The same structures which used for protecting the people outside the building. Can use to protect quantum computer inside the building. So the quantum computer can install in the place where the nuclear reactor used to be. 

The same structures which are created for the nuclear power plants can protect the qubit against the outcoming radiation. And the nano-size technology makes it probably someday possible that the quantum computer fits in the one-liter thermos bottle. 

The structure of that quantum computer can be put in the liquid hydrogen that acts as the radiation shield. This thing can give purpose for the nuclear power plants that are not used and which removing is difficult.  There is the possibility that nanotechnology makes it possible to miniaturize the quantum computer. 

The use of atomic-size technology can make it possible to create a quantum computer that fits in the one-liter thermos. And the cooling system that the hydrogen shield and low-temperature systems need is quite big. But the miniaturized quantum computer can fit in the room. 

That system requires a zero-kelvin temperature. And miniature systems are suitable for large-scale industrial use. 

The absolute pure silicon block where is installed iron atoms and the system would stabilize by pressing it with high pressure. Can make it possible to create a quantum annealing computer that can operate at room temperature. 

But can we stabilize the quantum annealing system some other way than just decrease the temperature? The quantum annealing system is the cloud of quantum particles that are stressed by using radiation. There is the possibility that by using the silicon "gel" where is iron atoms are possible to create the quantum crystal that is stable enough. 

The silicon gel is the bite of absolute pure silicon where all other things are removed in the creation process. The iron bites will be put in that silicon bite and then the system will press the silicon bite by using magnetic- or hydraulic systems to the pressure where the oscillation is ending. And then the electromagnetic radiation will target that silicon box. That thing would make it possible to create a high-temperature quantum computer. 

()Images: 

https://spectrum.ieee.org/measuring-progress-in-the-noisy-era-of-quantum-computing#toggle-gdpr

https://www.researchgate.net/figure/Reactor-pressure-vessel-its-internals-and-water-flow-path-in-it-5_fig2_320800540

()https://visionsoftheaiandfuture.blogspot.com/

The high-energy flexible polymer makes robots possible to flex their muscles.

 

Above this text is the film about the robot spy monkey. When we are talking about flexible man-shaped robots we forget one thing. The man-shaped robot can look like a monkey. The man-shaped robots are interesting because they can use the same tools and sadly saying. They can use the same weapons as humans.

All robots have flexible skins and muscles and look like living organisms don't look like humans at all. Things like robot dogs and other animals like robot fishes are made in laboratories also.

The flexible polymers that can change their shape allow the creation of more flexible robots than ever before. The flexible, softcore robots can be very similar to humans. And actually, those systems cannot separate humans outside.

The polymer muscles can be silicon-based polymer bags. Inside those polymers, bags are springs that make it possible to pull the silicon- or polymer bag shorter. The system is the copy of the living muscle cells. And that makes those systems very interesting.

There are two ways to use the flexible polymers as the muscles of the man-shaped robot. The first way is just covering the hydraulic or servo-engine systems by using polymer. 

In this case. The engines that are controlling the body of the robot are put in every level. That makes it possible to use electric engines for changing the angles of the levels. And the system can move its parts like a human.

In the second version, the system uses also working silicon muscles. Every single silicon bag has a microprocessor that controls its actions.

These systems can be hybrid. In this system, the term "hybrid" means the combination of the silicon muscles and the servo engines. 

The last one is moving the artificial bones of the skeleton. Those artificial bones can make by using carbon fibers. If the power of the silicon muscles is not enough. The system can ask for assistance from servo-engines.

It is possible to use wireless communication in those systems. And that means making this kind of muscle is not so difficult as people sometimes think. We can think of the man-shaped robot as an entirety. 

In the body of the robot, every microchip has two missions. The first mission is to pull the silicon bags together or control the servo engine. And the second mission is to participate in the data handling process.

The wireless technology means that the power source of the robot can be in the skeleton. There are wires around the body. But the power to the artificial muscles and their microchips is delivered wirelessly. So there is no need to pull wires through the membrane of every silicon cell.

The thing is that robots are not like humans. They can work as an entirety. That means the drone swarms and the satellite swarms can act together with land-moving and underwater robots. When a satellite sees something interesting it can call a regular drone to see that thing. And if there is some kind of cave the land-moving robot can go in there. The other robots can make the chain to the cave's entrance. That is made for secure communication between the entry robot and satellites and the control center.

The monkey-shaped robots can use to guard the national parks. But they can be ultimate operators in recon and other missions. Those robots can also carry internal explosives. So they can be used as the high-tech versions of suicide bombers. In some visions, the shape of enemy soldiers is copied to robots, and then they can slip in the base and just explode themselves.

()https://scitechdaily.com/high-energy-shape-memory-polymer-could-help-robots-flex-their-muscles/

()https://visionsoftheaiandfuture.blogspot.com/

 

Fullerene based hydride materials are giving new ideas for researchers of technology.

Fullerene based hydride materials are giving new ideas for researchers of technology.

Silicon-carbon hybrid fullerenes can revolutionize materials and electric production. Those materials can be used as the fusion devices as well as creating the extreme hard layers.

Fullerenes and silicon are very interesting materials because both of them can be used as creating special layers for layers. If we think about graphene, what is one atom layer of carbon on the layer, that thing would make a very hard surface. And the thing is that the graphene can put on the surface as the dust, where the pencil would cover the entire layer, and then the laser would remove other atom layers away until there would be one atom layer of carbon on the surface.

That thing can revolutionize things like material research.  Graphene has many targets for use from the tools to the layers of aircraft and space technology. The lightweight and extremely hard surfaces have many kinds of purposes in every target from everyday life to space technology. It can use to create harder components for mobile devices but the problem is how to remove extra atom layers from the graphite?

But the thing, what makes graphene more fascinating is that the technology, what is used to create this material can be used also for creating one atom layers from other elements. That means that the graphene would be very nice material itself, but it can be used in the same way the part of hybrid materials. In some scenarios, the graphene layer would be covered by a similar one atom layer of silicon, which makes the layer a very lightweight solar panel.

This kind of thing makes possible to create revolutionary aircraft and another kind of solutions. That kind of technology would improve the abilities of the long-range aircraft like U-2, which are used for extremely long-range intelligence operations. The graphene itself gives to that plane very hard covering layer, but if those layers could also produce electricity, that means that the layer would give more benefit to that aircraft.

One of the things is that those aircraft would need less fuel, and they can even shut down their engines during the flight because the solar panels would give electricity to the systems of that aircraft. And if the aircraft can glide in some parts of their missions, they would make longer operations.

Silicon- carbon hybrid fullerene would make possible to create an extremely small-sized fusion device, which can be launched by using simply the light. And this thing would make it interesting. That thing can use in the spacecraft, what is operating like "Orion", but uses fusion devices for giving the thrust. Replacing fission bombs by fusion, that vehicle could be more ecological.

But when we are thinking about the extremely large fullerene ball, what have billions of carbon atoms, we might think the situation, where that ball would cover by using the silicon atoms. Or it is simply put inside the silicon ball, that thing could make an interesting phenomenon. If there are small antennas inside the fullerene ball, what can be the metal atoms, that thing could create the electric arc inside that ball, and then there would be some gas like deuterium and tritium (or lithium), it can start the fusion reaction.

Of course, there is no need to be billions of carbon atoms in this kind of fullerene ball. Normal 110 atom fullerene, where is another layer of silicon atoms would make possible to create this kind of fusion reactor, which can have very many solutions like in the fusion rockets to nuclear weapons. The fusion rocket would shoot those fullerene pallets behind the spacecraft, and then the radio impulse would hit to them, which causes the explosion. But the silicon layer would make possible to use pure light in that kind of device.