63 research outputs found
Clemson Catalog, 1963-1964, Volume 39
https://tigerprints.clemson.edu/clemson_catalog/1119/thumbnail.jp
Cavendish: The Experimental Life
Two gifted eighteenth-century Londoners, Charles Cavendish and his painfully preeminent son Henry were descendants of paired revolutions, one political and one scientific. Scions of a powerful revolutionary family, they gave an original turn to the duty of public service that attached to their social rank. The English aristocracy knew one of its finest hours when Henry Cavendish gently laid his delicate weights in the scales of the first great precision balance of the century. For this action to happen, it took two generations and two kinds of invention, one in social forms and the other in scientific methods. This joint biography of father and son tells how it came to pass. Henry Cavendish is best known for his researches in chemistry, electricity, and heat, but in truth he worked in every part of physical science, bringing to it his unique combination of experimental precision and mathematical penetration. His accomplishment is likened to the highest example: since the death of Newton, Humphry Davy wrote, England has suffered "no scientific loss so great as that of Cavendish." Through inheritance he became immensely rich. Regarding intellect and fortune, he is called "the wisest of the rich and the richest of the wise." In his exclusive devotion to science, he is compared with "the most austere anchorites," who were "not more faithful to their vows." With reference to his legendary shyness, he is described as a man of "most reserved disposition," of a "degree bordering on disease." He was, to be sure, all of these things: one of the best scientists of his time, one of the richest men in the kingdom, a member of one of the politically most influential aristocratic families, a scientific fanatic, and a person of extraordinary peculiarities. This biography, a major revision of the original published in 1999, offers an enlarged understanding of the eighteenth century world of science and a reevaluation both of the scientific genius and of the remarkable personality of Henry Cavendish. It is a comprehensive study of science, family, and society in the eighteenth century
Clemson Catalog, 1967-1968, Volume 43
https://tigerprints.clemson.edu/clemson_catalog/1123/thumbnail.jp
Critical Infrastructure for Ocean Research and Societal Needs in 2030
The United States has jurisdiction over 3.4 million square miles of oceanâÂÂan expanse greater than the land area of all fifty states combined. This vast marine area offers researchers opportunities to investigate the oceanâÂÂs role in an integrated Earth system, but also presents challenges to society, including damaging tsunamis and hurricanes, industrial accidents, and outbreaks of waterborne diseases. The 2010 Gulf of Mexico Deepwater Horizon oil spill and 2011 Japanese earthquake and tsunami are vivid reminders that a broad range of infrastructure is needed to advance our still-incomplete understanding of the ocean. The National Research Council (NRC)âÂÂs Ocean Studies Board was asked by the National Science and Technology CouncilâÂÂs Subcommittee on Ocean Science and Technology, comprised of 25 U.S. government agencies, to examine infrastructure needs for ocean research in the year 2030. This request reflects concern, among a myriad of marine issues, over the present state of aging and obsolete infrastructure, insufficient capacity, growing technological gaps, and declining national leadership in marine technological development; issues brought to the nationâÂÂs attention in 2004 by the U.S. Commission on Ocean Policy. A 15-member committee of experts identified four themes that encompass 32 future ocean research questionsâÂÂenabling stewardship of the environment, protecting life and property, promoting economic vitality, and increasing fundamental scientific understanding. Many of the questions in the report (e.g., sea level rise, sustainable fisheries, the global water cycle) reflect challenging, multidisciplinary science questions that are clearly relevant today, and are likely to take decades of effort to solve. As such, U.S. ocean research will require a growing suite of ocean infrastructure for a range of activities, such as high quality, sustained time series observations or autonomous monitoring at a broad range of spatial and temporal scales. Consequently, a coordinated national plan for making future strategic investments becomes an imperative to address societal needs. Such a plan should be based upon known priorities and should be reviewed every 5-10 years to optimize the federal investment. The committee examined the past 20 years of technological advances and ocean infrastructure investments (such as the rise in use of self-propelled, uncrewed, underwater autonomous vehicles), assessed infrastructure that would be required to address future ocean research questions, and characterized ocean infrastructure trends for 2030. One conclusion was that ships will continue to be essential, especially because they provide a platform for enabling other infrastructure â autonomous and remotely operated vehicles; samplers and sensors; moorings and cabled systems; and perhaps most importantly, the human assets of scientists, technical staff, and students. A comprehensive, long-term research fleet plan should be implemented in order to retain access to the sea. The current report also calls for continuing U.S. capability to access fully and partially ice-covered seas; supporting innovation, particularly the development of biogeochemical sensors; enhancing computing and modeling capacity and capability; establishing broadly accessible data management facilities; and increasing interdisciplinary education and promoting a technically-skilled workforce. The committee also provided a framework for prioritizing future investment in ocean infrastructure. They recommend that development, maintenance, or replacement of ocean research infrastructure assets should be prioritized in terms of societal benefit, with particular consideration given to usefulness for addressing important science questions; affordability, efficiency, and longevity; and ability to contribute to other missions or applications. These criteria are the foundation for prioritizing ocean research infrastructure investments by estimating the economic costs and benefits of each potential infrastructure investment, and funding those investments that collectively produce the largest expected net benefit over time. While this type of process is clearly subject to budget constraints, it could quantify the often informal evaluation of linkages between infrastructure, ocean research, the value of information produced, societal objectives, and economic benefits. Addressing the numerous complex science questions facing the entire ocean research enterprise in 2030âÂÂfrom government to academia, industry to nonprofits, local to global scaleâÂÂrepresents a major challenge, requiring collaboration across the breadth of the ocean sciences community and nearly seamless coordination between ocean-related federal agencies
Golden Years of Australian Radio Astronomy
The evolution of Australian radio astronomy from 1945 to 1960 has been studied in detail by numerous historians of science in recent years. This Open Access book is the first to present an overview of this remarkable chapter in Australian science. The book begins in the post-war period, as the Radiophysics Laboratory in Sydney switched from secret wartime research on radar to peacetime applications of this new technology. Next follows the detection of radio waves from space and the ensuing transformation of this fledgling science into the dominant research program at the Radiophysics Lab. Drawing from this history, the book shows how by 1960 the Radiophysics Lab had become the largest and most successful radio astronomy group in the world. The final chapter presents an overview of Australian radio astronomy from 1960 to the present day, as Australia prepares to co-host the multi-national, multi-billion-dollar Square Kilometre Array. Nearly 300 high-quality images complement the text, drawn from a wide range of sources including the extensive collection held by the CSIRO Radio Astronomy Image Archive. The book will be an essential reference for readers interested in the scientific and cultural development of radio astronomy. This book is published open access under a CC BY 4.0 license
1976 Calendar - Volume 3 - Annual Report
374 pp.This edition contains three volumes: Volume I includes General Information relating to Staff; Statutes; Public Lectures and Courses; and Scholarships and Prizes. Volume II includes the Details of Courses such as Timetables; Rules; and Syllabuses of degree and diploma courses. Volume III contains the Annual Report for 1975, Financial Statements for 1975 and Bibliography for 1975, along with Commemoration Addresses for 1976
Golden Years of Australian Radio Astronomy
The evolution of Australian radio astronomy from 1945 to 1960 has been studied in detail by numerous historians of science in recent years. This Open Access book is the first to present an overview of this remarkable chapter in Australian science. The book begins in the post-war period, as the Radiophysics Laboratory in Sydney switched from secret wartime research on radar to peacetime applications of this new technology. Next follows the detection of radio waves from space and the ensuing transformation of this fledgling science into the dominant research program at the Radiophysics Lab. Drawing from this history, the book shows how by 1960 the Radiophysics Lab had become the largest and most successful radio astronomy group in the world. The final chapter presents an overview of Australian radio astronomy from 1960 to the present day, as Australia prepares to co-host the multi-national, multi-billion-dollar Square Kilometre Array. Nearly 300 high-quality images complement the text, drawn from a wide range of sources including the extensive collection held by the CSIRO Radio Astronomy Image Archive. The book will be an essential reference for readers interested in the scientific and cultural development of radio astronomy. This book is published open access under a CC BY 4.0 license
Golden Years of Australian Radio Astronomy
The evolution of Australian radio astronomy from 1945 to 1960 has been studied in detail by numerous historians of science in recent years. This Open Access book is the first to present an overview of this remarkable chapter in Australian science. The book begins in the post-war period, as the Radiophysics Laboratory in Sydney switched from secret wartime research on radar to peacetime applications of this new technology. Next follows the detection of radio waves from space and the ensuing transformation of this fledgling science into the dominant research program at the Radiophysics Lab. Drawing from this history, the book shows how by 1960 the Radiophysics Lab had become the largest and most successful radio astronomy group in the world. The final chapter presents an overview of Australian radio astronomy from 1960 to the present day, as Australia prepares to co-host the multi-national, multi-billion-dollar Square Kilometre Array. Nearly 300 high-quality images complement the text, drawn from a wide range of sources including the extensive collection held by the CSIRO Radio Astronomy Image Archive. The book will be an essential reference for readers interested in the scientific and cultural development of radio astronomy. This book is published open access under a CC BY 4.0 license
Annual Report of the Board of Regents of the Smithsonian Institution, showing the operations, expenditures, and condition of the Institution to July, 1885
Annual Report of the Smithsonian Institution. 17 July. HMD 15 (pts. 1 and 2) , 49-1. v25-26, 2235p. [2431-2432] Research related to the American India
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