scispace - formally typeset
Search or ask a question
Institution

Royal Society for the Protection of Birds

NonprofitSandy, United Kingdom
About: Royal Society for the Protection of Birds is a nonprofit organization based out in Sandy, United Kingdom. It is known for research contribution in the topics: Population & Biodiversity. The organization has 670 authors who have published 1425 publications receiving 88006 citations. The organization is also known as: RSPB & Plumage League.


Papers
More filters
Journal ArticleDOI
14 Jan 2005-Science
TL;DR: Approaches to identifying more of the earth’s biological diversity; understanding how biological, geophysical, and geochemical processes interact; and presenting scientific knowledge in time to contribute to and achieve the 2010 target are described.
Abstract: Governments are often accused of responding only to short-term and parochial considerations. It is therefore remarkable that representatives of 190 countries recently committed themselves at the Convention on Biological Diversity to reducing biodiversity loss. This presents conservation biologists with perhaps their greatest challenge of the decade. The authors of this Policy Forum describe approaches to identifying more of the earth9s biological diversity; understanding how biological, geophysical, and geochemical processes interact; and presenting scientific knowledge in time to contribute to and achieve the 2010 target.

418 citations

Journal ArticleDOI
21 Mar 2012-PLOS ONE
TL;DR: While appropriately located PAs may slow the rate at which species are driven towards extinction, recent PA network expansion has under-represented important sites, and better targeted expansion of PA networks would help to improve biodiversity trends.
Abstract: Protected areas (PAs) are a cornerstone of conservation efforts and now cover nearly 13% of the world’s land surface, with the world’s governments committed to expand this to 17%. However, as biodiversity continues to decline, the effectiveness of PAs in reducing the extinction risk of species remains largely untested. We analyzed PA coverage and trends in species’ extinction risk at globally significant sites for conserving birds (10,993 Important Bird Areas, IBAs) and highly threatened vertebrates and conifers (588 Alliance for Zero Extinction sites, AZEs) (referred to collectively hereafter as ‘important sites’). Species occurring in important sites with greater PA coverage experienced smaller increases in extinction risk over recent decades: the increase was half as large for bird species with.50% of the IBAs at which they occur completely covered by PAs, and a third lower for birds, mammals and amphibians restricted to protected AZEs (compared with unprotected or partially protected sites). Globally, half of the important sites for biodiversity conservation remain unprotected (49% of IBAs, 51% of AZEs). While PA coverage of important sites has increased over time, the proportion of PA area covering important sites, as opposed to less important land, has declined (by 0.45–1.14% annually since 1950 for IBAs and 0.79–1.49% annually for AZEs). Thus, while appropriately located PAs may slow the rate at which species are driven towards extinction, recent PA network expansion has under-represented important sites. We conclude that better targeted expansion of PA networks would help to improve biodiversity trends.

398 citations

Journal ArticleDOI
Wannes Hubau1, Wannes Hubau2, Wannes Hubau3, Simon L. Lewis4, Simon L. Lewis1, Oliver L. Phillips1, Kofi Affum-Baffoe5, Hans Beeckman2, Aida Cuni-Sanchez6, Aida Cuni-Sanchez4, Armandu K. Daniels, Corneille E. N. Ewango7, Corneille E. N. Ewango8, Sophie Fauset9, Jaccques M. Mukinzi7, Jaccques M. Mukinzi10, Douglas Sheil11, Bonaventure Sonké12, Martin J. P. Sullivan13, Martin J. P. Sullivan1, Terry Sunderland14, Terry Sunderland15, Hermann Taedoumg12, Hermann Taedoumg16, Sean C. Thomas17, Lee J. T. White18, Katharine Abernethy18, Stephen Adu-Bredu19, C. Amani15, Timothy R. Baker1, Lindsay F. Banin, Fidèle Baya, Serge K. Begne1, Serge K. Begne12, Amy C. Bennett1, Fabrice Bénédet20, Fabrice Bénédet21, Robert Bitariho22, Yannick Enock Bocko23, Pascal Boeckx3, Patrick Boundja7, Patrick Boundja15, Roel J. W. Brienen1, Terry Brncic7, Eric Chezeaux, George B. Chuyong24, Connie J. Clark25, Murray Collins26, James A. Comiskey27, James A. Comiskey28, David A. Coomes29, Greta C. Dargie1, Thalès de Haulleville2, Marie Noel Djuikouo Kamdem24, Jean-Louis Doucet30, Adriane Esquivel-Muelbert1, Adriane Esquivel-Muelbert31, Ted R. Feldpausch32, Alusine Fofanah, Ernest G. Foli19, Martin Gilpin1, Emanuel Gloor1, Christelle Gonmadje, Sylvie Gourlet-Fleury20, Sylvie Gourlet-Fleury21, Jefferson S. Hall33, Alan Hamilton34, David Harris35, Terese B. Hart36, Terese B. Hart37, Mireille Breuer-Ndoundou Hockemba7, Annette Hladik, Suspense Averti Ifo23, Kathryn J. Jeffery18, Tommaso Jucker38, Emmanuel Kasongo Yakusu8, Emmanuel Kasongo Yakusu2, Emmanuel Kasongo Yakusu3, Elizabeth Kearsley3, Elizabeth Kearsley2, David Kenfack33, Alexander K. Koch39, Alexander K. Koch4, Miguel E. Leal7, Aurora Levesley1, Jeremy A. Lindsell40, Janvier Lisingo8, Gabriela Lopez-Gonzalez1, Jon C. Lovett41, Jon C. Lovett1, Jean-Remy Makana8, Yadvinder Malhi42, Andrew R. Marshall6, Andrew R. Marshall43, Jim Martin44, Emanuel H. Martin, Faustin M. Mbayu8, Vincent P. Medjibe25, Vianet Mihindou, Edward T. A. Mitchard26, Sam Moore42, Pantaleo K. T. Munishi45, Natacha Nssi Bengone, Lucas Ojo, Fidèle Evouna Ondo, Kelvin S.-H. Peh29, Kelvin S.-H. Peh46, Georgia Pickavance1, Axel Dalberg Poulsen35, John R. Poulsen25, Lan Qie47, Lan Qie1, Jan Reitsma, Francesco Rovero48, Michael D. Swaine49, Joey Talbot1, James Taplin50, David Taylor51, Duncan W. Thomas52, Benjamin Toirambe2, John Tshibamba Mukendi8, John Tshibamba Mukendi2, Darlington Tuagben, Peter M. Umunay53, Peter M. Umunay7, Geertje M. F. van der Heijden54, Hans Verbeeck3, Jason Vleminckx55, Jason Vleminckx56, Simon Willcock57, Hannsjörg Wöll, John T. Woods58, Lise Zemagho12 
University of Leeds1, Royal Museum for Central Africa2, Ghent University3, University College London4, Forestry Commission5, University of York6, Wildlife Conservation Society7, University of Kisangani8, University of Plymouth9, World Wide Fund for Nature10, Norwegian University of Life Sciences11, University of Yaoundé I12, Manchester Metropolitan University13, University of British Columbia14, Center for International Forestry Research15, Bioversity International16, University of Toronto17, University of Stirling18, Forestry Research Institute of Ghana19, Centre de coopération internationale en recherche agronomique pour le développement20, University of Montpellier21, Mbarara University of Science and Technology22, Marien Ngouabi University23, University of Buea24, Duke University25, University of Edinburgh26, Smithsonian Institution27, National Park Service28, University of Cambridge29, Gembloux Agro-Bio Tech30, University of Birmingham31, University of Exeter32, Smithsonian Tropical Research Institute33, Chinese Academy of Sciences34, Royal Botanic Garden Edinburgh35, African Wildlife Foundation36, American Museum of Natural History37, University of Bristol38, University of Hong Kong39, Royal Society for the Protection of Birds40, Royal Botanic Gardens41, Environmental Change Institute42, University of the Sunshine Coast43, Fleming College44, Sokoine University of Agriculture45, University of Southampton46, University of Lincoln47, University of Florence48, University of Aberdeen49, Innovate UK50, National University of Singapore51, Washington State University Vancouver52, Yale University53, University of Nottingham54, Florida International University55, Université libre de Bruxelles56, Bangor University57, University of Liberia58
04 Mar 2020-Nature
TL;DR: Overall, the uptake of carbon into Earth’s intact tropical forests peaked in the 1990s and independent observations indicating greater recent carbon uptake into the Northern Hemisphere landmass reinforce the conclusion that the intact tropical forest carbon sink has already peaked.
Abstract: Structurally intact tropical forests sequestered about half of the global terrestrial carbon uptake over the 1990s and early 2000s, removing about 15 per cent of anthropogenic carbon dioxide emissions. Climate-driven vegetation models typically predict that this tropical forest ‘carbon sink’ will continue for decades. Here we assess trends in the carbon sink using 244 structurally intact African tropical forests spanning 11 countries, compare them with 321 published plots from Amazonia and investigate the underlying drivers of the trends. The carbon sink in live aboveground biomass in intact African tropical forests has been stable for the three decades to 2015, at 0.66 tonnes of carbon per hectare per year (95 per cent confidence interval 0.53–0.79), in contrast to the long-term decline in Amazonian forests. Therefore the carbon sink responses of Earth’s two largest expanses of tropical forest have diverged. The difference is largely driven by carbon losses from tree mortality, with no detectable multi-decadal trend in Africa and a long-term increase in Amazonia. Both continents show increasing tree growth, consistent with the expected net effect of rising atmospheric carbon dioxide and air temperature. Despite the past stability of the African carbon sink, our most intensively monitored plots suggest a post-2010 increase in carbon losses, delayed compared to Amazonia, indicating asynchronous carbon sink saturation on the two continents. A statistical model including carbon dioxide, temperature, drought and forest dynamics accounts for the observed trends and indicates a long-term future decline in the African sink, whereas the Amazonian sink continues to weaken rapidly. Overall, the uptake of carbon into Earth’s intact tropical forests peaked in the 1990s. Given that the global terrestrial carbon sink is increasing in size, independent observations indicating greater recent carbon uptake into the Northern Hemisphere landmass reinforce our conclusion that the intact tropical forest carbon sink has already peaked. This saturation and ongoing decline of the tropical forest carbon sink has consequences for policies intended to stabilize Earth’s climate.

395 citations

Journal ArticleDOI
TL;DR: In this article, the authors look at other large-scale measures of the changing state of nature, focusing on recent analyses of trends in population size, numbers of populations and habitat extent.
Abstract: Most attempts to quantify the impact of humanity on nature and bring it to public attention have centred around estimates of extinction rates Suggestions that these figures have been exaggerated are, in our view, misplaced, but extinction rate estimates do face other problems – inevitable uncertainty, an arguably weak link to economic value, and insensitivity to short-term change We therefore look here at other large-scale measures of the changing state of nature, focusing on recent analyses of trends in population size, numbers of populations and habitat extent In spite of being limited by sampling inadequacies, these data provide a sensitive short-term complement to the long-term perspective gained from considering extinction rates that can be linked directly both to economic values and to public concerns Although further work is needed on extinction rates, we conclude that significant new emphasis should be placed on instituting broader, more systematic monitoring of habitats and populations

389 citations

Journal ArticleDOI
TL;DR: In this paper, the authors estimate that PAs currently cover 14.6% of terrestrial and 2.8% of marine extent, but 59-68% of ecoregions, 77-78% of important sites for biodiversity, and 57% of 25,380 species have inadequate coverage.
Abstract: Governments have committed to conserving 17% of terrestrial and 10% of marine environments globally, especially “areas of particular importance for biodiversity” through “ecologically representative” Protected Area (PA) systems or other “area-based conservation measures”, while individual countries have committed to conserve 3–50% of their land area. We estimate that PAs currently cover 14.6% of terrestrial and 2.8% of marine extent, but 59–68% of ecoregions, 77–78% of important sites for biodiversity, and 57% of 25,380 species have inadequate coverage. The existing 19.7 million km 2 terrestrial PA network needs only 3.3 million km 2 to be added to achieve 17% terrestrial coverage. However, it would require nearly doubling to achieve, costefficiently, coverage targets for all countries, ecoregions, important sites, and species. Poorer countries have the largest relative shortfalls. Such extensive and rapid expansion of formal PAs is unlikely to be achievable. Greater focus is therefore needed on alternative approaches, including community- and privately managed sites and other effective area-based conservation measures.

367 citations


Authors

Showing all 672 results

NameH-indexPapersCitations
Andrew Balmford9129033359
Rhys E. Green7828530428
Richard D. Gregory6116518428
Richard Evans4830610513
Rafael Mateo462387091
Deborah J. Pain46996717
Jeremy D. Wilson4512312587
Les G. Underhill452338217
Richard B. Bradbury421138062
Paul F. Donald4111711153
James W. Pearce-Higgins401445623
Jörn P. W. Scharlemann408416393
Juliet A. Vickery391168494
Mark A. Taggart381113703
Patrick W Thompson381446379
Network Information
Related Institutions (5)
Zoological Society of London
3.7K papers, 201.2K citations

85% related

The Nature Conservancy
3.7K papers, 202K citations

84% related

Swiss Federal Institute for Forest, Snow and Landscape Research
3.2K papers, 161.6K citations

84% related

Wildlife Conservation Society
4.9K papers, 243.8K citations

83% related

Conservation International
1.5K papers, 167.2K citations

82% related

Performance
Metrics
No. of papers from the Institution in previous years
YearPapers
20224
202190
202073
201993
201882
201770