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Institution

University of New South Wales

EducationSydney, New South Wales, Australia
About: University of New South Wales is a education organization based out in Sydney, New South Wales, Australia. It is known for research contribution in the topics: Population & Poison control. The organization has 51197 authors who have published 153634 publications receiving 4880608 citations. The organization is also known as: UNSW & UNSW Australia.


Papers
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Journal ArticleDOI
Ward Appeltans1, Shane T. Ahyong2, Shane T. Ahyong3, Gary L. Anderson4, Martin V. Angel5, Tom Artois6, Nicolas Bailly7, Roger N. Bamber, Anthony Barber, Ilse Bartsch8, Annalisa Berta9, Magdalena Błażewicz-Paszkowycz, Phil Bock10, Geoff A. Boxshall11, Christopher B. Boyko12, Simone N. Brandão13, R. A. Bray11, Niel L. Bruce14, Niel L. Bruce15, Stephen D. Cairns16, Tin-Yam Chan17, Lanna Cheng18, Allen Gilbert Collins19, Thomas H. Cribb20, Marco Curini-Galletti21, Farid Dahdouh-Guebas22, Farid Dahdouh-Guebas23, Peter J. F. Davie24, Michael N Dawson25, Olivier De Clerck26, Wim Decock1, Sammy De Grave8, Nicole J. de Voogd27, Daryl P. Domning28, Christian C. Emig, Christer Erséus29, William N. Eschmeyer30, William N. Eschmeyer31, Kristian Fauchald16, Daphne G. Fautin8, Stephen W. Feist32, Charles H. J. M. Fransen27, Hidetaka Furuya33, Óscar García-Álvarez34, Sarah Gerken35, David I. Gibson11, Arjan Gittenberger27, Serge Gofas36, Liza Gómez-Daglio25, Dennis P. Gordon37, Michael D. Guiry38, Francisco Hernandez1, Bert W. Hoeksema27, Russell R. Hopcroft39, Damià Jaume40, Paul M. Kirk41, Nico Koedam22, Stefan Koenemann42, Jürgen B. Kolb43, Reinhardt Møbjerg Kristensen44, Andreas Kroh45, Gretchen Lambert46, David Lazarus47, Rafael Lemaitre16, Matt Longshaw32, Jim Lowry2, Enrique Macpherson40, Laurence P. Madin48, Christopher L. Mah16, Gill Mapstone11, Patsy A. McLaughlin49, Jan Mees1, Jan Mees26, Kenneth Meland50, Charles G. Messing51, Claudia E. Mills46, Tina N. Molodtsova52, Rich Mooi31, Birger Neuhaus47, Peter K. L. Ng53, Claus Nielsen44, Jon L. Norenburg16, Dennis M. Opresko16, Masayuki Osawa54, Gustav Paulay30, William F. Perrin19, John F. Pilger55, Gary C. B. Poore10, P.R. Pugh5, Geoffrey B. Read37, James Davis Reimer56, Marc Rius57, Rosana M. Rocha58, J.I. Saiz-Salinas59, Victor Scarabino, Bernd Schierwater60, Andreas Schmidt-Rhaesa13, Kareen E. Schnabel37, Marilyn Schotte16, Peter Schuchert, Enrico Schwabe, Hendrik Segers61, Caryn Self-Sullivan51, Noa Shenkar62, Volker Siegel, Wolfgang Sterrer8, Sabine Stöhr63, Billie J. Swalla46, Mark L. Tasker64, Erik V. Thuesen65, Tarmo Timm66, M. Antonio Todaro, Xavier Turon40, Seth Tyler67, Peter Uetz68, Jacob van der Land27, Bart Vanhoorne1, Leen van Ofwegen27, Rob W. M. Van Soest27, Jan Vanaverbeke26, Genefor Walker-Smith10, T. Chad Walter16, Alan Warren11, Gary C. Williams31, Simon P. Wilson69, Mark J. Costello70 
Flanders Marine Institute1, Australian Museum2, University of New South Wales3, University of Southern Mississippi4, National Oceanography Centre, Southampton5, University of Hasselt6, WorldFish7, American Museum of Natural History8, San Diego State University9, Museum Victoria10, Natural History Museum11, Dowling College12, University of Hamburg13, James Cook University14, University of Johannesburg15, National Museum of Natural History16, National Taiwan Ocean University17, Scripps Institution of Oceanography18, National Oceanic and Atmospheric Administration19, University of Queensland20, University of Sassari21, Vrije Universiteit Brussel22, Université libre de Bruxelles23, Queensland Museum24, University of California, Merced25, Ghent University26, Naturalis27, Howard University28, University of Gothenburg29, Florida Museum of Natural History30, California Academy of Sciences31, Centre for Environment, Fisheries and Aquaculture Science32, Osaka University33, University of Santiago de Compostela34, University of Alaska Anchorage35, University of Málaga36, National Institute of Water and Atmospheric Research37, National University of Ireland, Galway38, University of Alaska Fairbanks39, Spanish National Research Council40, CABI41, University of Siegen42, Massey University43, University of Copenhagen44, Naturhistorisches Museum45, University of Washington46, Museum für Naturkunde47, Woods Hole Oceanographic Institution48, Western Washington University49, University of Bergen50, Nova Southeastern University51, Shirshov Institute of Oceanology52, National University of Singapore53, Shimane University54, Agnes Scott College55, University of the Ryukyus56, University of California, Davis57, Federal University of Paraná58, University of the Basque Country59, University of Veterinary Medicine Hanover60, Royal Belgian Institute of Natural Sciences61, Tel Aviv University62, Swedish Museum of Natural History63, Joint Nature Conservation Committee64, The Evergreen State College65, Estonian University of Life Sciences66, University of Maine67, Virginia Commonwealth University68, Trinity College, Dublin69, University of Auckland70
TL;DR: The first register of the marine species of the world is compiled and it is estimated that between one-third and two-thirds of marine species may be undescribed, and previous estimates of there being well over one million marine species appear highly unlikely.

822 citations

Journal ArticleDOI
TL;DR: In critically ill patients, intensive glucose control leads to moderate and severe hypoglycemia, both of which are associated with an increased risk of death, and the association exhibits a dose-response relationship and is strongest for death from distributive shock.
Abstract: Background: Whether hypoglycemia leads to death in critically ill patients is unclear. Methods: We examined the associations between moderate and severe hypoglycemia (blood glucose, 41 to 70 mg per deciliter [2.3 to 3.9 mmol per liter] and ≤40 mg per deciliter [2.2 mmol per liter], respectively) and death among 6026 critically ill patients in intensive care units (ICUs). Patients were randomly assigned to intensive or conventional glucose control. We used Cox regression analysis with adjustment for treatment assignment and for baseline and postrandomization covariates. Results: Follow-up data were available for 6026 patients: 2714 (45.0%) had moderate hypoglycemia, 2237 of whom (82.4%) were in the intensive-control group (i.e., 74.2% of the 3013 patients in the group), and 223 patients (3.7%) had severe hypoglycemia, 208 of whom (93.3%) were in the intensive-control group (i.e., 6.9% of the patients in this group). Of the 3089 patients who did not have hypoglycemia, 726 (23.5%) died, as compared with 774 of the 2714 with moderate hypoglycemia (28.5%) and 79 of the 223 with severe hypoglycemia (35.4%). The adjusted hazard ratios for death among patients with moderate or severe hypoglycemia, as compared with those without hypoglycemia, were 1.41 (95% confidence interval [CI], 1.21 to 1.62; P 1 day vs. 1 day, P=0.01), those who died from distributive (vasodilated) shock (P<0.001), and those who had severe hypoglycemia in the absence of insulin treatment (hazard ratio, 3.84; 95% CI, 2.37 to 6.23; P<0.001). Conclusions: In critically ill patients, intensive glucose control leads to moderate and severe hypoglycemia, both of which are associated with an increased risk of death. The association exhibits a dose-response relationship and is strongest for death from distributive shock. However, these data cannot prove a causal relationship. (Funded by the Australian National Health and Medical Research Council and others; NICE-SUGAR ClinicalTrials.gov number, NCT00220987.).

822 citations

Journal ArticleDOI
TL;DR: This work presents atomic-scale images and electronic characteristics of these atomically precise devices and the impact of strong vertical and lateral confinement on electron transport and discusses the opportunities ahead for atomic- scale quantum computing architectures.
Abstract: The ability to control matter at the atomic scale and build devices with atomic precision is central to nanotechnology. The scanning tunnelling microscope can manipulate individual atoms and molecules on surfaces, but the manipulation of silicon to make atomic-scale logic circuits has been hampered by the covalent nature of its bonds. Resist-based strategies have allowed the formation of atomic-scale structures on silicon surfaces, but the fabrication of working devices-such as transistors with extremely short gate lengths, spin-based quantum computers and solitary dopant optoelectronic devices-requires the ability to position individual atoms in a silicon crystal with atomic precision. Here, we use a combination of scanning tunnelling microscopy and hydrogen-resist lithography to demonstrate a single-atom transistor in which an individual phosphorus dopant atom has been deterministically placed within an epitaxial silicon device architecture with a spatial accuracy of one lattice site. The transistor operates at liquid helium temperatures, and millikelvin electron transport measurements confirm the presence of discrete quantum levels in the energy spectrum of the phosphorus atom. We find a charging energy that is close to the bulk value, previously only observed by optical spectroscopy.

821 citations

BookDOI
01 Jun 2001
TL;DR: The Handbook of antennas in wireless communications as discussed by the authors provides a comprehensive overview of the latest research and results to provide engineering professionals and students with a one-stop reference on the theory, technologies, and applications for indoor, hand-held, mobile, and satellite systems.
Abstract: From the Publisher: The move toward worldwide wireless communications continues at a remarkable pace, and the antenna element of the technology is crucial to its success. With contributions from more than 30 international experts, the Handbook of Antennas in Wireless Communications brings together all of the latest research and results to provide engineering professionals and students with a one-stop reference on the theory, technologies, and applications for indoor, hand-held, mobile, and satellite systems.Beginning with an introduction to wireless communications systems, it offers an in-depth treatment of propagation prediction and fading channels. It then explores antenna technology with discussion of antenna design methods and the various antennas in current use or development for base stations, hand held devices, satellite communications, and shaping beams. The discussions then move to smart antennas and phased array technology, including details on array theory and beamforming techniques. Space diversity, direction-of-arrival estimation, source tracking, and blind source separation methods are addressed, as are the implementation of smart antennas and the results of field trials of systems using smart antennas implemented. Finally, the hot media topic of the safety of mobile phones receives due attention, including details of how the human body interacts with the electromagnetic fields of these devices.Its logical development and extensive range of diagrams, figures, and photographs make this handbook easy to follow and provide a clear understanding of design techniques and the performance of finished products. Its unique, comprehensive coverage written by top experts in their fields promises tomake the Handbook of Antennas in Wireless Communications the standard reference for the field.

820 citations

Journal ArticleDOI
TL;DR: The ozone hole phenomenon was identified and attributed to ozone depletion over Antarctica in a special edition of Nature (http://wwwnaturecom.com/nature/focus/ ozonehole/).
Abstract: Roughly 90% of atmospheric ozone is found in the lower stratosphere in the ozone layer Since about the 1970s, anthropogenic emissions of ozone-depleting gases have led to depletion of ~3–4% of the total overhead ozone averaged over the globe 1 The strongest depletion is found over Antarctica during spring, when photochemical processes combine with a unique set of meteorological conditions to greatly increase the effectiveness of ozone-depleting gases, and more than half of the total overhead ozone is destroyed Characteristics of the resulting Antarctic ozone hole are reviewed in refs 1 and 2, and the identification and attribution of the phenomenon was recently celebrated in a special edition of Nature (http://wwwnaturecom/nature/focus/ ozonehole/) The Antarctic ozone hole is evident in ozone observations taken every spring since about the early 1980s 1 Its annual onset coincides with the return of sunlight to the cold polar stratosphere during September/October, and its decay with the collapse of the stratospheric vortex during November/December 1,2 The most obvious surface impact is an increase in ultraviolet radiation reaching the surface 1 Over the past decade, however, it has become clear that the ozone hole is also associated with widespread changes in the Southern Hemisphere tropospheric circulation and surface climate Our purpose here is to review the evidence that suggests that the Antarctic ozone hole has had a demonstrable effect on the surface climate of the Southern Hemisphere The ozone hole and Southern Hemisphere circulation Ozone absorbs incoming solar radiation Hence the depletion of ozone over Antarctica leads to cooling of the polar stratosphere 2,3

820 citations


Authors

Showing all 51897 results

NameH-indexPapersCitations
Ronald C. Kessler2741332328983
Nicholas G. Martin1921770161952
John C. Morris1831441168413
Richard S. Ellis169882136011
Ian J. Deary1661795114161
Nicholas J. Talley158157190197
Wolfgang Wagner1562342123391
Bruce D. Walker15577986020
Xiang Zhang1541733117576
Ian Smail15189583777
Rui Zhang1512625107917
Marvin Johnson1491827119520
John R. Hodges14981282709
Amartya Sen149689141907
J. Fraser Stoddart147123996083
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Performance
Metrics
No. of papers from the Institution in previous years
YearPapers
2023389
20221,183
202111,342
202011,235
20199,891
20189,145