Quantum computers use quantum processors, such as neutrons, electrons, and / or atoms, rather than integrated circuits and transistors such as the classical processor. Two of the most insane and magical properties of these particles are:
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• First, after some interaction, they are in some way “continuously” connected with the other particles. For example, when the rotation of one particle is measured “upwards”, the other particle, at a very far distance, is in the “down” state in the instant (ie, the speed of light). Large clusters of intertwined particles (if present in the brain) can therefore move in a “coordinated” or coordinated way over long distances.
• Second, they are at the top of the list of states before any measure. For example, an electron may be in two different energy levels or it may be rotating up and down at the same time. When measured, however, they become at a certain level of force or direction of rotation – we “fall” to a certain state. When using classical processors, we assign a certain “1” or “0” to a few. In the Quantum Processor, you can set “1” to spin-down mode and “0” to the electronic spin mode. But until we measure the realm, it will be “1” and “0” at the same time – just as a spinning coin will not be a “head” or a “tail”. Thus, a quantum bit or “quit” can represent “1” and “0” at the same time, unlike the classical processor “bit” which can only represent “1” or “0” at the same time. Bit is binary and dot-like but Qubit is “space-like” and “blurred”; This allows you to use the superpowers property to create a lot more information in parallel. “Bit” represents 1 or 0 at a time, but “Qbit” can represent both at the same time.1
Different physical properties of primary particles can be classified as “1s” and “0s”. For example, we can use the atomic nucleus, different energy levels electrons, and even light particles or photon polarization planes to rotate up or down.
Quantum calculation using phosphorus atoms
A.D. In 2013, a team of Australian engineers from the University of New South Wales developed the first working quantum bit based on the rotation of a phosphor atom, with zero non-magnetic atoms. In a paper published in the journal Rotation Nature, they recorded the highest accuracy by using quantum data to write and read quantum data. 2
The nucleus of a phosphor atom has a very weak magnetic field and a low ቁጥር spin rate (which means it is less sensitive to electrical and magnetic fields) and can be said to be resistant to local magnetic noise or electrical interference. The zero-spinning silicon atoms around it are “shielded” from noise. As a result, the nuclear cycle has a long-term bond, which allows data to be stored for a longer period of time, resulting in greater accuracy.
“The core of a phosphor atom contains a nuclear vortex, which can serve as a good memory cube, thanks to the very weak sensitivity of the surrounding environment.”
Andrew Zurak, Report on UNSW Team Work, 3
A.D. In 2014, another team (this time the Dutch-US Alliance) used phosphorus atoms to achieve 99.99% more accuracy in quantum calculations and longer than 35 seconds. 4,5
Quantum computers in our heads?
What does all of this have to do with our brains? In quantum biology, there are many examples of the quantum mechanism of suspicion. For example, there is evidence that birds use the quantum processes in the retina to travel around the world, and that photosynthesis will continue to be achieved by achieving long-term consistent quantum domination. It has also been observed that human sense of smell and some aspects of human vision require a quantum process. Therefore, it is not surprising that we find quantum mechanisms in the human mind.
One of the earliest known hypotheses was presented by renowned physicist Roger Penroz and anesthesiologist Stuart Hammerroff. Quantum synthesis is thought to occur in the neurons of neurons.6 However, many scientists are skeptical that the brain is considered a hot, humid, and noisy environment; This usually occurs in very isolated areas and in quantum temperatures in cold climates. Being inaccessible. Neither Penros nor Hammerrow responded satisfactorily to this critique of the theory. However, recent breakthroughs have been made, and research teams around the world are accelerating to extend collaborative time at room temperature with some success.
Fishing Land-Breaking Ideas
Recently, in 2015, Matthew Fisher, a physicist at the University of California, developed a model for the use of nuclei in the form of nuclei in phosphorus atoms. This model is similar to the one described in the previous section on laboratory layout; The difference is that phosphorus is applied to the human brain, where it is abundant.9
“Instead of being smart robots designing and building quantum computers, can we be quantum computers ourselves?”
Matthew Fisher, 10
Fisher strongly argues that the core rotation of phosphorus atoms can be adequately isolated (by the surrounding shield of electrons and zero spin atoms) and that it is “scattered” by quantum noise. Weak magnetic field (due to its low rotation number), thus maintaining the quantum bond. (The laboratory studies and experimental results described in the previous section confirm this fact.) Thus, in areas where the electric field is most abundant, such as in the brain, the nucleus of the phosphorus is in a sufficiently neutral environment.
The process begins in the cell with a chemical compound called pyrophosphate. It is made up of two phosphate compounds – each phosphorus atom is surrounded by several oxygen atoms at zero rotation (same as in the laboratory study above, the phosphorus atom is stored in zero spin in silicon atoms). The interaction between the phosphatase ions makes them stick. One of the structures created is zero rotation or extreme interference. The enzymes then divide the combined phosphate into two free phosphate ions, which continue to be captured as they move. As shown below, these combined phosphates combine into calcium ions and oxygen atoms to form posterior molecules.
These clusters provide an additional “shield” for the abducted couple to maintain the connection between the long distances in the brain for a longer period of time without external interference. Fisher estimates that these molecules’ alignment is incredibly 105 seconds long – 12 days.
Although Fisher does not seem to describe in detail what will happen next – it is important if we want to get an overview – this author tries to do just that. Phosphorus atoms (composed of polymer molecules) are distributed throughout the brain. For some time before they fall, they will be in a great storm. When a failure occurs, the electrons in the atom react. Electrons determine the chemical properties of atoms. Falling, therefore, alters the chemical properties of phosphorus atoms, which in turn sends neurons that carry many chemical reactions into the neurons. Electrochemical Signs The train blends and creates awareness, based on a person’s life experience.
This solves the long-standing question in neuroscience that has puzzled scientists: How can the brain integrate information from different parts of the brain to create integrated cognition? Probably the answer lies in the simultaneous collapse of the phosphorus atoms in the various layers and parts of the brain bound by the Fisher’s method.
The most obvious limitation is that Fisher’s ideas have not yet been thoroughly investigated, although some aspects (e.g., longer phosphorus atoms) have already been tested in a laboratory. But there is a plan. The first test is to see if the posterior molecules are present in and outside the cellular fluid. Fisher proposed to experiment in the laboratory by binding the phosphorus nuclear reactors, inducing chemical reactions and pouring the solution into two test tubes and looking for quantum bonds in the specified light.12
Roger Penroz believes Fisher’s method only helps to explain long-term memory but may not be sufficient to explain consciousness. So far, though, most scientists are skeptical. It would be interesting if the Posner molecules (along with the pairs of particles) are present in these microtubules – then both Fisher and Penroz-Hammerf hypotheses are at least partially correct. (Everyone loves a happy ending!)
1. Quantum computing has been shown in the laboratory to produce highly accurate and long bonding time with isolated and protected phosphorus atoms.
2. Phosphorus is abundant in the brain.
3. The human brain (and perhaps the minds of other animals) can use phosphorus atoms to perform nuclear rotation quantum computing.
1. Illustrated Zhang, J (2019, September 28). What makes quantum computing unique? Medium.com
2. Pla, J., Tan, K, Deholine, J., Lim, W, Morton, J. High-fidelity reading and control of nuclear rotation cubic in silicon. Nature, 496 (7445), 334-338.
3. Dzurak, A. (2014, October 15). Silicon cubits may be the key to the quantum revolution, Cytech Daily.
4. Moohen, J., Deholine, J., and Morello, A. (2014). Saving quantum data in nanoelectronics for 30 seconds. Nature Nanotechnology, 9 (12), 986-991.
5. Weldorst, M., Huang, J., Young, C., Lindra, A., de Ronde, B., Deholine, J. A., and Duzurak, A.D. (2014) Reachable Quantum Point Cube with Error-Patient Control-Loyalty. Nature Nanotechnology, 9 (12), 981-985.
6. Hameroff, S., and Penroz, R. (2014). Consciousness in the universe. Life Physics Reviews, 11 (1), 39-78.
7. Herbsheleb, E., Kato, H., Maruyama, P., Danjo, T., Makino, T., Yamasaki, S., Oki, I., Hayashi, K., Mauritius, H., Fujiwara, M. ., & Mizuochi, N. (2019). Extremely long interval between room-temperature solid-state rotations. Nature Relationships, 10 (1), 3766.
8. Miyao, K., Blanton, J., Anderson, C., Burasa, A., Crook, A., Volfovich, G., Abe, H., Oshima, T., and Auschalom, D. (2020). Universal bond protection in solid-state vortex. Science, eabc5186.
9. Fisher, MPA (2015). Quantum Awareness is the opportunity to integrate the nuclear cycle in the brain. Physics Reports, 362, 593-602.
10. Fernandes, S. (2018, Mar 27) Are we quantum computers? Current (Science + Technology).
11. Swift, M., Van de Wale, C., and Fisher, M. (2018). Posner molecules from the atomic structure to the nuclear rotation. Physical Chemistry Chemical Physics, 20 (18), 12373-12380.
12. Brooks, m. (2015, December 15). Is quantum physics behind your brain? New Scientist.