Crystals and photonics

“Researchers used light to reveal the collective motion of electrons forming a Wigner crystal. Credit: Enrique Sahagún, Scixel / University of Basel, Department of Physics” (ScitechDaily, Light Reveals the Hidden Quantum Motion Inside an Exotic Crystal)

A Wigner crystal is a solid phase of electrons. That crystal traps electrons at certain points.  This crystal and its 2-dimensional forms can be next-generation tools for quantum technology. The Widger crystal is a lattice of electrons. This means it is formed of an electron gas. The system freezes the electron cloud into crystals. At extremely low temperatures, electrons can form crystal-shaped structures. Required temperature. It’s only half a degree above absolute zero.  Those. Electron crystals. They can be used as quantum sensors in laboratories. 

The Wigner crystal is often confused with Moiré crystals. Those crystals can trap electrons in graphene. Or some other 2D materials. Those materials can act as quantum-level AESA radars. Those systems might not see very long distances. They could act alongside regular AESA radars. They could detect stealth materials because of their extremely high resolution. Regular AESA can use an AI-based system to see targets or their vortices. Disturbances in air molecules can uncover stealth. 

“Illuminating the crystal with light with a built-in sense of rotation (white beam) reveals regions where the star-of-David clusters adopt opposite orientations (shown in red and blue) and uncovers how the collective motion of the quantum phase and atomic vibrations interact with each other. Credit: Jörg M. Harms.” (ScitechDaily, Quantum Fluctuations Break a Crystal’s Symmetry Rules)

When the system comes closer. 

It will start to use high-resolution quantum AESA to take a closer look at that object. 

But they can act as tools. That detects guns under clothes. And those systems can see through walls. Maybe. Nanorobots can someday carry those instruments to search things that have never been seen before. 

The system can input energy into those electrons. Then the frame that trapped those electrons can rotate. And that makes this thing a very short-wave quantum Doppler radar. That kind of tool can revolutionize radar technology. In quantum computers, the crystals can act as quantum channels. 

“Researchers have shown that nanoscale silicon structures can amplify an otherwise weak optical effect enough to control light almost instantaneously. Credit: Claudio Hail.” ScitechDaily, Scientists Reprogram How Light Travels in Just 74 Femtoseconds)

Or. Quantum synapses. In. Those systems. Graphene crystal lattices are opposite to each other. They can exchange information between quantum computers. The quantum synapses act like normal neural synapses. In that structure. Every electron exchanges and transmits information between individual quantum states

Photonics can also make it possible. To make ultra-powerful light. When light travels in a circle. And. When. A light beam touches that light circle. That circle inputs energy into that light beam. This can raise the energy level in that light beam. Into. A very high level. 

The system can be used with normal or coherent light. This kind of system. It could help to transport information between quantum and photonic computers. This system can be used. Input energy and information into quantum dots. The quantum dot is like a hill or pothole in the energy field. The quantum dot can capture electrons or photons. 

“Researchers developed a new type of integrated photonic device capable of generating broad ranges of light frequencies on a chip. The device uses a silicon nitride core to generate optical frequency combs while a surrounding silica layer produces Raman scattering. Credit: Alekhya Ghosh.”(ScitechDaily, Scientists Turn an Overlooked Chip Layer Into a Powerful New Light Source)

When we think. So-called mechanical quantum computers. The name of those systems is taken from mechanical computers. In those systems, the photons are in superposition and entanglement. Those photons. They are in superposition. They can act.  In a similar way to how mechanical computers' gears and ropes act.

If. Those systems could handle those quantum dots. It could make routes on the layer. And information can travel following that route. This makes it possible to create new types of quantum chips. The ability to control light. It makes it possible to create new quantum memories. The quantum fluctuations can transmit information into quantum dots. And that makes them an interesting tool in quantum technology. 

An ability. To control light plays a vital role in photonic computers. There are models of photonic computers. forming a layer between quantum computers and electronic computers. 

https://scitechdaily.com/light-reveals-the-hidden-quantum-motion-inside-an-exotic-crystal/

https://scitechdaily.com/new-technique-could-slash-ais-memory-energy-use-by-thousands-of-times/

https://scitechdaily.com/quantum-fluctuations-break-a-crystals-symmetry-rules/

https://scitechdaily.com/scientists-reprogram-how-light-travels-in-just-74-femtoseconds/

https://scitechdaily.com/scientists-turn-an-overlooked-chip-layer-into-a-powerful-new-light-source/

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

The new, strange materials can turbocharge photonics.

"Illustration of a 60-fold gyromorph’s properties. Top row: Structure of the gyromorph. Left: Structure factor. Right: Pair correlation function. Bottom row: Optical properties. Left: Polarized light beam fully reflected by a gyromorph. Right: Density of states depletion in the gyromorph. Credit: The Martiniani lab at NYU"(ScitechDaily, The Weird Hybrid Material That Could Turbocharge Photonic Computing)

“Researchers have created gyromorphs, a new material that controls light more effectively than any structure used so far in photonic chips. These hybrid patterns combine order and disorder in a way that stops light from entering from any angle. The discovery solves major limitations found in quasicrystals and other engineered materials. It may open the door to faster, more efficient light-powered computers.” (ScitechDaily, The Weird Hybrid Material That Could Turbocharge Photonic Computing)

“NYU researchers discover gyromorphs, a hybrid liquid-crystal material that outperforms quasicrystals in blocking stray light.” (Interesting Engineering, Scientists unveil ‘gyromorph’ material that may fix light-loss issues in photonic chips)

The ability to control light makes it possible. To create new phonics microchips. And then those materials make it possible. To create layers that control reflection with very high accuracy. Those systems can be the ultimate stealth. 

Gymorphs are strange hybrid materials that can supercharge photonic calculations. “ Gyromorphs have liquid-like randomness but form regular long-range patterns, allowing them to 'create band gaps that lightwaves can’t penetrate from any direction.” (Interesting Engineering, Scientists unveil ‘gyromorph’ material that may fix light-loss issues in photonic chips)

In many types of research, the problem is. How to connect crystalline and amorphous materials? Or what if some materials can reflect and bind photons at the same time? What if they can anchor photons on their layer? And then those photons act as quantum rolls that transport fields over the layer. 

Those materials can control light better than quasicrystals. And that makes them more effective than the systems that use some other types of materials. Gymorph is both. A crystalline and an amorphous material. Its atoms do not form a regular lattice. In the crystals, those atoms form a regular lattice. That regular form lattice leaves empty space between atoms. And that means those atoms are not forming a tight structure.

Above, you can see the difference between amorphous and crystalline materials. In amorphous materials, atoms do not form straight lines. The atoms can go between each other. In crystalline materials. Atoms are in a straight line. This makes crystalline matter a better electric conductor. But if the hit comes straight in the middle of the structure. Or it hits both sides of the structures that break the structure. In a hybrid material. 

The amorphic structure protects the crystallic structure. And keeps it in its forms. The amorphous material conducts energy impulses. Out of the crystalline structures. 

 Another hybrid materials involve amorphous structures that are like plates. Those plates from the chain. So, on a small scale, those materials are like amorphous. But on a large scale. They look crystalline. The material can look like a sugar bite. Inside, it has polycrystalline. Or polyamorous structures. But outside it. That material looks. Like a crystalline outside. But it has a polymorphic structure. 

“Microscopically, a single crystal has atoms in a near-perfect periodic arrangement; a polycrystal is composed of many microscopic crystals (called "crystallites" or "grains"); and an amorphous solid (such as glass) has no periodic arrangement even microscopically.”(Wikipedia, Crystal) One of the things that makes it hard to create room-temperature superconductors. Hard to make is the recoil in the crystal structure. When energy starts to travel in a crystalline structure. It causes the effect. The quantum fields at the upper and lower levels of those atoms start to travel backward. In monoatomic crystals. The structure collects energy. Into the middle of it. And that causes a problem with information transportation. When the energy level in the middle of the crystal rises. 

"Potential energy surface for silver depositing on an aluminium–palladium–manganese (Al–Pd–Mn) quasicrystal surface." (Wikipedia, Quasicrystal) Free atomic structures, or artifacts. Between the crystalline structures. Make quasicrystals less effective in the photonic chips. Than gyromophs. Those free, or non-controlled, atomic chains conduct energy out from the crystalline patterns. 

When energy hits the structure. That causes energy reflection. Through the structure. The problem with the crystal structure is that the straight atom line strengthens that recoil effect. In amorphous structures. These kinds of effects cannot form, but the problem is that those atoms must be frozen in a certain form. Information could travel zic-zac in the structure, but stabilizing those atomic structures is difficult. 

The space between atoms causes. That's when an energy packet. Like a photon, it hits matter. Its energy travels to the empty space between atoms. That causes energy losses into that material. And when higher-energy impulses hit matter. That forms standing waves between those atoms. Those standing waves can push atoms away from their structure. And that makes crystalline materials fragile. In amorphous materials, energy impulses can travel through the layer without forming standing waves. 

Or material can transport energy between atoms more effectively. And that kind of thing makes it possible to create structures that transport energy out from them. If there is no space between atoms, that denies the formation of the standing waves. Standing wave breaks material. In a simple way. When an energy impulse hits matter, standing waves form between identical structures. Those structures pump energy between them. And when energy pumping ends, those standing waves release their energy to those matter particles. That pushes them. Away from each other. 

Than in crystal structures. The amorphous material is below. Or between two crystalline material layers can make it possible. To create ultra-strong hybrid materials. When the outside crystalline structure is impacted. It can transport energy out of it horizontally, and the amorphous material forms the quantum foam. That takes energy into it. Because material allows atoms to push against each other. That makes the material perseverance. 

In this model. Researchers should research amorphous materials. Rather than crystalline materials. If they want to make room-temperature superconductors.  The problem is how to freeze those materials into a static form. One version is to use an atom chain or a nanotube. That is filled with atoms. If information can travel through particles. Those touching each other mean that even a small energy impulse can travel through layers. Because there is no hole between those particles or structures, their quantum fields transmit information. With a higher accuracy. 

Because amorphous materials are denser, or their particles are closer together than crystalline materials, they should be more suitable for superconductors. Than crystalline materials. If there is a possibility of making materials, there is no space between particles. Those materials can also conduct mechanical strikes. Out of their structures without damage. Theoretically, it is possible. To create this kind of “mechanical superconductivity” that makes it possible to create a material that can withstand any impacts. 

https://interestingengineering.com/innovation/nyu-gyromorphs-light-computing-breakthrough

https://scitechdaily.com/the-weird-hybrid-material-that-could-turbocharge-photonic-computing/

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

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

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

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

The new crystals can trap light.

"Rice researchers discovered that 3D light traps can trigger powerful quantum effects, enabling new ways for light and electrons to communicate and potentially revolutionizing quantum tech. Credit: SciTechDaily.com" (ScitechDaily, They Built a Crystal to Trap Light – And Found a New Kind of Quantum Link)

Crystals that can trap light inside them are exciting tools. If optical crystals will not conduct light away from inside them that rises their energy level until they explode. However, if the researchers can control the crystal's ability to transfer light away from inside them that makes it possible to use those crystals as data storage and invisibility systems. 

Those optical crystals can store light for quantum components. Or they can be used to store light and information for night-time use. In visions. Is possible to store light in the crystal. And then at the right moment aim it at the light detector. 

If researchers can control that process, it is possible to create new optical mass memories. For the right function. Optical mass memories require that the crystal can keep information in its form. If that light that carries information cannot stay in its original form that causes the loss of the data. There are small mirrors that can reflect 100% radiation that hits them. 

In those systems, light jumps between mirrors but the problem is that the system must freeze at a very low temperature. That removes oscillation from the system and helps to keep information in its form. The optical USB stick is like a miniature laser there are light jumps between those two mirrors. The laser writes data to that beam. And when the system needs to read that data another mirror will open. Then the beam transports that data into the photovoltaic cell. 

Those optical mass memories can revolutionize data security. The problem is how to control the reflection in the optical mass memory. And one of the answers can be those optical crystals. 

The optical crystal that traps light in it can also act as an invisibility system. The system can trap light in those crystals and then conduct it in the desired direction. That makes it possible to aim reflection and information out from the observer. Maybe in the future, those optical crystals can make those things. If those optical crystals can aim light into the aircraft's body that makes the aircraft look like a shadow. 

https://scitechdaily.com/they-built-a-crystal-to-trap-light-and-found-a-new-kind-of-quantum-link/

Time travels backward in time crystals.

"A novel discovery has introduced “time crystals” and “time quasicrystals,” which operate on perpetual motion and could potentially transform quantum computing and precision measurements. Credit: SciTechDaily.com" (ScitechDaily, Physicists Bend Time Inside a Diamond, Creating a Brand-New Phase of Matter)

Time crystals are material with four dimensions. That means those wobbling quantum materials have dimensions in space and time. Time crystals can store data. And then they don't need outside energy to store that information. The ability to store data without outside energy makes it possible to create things that store data in the quantum computer. Theoretically, the quantum computer can store data by trapping photons in the quantum crystals. 

Then the time crystal traps photons. Their quantum system will store data and then deliver that data sometimes later. The time crystal is also a tool that can make the quantum sensors possible. The thing that makes time crystals interesting is this. Those things can recycle energy. And that makes time crystals the quantum perpetual motion machine. The perpetual motion machine requires that the machine can recycle energy inside it. That is impossible in regular material. 

But in time crystal. A structure can recycle energy.

And that allows the outside energy can raise its energy level to an enormous level. 

The time crystal is the thing. That makes one very interesting thing possible. That thing can make time travel backward in the time crystal. That can happen if the system transfers energy to photons that are locked inside it. If the photon is the ring-shaped energy field that rotates with a very high speed that outside energy can turn the photon into the Kugelblitz black hole. 

The idea is that the photon must move all the time and that it gets as much energy as it delivers. If a photon stops it delivers all energy. That it has. And turn into wave movement. The photon can move ahead or it can turn the wheel-shaped structure that rotates around its axle, like a wheel. 

The time crystal can make the situation that the spin of those particles turns time travels backward in the time crystal. That requires very high speed in those subatomic and sub-structural particle's spin. But it's possible. Some energy bridges form the Tipler cylinder. The idea is that the energy bridge and the particle in this bridge can together form a situation where that particle can jump into the fourth dimension. 

Where the time really travels backward. That can happen in the quarks or channels that connect quarks together. 

Or the particle that is trapped in that tunnel falls to the future. If that particle is the quark of some neutron or proton that quark can transfer information from the future to the past. In that model. The fourth dimension is connected with the particle that turns into a black hole. Time dilation means that the energy level in the object is rising. The time crystal can create that kind of situation at the quantum level. 

The speed and gravity both make that time dilation. That means a particle harnesses energy from its environment. Energy drops a particle to the future if we compare it with a particle. That is in a static position. That allows it to make the 4D optics that can theoretically bring information from the future. 

https://scitechdaily.com/physicists-bend-time-inside-a-diamond-creating-a-brand-new-phase-of-matter/

The impossible crystal that can change everything about reality. (Simulation of the fourth dimension.)

Above the model of the fourth dimension is easy to make. The fourth dimension is like a ball that hovers on the surface. The energy that travels out from that object pushes the pothole to the metasurface of the present. Maybe, we see that pothole as a black hole. But then it's hard to see the fourth dimension because the material cannot directly interact with the fourth dimension. 

When we see the wave movement that comes out from the fourth dimension that wave falls to the three-dimensional universe, or to the third dimension. In that model. The energy that falls from the fourth dimension to the black hole is like a shower or waterfall that takes everything with it. In the image, the fourth dimension hovers above a black hole that hangs in the metasurface of the present. 

And the ball portrays the fourth dimension. The laser beam is particle flow that travels to the black hole. That beam presses the field in the black hole like a stick presses paper in the hole. And that thing pulls everything with it. 

The fourth dimension is one of the things that are impossible to model in the 3D world. Same way, we cannot model 3D coordinates to the 2D paper surface. Researchers made many models to simulate the 4D world in the third dimension, but those things are only shadows of that dimension. The fourth dimension can exist in our world. But, 3D material cannot interact with that thing. 

"In the illustration: A tesseract (a four-dimensional cube) and the “shadow” it casts on a plane—the quasicrystal discovered by Shechtman. According to Prof. Bartal, “The fact that a quasicrystal is a ‘shadow’ of a periodic crystal in a higher dimension is not new in itself. What we discovered is that the projection includes not only the structure but also topological properties such as vortices.” Credit: Florian Sterl, Sterltech Optics" (ScitechDaily, This “Impossible” Crystal Is Changing What We Know About Reality)

The simulation of the fourth dimension. 

"Four-dimensional space (4D) is the mathematical extension of the concept of three-dimensional space (3D). Three-dimensional space is the simplest possible abstraction of the observation that one needs only three numbers, called dimensions, to describe the sizes or locations of objects in the everyday world. For example, the volume of a rectangular box is found by measuring and multiplying its length, width, and height (often labeled x, y, and z). This concept of ordinary space is called Euclidean space because it corresponds to Euclid's geometry, which was originally abstracted from the spatial experiences of everyday life" (Wikipedia, Four-dimensional space)

Because the energy level in the fourth dimension is so high that energy can travel only one direction. And that is out of it. But the fourth dimension is very small and the wave movement that this strange thing sends is so high frequency that it looks straight. And that means it's hard to see changes in the wave movement that can leak from the fourth dimension. But the "impossible crystal" sends three echo waves. 

Higgs field model, or the "sombrero model". The particle is the energy hill inside the energy ditch. When the energy level of a particle rises the energy that falls out from the particle pushes that energy ditch lower. That energy acts as the airflow that moves over the layer. The airflow pulls energy into it. The same way in the wave movement. That takes the energy with it. The low energy area around the particle turns deeper. And we see that thing as a process. There energy rises the weight of the particle. 

That means the fourth dimension can be the thing where those three energy waves can suppress energy waves that this thing can send. The thing is that the fourth dimension is like a bubble that hovers over the metasurface of the present. The fourth dimension sends wave movement to the metasurface of the present but if that thing spins there is a possibility that the wave movement that the fourth dimension sends travels over the metasurface of the present. 

So the energy level of radiation or strings that this thing sends is so high, that this thing doesn't form echo to the hypersurface of present. In this model, we try to model the fourth dimension to 2D space. The fourth dimension is energy level there are two wave interactions between materials in that dimension and the third dimension is impossible. 

When the energy level of material and space that is the energy field starts to rise over the base energy level, called the metasurface of the present. The forming dimension is like a ball over the pillar and energy travels out from the dimension through that pillar, or nicer saying quantum channel. That energy causes the wave movement on the metasurface of the present. But then sooner or later that quantum energy channel between the fourth dimension and the third dimension, which we can also call 3D universe cuts. 

Then the fourth dimension leaves a hole or pothole in its place. And then we can use the "sombrero model" to model that thing. Every particle and space around them forms a structure that looks like a sombrero. The particle pulls energy from around it and that makes energy ditch around every particle. 

When energy travels to particles the hill in the middle of it starts to rise. And sooner or later the hill turns to a ball that rises up the third dimension. That means there is a hole under the place where the particle was. 

We can see that hole as the black hole. But then we cannot see the ball or the fourth dimension. That model is easy to make in the image above this text. But then it's hard to put into the real space. As I wrote at the beginning of this text. 

 https://scitechdaily.com/this-impossible-crystal-is-changing-what-we-know-about-reality/

https://en.wikipedia.org/wiki/Four-dimensional_space

The new technology requires new computing tools.

"Artist’s impression of electrically driven amorphization in In2Se3, a layered semiconducting ferroelectric material. The middle layer is slipped by the carrier-wind force, and the lightning bolts indicate electrical spikes from piezoelectricity-induced mechanical shocks, which amorphize the material. Credit: Akanksha Jain" (ScitechDaily, Shocking New Memory Tech: Crystal-to-Glass Transformation Using a Billion Times Less Energy)

Things like plastics and crystal-glass hybrid systems can revolutionize computing. The self-assembling molecules can store data and transfer it to the neurons or very small computers. Those systems can be used to transport information into the neurons. And that thing makes it possible to fix the neural damage. 

The ability to transport information to neurons is the thing, that can make the bio-hybrid computers possible. In those computers, the system includes a regular microchip that interacts with living neurons. The self-assembling molecules make it possible for those systems can transfer in the places where regular microchips cannot operate. The self-assembling molecules can transport the chemical marks to the tumors. And mark them to the immune cells. 

Flexible molecules make it possible to create soft memory units. Those memory units are suitable for wearable technology. Similar molecules can also used in room-temperature quantum computers. The ability to use plastic as data storage makes it possible to create flexible and soft computers that are thinner than ever before. The flexible plastic hard disks can be less vulnerable to strikes than regular hard disks. And that can be the route to the computers that we can roll like papers. 

Images: 

1) This illustration shows a future vision of assemblies of molecules formed by peptides and miniature molecular segments from a plastic material to create ferroelectric structures that switch polarity to store digital information or signal neurons. Credit: Mark Seniw/Center for Regenerative Medicine/Northwestern University (ScitechDaily, Move Over Plastics: Revolutionary Soft, Sustainable Material Set To Transform Medical Devices and Wearable Tech)

2) Researchers have developed a novel method for storing data in synthetic polymer chains that surpasses the limitations of traditional mass spectrometry, allowing for direct access to specific data bits without needing to decode entire chains. Credit: SciTechDaily.com (ScitechDaily, Could Data Be Stored in Plastic? Here’s How It Works)

3) University of Toronto researchers found that neural crest stem cells, located in the skin and other body areas, are responsible for reprogrammed neurons, challenging the belief that any mature cell can be reprogrammed. Instead, they propose only rare, specific stem cells can transform into different cell types, offering a new path in stem cell therapy. (ScitechDaily, Unusual Stem Cell Discovery Challenges Longstanding Cellular Reprogramming Theories)

4) The spliceosome is a large and complex molecular machine within the cell that removes introns from pre-messenger RNA (pre-mRNA), allowing for the proper assembly of protein-coding sequences, or exons. This essential process of RNA splicing enables the accurate translation of genetic information, facilitating the diversity and functionality of proteins in eukaryotic organisms. (ScitechDaily, “Astonishing” – Scientists Unveil First Blueprint of the Most Complex Molecular Machine in Human Biology)

The flexible and soft microchips and hard disks can make it possible to create computers. That can act like paper. 

The system can use a flexible LED screen where nano-LEDs make the tri-color image. Or the user can use HUD glasses. That means the holo-lens-type screens. They can act as VR tools. Or the user can shut down other glass. 

In that model, the other eye is free to look at what happens around. The system can also use screens that are similar to mobile telephone screens. Those screens can be put in the front of eyes. It can hang in plastic bandannas.

Developers can the peptide and miniature molecular segments with nano-size glass and crystals. Those systems are suitable for the nanotechnical computers. The crystal and glass combination can make it possible to create low-energy data storage. 

The crystal-to-glass transformation is the memory solution that uses a billion times less energy. That thing can make it possible to create data storage for the microchips that can control cells and other biorobots. Those biorobots can be cells that can create wanted DNA bites. The DNA is the tool that can control biorobots. The biorobot can be a microchip-controlled cell. 

The microchip makes it travel in the right position, and then the DNA will start to operate. In some biorobot versions. The microchip releases the functional DNA. 

When the manipulated cell is in the right position. The nanomachine can be the cell that acts like a harpoon cells. The harpoon cell can destroy the targeted cancer cells using the enzyme or protein fiber that it shoots through the targeted cell's shell. 

https://scitechdaily.com/astonishing-scientists-unveil-first-blueprint-of-the-most-complex-molecular-machine-in-human-biology/

https://scitechdaily.com/could-data-be-stored-in-plastic-heres-how-it-works/

https://scitechdaily.com/move-over-plastics-revolutionary-soft-sustainable-material-set-to-transform-medical-devices-and-wearable-tech/

https://scitechdaily.com/shocking-new-memory-tech-crystal-to-glass-transformation-using-a-billion-times-less-energy/

https://scitechdaily.com/unusual-stem-cell-discovery-challenges-longstanding-cellular-reprogramming-theories/

Silicone-based life-forms and stoned gods

Image I

Silicone-based life-forms and stoned gods

Prolog: The Crystal Skulls: are those creaturs results of some chemical experiment, where carbon is replaced by silicone?

Is the famous crystal skull what is found in the British Museum (ID Am1898C3.1) result of some kind of chemical experiment? In this theory, chemists have tried to replace the carbon from bones by silicone. This kind of thing would explain, why there is no evidence of the high-speed instruments. 

There is a strange object in the British Museum. That thing is known as the crystal skull. There is a theory, that this strange skull has been being the skull of ordinary man, and then some scientists have tested the chemical reaction, where the carbon could replace by the silicone. So is that creature result of some kind of chemical test. There is a couple of similar skulls in the world, but the crystal skull in the British Museum is the most well known of this kind of strange creature. This creature is made by mountain quartz, which is known as silicon oxide. 

There is one strange thing, and that is connected to the hypothesis and models of the silicon-based lifeforms, and what it can look like and how it could act. The silicon would oxygenize to the silicon oxide, which is normally called the quartz. This means that if we would have the human-looking silicon-based lifeforms, that creature would be stoned, and in this case, the skull of that mythic thing would turn to crystal skull. But this kind of thing is the only hypothesis about things, which have no physical evidence. 

The hypothetical silicone-based lifeforms

The thing that makes silicon-based lifeform interesting in the point of view of the SETI-program is that this lifeform could not live on Earth at all. They would be frozen immediately when they would face oxygen and the metabolism of those creatures would need extremely intense heat. 

But the thing is that if we could contact with that kind of intelligent lifeform, it can start communication and change of science and culture between our civilization and that hypothetical silicone-based civilization. Sometimes there has been introduced a silly idea that the lifeform, what might be the silicone-based could look like us, and some statues, what are looking like people could be frozen silicone-based aliens. 

That kind of things are fascinating, and of course, the art, where is the devil himself has been portrayed near the fire, and the hell is described as the hot place has caused the hypothesis, that this creature, what has the bat's wings and bad will could be a silicone-based alien. Or actually, the idea of silicone-based lifeforms has been "stolen" from the images, where the winged creature is sitting at the front of the fire. 

But as we know, the thing is that imagination is one of the best tools, what mankind has. It means the ability to think about abstract things and make those imaginations something than we ever thought before. When we are thinking about the stories of the "stoned kings and gods", we have also created the idea, that is it possible to communicate with that kind of "stoned god"? The idea is that we would connect the EEG machine to the stoned creature, and then use the computer to communicate with that thing. But we don't know, where to find those creatures, and officially there are not single silicone-based humanoids in the museums.

Image I

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