Innovation" is the key word in scientific achievement

"How curiosity begat Curiosity" Scientific breakthroughs come from investing in science education and basic research. By: Ahmed Zewail, August 19th, 2012, Los Angeles Times
On Aug. 5, I was among those who witnessed the rover Curiosity landing on Mars in real time at NASA's Caltech-managed Jet Propulsion Laboratory. The excitement was overwhelming: The one-ton Mars Science Laboratory broke through the Red Planet's atmosphere, slowed its speed from 13,000 mph to almost zero and touched down. One glimpse of those first images from more than 100 million miles away demonstrated America's leadership in innovation. Curiosity — the rover and the concept — is what science is all about: the quest to reveal the unknown. America's past investment in basic science and engineering, and its skill at nurturing the quest, is what led to the Mars triumph, and it is what undergirds U.S. leadership in today's world. But now, decreases in science funding and increases in its bureaucracy threaten that leadership position. After World War II, scientific research in the U.S. was well supported. In the 1960s, when I came to America, the sky was the limit, and this conducive atmosphere enabled many of us to pursue esoteric research that resulted in breakthroughs and Nobel prizes. American universities were magnets to young scientists and engineers from around the globe. The truth is that no one knew then what the effect of that research would be; no one could have predicted and promised all that resulted. After all, it is unpredictability that is the fabric of discovery. In much of academia today, however, curiosity-driven research is no longer looked on favorably. Research proposals must specifically address the work's "broad relevance to society" and provide "transformative solutions" even before research begins. Professors are writing more proposals chasing less research money, which reduces the time available for creative thinking. And with universities facing rising costs generally, professors are more and more involved in commercial enterprises, which may not always push basic research forward. Even faculty tenure may be driven less by how good one is at science than how good one is at fundraising. These constraints and practices raise the question: Would a young Albert Einstein, Richard Feynman or Linus Pauling be attracted to science today? Would they be able to pursue their inquiries into fundamental questions? A generation ago, at the same time that government was supporting curiosity-based research, so was U.S. industry. One of the jewels was Bell Labs, where fundamental research was so advanced that it used to be said that it was "the best university in America." Bell Labs employed some of the world's leading scientists and engineers, and collectively they made pioneering contributions, from the discovery of the tiny transistor to the "big bang" origin of our universe. The broad-based fundamental research at Bell Labs is no longer pursued, and other industrial labs have, for the most part, disappeared or redirected their resources into much more product-oriented research. I teach at Caltech and oversee a research laboratory there. In general, I find that the majority of young people are excited by the prospects of research, but they soon discover that in the current market, many doctorate-level scientists are holding temporary positions or are unemployed. The average age at which principal investigators receive their first major government grant has risen, and experience from multiple postdoctoral positions is often necessary for advancement in academia. This slow track discourages young scientists from pursuing research careers. So what is the formula for better "managing" discoveries? The answer is in the natural evolution of research and development, from curiosity-driven science to technology transfer and then to societal benefits. We must nurture creative scientists in an environment that encourages interactions and collaborations across different fields, and support research free from weighty bureaucracies. The nation must provide young people with a proper and attractive education in science, technology, engineering and math. And the best minds from around the world should be encouraged, not discouraged, by public policy to join in this American endeavor. In sum, a renewed vision for investment in fundamental research is needed, especially in Washington, where further cuts across the board in science funding are being contemplated. In the 1950s, Nobel laureate Robert Solow showed that new technologies create a large portion of economic growth, affecting nearly 75% of the growth output in the U.S. The theory of quantum mechanics alone has had a major impact. Without it, revolutionary technologies would not have been realized. Think of the laser, optical communications, MRI and discoveries in drug design, gene technology and miniaturization. At the same time, American influence in the world is bolstered largely through its "soft" power, and science and technology is an essential force of this influence, according to the Pew Research Center's Global Attitudes Project poll. Since the Industrial Revolution, the West has dominated world politics and economics with the power of science. Since the mid-20th century, the United States has been at the center of that dominance, and more recently, China is pouring resources into R&D to reach first world status. The U.S. can still maintain research institutions, such as Caltech, that are the envy of the world, yet it would be hubristic and naive to think that this position is sustainable without investing in science education and basic research. We do not know now what will be relevant tomorrow. American innovation and leadership put the rover Curiosity on Mars. Now is the time to recommit to the wise vision that made it happen — otherwise the sun of innovation will come from the east. [Ahmed Zewail, winner of the 1999 Nobel Prize in chemistry, is a professor of chemistry and physics at Caltech. He also serves on President Obama's Council of Advisors on Science and Technology.] Source: Philosophy of Science Portal
Read More........

Leading scientists shocked by the achievements of Russian indigo-children

© Flickr.com/zen/cc-by-nc-sa 3.0
In recent years the phrase ‘indigo-children’ has become a buzz-word for those youngsters whose intellectual potential significantly surpasses that of most adult scientists. While many remain skeptical towards the idea of the ‘genius youth’, one can hardly ignore the growing number of teenagers endowed with exceptional and often unprecedented talents in various spheres of science and humanities. 
By:Yulia Zamanskaya, The recent innovation exhibition for the young adults of pre-university age organized by Bauman Moscow State Technical University (MSTU) presented Russian scientists with an opportunity to ‘witness the miracle’ and get to see the creations of gifted children. Leading experts were positively shocked by such exhibits as energy-efficient home suitable for severe climate conditions of Siberia and a robot rover constructed on the basis of Tolchin’s inertioid. Bauman MSTU has long become a synonym for technological innovation and change. Ever since its foundation in 1763 by the order of Russian Empress Catherine II the institution has become the home of greatest scientific minds. The walls of this most renowned Russian technical university have witnessed the inventions of such revolutionary apparatuses as the very first oil cracking machine and a swash plate, which subsequently allowed building helicopters with extraordinary steadiness and controllability characteristics. However, never before has the university contemplated that remarkable scientific breakthroughs can be made by young adults who are yet to receive higher education. Every year the university organizes ‘Step to the Future’ – an innovation exhibition for pre-university teenagers to uncover the potential of the Russian youth and motivate the most gifted youngsters to pursue a career in technology. Over the years, the university professors and leading experts who oversee the exhibition have already become used to creative and unusual technological solutions proposed by the Russian youth. Nonetheless, the exhibits of December 2012 have come as a shock even to those scientists who were accustomed to ‘usualunusualnesses’ of the exposition. Eleventh grade student Anya Shvetsova from the city of Noginsk, Moscow Region, has captured the audience with her robot rover. Her exhibition stand is always crowded with Russian leading scientists who marvel at Anya’s creation and try to figure out how it works. Noisily creeping on the floor, the machine is reminiscent of either a UFO or a silver bowl. When Anya toggles the switches on her hand-made console the plate immediately changes the course and starts crawling across the floor in the opposite direction. The girl calls her invention “an autonomous landing vehicle” and suggests that should her idea be realized under the sponsorship of the Russian Space Agency the robot rover will be able to land even on Venus. When asked about the technical characteristics of the machine, Anya habitually answers that “the apparatus’ main engine is constructed on the basis of Tolchin’s inertioid”. In plain language, it means that the vehicle’s propulsion depends on the movement of two asymmetrical tooth-wheels that are put in motion by electricity or solar energy. While the mechanism seems to be quite straightforward, the way how the rotation of the two tooth-gears drives the whole apparatus remains a mystery even for the most renowned experts. When asked about her plans and future projects Anya sets her standards very high. In the very near future the girl aims to teach her robot to surmount ramps with the gradient of more than 15 degrees and to change the material of the rover in order to make it heat-resistant. Anya also hopes to make her rover work up to 12 times longer than all other existing landing vehicles, which is a very audacious plan. Three years younger than Anya, Danil Bibnev from Usolye-Sibirskoe town, Irkutsk region, has presented the public with a similarly ambitious invention. In just two years Danil has constructed a house which is suitable for severe weather conditions of Siberia – its highly efficient heating system is able to conserve heat for the whole duration of long and extremely cold Siberian winters. The key component of Danil’s design is the vortex heater which is remarkable for its ability to spend less amount of energy on heating the water than the amount of energy subsequently derived from water’s heat. While the house is fully operational, modern scientists find it difficult to understand how the vortex heater works since its logic undermines the fundamental law of thermodynamics. This law, which is usually referred to as the energy conservation rule, dictates that the total amount of energy in an isolated system remains constant over time. Thus, Danil’s use of the vortex heater in his energy-efficient house has a potential to be become a cardinal breakthrough in modern physics. Another innovative element in Danil’s project is the use of ‘matrioshka principle’ which he used while deciding how and where to place heating pipes. Positioning the pipes along the building’s pedestal, the boy placed the hot water pipes in empty pipes with greater diameter so that the heat from water transferred to the air thereby creating a hot air cushion. Danil dreams to continue his education in Bauman MSTU. While the family does not have sufficient funds to sponsor Danil’s higher education, the boy hopes that he will get a governmental grant. These grants – often called the ‘indigo-grants’ – are due to be realized in two years, exactly when Danil graduates from school. Source: Voice of Russia,
Read More........