The discovery - which is already being used by NASA scientists in Space - has major implications for global warming research, breath analysis (to detect illness), explosives detection, chemical process monitoring and a range of other applications, including fundamental quantum theory.
UWA physics graduate Gar-Wing Truong used highly-sensitive rapid laser scanning technology to help lead US scientists from National Institute of Standards and Technology (NIST) in Maryland to build new gas measurement equipment with unparalleled speed, accuracy, precision and spectral coverage.
NASA's Jet Propulsion Laboratory in California has begun using data from Mr Truong's research to calibrate carbon monitoring satellites in orbit around Earth and better understand carbon dioxide molecules.
University of Western Australia:
High-speed discovery helps measure greenhouse gases from space.
Dark matter...dark energy...dark lightning...dark flow: I feel somewhat like a Sith Lord...
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| Credit: Nature |
National Geographic: New Proof Unknown "Structures" Tug at Our Universe
New Scientist: Blow for 'dark flow' in Planck's new view of the cosmos
Max Planck Institute: Light bursts out of a flying mirror
Orlando Sentinel:
Kiera Wilmot, student who caused small explosion won't face charges
Note: I reproduced the text verbatim, but I think that General Theory - i.e., gravitational lensing - is probably how the planet was discovered, and it is not a new or unique method. RG
Space.com: 'Einstein's Planet': New Alien World Revealed by Relativity
by Clara Moskowitz, SPACE.com Assistant Managing Editor
Fool Me Twice: Fighting The Assault on Science in America, Shawn Lawrence Otto
"Example isn't another way to teach, it is the only way to teach."
"Wisdom is not a product of schooling but of the life-long attempt to acquire it."
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| View of the main solenoid of the CMS detector at CERN: is new physics lurking in the vast amounts of data acquired by the experiment? (Courtesy: CERN/Samuel Morier-Genoud) |
Physics World: Higgs hunters look beyond the Standard Model
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| Lorenz Attractor - the never-repeating trajectory of a single chaotic orbit, figure 2 (see link) |
At the time, most meteorologists predicted weather using linear procedures, which were based on the premise that tomorrow’s weather is a well-defined linear combination of features of today’s weather. By contrast, an emerging school of dynamic meteorologists believed that weather could be more accurately predicted by simulating the fluid dynamical equations underlying atmospheric flows. Lorenz, who had just purchased his first computer, a Royal McBee LGP-30 with an internal memory of 4096 32-bit words, decided to compare the two approaches by pitting the linear procedures against a simplified 12-variable dynamical model. (Lorenz’s computer, though a thousand times faster than his desk calculator, was still a million times slower than a current laptop.)
In classical physics, one is taught that given the initial state of a system, all of its future states can be calculated. In the celebrated words of Pierre Simon Laplace, “An intelligence which could comprehend all the forces by which nature is animated and the respective situation of the beings who compose it—an intelligence sufficiently vast to submit these data to analysis . . . for it, nothing would be uncertain and the future, as the past, would be present to its eyes.”1 Or, put another way, the clockwork universe holds true.
Herein lies the rub: Exact knowledge of a real-world initial state is never possible—the adviser can always demand a few more digits of experimental precision from the student, but the result will never be exact. Still, until the 19th century, the tacit assumption had always been that approximate knowledge of the initial state implies approximate knowledge of the final state. Given their success describing the motion of the planets, comets, and stars and the dynamics of countless other systems, physicists had little reason to assume otherwise.
Starting in the 19th century, however, and culminating with a 1963 paper by MIT meteorologist Edward Lorenz, a series of developments revealed that the notion of deterministic predictability, although appealingly intuitive, is in practice false for most systems. Small uncertainties in an initial state can indeed become large errors in a final one. Even simple systems for which all forces are known can behave unpredictably. Determinism, surprisingly enough, does not preclude chaos.
Physics Today: Chaos at Fifty
APS Viewpoint: The Critical Brain
NIST: New NIST Measurement Tool Is On Target for the Fast-Growing MEMS Industry
Phys.org:
New phase of water could dominate the interiors of Uranus and Neptune
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| Illustration showing the magnetic spins precessing with respect to the magnetic fields. (Courtesy: J Shi/Princeton University) |
Atomic magnetometers work by detecting how the energy levels of atoms are modified by an external magnetic field. This is the famous Zeeman effect – a quantum effect whereby the magnetic spin states in an atom split in the presence of an external magnetic field. This interaction between the atomic magnetic moment and external field is used to measure the field. This is normally done by using a pump laser to "polarize" the atoms by populating specific spin states, while a probe laser measures the spin precession, which is proportional to the magnetic field.
Physics World: Atomic magnetometer is most sensitive yet
Join over 3,700 attendees for four days of scientific research presentations, professional development, networking, exhibits, culture, and community. One of the largest annual gatherings of minority scientists in the country, the interdisciplinary, and interactive SACNAS National Conference motivates and inspires. The SACNAS National Conference supports its diverse membership showcasing cutting-edge science and features mentoring and training sessions. Programming is specifically tailored to support undergraduate and graduate students, postdoctoral researchers, and career professionals at each transition stage of their career as they move towards positions of science leadership.
Mission
SACNAS: 2013 SACNAS National Conference & Special 40th Anniversary Celebration
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| Kiera Wilmot |
Sometimes, science can be dramatic, dangerous, and if you survive the adventure: thrilling and invigorating. Not de-emphasizing safety here, just access...to knowledge, and ultimately power and self-determination.
A 16 year old Florida student with good grades, who is described by her principal as a “good kid”, is now facing felony charges for a science experiment gone wrong.2

1. SciAm The Urban Scientist: Florida teen charged with felony for trying science
2. Your Black World: 16 Year Old Charged With Felony After Science Project Goes Wrong
Change.org:
Bartow Police Chief, Tammy Glofelty - State PA: Drop Felony Charges and Release Kiera Wilmot
The AMS results are based on an analysis of some 2.5 × 1010 events, recorded over a year and a half. Cuts to reject protons, as well as electrons and positrons produced in the interactions of cosmic rays in the Earth’s atmosphere, reduce this to around 6.8 × 106 positron and electron events, including 400,000 positrons with energies between 0.5 GeV and 350 GeV. This represents the largest collection of antimatter particles detected in space.
CERN Courier: AMS measures antimatter excess in space
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| Live from CERN - Antimatter: Mirror of the Universe |
CERN press office: LHCb experiment observes new matter-antimatter difference
About 7,000 light-years from Earth, an exceptionally massive neutron star that spins around 25 times a second is orbited by a compact, white dwarf star. The gravity of this system is so intense that it offers an unprecedented testing ground for theories of gravity.
Scientists know general relativity, proposed by Albert Einstein in 1915, isn't the complete story. While it does very well describing large, massive systems, it's incompatible with quantum mechanics, which governs the physics of the very small. For something extremely small, yet extremely massive — such as a black hole — the two theories contradict each other, and scientists are left without a physical description.
Rare systems like this binary star pair offer a chance to probe the boundary between the two theories, and search for possible openings toward new physics that could reconcile them.
"We thought this system might be extreme enough to show a breakdown in general relativity, but instead, Einstein's predictions held up quite well," Paulo Freire, an astronomer at the Max Planck Institute for Radio Astronomy in Germany, said in a statement.
Space.com: Einstein's Gravity Theory Passes Toughest Test Yet, Clara Moskowitz