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IBM say that they have simulated a cat\’s cerebral cortex, the thinking part of the brain, using a massive supercomputer. The computer has 147,456 processors (most modern PCs have just one or two processors) and 144 terabytes of main memory – 100,000 times as much as your computer has. The researchers created a program that told the supercomputer, which is in the Lawrence Livermore National Laboratory, to behave how a brain is believed to behave. The computer was shown images of corporate logos, including IBM\’s, and the scientists watched that different parts of the simulated brain worked together to figure out what the image was.
But what is required is an artificial coded helium laser biostimulation to compare the brain power based on boson-fermion gas stimulation of opposing and attractive quadrapole solar magnetic field merger and and further stimulations.Even ESP powers that could be induced in thinking computersResearchers at Stanford University and Lawrence Berkeley National Laboratory were also part of the project.
But what is required is an artificial coded helium laser biostimulation to compare the brain power based on boson-fermion gas stimulation of opposing and attractive quadrapole solar magnetic field merger and and further stimulations.Even ESP powers that could be induced in thinking computers.
Anna –oxford-cape Institute of technology research unit have evaluated Magnetism Governs Properties of variable Iron-Based Superconductors in rubidium-xenon structures under lasing: Thinking computer
Anna –oxford-cape Institute of technology research unit have evaluated Magnetism Governs Properties of variable Iron-Based Superconductors in rubidium-xenon structures under lasing:
In the interaction of matter with laser pulses, fundamental aspects like the quantum nature, relativity and couplings among the involved particles have become key issues and substantial challenges for the theoretical investigations of those interactions. In this section various efforts are put forward to understand in more detail the quantum mechanical interplay of all constituents of atomic, ionic and molecular systems in such laser fields. The quantum nature requires in general the solution of the electronic wave packet dynamics via the Schrödinger or Dirac equation and in many cases also the quantization of the environmental vacuum. In addition to the intuitive understanding of the processes in the laser pulses we equally aim to optimize various applications such as cooling or accelerating particles or generating coherent high-frequency light or new particles.
The momentum of a photon as well as its energy is directly proportional to its frequency and inversely proportional to its wavelength. For example, a 1 electron volt energy optical light photon will have 1 million times the wavelength as a photon with an energy of 1 million electron volts such as a gamma ray photon. Note that solar sails and beam sails would take the advantage of the momentum possessed by photons or particles of light. These photons or electromagnetic energy waves would either be absorbed and/or reflected from a large area, very low surface mass density, sail whereby the impinging photon stream would push the sail in a manner similar to that of the wind pushing on the wind sails of ships in centuries past and on the wind sails of modern pleasure craft and racing yachts.The H type dynamicsof ‘Uranus” could be utilised based of frequency shifts or by dampness shifts.The root locus diagram is simply acting along H type configuration in which positive and negative dampness play the role of momentum.The Mercury surface momentum involves the pi type in which only frequency is shifted.
Their first application was in realising bizarre optical properties that were first postulated in 1968 by the Russian physicist Victor Veselago . He had been studying the laws that describe light and other electromagnetic radiation which were laid down in the 19th century by the great Scottish mathematical physicist James Clerk Maxwell. Veselago wondered what would happen if two of the constants in Maxwell’s equations were flipped from positive to negative.

The dance of the electronsThings are visible because of the way that their atoms interact with a beam of light. When the beam, an electromagnetic wave, hits an atom on this page the electrons in the lowest energy state of the atom absorb the wave’s energy and rise to higher energy levels. Only light of exactly the right colour, the one that corresponds to the energy difference between the two levels, will be absorbed ? all other colours pass through
They put down single layers of atoms, one at a time, to create specially patterned crystal wafers only a few billionths of a metre deep. These two-dimensional sandwiches, dubbed nanostructures, behave like “artificial atoms”: within them, electrons rattle around in energy levels that are customised to respond in a predictable way to laser light.
In this way, we could exploit an effect predicted by quantum mechanics, the baffling theory that rules the atomic domain: an electron can be prevented from absorbing a particle of laser light and jumping to a higher energy level if a second laser beam is used to link or “couple” the two energy levels to a third one.
We could be made with a negative refractive index ? a measure of the ability to warp light ? so that light entering them bends in the opposite direction to light passing through normal materials. This discovery has many practical uses; for example, light beams can be focused as small as the features on microchips, making electronics faster and smarter.
Though a year has passed since the discovery of a new family of high-temperature superconductors, a viable explanation for the iron-based materials’ unusual talent remains elusive. But a team of scientists working at the National Institute of Standards and Technology (NIST) may be close to the answer.
The team has found strong evidence that magnetism is a pivotal factor governing the physical properties of iron pnictides, a group of materials that conduct electricity without resistance at temperatures of up to 56 kelvin (-217 degrees celsius). Iron pnictides are composed of regularly spaced layers of iron sandwiched between other substances. And although -217 might sound pretty cold, they are the first class of materials found to superconduct at that high a temperature since the discovery of copper-based superconductors more than two decades ago.
The team’s evidence shows that without taking magnetism into account, theoretical calculations of iron pnictides’ inner structure do not line up with actual lab measurements. Factor in magnetism, though, and these discrepancies vanish—a decisive difference that, according to theorist Taner Yildirim, could imply that magnetism is also key to iron pnictide superconductivity.
“Without considering magnetism, for example, the calculated distance between iron layers—a distance that has been thoroughly measured—comes out to be wrong,” says Yildirim, of NIST’s Center for Neutron Research. “However, provided that we consider magnetic spin in our calculations, we can explain almost all of the iron pnictides’ structural and dynamic properties.”
Yildirim gave an invited talk* at the March meeting of the American Physical Society, where he presented theoretical evidence demonstrating how magnetism controls basic aspects of iron pnictides as the position of the atoms, the materials’ phase transition i.e. the sudden changes in the structure with temperature, and—probably, Yildirim says—their superconducting properties.
“Determining the mechanism of superconductivity in iron pnictide systems is very important in solving the long-standing mystery of the high temperature superconductor phenomena in general,” Yildirim said. “Once we have such an understanding of this strange phenomenon, we can then make predictions and design new materials with even higher superconductivity temperatures.”
Hall Effect Thrusters rely on the acceleration of Xenon or Bismuth ions down a cylindrical anode to a cathode composed of a plasma. The electrical charge due to the Xenon or Bismuth ions is neutralized as these ions pass into the cathode with the result that the net cancellation of the electrical charge coupled with the kinetic energy of the accelerated reaction mass produces a net massive particle stream away from the rocket thereby resulting in a net momentum gain and thus a net velocity gain by the space craft.
Hall Effect Thrusters have a member that produces a radial magnetic field that is set up between the member and the surrounding acceleration tube. Due to the relatively large mass of the ions, the ions are effected only slightly by the magnetic field. The electrons produced near the end of the element are far more effected by the magnetic field and are thus held in place thus resulting in the creation of the cathode. The Hall Effect current is caused by a portion of the electrons spiraling down towards the anode wherein these electrons collide with the Xenon or Bismuth -rubidium gas mixture in order to produce propulsion momentum in the ions.
A pair of laser beams (red arrows) impinges upon an ultracold gas cloud of rubidum atoms (green oval) to create synthetic magnetic fields (labeled Beff). (Inset) The beams, combined with an external magnetic field (not shown) cause the atoms to “feel” a rotational force; the swirling atoms create vortices in the microchips do the 4d manipulation of microchips.
Now the xenon-rubidium-bismuth combinations by hall’s quantization will have effective modulations in differentiating the magnetic field as evaluated by Sankara Velayudhan Nandakumar special officer on behalf of Loyola college nano technology dept Cape Institute of Technology,Nagercoil formerly with ,KNSK Engineering college ,Nagercoil as research scholar,Anna University with Hubble space research committee of Hon.Roger Davies,Hon.Collin Webbs FRS of Laser dn of Oxford uk,Hon.Marteen Rees ,Emeritus Professor of cosmology Cambridge ,former president of Royal society, London
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Subject: Anna –oxford-cape Institute of technology r esearch unit have evaluated Magnetism Governs Properties of variable Iron-Based Supercondu ctors in rubidium-xenon structures under lasi ng: [Incident: 100608-000119]

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