UCLA and The Impact Of Science.The hundredth anniversary of the awarding of the Nobel Prizes Nobel Prizes Year Peace Chemistry Physics Physiology or Medicine Literature 1901 J. H. Dunant Frédéric Passy J. H. van't Hoff W. C. Roentgen E. A. von Behring R. F. A. Sully-Prudhomme 1902 Élie Ducommun C. A. is an apt reminder of the role that science and innovation has played in the last century to transform our society. Much of the technology that surrounds us owes its existence to the development of quantum mechanics quantum mechanics: see quantum theory. quantum mechanics Branch of mathematical physics that deals with atomic and subatomic systems. It is concerned with phenomena that are so small-scale that they cannot be described in classical terms, and it is in the early decades of the 1 900s. The insights gained from understanding matter at the quantum level Quantum levels are fixed levels with a logarithmic, descending quantum pattern in the visible spectrum of light that can be observed through a spectrometer while looking at intense flows of electricity through the various halides on the periodic table in a vacuum tube. led to the birth of the electronic industry. Modern medicine with its miracle drugs like penicillin flourished after World War II. However, in contrast to material science, the understanding of disease at the molecular level remains an open challenge, but one which we can begin to address now that the human genome The human genome is the genome of Homo sapiens, which is composed of 24 distinct pairs of chromosomes (22 autosomal + X + Y) with a total of approximately 3 billion DNA base pairs containing an estimated 20,000–25,000 genes. has been mapped. Information science is a much more recent endeavor, although its theoretical underpinnings were also developed in the 1940s. In some areas, like computation, we have made enormous advances. In others, like visualization, we are just beginning to compete with the capabilities of the human brain. In the application of information science to biology, we are at an infant stage, making the first steps in understanding the functionality of the genome. In all areas, the amount of information that we are gathering is increasing exponentially, and the Web, which barely existed ten years ago, now rules our lives. Although we are immersed in information, we are only at the beginning of a true information revolution that will blossom when storing and retrieving information at the molecular level is achieved routinely. Not all scientific investigations lead to practical applications, helping instead to shape our understanding of the world. A prime example of this "pure" science is Einstein's theory of relativity theory of relativity Einstein’s contribution to the space-time relationship. [Science: NCE, 843–844] See : Turning Point , which, along with modern observational astronomy Observational astronomy is a division of the astronomical science that is concerned with getting data, in contrast with theoretical astrophysics which is mainly concerned with finding out the measurable implications of physical models. , has helped revolutionize our understanding of the universe. There are many other impressive advances in our knowledge that should stand side by side with our more technological achievements. For instance, anthropologists have found evidence of hominids as far back as 6 million years ago; we now know that matter is made up of quarks and leptons and is governed by just a few fundamental forces; all biological information is encoded in the helical helical /hel·i·cal/ (hel´i-k'l) spiral (1). hel·i·cal adj. 1. Of or having the shape of a helix; spiral. 2. Having a shape approximating that of a helix. strands of our DNA DNA: see nucleic acid. DNA or deoxyribonucleic acid One of two types of nucleic acid (the other is RNA); a complex organic compound found in all living cells and many viruses. It is the chemical substance of genes. . Given the enormous impact of science and technology on modem society, it is curious that our overall investment in basic research across the globe is only at the few percent level. What is more worrisome is that fewer of our young people are interested in pursuing a scientific or technical career. While it is true that the genius and insight of a few can lead to great advances, as the Nobel Prizes attest, lasting technological and scientific gains are a cumulative process requiring broad societal involvement. A helpful recent trend of American business has been their interest and commitment to improve K-12 education, so as to help ensure a more capable future work force. Equally important, in my view, is the need for our society to engage in a parallel effort to increase the number of scientists and engineers and to strengthen our overall commitment to basic research. Such an investment is the best way to keep our society vibrant and strong. Roberto Peccei is Vice Chancellor for Research at UCLA UCLA University of California at Los Angeles UCLA University Center for Learning Assistance (Illinois State University) UCLA University of Carrollton, TX and Lower Addison, TX |
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