The anomalies in gravity might cause dark energy.

"Physicists at UC Berkeley immobilized small clusters of cesium atoms (pink blobs) in a vertical vacuum chamber, then split each atom into a quantum state in which half of the atom was closer to a tungsten weight (shiny cylinder) than the other half (split spheres below the tungsten). (ScitechDaily, Beyond Gravity: UC Berkeley’s Quantum Leap in Dark Energy Research)

By measuring the phase difference between the two halves of the atomic wave function, they were able to calculate the difference in the gravitational attraction between the two parts of the atom, which matched what is expected from Newtonian gravity. Credit: Cristian Panda/UC Berkeley" (ScitechDaily, Beyond Gravity: UC Berkeley’s Quantum Leap in Dark Energy Research)

Researchers at Berkeley University created a model that can explain the missing energy of the universe. The idea is that the particles and their quantum fields are whisk-looking structures. Those structures form the superstrings that are extremely thin energy fields. In the same way, gravity waves are similar superstrings. The strength of the gravity waves depends on many things. And that means some gravity waves are stronger than others. 

That can cause a situation in which some particles turn higher energy than others. As I wrote many times, gravity waves are like all other waves. There is a higher area behind the wave. That pushes the wave forward. And the lower point in the quantum field, which is like a ditch in water. Pulls the wave forward. 

All waves move similarly. The energy ditch at the front of that wave makes the wave move. If that energy ditch is deeper, that increases the speed of the wave. When we look at the waves, only energy ditch at the forward of them is required that the wave moves. The difference in the height between the (energy) ditch and (energy) hill determines the speed of particles between them.

(Image 2)So theoretically. There is no need to form a high-energy wave behind the wave. Only a deep energy ditch ahead of the wave is enough that it move faster than it should.

In the image of the Alcubierre drive's model or diagram (Image 2), you can see how wave movement transports craft forward. The object travels between the energy hill and the energy ditch. The difference between the levels of the higher wave and the energy ditch determines how fast the particle or wave can travel. 

(Image 3) "Two-dimensional visualization of an Alcubierre drive, showing the opposing regions of expanding and contracting spacetime that displace the central region." (Wikipedia, Alcubierre drive) The image can also portray how a ring-shaped structure moves energy from the front of the structure to the back of it. 

So that causes the thought that maybe in the universe is a virtual particle. That looks like a ring. When that ring starts to rotate around its horizontal axle, it starts to act like an impeller. Image 3 can be the diagram of that particle. The energy hill forms when that hypothetical structure transfers the quantum field back to the structure. 

When the particle's front side hits the layer, that is a quantum field, it transfers energy into itself. And then, it starts to turn away because energy travels away from it. The energy hill forms behind that particle. When a particle rotates, it transports energy back to it, forming an energy hill behind it. 

In some models, gravitons are also quantum-size black holes. And there is a similar structure that looks like Saturn's rings around that still hypothetical particle. When gravity waves that are coming from that structure impact with other superstring rings. Those impacting gravity waves rotate those string wheels around their axles. When those rings rotate vertically, they push E.M. or quantum field into one direction. 

That thing can form a situation in those quantum rings that pull the quantum fields across the layers. Those quantum rings make it possible that the graviton itself is invisible. That ring pushes radiation away from the center of that structure. And the black hole pulls strings into it if they travel through that ring structure. 

https://scitechdaily.com/beyond-gravity-uc-berkeleys-quantum-leap-in-dark-energy-research/

https://www.gadgetshint.in/2024/05/the-alcubierre-warp-drive-surfing.html

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

Faster-than-light communication is possible through the wormhole.

"The inside of the Compact Muon Solenoid (CMS) experiment at the Large Hadron Collider. Rochester physicists working at the detector have observed spin entanglement between top quarks and top antiquarks persisting at long distances and high speeds. Credit: CERN" (ScitechDaily, Faster Than the Speed of Light: Information Transfer Through “Spooky Action at a Distance” at the Large Hadron Collider)

The reason why the information traveled faster than light between two high-energy particles is not a mistake. The energy level in the quantum entanglement between the top quark and its antiparticle anti-top quark is so high. This thing forms the electromagnetic wormhole around the particle pair. 

The energy flows away from the quantum entanglement. And that denies the side effects disturb the quantum entanglement. In that high-energy system. The energy that flows out from the quantum entanglement denies the outside energy fields touch that quantum entanglement. 

When physicists say that information travels faster than light they mean that the photon travels in space, there it can travel faster than outside that space. There is the possibility of using the twisted light to make the electromagnetic wormhole, the channel that isolates its inner structure from the outside world. The electromagnetic or acoustic tornado denies energy leaks to the sides. 

The gravitational wormhole acts with the same principle as the electromagnetic wormhole. The radiation wavelength in those wormholes is the thing that determines if it is a gravitational, electromagnetic, or acoustic wormhole. 

The thing that causes the effect that the speed of light is crossed in a wormhole is simple. Photons or light travel faster in the wormholes than outside it. 

The energy or wave movement behind the object pushes it forward. The thing that puts this structure operating is the electromagnetic low-pressure or vacuum at the front of the particle. When information travels in the wormhole the lower energy area at the exit-side pulls quantum fields into it. If that pull is strung enough it forms the electromagnetic vacuum that turns deeper and deeper ahead of the particle. 

The energy wave behind the particle pushes it harder and harder. The difference between energy Walley at the front of the particle and energy wave behind it turns deeper and deeper. And the speed and energy level of the particle rises. The reason why particles can cross the speed of light is that there is no crossing quantum field in the Einstein-Rose bridge that can pull energy out from particles. 

Particles are not crossing the speed of light in the Einstein-Rose bridge. The theory of Relativity says that the speed of light is relative. And that means light travels faster in the Einstein-Rose bridge or wormhole than outside it. 

Electromagnetic wormholes can also make it possible for light to travel faster in them than in the medium. In quantum systems, quantum channels form wormholes closing outside effects out of that channel. And that forms the wormhole where photons can travel faster than outside those channels. 

Information traveled faster than light in LHC. That causes a question about the speed of light. The speed of light is the cosmic speed limit, but how can information travel faster than light? The answer is that the speed of light depends on the medium. The speed of light is higher outside the atmosphere than in the atmosphere. In the atmosphere, information travels faster than in water. 

The fact is that crossing the speed of light is easier than people think. The thing that slows the photon's speed is the scattering effect. When a photon travels in the medium, the scattering effect or the low-energy quantum field pulls energy out from the photons. So the thing is that if the system can form a tunnel across the air, where there is no air, that allows photons to travel faster than usual. 

Things like laser rays or phonons can also make needed channels through the air, and because there are no molecules or even no atoms, that vacuum channel can make information travel faster than light.  Or actually, information travels faster than it travels out of that channel, which we can call an acoustic or electromagnetic wormhole. 

https://scitechdaily.com/faster-than-the-speed-of-light-information-transfer-through-spooky-action-at-a-distance-at-the-large-hadron-collider/

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

The new quantum realms.

"Using a mathematical concept, researchers are improving how light particles interact in special circuits, which could make quantum technology systems more reliable and open up new possibilities for innovation. Credit: SciTechDaily.com" (ScitechDaily, Twisting Light Unlocks New Quantum Realms)

One of the limits of tomorrow's quantum internet is that the system cannot make superposition and entanglement over long distances. Another thing is that the system requires lots of energy. Things like atom chains are tools. That can cover information that travels in the quantum tubes. In long-distance quantum communication, the quantum systems can share information into the different radio frequencies. 

And in those systems, each radio frequency means the qubit's states. That system allows to create the new and powerful communication tools. The virtual qubit can involve as an example 100 radio frequencies. Then each frequency is the individual state of the qubit. 

"The device uses a simple electric diode to manipulate qubits inside a commercial silicon wafer. Credit: Second Bay Studios/Harvard SEAS" (ScitechDaily, Silicon Magic: Powering the Quantum Internet of the Future)

The infrared systems can form the quantum pillars, that transport information into the quantum wires. In some other models, the IR laser pumps energy into the particles like protons. And then it forms a quantum disk around them. The system creates the disk and if it can create twisted light the loop in the light waves can help to transmit information between those disks and the light waves. 

The lightwave acts like a wire that receives and delivers information. This is one way to transport information to the electrons. And those electrons are one way to make long-distance quantum data transportation in the form of qubits. If we think of the models where the system stores data in the photons, that are anchored between electrons. And in some other models, the system puts information into the neutral atom's electrons. Then it turns electron shells opposite to each other. And then makes a superposition between those electrons. 

"When irradiated with infrared light, certain molecules like metal phthalocyanines vibrate and generate tiny, localized magnetic fields. Researchers have calculated these effects and aim to experimentally prove and manipulate these fields for potential applications in quantum computing. Credit: SciTechDaily.com" (ScitechDaily, Physicists Uncover New Path to Quantum Computing: Infrared Illumination)

The twisted light unlocks new paths to quantum communication. The twisted light can form the knots around atoms that are close enough each other. There is the possibility that if atoms in the structures are in the form of the Bose-Einstein condensate those atoms can be put into the line, there the twisted light can travel in the quantum fields that unite atoms under one entirety. 

In those complex quantum wires, the system benefits electron orbitals and their quantum fields. The system unites most of the quantum fields into one entirety.  And that layer protects information that travels in denser quantum fields. 

https://scitechdaily.com/physicists-uncover-new-path-to-quantum-computing-infrared-illumination/

https://scitechdaily.com/silicon-magic-powering-the-quantum-internet-of-the-future/

https://scitechdaily.com/twisting-light-unlocks-new-quantum-realms/

The new telescopes give new data from the early universe.

The force awakens: new telescopes saw the dramatic awakening of the supermassive black hole. 

"In late 2019, a previously unremarkable galaxy suddenly started shining brighter, suggesting the sudden awakening of a massive black hole at its core. Astronomers using data from multiple observatories noticed dramatic changes in brightness that hint at unprecedented astronomical phenomena, further highlighted by new X-ray emissions detected in early 2024. (Artist’s concept.) Credit: SciTechDaily.com" (ScitechDaily, Real-Time Revelation: Witnessing a Massive Black Hole’s Dramatic Awakening)

Some people ask: does the quantum entanglement allow systems to transport information faster than light? The answer is yes and no. The idea of quantum teleportation is that there is a quantum shadow or quantum channel between two particles. The system forms a quantum show by illuminating another particle from backward. That forms the electromagnetic shadow or quantum channel between particles. 

In quantum teleportation, the information is not traveling faster than light. Information travels in a quantum channel, where the wall or shell removes part of crossing quantum fields. That means less energy travels out from particles. And that causes situations where photons travel faster than they otherwise travel. 

"The ATLAS and CMS experiments have observed entanglement between top quarks and their antiparticles, confirming this phenomenon at high energies. This opens new avenues for quantum research, supported by large data samples from the LHC and enhanced by modern analytical techniques. Credit: SciTechDaily.com" (ScitechDaily, Einstein’s “Spooky Action at a Distance” Between the Heaviest Particles at the Large Hadron Collider)

The gravity wave is like an energy Walley or energy ditch at the front of a particle. That energy ditch pulls particles and wave movement forward. All wave movement acts the same way. There is a small lower energy area at the front of the wave. And then the energy that comes backward pushes waves forward. 

In quantum channels, the energy wave behind particles turns higher. And that pushes particles harder. So wormholes are the extreme versions of the quantum channels. The thing that differs between the Einstein-Rose bridge or "Wormhole" from electromagnetic wormholes like hollow laser rays is that the Einstein-Rose bridge is so thin, that it will not allow radiation to travel out from the energy- or quantum channel. 

Because energy cannot go out from the quantum channel it is packed behind particles. The energy pressure pushes particles forward. That packed wave movement denies the wormhole collapse. And then somewhere that energy bridge ends. Or otherwise saying, it starts to leak and that collapses the wormhole.  

The new Einstein telescope is the tool that observes gravity waves. The depth of that telescope is 250 meters. And it helps to get brand-new information from the universe. 

"The Einstein Telescope is being built around 250 meters underground. With interferometers in the three tunnels, each ten kilometers long, it will measure collisions of black holes in the early universe. Credit: NIKHEF" (ScitechDaily, Einstein Telescope: Unlocking a New Era in Astronomy From 250 Meters Underground)

The new observations give information about the early universe. And maybe they can answer the question, what came first, material or black holes? In theories, the early universe formed giant kugelblitz-black holes. Researchers hope that the Roman telescope gives information about this effect. The idea of the Kugelblitz black hole is that there is a ring-shaped electromagnetic field. And the outside energy hits that energy ring. Then the ring focuses that energy in the middle of it. And that forms the black hole. 

Those black holes formed straight from energy or wave movement. And then those black holes caused a disturbance in wave movement. That disturbance or crossing wave movement caused the Schwinger effect and formed the elementary particles. 

In the early universe were giant black holes that orbited each other. The information about those double quasars helps researchers understand field-based quantum entanglement better. And that information helps to create new quantum computers. The long-distance quantum entanglement gives new accuracy for the gravity wave sensors. As well as it will also revolutionize communication. 

In quantum entanglement or quantum teleportation, information travels in a quantum channel. The quantum channel that can be a hollow laser ray photon can travel faster than it usually travels. The reason for that is this electromagnetic wormhole removes part of crossing electromagnetic fields. 

"The experiment was pictured drawing a fiber Sagnac interferometric scheme inside a magnifying inset starting from a local position (Vienna, Austria) of the rotating Earth. Two indistinguishable photons are incident on a beam splitter cube, entanglement between them is created, and then they are coupled in the fiber interferometer. Credit: Marco Di Vita" (ScitechDaily, Shattering the Limits of Classical Physics: Quantum Entanglement Measures Earth’s Rotation Like Never Before)

The reason why the quantum entanglement between large particles is interesting is that it allows researchers to create larger electromagnetic shadows or quantum channels. These kinds of quantum channels can be longer than quantum channels between smaller particles can be. The superpositioned particles. That transport information can be inside the electromagnetic shadow or quantum channel between those larger particles. 

When the system pushes the transmitting part of the entanglement, it sends a wave through the quantum channel. In some other models, the system can push and pull the dominating side of the entanglement. And that turns the quantum entanglement into a formation. That looks like a gramophone stylus. That last version requires almost straight wave movement. 

Or so thick energy structure that the system can transfer the other side of the quantum entanglement when it transports other. These kinds of things are suitable only for long-distance communication. The system benefits from those solutions only if the information transfer must happen from other planets. That thing makes remote control of probes easier. 

But the communication through quantum channels makes it possible to create the systems that warn Earth about the new threat. That threat is gravity waves. The gravity wave can disturb quantum entanglements in quantum computers. If there is a gravity wave sensor at the edge of our solar system is. Quantum teleportation helps to send information faster than gravity waves and it gives about a couple of seconds to turn radio- and optical telescopes into that point. 

https://scitechdaily.com/astronomers-discover-first-ever-pair-of-merging-quasars-at-cosmic-dawn/

https://scitechdaily.com/echoes-of-creation-the-roman-telescopes-quest-for-primordial-black-holes/

https://scitechdaily.com/einstein-telescope-unlocking-a-new-era-in-astronomy-from-250-meters-underground/

https://scitechdaily.com/einsteins-spooky-action-at-a-distance-between-the-heaviest-particles-at-the-large-hadron-collider/

https://scitechdaily.com/real-time-revelation-witnessing-a-massive-black-holes-dramatic-awakening/

https://scitechdaily.com/shattering-the-limits-of-classical-physics-quantum-entanglement-measures-earths-rotation-like-never-before/

https://en.wikipedia.org/wiki/Kugelblitz_(astrophysics)

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

The quantum cooler can help to maintain quantum entanglement.

The network of the superpositioned and entangled particles can make theoretically stable qubits possible. In that model, when both quantum entanglement sides reach the same energy level, the system forms new superpositioned and entangled particle pairs using the receiving particle of the particle pairs. And then. It transmits data to the third part of the quantum entanglement. That allows the system to create a network, where quantum entanglements. When the first particle pair energy level reaches the same level, that thing can transport information into the new quantum entanglement. 

The quantum system puts two particles in line when it starts to make quantum superpositions and entanglement. During this process,  that system points energy to another particle. That energy forms the quantum shadow or quantum tunnel between those particles. Then energy shadow pulls information into that channel. 

And then that thing adjusts the oscillation in the receiving part of the entanglement pair. The higher energy particle is transmitting, and the lower energy particle is the receiver part.  Energy always travels to lower energy areas. If the energy levels on both sides of the quantum entanglement are at the same level, information will not travel. 

The requirement for quantum entanglement is that another side of the superpositioned and entangled particles is on a lower energy level than the transmitting side. When the quantum entanglement reaches the same energy level on both sides, it destroys the entanglement. 

There forms a standing wave between those particles. Reflection from that wave destroys the quantum entanglement. Reflecting energy pushes those particles away from the entirety. That limits the use of the quantum computers. The problem is that the quantum entanglement's receiving part's energy level rises. If the system can transmit energy from the receiving side, it can handle that problem. 

There are three ways to handle that problem. The first way is to put the quantum shadow over the quantum entanglement and that thing decreases its energy level. Then the system can raise the energy level on the transmitting side. In that version, the system decreases the quantum entanglement energy level to a minimum level and the system raises the transmitting side's energy level. 

The second way is to use the double entanglement. When the receiving side of the quantum entanglement reaches the same energy level as the transmitting side, that system can make a superposition from the receiving side to another particle. That turns the receiving side into the transmitting side, and then the system can transport data to the new quantum entanglement. Using those systems researchers can make a theoretically unlimited network of superpositioned and entangled particles. 

Another possibility to handle receiving is the quantum thermal pump that can control the energy level of the receiving part of quantum entanglement. 

The quantum thermal pump that can transmit energy away from the receiving part of the quantum entanglement can extend the existence of the quantum entanglement. 

The solution can be the third particle. That is in the line, with the receiving particle. The third particle must be bigger than the receiving particle. That thing forms an electromagnetic shadow over the receiving particle. Or the system can transport lower energy particles near the receiving particle. The idea is that the lower-energy particle or lower-energy channel makes energy travel out from the receiving particle. And that makes it possible to conduct energy away from the receiving particle. 

Can a photon's mass explain the dark matter?

 

A dark matter particle or weakly interacting massive particle WIMP may follow all particles. And there is the possibility that those particles are lighter versions of the Kubelblitz black holes. In this text, I call the WIMP the Kugelblitz structure. The Kulgelblitz structure is a lighter version of the Kugelblitz black holes. Those hypothetical Kugelblitz black holes can be those quantum-size black holes. The lifetime of those particles could be less than a second before they vaporize. And that could connect WIMPs to those structures. 

Dark energy is wave movement that the source is unknown. So could that source be the quantum-size Kugelblitz black hole? The same phenomenon that creates the Kugelblitz black holes can create lighter structures. We can call as kugelblitz-structures. The quantum-size black holes can form a quasiparticle called super exciton. 

Exciton is the situation where an electron starts to orbit an electron-hole. If an electron can start to orbit the quantum-size black hole it can make a stable exciton. It's also possible that the fast-spinning particle turns into a donut-shaped structure. And if there is a quantum-size black hole in the middle of that structure the energy flow from outside can stabilize this particle. 

The WIMP can be a double particle. If the particle's spin is fast enough, it can turn into a ring. And there could be the quantum-size Kugelblitz black hole in that ring. 

The hypothetical dark matter particle is called WIMP. Or Kugelblitz's structure can be an extremely high-energy particle. That will push all wave movement from around it. Radiation slides over the particle without causing reflection. And that makes particles act like stealth aircraft. Without reflection that particle is invisible. 

"Frenkel exciton, bound electron-hole pair where the hole is localized at a position in the crystal represented by black dots" (Wikipedia,Exciton)

The quantum-size black holes can form the stable quasiparticle called "super exciton". 

The fast-spinning particle can turn into the ring, that is invisible to the observer. And maybe that ring-shaped object can trap the quantum-size Kugelblitz black holes in that particle. The energy that comes from that ring stabilizes the Kugelblitz structure. 

When particle travels in the universe. There is a quantum low-pressure channel behind it. That quantum low-pressure channel slows particles because it pulls them from behind. But there could be the small quasiparticle called a Kugelblitz black hole or Kugelblitz structure behind that particle.

There may be a small kugelblitz-black hole following the photon. In physics, the kugelblitz-black hole is a black hole that forms straight from the wave movement. It's possible. The particles can form lighter quantum structures from the wave movement, and that's why we can call that hypothetical structure a "Kugleblitz structure". That structure is the knot of quantum strings. 

If we think the photon has no measured mass. That kind of quantum structure behind the photon can explain why it doesn't have mass, and why the photon's speed is the top in the universe. The quantum structure that can follow a photon is maybe not a black hole, but it's like some kind of quantum knot. When a photon travels in the universe, it forms an electromagnetic tunnel in the quantum field. 

If those quantum fields connect between photon and that "Kugelblitz"-structure. That can also explain why photon travels forever. The quantum electric arc between that quantum structure and the photon can push the particle ahead. And if that thing turns too high energy, it will increase the mass of that "kugelblitz-structure". That mass pulls photons back, and that thing denies the photon's ability to cross a speed of light. 

That small kugelblitz-structure or Kugelblitz black hole can also explain why other particles cannot reach the speed of photons. The bigger particles form the bigger holes in the quantum fields. And that thing makes bigger and heavier Kugelblitz structures behind them. This thing pulls those particles backward strongly. 

There is the possibility that the electromagnetic low-pressure channel also pulls particles back. The thing that makes this thing break the cosmic speed limit is just to fill that quantum channel. If there is no channel, energy will not travel as fast out from that particle. The quantum channel behind particles is another thing that could make the cosmic speed limit. 

The question is: does the thing that removes mass from photons explain dark matter? And maybe the same thing can also explain dark energy. Photon is the particle. And it also has wave movement form. If the photon is stretched superstring like all other particles, that particle should have a mass. 

There is a model that when a photon travels in the universe, it creates a hole in the quantum field. Energy or wave movement travels around the photon as it travels around aircraft. If there is a small quantum low pressure behind the photon. The Quantum field falls in that vacuum. The photon forms also a small whirl, like aircraft forms, when it travels through the air. 

https://bigthink.com/starts-with-a-bang/photons-mass-dark-matter/

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

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

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

https://en.wikipedia.org/wiki/Kugelblitz_(astrophysics)

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

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

The molecules offer new ways to create data security.

"Image depicting the control of polariton particles using electric-field tip-enhanced strong coupling spectroscopy. Credit: POSTECH" (ScitechDaily, Light-Matter Particle Breakthrough Could Change Displays Forever). The system can use the same method to create qubits. 

Light-particle interaction that can change displays forever can also make it possible to unlock a new way to create qubits. The system can make it possible to trap things like electrons between two layers. And then. The system can create the quantum entanglement between those electrons or maybe even atoms. 

The superposition between atoms is possible if the system can make a very accurate superposition between those atom's quantum fields. Or the system must just descramble information that it transports between atoms. 

In this image, you can see the energy hills and the system can make quantum entanglement between those hills. 

Holographic displays. That creates hovering holograms over them those holograms can used as optical communication tools. The system traps the qubit in those holograms. And then it transports information into them. The blinking holograms also offer the possibility to make an optical data network. 

"Scientists have discovered that molecules scramble quantum information at rates comparable to black holes, affecting chemical reactions and offering insights for controlling quantum computing systems. Credit: SciTechDaily.com" (ScitechDaily, Quantum Scrambling: Chemical Reactions Rivaling Black Holes)

Molecules offer impressive paths for data security. 

Researchers saw that molecules can scramble information as effectively as black holes. And that can make a big advance in quantum technology. If we think about the possibility of scrambling and descrambling information. We can say that a molecule twists information in a certain way. In that system, the information is like tangled woolen yarn. When the woolen yarn is tangled. It creates a structure that seems impossible to take in use. 

But if we have patience. We can turn those yarns into straight form. Same way molecules can entangle information. And then. The receiving system must just make the same actions that the encoding molecule made backward. 

We must understand that certain movements create this tangled structure. And to disentangle that mess, we should only make those movements backward. 

"Researchers have used neutron spectroscopy to uncover the unique, moonlander-like movement of triphenylphosphine on graphite, advancing our understanding of molecular motion and its applications in material science.Credit: TU Graz" (ScitechDaily, A Molecular Moonlander: PPh3’s Movement Challenges Conventional Science)

Moon lander molecules can used to create big advances in data security and nanotechnology. 

The molecular moon-lander that acts as a molecular-size USB  can improve data security. This molecule can hover over a graphite layer. And it can offer very interesting opportunities for data security and nanotechnology. 

The triphenylphosphine (PPh3) molecule offers a new way to secure data communication. The film shows how the molecule interacts with the layer. And when one part of it comes closer to the contact point, it can release data. That system is stored in it. This kind of thing can make chemical qubit possible. 

If there is a ring of metal atoms around the carbon ring. That system can store information in those atoms. Then the system can use that structure to turn the data row into data lines. 

That molecule can act like a miniature USB stick. And it can transport data between two layers. At least. If there are some metal atoms where the system can store information. The molecular moon lander can also operate as a tool for nanotechnology. And it can transport things like enzymes to precise points. The molecular moon lander as this molecule is called can also act as a miniature antenna. That scans the objects that are on the graphite or graphene layers. 

https://scitechdaily.com/a-molecular-moonlander-pph3s-movement-challenges-conventional-science/

https://scitechdaily.com/light-matter-particle-breakthrough-could-change-displays-forever/

https://scitechdaily.com/quantum-scrambling-chemical-reactions-rivaling-black-holes/