ISRAELI ZIONIST JEWS AND ZIONISM'S ULTIMATE ENDGAME IS CREATING A
GREATER ISRAEL FROM NUCLEAR WORLD WAR 3 BY STRIKING IRAN
---------------- http://www.thetruthseeker.co.uk/?p=37766
---------------- Why World War III: Destroy The Global Economy, Create A
Greater Israel, And Establish A Global Authoritarian Government.
Damian
Lataan says Israel's political elite wants to establish a Greater
Israel and destroy the Palestinian nationalist movement. In his article,
"The U.S. And Israel's 'Obsession' With Iran -- The Real Reasons,"
Lataan writes:
"Israel's real obsession is the creation of a
Greater Israel and the destruction of those that prevent Israel's
expansionist dreams; Hamas in the Gaza Strip and Hezbollah in Lebanon,
both of whom are supported by Iran.
The stated casus belli for
any Israeli/US attack on Iran will be that Iran is building a nuclear
weapon with which it intends to 'wipe Israel off the map'. The 'Iran has
a nuclear weapons program' and the 'wipe Israel off the map' are two
memes that have gone hand in hand in the propaganda and rhetoric of
Israel's Zionists and their neoconservative allies in the US and,
indeed, around the world for years."
The problem with Israel's
expansionist plans is that millions of Lebanese and Palestinians are
sitting on the land that Israel wants to grab for itself.
What a pity. All that land, and no Israelis on it! Something must be done.
To achieve a "Greater Israel," the maniacs in Israel repeat these lies to the world:
Iran is threatening to wipe us off the map. They are savages and terrorists. They cannot be trusted with a nuclear bomb.
Iran
is building a nuclear bomb and it will use it against us. Please, help
us. Please, America. Please, Europe. Do not forsake us like you did in
1939. Please, help us. We are alone and scared, and we cannot defend
ourselves. We love peace and never started a war. We don't understand
these savages who are around us. Please, help us.
9/11 was done by
religious fanatics and Muslim extremists who threaten Western
Civilization. We in Israel are on the frontlines in this struggle
against international terrorism. We are fighting heroically to defend
the values of the Western world.
We are innocent. We are victims. We
are good. We are not barbarians like them. We do not fight for land, and
water, and power, and wealth. Anyone who says otherwise is
anti-Semitic! An extremist! A racist! A terrorist! A Nazi sympathizer!
Israeli
state deception, the Neocon dogs, and the Zionists' control of a large
portion of the Western media has given Israel an advantage that
history's greatest barbaric and lawbreaking nations have lacked: good
PR.
There is nothing like reputation in this world. It can save or ruin nations, and turn individuals into gods or monsters.
The
new world order fascist elite and the war criminals in Israel know
their reputation is sinking. Nobody believes their lies anymore.
Both sides want to attack Iran and start World War III for different reasons, none of them justifiable by law or morality.
War without provocation, war for land and power, is barbaric and indefensible.
Electrons corralled using new quantum tool
“Whispering gallery” effect confines electrons, could provide basis for new electron-optics devices.
David L. Chandler | MIT News Office
May 7, 2015
May 7, 2015
Researchers
have succeeded in creating a new “whispering gallery” effect for
electrons in a sheet of graphene — making it possible to precisely
control a region that reflects electrons within the material. They say
the accomplishment could provide a basic building block for new kinds of
electronic lenses, as well as quantum-based devices that combine
electronics and optics.
The new system uses a needle-like probe that forms the basis of present-day scanning tunneling microscopes (STM), enabling control of both the location and the size of the reflecting region within graphene — a two-dimensional form of carbon that is just one atom thick.
The new finding is described in a paper appearing in the journal Science, co-authored by MIT professor of physics Leonid Levitov and researchers at the National Institute of Standards and Technology (NIST), the University of Maryland, Imperial College London, and the National Institute for Materials Science (NIMS) in Tsukuba, Japan.
When the sharp tip of the STM is poised over a sheet of graphene, it produces a circular barrier on the sheet that “acts as a perfect curved mirror” for electrons, Levitov says, reflecting them along the curved surface until they begin to interfere with themselves. This controllable reflectivity and interference is similar, he adds, to so-called “whispering gallery” confinement modes that have been used in optical and acoustic systems — but these have not been tunable or adjustable.
“In optics, whispering gallery resonators are known and useful,” Levitov says. “They provide high-quality cavities that find applications in sensing, spectroscopy, and communications. But the usual problem in optics is they’re not tunable.” Similarly, previous attempts to create quantum “corrals” for electrons have used atoms precisely positioned on a surface, which cannot be reconfigured easily.
The confinement in this case is produced by the boundary between two different regions on the graphene surface, corresponding to the “p” and “n” regions in a transistor. In this case, a circular region just beneath the STM tip takes on one polarity, and the surrounding region the opposite polarity, creating a controllable circular junction between the two regions. Electrons inside sheets of graphene behave like particles of light; in this case, the circular junction acts as a curved mirror that can focus and control the electrons.
It’s too early to predict what specific uses might be found for this phenomenon, Levitov says, but adds, “Any resonator can be used for a variety of things.”
This electron resonator combines several good features. There’s clearly something special about having tunability and also high quality at the same time.”
Philip Kim, a professor of physics at Harvard University who was not connected with this research, says it is “a very notable example of demonstrating novel electronic properties of graphene.” He adds, “Electrons in graphene behave like photons confined in a two-dimensional atomic sheet. This work unambiguously demonstrates that electrons confined in the potential created by scanning probe microscope exhibit a wave like resonance behavior, known as whispering gallery mode.”
Because the new system is based on well-established STM technology, it could be developed relatively quickly into usable devices, Levitov suggests. And conveniently, the STM not only creates the whispering gallery effect, but also provides a means of observing the results, to study the phenomenon. “The tip does double-duty in this case,” he says.
This could be a step toward the creation of electronic lenses, Levitov says — “a concept that intrigues graphene researchers.” In principle, these could provide a way of observing objects one-thousandth the size of those visible using light waves.
Electronic lenses would represent a fundamentally different approach from existing electron microscopes, which bombard a surface with high-energy beams of electrons, obliterating any subtle effects within the objects being observed. Electron lenses, by contrast, would be able to observe the ambient low-energy electrons within the object itself.
An appealing feature of the setup developed in NIST is that the boundary between the two surface regions, which can serve as a lens, is movable, since it is carried along with the STM tip when it is scanning the surface. This could make it possible to study “subtle things about how charge carriers behave at a microscopic level, that you can’t see from the outside,” Levitov says.
The new work by Levitov and his colleagues provides one piece of such a system — and potentially of other advanced electro-optical systems, he says, such as negative-refraction materials that have been proposed as a kind of “invisibility cloak.” The new whispering-gallery mode for electrons is part of a toolbox that could lead to a whole family of new quantum-based electron-optics devices. It could also be used for high-fidelity sensing, since such resonators “can be used to enhance your sensitivity to very small signals,” Levitov says.
Harvard’s Kim says that this work “is an important step toward building novel electronic applications, based on the unique relativistic quantum-mechanical behavior of electrons in graphene.”
The research team also included graduate student Joaquin Rodriguez-Nieva from MIT; Yue Zhao, Jonathan Wyrick, Fabian Natterer, Nikolai Zhitenev, and Joseph Stroscio from NIST; Cyprian Lewandowski from Imperial College London; and Kenji Watanabe and Takashi Taniguchi from NIMS.
The new system uses a needle-like probe that forms the basis of present-day scanning tunneling microscopes (STM), enabling control of both the location and the size of the reflecting region within graphene — a two-dimensional form of carbon that is just one atom thick.
The new finding is described in a paper appearing in the journal Science, co-authored by MIT professor of physics Leonid Levitov and researchers at the National Institute of Standards and Technology (NIST), the University of Maryland, Imperial College London, and the National Institute for Materials Science (NIMS) in Tsukuba, Japan.
When the sharp tip of the STM is poised over a sheet of graphene, it produces a circular barrier on the sheet that “acts as a perfect curved mirror” for electrons, Levitov says, reflecting them along the curved surface until they begin to interfere with themselves. This controllable reflectivity and interference is similar, he adds, to so-called “whispering gallery” confinement modes that have been used in optical and acoustic systems — but these have not been tunable or adjustable.
“In optics, whispering gallery resonators are known and useful,” Levitov says. “They provide high-quality cavities that find applications in sensing, spectroscopy, and communications. But the usual problem in optics is they’re not tunable.” Similarly, previous attempts to create quantum “corrals” for electrons have used atoms precisely positioned on a surface, which cannot be reconfigured easily.
The confinement in this case is produced by the boundary between two different regions on the graphene surface, corresponding to the “p” and “n” regions in a transistor. In this case, a circular region just beneath the STM tip takes on one polarity, and the surrounding region the opposite polarity, creating a controllable circular junction between the two regions. Electrons inside sheets of graphene behave like particles of light; in this case, the circular junction acts as a curved mirror that can focus and control the electrons.
It’s too early to predict what specific uses might be found for this phenomenon, Levitov says, but adds, “Any resonator can be used for a variety of things.”
This electron resonator combines several good features. There’s clearly something special about having tunability and also high quality at the same time.”
Philip Kim, a professor of physics at Harvard University who was not connected with this research, says it is “a very notable example of demonstrating novel electronic properties of graphene.” He adds, “Electrons in graphene behave like photons confined in a two-dimensional atomic sheet. This work unambiguously demonstrates that electrons confined in the potential created by scanning probe microscope exhibit a wave like resonance behavior, known as whispering gallery mode.”
Because the new system is based on well-established STM technology, it could be developed relatively quickly into usable devices, Levitov suggests. And conveniently, the STM not only creates the whispering gallery effect, but also provides a means of observing the results, to study the phenomenon. “The tip does double-duty in this case,” he says.
This could be a step toward the creation of electronic lenses, Levitov says — “a concept that intrigues graphene researchers.” In principle, these could provide a way of observing objects one-thousandth the size of those visible using light waves.
Electronic lenses would represent a fundamentally different approach from existing electron microscopes, which bombard a surface with high-energy beams of electrons, obliterating any subtle effects within the objects being observed. Electron lenses, by contrast, would be able to observe the ambient low-energy electrons within the object itself.
An appealing feature of the setup developed in NIST is that the boundary between the two surface regions, which can serve as a lens, is movable, since it is carried along with the STM tip when it is scanning the surface. This could make it possible to study “subtle things about how charge carriers behave at a microscopic level, that you can’t see from the outside,” Levitov says.
The new work by Levitov and his colleagues provides one piece of such a system — and potentially of other advanced electro-optical systems, he says, such as negative-refraction materials that have been proposed as a kind of “invisibility cloak.” The new whispering-gallery mode for electrons is part of a toolbox that could lead to a whole family of new quantum-based electron-optics devices. It could also be used for high-fidelity sensing, since such resonators “can be used to enhance your sensitivity to very small signals,” Levitov says.
Harvard’s Kim says that this work “is an important step toward building novel electronic applications, based on the unique relativistic quantum-mechanical behavior of electrons in graphene.”
The research team also included graduate student Joaquin Rodriguez-Nieva from MIT; Yue Zhao, Jonathan Wyrick, Fabian Natterer, Nikolai Zhitenev, and Joseph Stroscio from NIST; Cyprian Lewandowski from Imperial College London; and Kenji Watanabe and Takashi Taniguchi from NIMS.
