This produced an environment where the material's electrons behave remarkably like relativistic particles, with a "speed of light" that they can adjust. Additionally, the researchers could change the spacing between molecules in a way that the masses of the quasiparticles changed, or cause them to behave as though they are interacting with electric and magnetic fields—without actually applying those fields to the material. This setup will potentially help us explore new physics that may arise in these environments.

China has even more scientists in key positions in the government. President Hu Jintao was trained as a hydraulic engineer and Premier Wen Jiabao as a geomechanical engineer. In fact, eight out of the nine top government officials in China have scientific backgrounds. There is a scattering of scientist-politicians in high government positions in other countries as well. German Chancellor Angela Merkel has a doctorate in physical chemistry, and, going back a bit, Margaret Thatcher earned a degree in chemistry.

It's also my observation that politicans have "emotional intelligence," meaning they can "move a crowd," a skill they need if they want to maintain a job. A skill unnecessary in a laboratory. Tech types tend to be self-motivated.

This would, unfortunately create a new "class" of being that only specialized knowledge would allow the ascendancy to the governing body. Since it would only require a select few, much as our current system of governance, it would become quite evident that the shift of power would favor one group (s) over others. The world does not work like Star Trek, or Vulcan. Our baser instincts would prevail. (Besides, it ultimately didn't work so well on the fictional home of Superman - they, er... blew up.)

However, the current pandering to focus groups and "the base" needs to cease. Our leaders need SOME appreciation of science for clear decision-making, else they will model an anti-intellectualism that will soon become the "new normal," one we will not recover from...for maybe a generation.

Introduced to fulfill the needs of the semiconductor physics community whose research was becoming more applied, SST has gone from strength-to-strength over the years under the leadership of its eminent Editors-in-Chief, Tony Stradling, Erich Gornik, Gareth Parry and Laurens Molenkamp.

The multiparticle cluster state at the centre of the current work was first proposed in 2001 by Robert Raussendorf and Hans Briegel, who were then at the University of Munich. Now at the University of British Columbia in Canada, Raussendorf is also involved in this latest research. Such a cluster could be used to perform "one-way" quantum computing, in which the states of individual particles are measured in a specific sequence so that the quantum state of the remaining particles gives the result of the computation.

The results of the study published in Physical Review Letters provide the first example of long-distance communication between two quantum optical antennas in analogy to the 19th century experiments of Hertz and Marconi with radio antennas. In those early efforts, dipolar oscillators were used as transmitting and receiving antennas. In the current experiment, two single molecules mimic that scenario at optical frequencies and via a nonclassical optical channel, namely a single-photon stream. This opens many doors for further exciting experiments in which single photons act as carriers of quantum information to be processed by single emitters.

Research and Development: Two molecules communicate via single photons

NPL: One step closer to a new kilogram

Revealed on Sunday in the academic journal Nature Nanotechnology, the research is part of a decade-long effort at the University of New South Wales to deliver a quantum computer — a machine that would use the seemingly magical properties of very small particles to instantly perform calculations beyond the scope of today’s classical computers.

...the New South Wales team — lead by professor Michelle Simmons — advanced the cause by demonstrating that Ohm’s Law of electrical resistivity extends to the world of very small particles, and now, together with Gerhard Klimeck and his team at Purdue, they’ve made a more significant breakthrough by placing a single-atom transistor exactly where they want to place it.

Africa is quietly undergoing a tech revolution that could transform the continent. CNN's African Voices has highlighted 10 leading tech voices from different African countries. Each one comments on the role technology plays in boosting entrepreneurship and empowering communities in Africa.