Polar Science Technology And Information

Proceedings of the 10th anniversary meeting. Divided into five parts: Summary of ACUNS activities; Technology and the north; Polar science; Information and the north; ACUNS related activities and annual reports.

Report on the feasibility and advisability of establishing a Canadian national polar institute. Identifies the present situation, the needs not satisfied by the present situation and possible options.

The International Polar Years and the International Geophysical Year represented a remarkable international collaborative scientific effort that has been largely neglected by historians. This groundbreaking collection seeks to redress that neglect and illuminate critical aspects of the last 150 years of international scientific endeavour.

Antarctica and the Southern Ocean are important research locations for many scientific disciplines, including oceanography, biology, and astronomy. Because of its remoteness and the extreme and dangerous weather conditions in which researchers must operate, research in this region presents many unique challenges. New and improved technologies can make Antarctic research safer, more efficient, and capable of covering a greater spatial and temporal range, all while minimizing the costs and environmental impacts of this research. At the request of the National Science Foundation Office of Polar Programs, the Polar Research Board of the National Academies of Sciences, Engineering, and Medicine convened a workshop on May 3-5, 2022, to solicit broad community ideas regarding how technological developments can advance and expand Antarctic research and polar research more generally. Workshop participants discussed recent and potential technological breakthroughs, cross-cutting research themes, and how new technologies can facilitate broader, more diverse participation in Antarctic research. This publication summarizes the presentations and discussions of the workshop.

Final report which examines the NSF role in polar regions and offers 15 specific recommendations to assist the NSF in fulfilling its primary responsibility for polar science and strengthen U.S. research and presence in the polar regions.

The high latitudes of the Arctic and Antarctic, together with some mountainous areas with glaciers and long-lasting snow, are sometimes called the cryosphere-defined as that portion of the planet where water is perennially or seasonally frozen as sea ice, snow cover, permafrost, ice sheets, and glaciers. Variations in the extent and characteristics of surface ice and snow in the high latitudes are of fundamental importance to global climate because of the amount of the sun's radiation that is reflected from these often white surfaces. Thus, the cryosphere is an important frontier for scientists seeking to understand past climate events, current weather, and climate variability. Obtaining the data necessary for such research requires the capability to observe and measure a variety of characteristics and processes exhibited by major ice sheets and large-scale patterns of snow and sea ice extent, and much of these data are gathered using satellites. As part of its efforts to better support the researchers studying the cryosphere and climate, the National Aeronautics and Space Administration (NASA)-using sophisticated satellite technology-measures a range of variables from atmospheric temperature, cloud properties, and aerosol concentration to ice sheet elevation, snow cover on land, and ocean salinity. These raw data are compiled and processed into products, or data sets, useful to scientists. These so-called "polar geophysical data sets" can then be studied and interpreted to answer questions related to atmosphere and climate, ice sheets, terrestrial systems, sea ice, ocean processes, and many other phenomena in the cryosphere. The goal of this report is to provide a brief review of the strategy, scope, and quality of existing polar geophysical data sets and help NASA find ways to make these products and future polar data sets more useful to researchers, especially those working on the global change questions that lie at the heart of NASA's Earth Science Enterprise.

Throughout the twentieth century, glaciologists and geophysicists from Denmark, Norway and Sweden made important scientific contributions across the Arctic and Antarctic. This research was of acute security and policy interest during the Cold War, as knowledge of the polar regions assumed military importance. But scientists also helped make the polar regions Nordic spaces in a cultural and political sense, with scientists from Norden punching far above their weight in terms of population, geographical size or economic activity. This volume presents an image of Norden that stretches far beyond its conventional limits, covering a vast area in the North Atlantic and the Arctic Sea, as well as parts of Antarctica. Rich in resources, scarce in population, but critically important in global and regional geopolitics, these spaces were contested by major powers such as Russia, the United States, Canada and, in the Antarctic, Argentina, Australia, South Africa and others. The empirical focus on Danish, Norwegian and Swedish influence in the polar regions during the twentieth century embraces a diverse array of themes, from the role of science in policy and diplomacy to the tensions between nationalism and internationalism, with clear relevance to the important role science plays in contemporary discussions about Nordic engagement with the polar regions.