There is no quantum computer. Without quantum memory.

“An international team of physicists has uncovered a subtle but important twist in how 'memory' works in quantum systems. Credit: Shutterstock” (ScitechDaily, An international team of physicists has uncovered a subtle but important twist in how “memory” works in quantum systems. Credit: Shutterstock)

Theoretically, a quantum memory is very easy to understand. Information is stored on the qubit as hills and valleys on those particles. That means.  That kind of system. It is theoretically easy to make. But a practical solution is harder. Because the system should transform binary data into hills and valleys on the qubit. The system can use a photon that transfers information to another photon. 

The body of information. 

The quantum computer is like a body that needs nutrients. For binary computers and quantum computers, information is the nutrient. The data processing system. Mimics human digestion. Their information is stored in mass memory. Until. It’s shared for the data units that require that information. 

Quantum memory is not what we thought, the new study suggests. The key to the quantum internet and ultra-secure data transmission is impossible if those systems cannot store information. The system transmits information into a quantum computer. That stores data in the transmitting side of the quantum entanglement, and then the system transmits that data forward. The problem is this. Without the ability to store data. The quantum system cannot send it forward. 

And without that thing, there are no quantum systems. We can think of this system. Like metabolism or digestion. Before information is transported into the quantum system, the AI-based system must preprocess it into a form that the quantum system can handle. That information.  The system must predict. Every type of anomaly. If there is some kind. Of anomaly. The system must store. that data into mass memory. 

“Scientists have unveiled a real-time method for tracking rapid qubit fluctuations inside quantum computers. The breakthrough reveals that even stable qubits can deteriorate in milliseconds, offering new insight into how to improve quantum processor performance. Credit: Shutterstock” (ScitechDaily, Scientists Finally See Quantum Computer Failures as They Happen)

 Data is the nutrient for the computer. The binary system preprocesses data. And then send it to the quantum data storage. In the human body. The fat cell stores nutrients until the body needs them. In the same way. In the body of information, a quantum computer stores information in the quantum data storage. And then that system starts to make. Quantum entanglement with the receiving particles. 

We can think that quantum data storage stores data in the form of standing waves. Another way is to create some kind of “hairy” qubit. In the last case, data is stored in the qubit in the form where the qubit’s surface is filled with “hair”. The length of those “hairs” is one state of a qubit. And that kind of qubit can be a revolutionary way to create models of how the quantum computer and quantum circuit should work. The system sends data to the receiver by using quantum entanglement. But. Before that thing is done, the computer must store information in the qubit. 

This is why the quantum computer must follow the behavior of quantum entanglement. All the time. When data is transferred to the receiving particle. The quantum computer can resend that data by transforming the side of quantum entanglement that received the data to the transmitting side. The point of quantum entanglement is that. The transmitting and receiving particles must have different energy levels. If the receiving particle’s energy level rises to the same level as the transmitting particle, the entanglement will be broken. But. If the system can transmit information .Into the next particle, which can make the quantum internet possible. Before the system can turn the receiving particle into a transferring particle. The system must cut the entanglement with the first particle. 

https://scitechdaily.com/quantum-memory-isnt-what-we-thought-physicists-reveal-a-hidden-duality/

https://scitechdaily.com/scientists-finally-see-quantum-computer-failures-as-they-happen/

https://scitechdaily.com/scientists-may-have-found-the-holy-grail-of-quantum-computing/

The new computers are morphing neural network systems that mimic quantum computers.

    The new computers are morphing neural network systems that mimic quantum computers. 

"By linking smaller superconducting modules like building blocks, researchers at the University of Illinois Urbana-Champaign achieved near-perfect qubit performance. Their modular approach could open the door to scalable, flexible quantum computers of the future. Credit: Shutterstock" (ScitechDaily, Scientists Build Quantum Computer That Snaps Together Like LEGOs)

The fact is this. The regular binary computers can also operate like LEGOs. When a problem becomes too complicated for one computer. That computer can call more calculation units or computers. To operate on the problem. The system can call for assistance over the internet. That means when the computer doesn’t get an acceptable answer, it calls more computers to work with that thing. 

The new innovations in quantum computing represent a significant step toward a more efficient and effective way to calculate things. The reason why quantum computers cannot be stuck is this. They are like a tower of binary computers. Every layer or state in a qubit operates as an individual quantum computer, and if one of those states is stuck. 

Another state or layer comes and releases that state. When we think about the power of quantum computers.  We must remember that they can drive multiple programs. At the same time. Or they can cut and share complicated problems over those layers, and the AI-controlled quantum computer operational systems can act like LEGOs. 

Those systems can operate and run multiple different programs at the same time, but if that system sees something very complicated. That system will collect more and more quantum states and quantum units together to solve those problems. If the quantum system does not find an acceptable answer. That system connects more and more quantum units and quantum states to operate with complicated questions. 

So, in the case when the system doesn’t need very much power. That can allow all its units to work separately. With different problems. But when the system requires more power. The central system orders those systems to save their duties. And then start to work as a whole on that complicated problem. Things like drone swarms can use similar technology. That system can call all units to work on things. Like routes that those drones can choose. And then the system breaks entirely and shares those solutions to individual drones. 

The second big advance will be a room-temperature quantum computer. 

"Figure: (upper panels) Scanning-electron-microscope image showing a charge-density-wave device channel in the coupled oscillator circuit. Pseudo-coloring is used for clarity. Circuit schematic of the coupled oscillator circuit. (lower panels) Illustration of solving the max-cut optimization problem, showing the 6 × 6 connected graph, circuit representation of the six coupled oscillators using the weights described in the connectivity matrix, and values of the phase-sensitivity function. Credit: Alexander Balandin" (ScitechDaily, UCLA Engineers Build Room-Temperature Quantum-Inspired Computer)

The UCLA engineers built a quantum-inspired computer. The system will use a morphing neural network technology that mimics the quantum computer. That can change the world. The room-temperature quantum computers are tools that will revolutionize computing. When we think about things like quantum dots in virtual quantum systems, those quantum dots are the binary computers that operate like states operate in quantum computers. That makes those computers very powerful tools. Because those systems are immune to errors and stucks. 

"Scientists have built a physics-inspired computing system that uses oscillators, rather than digital processing, to solve complex optimization problems. Their prototype runs at room temperature and promises faster, low-power performance. Credit: Shutterstock" (ScitechDaily, UCLA Engineers Build Room-Temperature Quantum-Inspired Computer)

If some of those computers are stuck, some other computer releases that system. Because that system is morphing. That means all its participants can operate independently with different problems. But when a problem reaches a certain state of complexity. The system sends a message that all computers must unite their force to work on that problem.  

If a researcher makes a quantum computer that operates at room temperature, that system can be superior to the regular binary systems. There are so-called virtual quantum computers that operate in data centers. In those special neural computing systems. Each physical binary computer works as an individual quantum state in a quantum computer. The system operates entirely. It tries to mimic a real quantum computer. 

The system can operate like a quantum computer, but the qubit states are replaced. By using a physical binary computer. Those systems act like a quantum computer. That system’s Achilles heel is that it needs. A lot of power. If we want to make a virtual quantum computer. That qubit has 129 states, which requires a system with 129 binary computers. And that causes very big electric bills. Those systems release heat. This means those systems require powerful coolers and other things that protect those machines. 

https://scitechdaily.com/scientists-build-quantum-computer-that-snaps-together-like-legos/

https://scitechdaily.com/ucla-engineers-build-room-temperature-quantum-inspired-computer/

Ion traps and photons are the tools for next-generation quantum systems.

"By twisting light just right, scientists can now unlock dual hidden images from a single metasurface, ushering in new possibilities for encryption and molecular detection. Credit: Shutterstock" (ScitechDaily, New Tech Uses Twisted Light to Reveal Hidden Images)

The ion traps and twisted light make it possible to create new types of quantum systems. What if researchers can create a particle and trap the twisted light ring around that thing? That could revolutionize quantum technology. If somebody can connect and stabilize twisted light around an ion or electron, that can turn the system into the most accurate scanner that has ever been seen before. The photonic system that can create a “photon smoke ring” and stabilize it around some particle, like an ion or electron, can revolutionize information technology. But that system faces many technical issues. 

But theoretically, artificial brains require ions that play the same role as neurotransmitters. And a photonic system that mimics the brain's electrical actions. Miniature particle accelerators act as axons, and they shoot ions through the axon hole. Information is stored in those ions. 

The ability to create ions, or electrons that twist light orbits, makes it possible to create a system that operates like a human brain. That ion-photon combination can act in the same role as a neurotransmitter in that system. And if the system can trap that combination at a certain moment, that makes it possible to use the photonic data transmission for the messages that require an extra-fast speed. These kinds of systems mimic human brains. The ability to connect photonics and ions makes it possible to use two quantum lines side-by-side in the system. 

One of the most exciting things could be creating the photon ball. Their data transportation photon travels inside this photonic ball. It could be possible to trap the ion-photonic ring inside the fullerene molecule. And that allows the system to transport qubits over a long distance. The long-range qubit will travel in the laser or maser beam. And that thing could make new ways to transport information. The problem is how to make a photonic ring stay around ions? 

The problem is that. Stabilizing twisted light is not a very easy thing. The hollow lasers can make photon rings where the waves or curves are one or zero. The other way is to adjust the hollow laser light’s brightness. The hollow lasers can also protect the data that travels inside them. In those cases, the data transportation laser beams travel inside a hollow laser beam that protects them against outsiders. 

https://scitechdaily.com/harvard-scientists-unveil-tiny-ring-laser-with-giant-potential/

https://scitechdaily.com/lighting-up-the-ion-trap-fiber-optics-built-into-a-chip-for-quantum-computing/

https://scitechdaily.com/new-tech-uses-twisted-light-to-reveal-hidden-images/

The ability to make single photons is vital for quantum computers.

The ability to make single photons is vital for quantum computers.

Controlling complex systems requires that system operators have complete knowledge of the system and its interactions.

The problem with error correlation in quantum computers is that the qubits and quantum systems are much more sensitive to outside effects than binary computers. The other problem is that the anomaly that causes a calculation error can also happen during the second calculation. Things like gravity waves are global anomalies that affect all quantum computers. And that thing means that all quantum computers can calculate wrong at the same moment.

The big problem is also that quantum computers are the only things that can check and find errors in another quantum computer's solutions. Binary computers make the same 45-year calculations that quantum computers can make in seconds. And that thing means that outside things like torrents of gravity waves can destroy all the results that the Quantum systems produce. And the problem is that those outside effects can cause anomalous functions in all quantum computers in the world.

Things like changes in the gravity fields on Earth can also affect qubits. And that means the portable quantum systems might need information about the gravity field's strength so those quantum systems can calibrate themselves.

"Los Alamos National Laboratory scientists developed a new method for producing circularly polarized single photons, paving the way for advancements in quantum communication and a potential ultra-secure quantum internet. Credit: Los Alamos National Laboratory" (ScitechDaily.com/Quantum Illumination: Advanced Device Generates Single Photons and Encodes Information) 

The system can make bubbles in quantum fields or qauntum layers using photons. Those things can help to transport information between superpositioned and entangled photons and electron switches.

"Artistic illustration depicts magnetic excitations of cobalt-phthalocyanine molecules, where entangled electrons propagate into triplons. Credit: Jose Lado/Aalto University" (ScitechDaily.com/Tricky Triplons: Scientists Create Artificial Quantum Magnet With Quasiparticles Made of Entangled Electrons)

The next-generation quantum computers require very good, and very accurate ability to control multi-state and multi-layer systems.

The next-generation quantum computers can use multiple multi-state qubits. Those qubits can be networks of triplons. And systems that can create photon pairs. The photons are between those electrons in quantum magnets, called quantum triplons. And that system can make more powerful and portable quantum computers possible. The network of superpositioned photons and electrons is extremely difficult to handle. The system must have the ability to create single photons that it can put between those electrons.

And then information must be transported from those electron pairs to the sender photon, which is in quantum entanglement and superpositioned on the receiving side. The ability to make photons interact with wave movement makes it possible to stop photons at the precise point between electrons. Then the system must drive energy to that photon so that it can create superposition and quantum entanglement with some other photon.

Then the energy level of the transmitter side of the quantum entanglement will rise higher than that of the receiving side. And the system can start to drive information into that system. The receiving part just pulls energy away from the receiving side. The key element in quantum systems is that the transmitting or active side in superposition must be at a higher level.

If superpositioned and entangled particles are at the same energy level, standing waves between those particles push them away. The electron pairs can transmit energy away from the receiving side, which helps to keep the difference in energy levels in superpositioned and entangled particles.

The ability to create lots of single photons allows the system to replace photons that flew away when the quantum entanglement reached the same level. The network-based, ultra-small systems are extremely complicated to handle. The system might have multiple quantum states, like photon and radio wave states. The system must know precisely the energy level of the qubits before they can transport information.

Things like gravitational waves and even differences in Earth's gravitational field make it possible that there are differences between real and calculated values in qubits. That thing destroys the information that the qubit should transport because the receiving system doesn't know at what level or state the system loads the information.

The quantum computer is 45 years faster than any binary computer. That is both the biggest opportunity and the biggest weakness in quantum computing. Only another quantum computer can check the calculations that those extremely powerful systems can make. Of course, it is possible to perform the calculation twice. However, the problem is that there could be some anomaly that cannot be predicted during the second calculation. Things like gravitational waves that can shake the qubits are collective anomalies. They affect all Quantum computers at the same time.

https://scitechdaily.com/quantum-illumination-advanced-device-generates-single-photons-and-encodes-information/?expand_article=1

https://scitechdaily.com/tricky-triplons-scientists-create-artificial-quantum-magnet-with-quasiparticles-made-of-entangled-electrons/?expand_article=1

https://technologyandfuture4.wordpress.com/2023/08/26/the-ability-to-make-single-photons-is-vital-for-quantum-computers/

How annihilation and Pauli's exclusion principle are connecting? And how to benefit that thing in rockets.

In this text, I use the terms Pauli's exclusion principle and Pauli exclusion principle about the idea created by the scientist name, Wolfgang Pauli. The idea is that there are no two identical fermions in the quantum system. So we can transform that quote to the form there are no two identical participants in the same quantum system. 

Free energy destroys the system. Free energy means energy that is not participating in the system. When particles like protons are in the laser rays that laser ray fills them with free energy. The energy that comes outside destroys the quantum system because it fills it with free energy. And then the free energy adjusts the system to the condition that eliminates the Pauli exclusion principle. 

When all actors in the system reach the same energy level and turn identical. That destroys the system. Pauli's exclusion principle is the requirement for the system's existence because its the reason for energy flows between the system's participants. And that energy flow causes a vacuum that keeps the system as an entirety. 

Two identical particles are repelling each other. And the existence of the system ends. 

When energy pumping ends that thing destroys particles. The reason for that is when energy pumping ends that causes expansion of the quantum field. And if that expansion is too fast and too big that rips the particle into pieces. But the system cannot stand either stable energy pumping forever. Stable energy pumping adjusts all participants in the quantum system to the same energy level. 

That destroys the system the same way as the stopping. If the energy pumping happens with the laser rays. That energy pumping destroys the smaller quantum system. The reason for that is outcoming energy fills the system. 

When an energy pump happens with laser rays. This outcoming energy ray brings more energy to the system and adjusts all particles to the same quantum state. So long-term outcoming energy pumping is the same way destructive as suddenly chancing energy impacts. The thing that destroys the system is that all particles turn to the same energy level. And they turn identical. So this is why the energy maximums and minimums are both dangerous. Identical particles are repelling each other. And that's the idea of the Pauli exclusion principle. 

There are no two identical actors in the quantum system. If in the system is two identical actors. They start to repel each other. If two almost identical actors are oscillating with the same oscillation frequency.  But with different energy levels. They form quantum entanglement. That quantum entanglement acts like an antenna that harvests more free energy into the system. 

That antenna conducts energy to both ends until the quantum entanglement reaches the same energy level that destroys the quantum entanglement. And those particles start to travel away. But also the quantum entanglement or energy that travels away from it pushes the system and increases its destruction. 

Why is the annihilation reaction so powerful? 

The annihilation turns antimatter and material into gamma rays. And then those gamma-rays are interacting with other particles. That increases their energy level. So when gamma-ray hits an electron. That increases the energy level of that energy. 

An annihilation reaction is a case where antimatter- and material particles impact. The annihilation reaction means the situation. That material and antimatter particles both turn to energy. But what makes that reaction so powerful? 

The annihilation destroys a whisk-looking structure that forms particles. When positive and negative particles like position and electron impact that thing cause small lightning. That effect rips the quantum strings that form particles in pieces.

When that impact happens particles transmit energy to those superstrings. Those superstrings send energy to those particles. And then that energy which travels in particle rips that whisk-looking superstring-structure in pieces. The energy that impacts those superstrings travels in them. 

And that thing makes a similar effect to a vacuum bomb. The energy that travels through the electromagnetic vacuum inside the particle makes that effect which turns entire particles to energy or wave movement. Or it releases the superstrings. 

Pauli's exclusion principle and how its effect on annihilation reaction? 

Pauli's exclusion principle that there cannot be two identical fermions in the same system gets an expansion. There is the possibility that there are no two identical superstrings in particles. 

There is the possibility that Pauli's exclusion principle affects the superstrings. The energy that transfers between particles keeps the system in form.  When energy travels from hot to cold particles that causes a situation where that cold particle will pull the hot particle to it.

A hot particle sends energy, and when the particle is cold. It receives energy. If the energy level of same-size particles is the same they push themselves away. So when the energy level of the superstrings is the same. That thing causes a situation that they will push themselves away. And that destroys the particle. Every single superstring in a particle has a different energy level. 

All quantum systems pursue is to reach a minimum energy level. When a particle reaches the same energy level as its environment. It loses its existence as a particle and turns to wave movement. 

That means the superstring structure that forms particles is destroyed. The minimum energy level means that all superstrings that form particles reach the same energy level. So they turn identical. 

And then, the energy flow that keeps the particle in its entirety ends. This causes a situation that those superstrings will be released. Particle turns to wave movement. 

Energy roofs and energy bottoms are the same way destructive. 

When a particle reaches the minimum energy level where the superstrings are released. It turns to wave movement. But same way if the particle is in dominating energy field like a laser ray the outside energy will rise its energy level to the energy roof. The energy roof means the maximum energy level in the system. In that case, energy travels from the laser ray to the system until it reaches the same energy level as the laser ray. 

The reason why laser rays are destroying quantum systems is that they bring more energy to the system all the time. And then the laser ray will adjust those superstrings at the same energy level. And that destroys the particle. So maximum and minimum energy levels are both dangerous. 

Pauli's exclusion principle: how it affects futuristic quantum rocket technology? 

Silent levitation. 

The simplest way to make a quantum engine is to make a series of quantum entanglements. When particles in quantum entanglements reach the same energy level. That thing kicks them in opposite directions. And those particle pairs can push an object forward. That system makes it possible to create a silent levitation system. 

The energy roofs and energy floors both turn the particles to wave movement. This thing makes things like vacuum energy and zero-point engine possible. 

The idea of quantum engines is that: there is always free energy in the particles. When the laser ray or zero-point energy destroys a particle. 

It also releases the free energy stored in the system's quantum field. That energy forms when gluons are jumping between quarks. 

Quantum engines can benefit the breaking particle for making thrust. The laser engine can stress and break the protons or even quarks. The system stresses those particles with a laser ray. When laser ray destroys those particles' structure breaking particles form thrust.

The cold quantum engine can pull particles to a minimum energy level. When those superstrings are released. They would give energy to the system. The quantum engine just releases the free energy stored in the particle. 

https://shorttextsofoldscholars.blogspot.com/

The digital "demon": how to increase the quantum computer's power?

Quantum computers are powerful tools. But they are useful only if they can solve problems with a very high probability. The probability that the answer is right is not enough. The system must confirm that the answer is right. Or it cannot use in functional control systems. 

The system is useless if it cannot give the right answers or if the user cannot confirm the answer. And only one wrong answer means that the calculation goes wrong. If that thing happens in the nuclear power plants the results could be devastating. 

The system requires an error-detecting protocol. In some versions, the system uses two main lines for some calculations. That means if those two lines give the same answer. There is the possibility that the answer is right. In that model, the system uses two separate, individual operating units for making the calculations. 

In some versions, the system uses multiple qubits or groups of qubits for the calculations. The system makes the statistics about the answers. And that thing tells. That there is a possibility that the answer is right if the large majority of the group gives a certain value. 

Maxwell's demon is the thinking experiment that should introduce that the second law of thermodynamics does not always apply. The next part of the text includes a straight loan from Wikipedia. You can replace the word molecule by using the words "information" or "qubits"

"In the thought experiment, a demon controls a small massless door between two gas chambers. As individual gas molecules (or atoms) approach the door, the demon quickly opens and closes the door to allow only fast-moving molecules to pass through in one direction. " (Wikipedia, Maxwell's demon) 

The problem with Maxwell's demon is that there are no massless doors. All doors that can close the information flow from the hotter chamber to the lower energy chamber have mass or a certain energy level. That makes it researchers difficult to create quantum networks. 

If we want to send qubit through electric wires we must be sure that the gate or router will not transfer energy to the qubit. Or we must calculate or measure the energy that the gate or router transfer to qubit and remove it. Or otherwise, the system cannot download information from the qubits. So if the demon moves the gate. That thing moves energy to the information that travels through it. 

Image 2) Schematic figure of Maxwell's demon thought experiment (Wikipedia, Maxwell's demon) The image could be the figure of the quantum computer. The data travels from a higher energy level to a lower energy level. And the demon that sits on the computer collects data that travel through the gate. The demon is the input/output system that transports data between the user and the quantum system. 

The description of Maxwell's demon continues. "And only slow-moving molecules pass through in the other. Because the kinetic temperature of a gas depends on the velocities of its constituent molecules, the demon's actions cause one chamber to warm up and the other to cool down. This would decrease the total entropy of the system, without applying for any work, thereby violating the second law of thermodynamics". (Wikipedia, Maxwell's demon) 

So how this thing has a connection with the quantum computer? We can think that a quantum computer has two chambers. Then the system drives information from the higher energy level or "hotter" chamber to the lower energy level or "colder" chamber. 

The system will create quantum entanglements between those chambers. And then, the system can drive information from the higher energy level into the lower energy level. Then the system starts to load information into electrons or some other qubits. It must make sure that the value of the electron is 0. If there are artifact values like 1 the system loses information. 

The system decreases the energy level of electrons or other particles to zero kelvin degrees. The zero kelvin degrees guarantee that the value of the electron is zero before the system starts to drive information to it. But the problem is that the temperature of the individual qubits is higher than zero kelvin. The system can create artifact value by using measurement tools. When the measurement tool touches the electron. It can increase its temperature. And that can destroy or mess up the information because the system cannot determine the zero point of the qubit. 

https://scitechdaily.com/digital-demon-a-surprisingly-simple-method-that-improves-quantum-computing-accuracy-by-20x/

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

https://en.wikipedia.org/wiki/Maxwell%27s_demon

https://shorttextsofoldscholars.blogspot.com/

Can we rule out the Big Bang?

 

The Big Bang was the case, where matter got its form. So it was the beginning of spacetime or was it? Was there dark matter before the universe? 

Unknown things like dark matter and dark energy are causing questions about the universe's begin. In some models, the Big Bang was the case when the dark matter took the shape of visible material. And that thing makes the Big Bang a very interesting thing. Because if that is true the Big Bang was the case where one form of the material turned into another. 

The thing, that makes the Big Bang mysterious is that matter cannot form from emptiness. The Schwinger effect where matter forms from the wave motion, require that the wave motion exists. And there must be some kind of source for the wave motion. 

The Schwinger effect requires that two quantum- or electromagnetic fields are impacting together or some force turns the superstrings turn into a ball-shaped thing. A superstring is a thin quantum field that is traveling in space. The Schwinger model means that the material cannot be without wave motion. And wave motion cannot be without ball-shaped particles. 

The Schwinger effect means wave motion and particles are two sides of each other. So wave motion and particles are the same things. And the thing that makes the Schwinger model very creepy is that the Schwinger effect always forms particles and is anti-particle. So if the Schwinger effect forms the universe, that forms two universes. 

If we think that the black hole turns into an X- or gamma-ray pulsar. It means that its rotational axle turns similar to neutron stars or pulsars. That thing forms an X- or gamma-ray pulsar. If the black hole's rotation axle turns to its equator and the polar spin continues that black hole starts to act like a pulsar. 

But the energy level of that kind of pulsar is much higher than regular pulsars. That thing can form the case where the Schwinger effect can form a material that we cannot see. The idea is that there is a small area in the black hole where is no gravitation. And if the quantum bridge crosses that area the black hole can start to cross its nucleus. 

And then that bridge makes wave motion travel through the black hole. The idea is that the fast rotation motion along with extremely high centripetal force. Make that string antenna that conducts energy out from the black hole. The fact is that the universe is the combination of at least two main quantum systems. The invisible system and the visible system. Or actually, there are at least three different quantum systems. 

*Dark energy: an invisible wave motion. That rips the universe into pieces.

*Dark matter: an invisible gravitational effect. The thing that forms dark matter is unknown. There is suspicion that those things could be some kind of virtual particles. 

*Visible material and wave motion. Those things are forming the visible universe. 

So if dark matter is the virtual particles or so-called wormholes that thing causes an interesting idea. Is the cosmic web the dark matter? If those strings are forming because of the cosmic vacuum channel that explains the dark interaction. In that model, fast-moving particles like electrons can form the electromagnetic- or quantum vacuum tunnel. 

The idea is when an electron moves very fast it pushes quantum fields from its route. In the case, where the second electron follows the first one very close the quantum channel cannot be closed. And if the quantum whirl starts to rotate around that channel, that thing causes the situation where that quantum channel cannot fill. So that thing is called a wormhole if it's true. 

The role of dark matter is one of the things that is interesting. Dark matter is the gravitational effect. That is the only thing that we know about its shape. 

There is a possibility. That dark matter is the virtual particle. That hypothetical virtual particle forms when extremely fast spinning particles are starting to expand. 

When non-elementary particles like hadron spin. The outer quarks move outside from the center quark. That thing expands the length of the quantum tunnels between quarks. And then those quantum bridges are acting like antennas that are harvesting more energy levels to those particles. And that means the energy level and weight of the particles of that fast-spinning hadrons are turning higher. And that material is only too heavy. 

Or there is forming some kind of quantum bubble. Where the energy level or temperature is lower than the temperature of that particle is lower than the environment where they are. If dark matter is a matter that temperature is lower than the cosmic background or even lower than zero kelvin we cannot see that material. 

Or if we think that dark matter is an extremely fast-spinning electron there is a possibility that there are forming holes in that quantum field. In that case, the lower energy bubble pulls energy inside it. And that means if that kind of bubble is stable. It will pull radiation inside it. So that outcoming radiation will keep dwarf galaxies in their form. 

The idea of cosmic inflation is forming the theory that the universe is in a cosmic vacuum. That means energy travels from the higher energy universe to space around it. This thing means that cosmic inflation is the energy flow out from a bubble where all visible material exists. 

https://scitechdaily.com/can-cosmic-inflation-and-the-big-bang-be-ruled-out/

https://miraclesofthequantumworld.blogspot.com/

One interesting thing about ammonia.

Ammonia or NH3 can use as the router in complicated quantum systems. The most important thing in those systems is to control the data flow in the quantum entanglements with very high accuracy. 

Ammonia is a chemical compound where is three hydrogens and one nitrogen atom. There is a possibility that ammonia can use as the antenna or quantum router in quantum computers. That kind of antenna or router bases the idea that the system can position it by using photons.  The system brings information to one hydrogen atom. 

And then, the quantum field of nitrogen can transmit that wave motion or information to those remaining hydrogen atoms. The system transmits emitter energy to the nitrogen atom. 

At first, the system transmits information to the ammonia molecule. Then laser will raise the energy level of that molecule. When the radiation stress ends, that molecule sends wave motion. If the information is stored in hydrogen atoms. Energy or wave motion that comes from nitrogen acts as the carrier wave. 

The structure of nano router.

Ammonia molecule

1:)  Information flow to the router ("Input")

2:) Hydrogen atom

3:) Nitrogen atom

4:) Energy flow out from the router ("Output")

5:) Emitter energy. 

Those routers can operate in 2- and 3D structures. And also in nano-size binary electronics. 

These kinds of gates or routers are needed when researchers make complex and very complicated quantum networks. In the complicated web of quantum entanglements, the most important thing is to control the information flow in those complicated networks. The quantum routers can use to send information to electrons or photons.

But maybe someday make the quantum entanglement between electrons of those hydrogen atoms possible. That kind of router can operate in 2D and 3D quantum processors. But they can also revolutionize binary processors and nanomechanics. The ability to make microscopical microchips is an important thing for making nano-sized robots. 

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

https://miraclesofthequantumworld.blogspot.com/

Researchers at Columbia University made light travel through metal.

"Light Conduction in a Metal: Waveguides are observed in a semimetal known as ZrSiSe. Credit: Nicoletta Barolini, Columbia University". (ScitechDaily.com/Hyperbolic Propagation: Columbia Physicists See Light Waves Moving Through a Metal)

The metallic structure that is in the image above made it possible. That light travels through it. This kind of metal structure is one of the biggest discoveries in history. The ability to send light through metal can make a revolution in quantum computers, stealth technology, and aviation. 

Two- or three-layer metal structures where layers are made of Rydberg's atoms can make it possible to create a new type of quantum neural computer. The photons transport information through those layers. And that system can be more powerful than any computing system before. 

In that model, the system uses superpositioned and entangled electrons in Rydberg's atoms for making an atom-size quantum computer. And three layers of those 2-dimensional quantum computers form a structure that emulates the human brain. The input system drives data to the most out layer. 

Then the center layer acts like a diencephalon where the system selects data stored in the memory. And then the computer would send the data to the executive level. Or two layers are making the model, what the computer must do. 

When we are thinking of this kind of computer it's easy to connect to the walls of an airplane or spacecraft. That kind of solution leaves space inside the craft free. And the crew could communicate with their craft by using BCI (Brain-Computer Interface). 

And if there are differences between those solutions the third layer acts as a judge. That layer selects the better of those two solutions. An odd quantity of layers that can operate as independent quantum computers guarantees that the system will not be stuck because one layer will act as a judge in cases where two layers get different solutions. 

The ability to conduct light through the metal makes it possible to create new types of stealth systems. In those systems, high-power photons are making the plasma bubble around the craft. 

Or those photons can also make light travel over the craft and deny the reflection. The system can also make it possible to create a plasma-drive system where pushing magnets are pushing plasma away from the craft. That thing should move in the opposite direction. 

Powerful light or high-energy photons can create by using an annihilation reaction. That thing can also make it possible to dilate time in the capsule. Sometimes is introduced an idea that the impressive movements of so-called UFO:s is the reason for time dilation. If a high-energy reaction happens inside the craft that pumps energy to its core. And that thing makes time dilation possible. 

Images and other sources: 

https://scitechdaily.com/hyperbolic-propagation-columbia-physicists-see-light-waves-moving-through-a-metal/

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

There are no homogenous quantum systems in our universe.

Theoretically is the possibility to put the things like electrons into one certain-looking entirety. It's possible, that researchers can calculate the point where the forces like quantum gravitation and quantum fields make it possible. That particle can remain at a certain distance and a certain position from another particle. 

The problem with quantum systems is that they are not homogenous. Even in the cleanest possible systems are always quarks and photons. And that thing makes the system hard to remain as one entirety. Even if the distance between particles is calculated so accurately that they could stay in one form the other particles or wave motion brings artifacts or non-controlled events in that system. 

The thing is that the quantum systems are hard to control because outcoming effects are not possible to calculate. There is a theoretical possibility to create a quark or electron cloud that remains in a certain form. But the outcoming effect makes that thing at least very difficult to make in real life. 

To see the entire quantum system observer must stay outside it. But if the observer is inside the system it's hard to detect the entirety. 

The image above shows why quantum systems are hard to detect if an observer is inside a certain quantum system. When there is some dominating effect in that system. That dominating effect covers all other effects under it. And dominating effect makes it very difficult to detect other effects. If we are under that streetlight. 

We would not see buildings around that location. This image shows that if the observer is outside the system observer can observe it. But if you are inside the system you are hard to see outside things. The fact is that dominating effect in the quantum system acts like a streetlight. It covers all other details under its shine. 

Whenever the outcoming energy impacts the quantum system the participants of that system are sending radiation. And that radiation covers the radiation that comes outside the system. 

Things like energy waves can also cover another quantum system under it. Standing energy- or information wave can cover the existence of another quantum system. 

And then another thing is that if the energy levels of the quantum systems are different that makes it is hard to exchange information between the two quantum systems. If the quantum system where the observer has a higher energy level than the outside system energy flows to the quantum system that is at the lower energy level. 

The system that has a higher energy level is an active- or dominating participant in that model. And the system whose energy level is lower is a passive- or recessive participant of the combination of those quantum systems. The recessive participant of that system is receiving participant. The system that is a higher energy level transmits information. 

Those quantum systems act like radios. When another participant transmits information the transmitter cannot make sure that the receiver has received that information. 

So when information travels to one side between two quantum systems the recessive system detects the dominating system. But the dominating system cannot detect the recessive system because information travels to the recessive system. There is required some kind of echo that raises the energy level of the receiving system so high that it can send energy- or information impulse to the transmitting system. 

Energy is like a hill. When another participant is at a lower energy level it must raise something in it to a higher energy level than the transmitter so that it can send the information against that hill so that it can reach the transmitter. 

The fact is that quantum communication is just waiting for crackers.

People are saying that quantum encryption is the end of cryptology. But the fact is that there are thousands of masterminds that are willing to break the quantum security. 

If we look back at history. We can remember that some specialists claimed that RSA encryption is "impossible to break". And that means there is also a race against quantum encryption. 

There is the possibility that hackers can use holograms that are photon clouds to capture data from qubits. It's possible that when the qubit travels through the small hologram. That thing can adjust photons enough high accurately that they can copy data from the qubit. And then another photon group will re-adjust the qubit to the right energy level. 

That means that when the lost energy of qubit is replaced. Nobody knows that the data is stolen. Otherwise, the change in energy levels tells that somebody stole a qubit. But the fact is if the data is not lost, that thing means that hackers can copy it to another qubit by using a hologram. 

Replicating quantum entanglement is one of the best ways to hack a quantum system. In that model, the attacking system makes similar qubits. That the target system uses. And then that allows copying data from the system. In that kind of operation, the attacking system will make a so-called parasite qubit in the system. 

In some other versions, the attacker will aim the laser ray just behind the reading port of the quantum computer. And that thing makes it possible to read the information remnant from the used qubits. And of course, the attacker can attack against binary computers that are linking quantum computers to screens and keyboards. 

Or hackers can use some other method like slipping into the office and creating a couple of user accounts if they find the right password from some papers. So, data security has an important role also in the world of quantum systems.

https://scitechdaily.com/scientists-augment-reality-to-crack-the-code-of-quantum-systems/

Image: 

https://scitechdaily.com/scientists-augment-reality-to-crack-the-code-of-quantum-systems/

Quantum entanglement is one of the most useful things in quantum mechanics.

This is writing about data transportation by using quantum entanglement. There is also the possibility to use quantum entanglement in particle accelerators and advanced ion engines. But I will write about those things later. 

When we look for practical solutions for quantum mechanics we must look at quantum entanglement. Quantum entanglement or the spooky effect in distance means. That the elementary particles are at the same time in two places. That happens by putting those elementary particles oscillating with the same frequency.

The thing that makes information travel in the quantum computer is that another side of the quantum entanglement is at a higher energy level than the other. That thing causes the information flows to the side of the quantum entanglement. That is at the lower energy level.

And when the sides of the quantum entanglement are at the same level. That thing causes the radiation or wave motion that those particles send brake the quantum entanglement. And that thing is one of the most interesting things if we want to transport information long distances in the form of a qubit.

At this point, we must make a difference between long-distance and short-distance quantum communication. Of course, there is no theoretical limit to the length of quantum entanglement. But transporting qubit long distances can happen quite a simple way. 

In qubit-based quantum communication, the information would load to the quantum entanglement. And then the quantum entanglement's energy level will put the same level. Then the wave motion will push those participants of that thing away from each other. 

If quantum entanglement is made by using the particles that react with magnetic fields. That thing makes it possible to aim those particles away from each other. Then the particle that transports information can put to travel in the hollow laser or microwave ray. That thing protects the electron or positron that transports information. 

This is the reason why things like positronium are under research. Positronium is the system where electrons and positrons (anti-electrons) orbit each other. If quantum superposition is made between electron and positron. 

That thing allows the creation of superposition that the system can easily control by using magnetic fields. Also if the transporter particle in long-distance quantum communication is the positron. That makes it easy to destroy it after the data. That improves data security.

Destroying data transporter by using annihilation denies the attacker's ability to steal them. After the data transporter traveled through the sensor there is a theoretical possibility that somebody could steal it. And then that attacker could restore the data remnants but that thing is purely a theoretical way to steal information from the quantum system. 

See also: Positronium

The AI reduced the 100 000 equation quantum problem to four calculations.

The quantum computer is the most powerful tool in the world. But when we connect another powerful tool, artificial intelligence to the quantum computer, we can make an even more powerful tool. 

The thing that makes AI a powerful tool is its ultimate accuracy. The AI can find similarities in the system. If something in the system seems similar to others. But in different size systems, the AI can simply use calculations or mathematical formulas that are made for another system and then scale those things for another system. 

The idea is simple. If the AI would be the designer who uses the CAD program that designer can make the ball. And then that designer can simply put the same ball in every image, that this person makes. The only thing that this person must do is to change the diameter of the ball. When the designer wants to use that ball, that person must only click the menu where the forms are. And then select the ball from there. 

If that process is automatized the designer must only select the ball from the menu, and then just give an order where and what size of the ball would that person wants to put in each image. But if the designer would make things like flowing or melting clocks from paintings by Salvador Dáli, that thing is quite easy if the designer cooperates with the AI. The designer must just select the right shape from the image. And then name that image for the AI. Then the AI can render the image into a thing that shape looks like a flowing clock from Salvador Dáli's painting. 

Image: WIkipedia

When something repeats time after time, the AI can use the same formula for each object. That means the AI must not calculate everything many times. Sometimes one calculation fits many forms. And the system must just scale those things for fitting the new system with different sizes. So the AI removes unnecessary parts of the models. So it must not make everything from the begin in each time when it sees a similar object. 

Uncovering hidden patterns, the AI reduces 100 000 equation quantum physics problems to only four equations. This thing would be the next-generation tool for many things. The next-generation graphics can use this kind of method to control more accurate screens. And this kind of system can make 3D virtual reality, enhanced reality, and mixed-reality solutions possible. 

The idea of that kind of thing is that the AI searches the simultaneously repeating patterns in the image. So that means it must not calculate everything separately. It can use the same calculations for the forms that are similar. But their size is different. 

Because that kind of system must not calculate everything separately, it can make everything easier. The system can make simultaneously repeat things that are similar can made by using the same calculation. But then their relations can be put to the same scale. 

Images and sources

https://scitechdaily.com/uncovering-hidden-patterns-ai-reduces-a-100000-equation-quantum-physics-problem-to-only-four-equations/

The moment when the quantum systems meet

Image 1

 

Maurits Escher's drawings "Section of Relativity" (Image 1), "House of Stairs" (Image 2) and "Waterfall" (Image 3) can use to introduce quantum systems. 

The rule in quantum systems is that if two quantum systems are impacting, they can form a new stable system only if their energy level is the same. If the energy levels of those systems are different. The system that is in a higher energy level continues its journey and breaks the symmetry. And a new quantum system will be broken. 

So that's why fusion tests should be used particles, that have the same energy level. If energy levels are different the quantum system will not last long enough that new particles can form. The asymmetry in energy causes the particle in a higher energy level will travel through the particle that is at a lower energy level. 

There is a couple of rules in quantum systems. Quantum systems can be horizontal or vertical. The frequency of quantum systems determines their place horizontally. And the energy level determines its vertical position. 

All quantum systems are part of another, larger quantum system. The universe is the largest known quantum system. And that means all other quantum systems are part of at least one quantum system called the universe. 

The energy level of the quantum system rises until it reaches the maximum possible level. And then the quantum systems start to lose energy. The fact is that energy is wave motion. And the requirement of the energy transfer to the quantum system is that the frequency of wave motion can resonate with those particles. 

Image 2

The exchange of information requires that another quantum system is at a higher energy level. If we want to make two-way communication between two quantum systems we must change their energy level. The sending or "talking" system must be always at a higher energy level than receiving or "hearing" system. 

The rise of the energy level requires that the quantum system gets energy from outside. The energy level in the quantum system rises until energy stress ends. The quantum system starts to deliver energy when energy stress ends. 

Complex quantum systems can contain multiple energy sources but they can be inside quantum subsystems. And they can interact only through those quantum subsystems. That means those energy sources are normally unreachable for actors that are outside of those subsystems. 

Hierarchic quantum systems are like towers. They require energy to keep their form. If energy is gone the quantum system collapses. So in that case the "tower-looking" quantum system turns into a flat quantum system. 

In the "Section of Relativity", another mummy, that we can call "boy" in this text is coming down from the upper energy level. And another boy is raising in stairs. Those boys in the image could introduce two quantum subsystems in the entirety of hierarchical quantum systems.

Image 3

 

That other boy is at a higher level and carries a tea set. And that means that boy had a different mass than the boy who is rising on energy stairs. That tray makes that boy or quantum system also asymmetric. Those boys or quantum subsystems are facing just in the middle of the main system. 

When quantum systems are changing their information they must have the same frequency. And another principle is that they must be hierarchic. That means another quantum system must have a higher energy level. The thing in quantum communication is simply the quantum systems must have the same frequency but different energy levels so that the information can flow. If we want to transfer the particle from the first quantum system to another quantum system, we must have the same frequency as another quantum system. Or we cannot exchange information between those particles. 

Being in the middle of the quantum system doesn't mean that the particle is a member of the quantum system. "Membership of the quantum system" means that the particle can exchange information with other particles. 

That's why we cannot see dark matter. Dark matter has a different frequency. And it belongs to a different quantum system than visible material. In the same way, the creature is made of dark matter. We cannot see material that is visible to us. 

The door is the quantum gate. The boys must walk through that quantum gate, But the problem is that in quantum systems they must make the side step. This is the reason why quantum communication is somehow so complicated. If we want to exchange information between two quantum systems we must find the energy level that is common to both of them. 

That is the maximum energy level of the quantum system. Then we must simply take the group of the particles and wait that the dominating particle group re-adjust the recessive particle group. And if we want to exchange information between dark and visible material we must find the maximum energy level of the universe. The ability to exchange information between systems makes systems visible to each other. 

So there is needed the asymmetrical energy impulse that the quantum system can make that sidewalk, step in the quantum gate, and switch the quantum system. But the fact is that even though those boys are members of the larger quantum system they cannot exchange all information. Their frequency is not the same. 

The quantum system that comes from the higher energy level adjusts the particle that has a lower energy level to a new frequency and energy level. The reason for that is the exchange of information is always interaction. And when those quantum systems face the system, that is in upper energy level can continue its way only if it has energy left. If the energy level of those systems is the same. They are forming one stable system. 

But in that case, the system freezes at that level. This is why the fusion experiments should use the same energy level in particles that are impacting together. 

Images: Wikipedia

Energy is always traveling to the quantum system that is at the lower energy level.

Gravitation is not the only effect that pulls objects to stars. And energy is always traveling to the quantum system that is at the lower energy level. Energy is one version of the wave motions. 

What did fictional cartoon hero Buck Rogers do when rockets in his space suit ran out the fuel? The answer is that Buck Rogers would punch his helmet by his ham. The fact is that theoretically, Buck Rogers acts the right way. 

If he would turn his helmet to a higher energy level than his feet. Then energy will flow to his feet and that thing sends the wave motion to space. And that allows Mr. Rogers to fly to the safe. 

A similar thing is visible when spacecraft will travel to the star. The star turns the nose of the spacecraft higher energy level than the side that is away from the star. Energy always travels to a lower level. The purpose of this hypothetical spacecraft is to illustrate that the spacecraft must win gravitation when it will leave the solar system. But it must also fight against the flowing wave motion that travels from the sun to the shadow. 

So because energy flow always travels the same way there is the theory that gravitation increases the energy level of another side of the object. And then the energy starts to flow away from the origin of the source of the gravitation wave. 

Energy flow ends when the energy level between an object and its environment is the same. Objects and their environment are different quantum systems. And energy always flows to a quantum system that is at a lower energy level. 

Image 2) "Rouen UFO" photographed in 1954

When that energy flow ends the system reaches stability. And that means there is no movement or energy transportation in stable systems. The cosmic silence in the universe's ultimate fate is the situation where the universe reaches the same energy level as its environment. That means the universe reaches a stable position for the first time in history and energy flow to its environment ends. And that means the universe dies. 

Because the side that is at a higher energy level is to star, that thing causes that energy flows to the side that is at the lower energy level. And then that energy will start to travel to space and pulls the craft forward. So the motion of the energy doesn't end at the edge of the craft. 

When we are looking at the image where is the UFO with a mast that mast can be the part of the system that will warm that part of the entirety by using electromagnetic radiation. That thing makes the airflow upwards and if there is a hole in the structure around that mast the rising airflow will, of course, pull the craft up. 

But also the wave motion. That is left from the bottom of that craft affects the flight of that craft. The reason for that is the bottom of the craft is at a lower energy level than the mast. 

In some visions, the very aerodynamic rocket would equip with laser systems that are heating its nose. The energy flows to the tail of that craft. If the tail is equipped with a cooling system that decreases its energy level to extremely low. That makes energy flow to the tail at a very fast speed. Then that wave motion continues in space. The system can increase its thrust by shooting gas to that wave notion. That thing forms the pressure wave that hits the tail of the craft. 

Images 1) Pinterest

Image 2) https://m.aenigmatis.com/rouen-ufo-1954/rouen.htm

https://miraclesofthequantumworld.blogspot.com/

Where is the inconsistency of quantum theories?

The image above portrays Andromeda Galaxy (M31) (Image: Pinterest): Galaxies are giant quantum systems that involve multiple quantum subsystems. The quantum system means the group of particles and systems. That is inside the same field. 

A quantum system is a group of subsystems that interact with each other. Or it can mean the group which reacts to the same energy impulse. 

There are two different main types of quantum theories. The quantum particle theories. And quantum field theories. The wave-particle duality connects those theories. 

1) Quantum particle theories

Those theories handle the relations of subatomic particles. They are theories that are consisting the quantum gravitation and quantum electromagnetism. Those things are connecting subatomic and elementary particles to larger entireties like atoms.

The wave-particle duality means that every particle has particle and wave movement forms. But connecting the interaction between wave movement and particles is a little bit difficult. If we think that every single elementary particle is forming from rolling wave movement. That means that every single elementary particle forms from the different length bites of wave movement.

2) Quantum field theories 

Those theories handle the interactions of the quantum fields that are surrounding all particles. The term "quantum field" means different types of electromagnetic and gravitational fields around all particles. At the level of subatomic particles, even a single photon has an effect. 

So the quantum field theories should consist of at least two different types of quantum fields. The large-size quantum fields and small-size quantum fields should have their theory. The large-scale quantum fields are affecting galaxies and even larger entireties. 

And the small-scale quantum fields are interacting between subatomic particles. Those quantum fields are interactions. 

So the galaxies are pushing and pulling each other. The radiation that comes from the galaxy is pushing particles away from it. And then the gravitation pulls particles to it. But things like micro-and quantum gravitation have also affected the universe. Even things like electron and hydrogen clouds have a gravitational effect if the number of those particles is high enough. 

But then we can see that the quantum theories are not even near being ready. 

Should we need more quantum theories? The answer is "yes". 

Sometimes we should think also do we need a theory about the information? The thing is that there is a theory, that information is the state of the material. 

Quantum mechanics is part of the quantum field theories. It handles the rotations and interactions of the quantum fields around the material. The thing is that quantum mechanics is hard to connect with other theories because it handles the power fields and things like superstrings. 

The idea is that those superstrings are the bites of wave movement. But the thing is that the interaction between material and space happens through the quantum fields. So the idea is that the material is only the extremely dense quantum field. That means all material can turn to wave movement and back to particle form. 

But do we need different theories for quantum systems and large-size quantum systems? When we think about the interaction between electron and proton in the hydrogen atom electromagnetism dominates that interaction. When hydrogen atoms number turns high enough, the gravitation turns to dominate. 

Galaxies, galaxy groups, and the universe are the largest quantum systems in the, well, universe. The thing is that the quantum systems are involving multiple sub-systems. The most complicated structure in the universe is the universe itself. If we could see the universe from outside its ball. But when we are closing it we see the substructures like the cosmic web, galaxies, stars, molecular and atomic clouds. Planets, molecules, and atoms. Finally, we could see quarks and things like gluons. 

They are all closed in the giant quantum field called the universe. When we are thinking of the quantum systems of water and air. The air can affect things that are at the border between those quantum systems. Of course, air can affect also underwater objects. But water covers that effect. So for underwater objects, the water is dominating the quantum system that covers the effect of the air under it. 

We can see the universe where we are as dominating the quantum system. But between us and the universe's entirety is trillions of subsystems like the plasma ring of the Earth. The plasma ball around the sun. The local star group, and the milky way. Then the local and main galaxy group and finally the cosmic background are covering the edge of the universe from us. And finally, the entirety of the universe covers the effect of the possible other universes below it. The dominance of the quantum systems determines how we see those things. 

If we are looking at things like galaxies. They form their quantum systems. Those systems are interacting with other galaxies. But there is one galaxy that we cannot ever really see. That galaxy is our galaxy, the Milky Way. Because we are inside that system, we cannot see it from the outside. We know that is like many other galaxies. But we cannot see the Milky Way. 

When we are inside the quantum system we can observe its participants. But when we are outside the quantum system we can observe its shape. We cannot see the entirety and the individual participants at the same time. We can observe things like the behavior of the single electrons all the time. But we cannot see how the electron groups of the galactic-size entirety are behaving. 

We can see individual electrons or groups of electrons. But we cannot see them at the same time. 

We see dust and ice or plasma that forms galaxies. And we know that there are electrons. But we cannot see those electrons from the images of the galaxies. Of course, we know that all atoms have an electron cloud. But the bright light or large photon group is covering those electrons from us. And when we are looking at material, we see only quantum fields that cover them. 

https://miraclesofthequantumworld.blogspot.com/

Maybe quite soon, the new systems will allow the digital transfer of memories between people.

The new quantum memristors are making it possible to return the quantum and of course binary computer to the position where it was before the electricity was cut. The memristor or memory resistor is possible only at the quantum level. But there is the possibility that a large group of memristors can use, also the full- or nano-scale computers. There is the possibility to benefit memristors also in the full-scale computers. 

That thing can be made by connecting those full-scale systems with miniature or nano-size computers. The idea is that the nano-size system will store the space of the computers all the time. And if the electricity is cut those settings remain in the memory of the nano-size computer. And when the system will turn back on. The settings will return by using that nano-size system. So the system can continue its operations where it is left when the electricity is cut off. 

Theoretically, those miniature system returners can use also be in the memory chips that can install someday in the brain of people. Those little microchips can use to store things in synthetic memory cells. And if those memory units can continue their operations from the point where the electricity is cut. 

That thing allows the transfer of the lifetime memories of the person to the new body. So if we think that memories are the personality the ability to transfer memories between bodies is making people immortal. 

Researchers uncovered how long-term memories are stored. 

That thing is opening the fascinating ideas because all our skills are basing memories. So if we think that some person will learn some things. That thing is making it possible to scale the same skills between multiple people. 

The memories are stored in the EEG system or microchips. Which are at the right point of the head of the person. The EEG system can be the network below the hat. Or it can install surgically put between the dura mater and skull. And there is of course possible that nanomachines are transferring those microchips to the brain structure. 

Then those microchips can be read by using some kind of scanner. In the most suitable vision, the mobile telephone can read the memory of that EEG system by using BlueTooth. There is needed only the right application. 

So transferring memories to the computer memory would be as easy as traveling. By using public transport. The application just sends the signal to the microchips. And then, they send the EEG curves to the telephone.  And then those memories can send to other similar systems that are sending electric signals straight to the cortex. This thing can make a new revolution for education in both civilian and military sectors. 

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

Image 1) 

https://scitechdaily.com/scientists-unveil-how-our-memories-are-stored-the-format-of-working-memory/

Image 2) 

https://spectrum.ieee.org/quantum-memristor

Quantum teleportation and wave-particle duality are powerful tools in quantum computing.

"In the three layers of graphene depicted here, local twist angle can range from around 1.5 degrees (blue)—close to the "magic angle" for this device—to around 1.9 degrees (red). The arrow shows a twist angle vortex or Twiston. These areas of disorder help make the overall device more orderly. Credit: Simon Turkel"(Phys.org/In a sea of magic angles, 'Twistons' keep electrons flowing through three layers of graphene)

Electrons that are hovering above the graphene layer and the synthetic particles can make a new type of quantum teleportation possible. 

Magic angle "Twistons" are making electrons hover above three-layer graphene. If the electrons are on both sides of the graphene. That thing makes it possible to make superposition and quantum entanglement through the graphene layer. The information can send to those electrons by using electromagnetic radiation. 

And that thing can make it possible to make the new and powerful quantum computers. If there is a quantum field between those electrons. That makes it possible to transfer information between those electrons. 

If those electrons are superpositioned and entangled. Changes in the energy level cause changes in the rotation speed or spin of those electrons. And that makes them send the photon. That means the photons are making it possible to transfer information from the quantum system to the binary system. That happens by sending those photons to the photovoltaic cell. 

But when we are thinking possibility to make a new type of lightweight. And solid-state quantum computers silicone has been shown one of the most promising materials in that kind of thing. The superposition between the silicon atoms can also make through the graphene layer. So there are two silicone layers and graphene will be between them. 

There is possible to make two opposite rotating electromagnetic fields in the graphene layer. That thing makes it possible to make the wave-particle duality or synthetic sterile particles in the graphene. And those sterile particles are making flexible quantum computers possible. The problem with natural particles is that they must be clean. Before they are used as a qubit. If the quantum computer can use the sterile particles that make it faster and more flexible. 

When a qubit is traveling in the system it must be protected against outcoming influence. In some visions, long-distance quantum communication will happen by putting qubit travel between the waves of the wave movement. 

New findings in the matter-wave duality make it possible to create synthetic particles in the laboratory. Even if the system can create only photons. That thing makes it possible to turn wave movement to the sterile photons. 

But if things like sterile neutrino are possible to create in the laboratory. Those sterile particles make it possible to create long-distance quantum communication. In those systems, the sterile particle will shoot to the receiver by using the laser or some other coherent electromagnetic radiation. 

https://phys.org/news/2022-04-discovery-matter-wave-polaritons-photonic-quantum.html

https://phys.org/news/2022-04-sea-magic-angles-twistons-electrons.html

https://scitechdaily.com/breakthrough-in-electrically-tunable-graphene-devices-could-lead-to-the-development-of-beyond-5g-wireless-technology/

 https://miraclesofthequantumworld.blogspot.com/