eDatabase search (ISI Web of Science, and CSA Biological Sciences)

March 12, 2005

KEYWORDS: freshwater protected areas.

Assessing the effectiveness of freshwater protected areas.Highlights in yellow 14 references.

Boon, PJ (2000) 'The development of integrated methods for assessing river conservation value', Hydrobiologia, vol. 422, pp. 413-8.

Burkey, TV (1989) 'Extinction in nature reserves: the effect of fragmentation and the importance of migration between reserve fragments', Oikos, vol. 55, pp. 75-81.

Cambray, JA & Bianco, PG (1998) 'Freshwater fish in crisis; a Blue Planet perspective', Italian Journal of Zoology, vol. 65, pp. 345-56.

Collares Pereira, M & Cowx, IG (2004) 'The role of catchment-scale environmental management in freshwater fish conservation', Fisheries Management and Ecology, vol. 11, pp. 303-13.

Collares-Pereira, M, Cowx, IG & Coelho, MM (eds) (2002) Conservation of freshwater fishes: options for the future, Blackwell Science, Oxford.

Cowx, IG & van Zyll de Jong, M (2004) 'Rehabilitation of freshwater fisheries: tales of the unexpected', Fisheries Management and Ecology, vol. 11, pp. 243-9.

Cowx, IG (2002) 'Analysis of threats to freshwater fish conservation: past and present challenges', in M Collares-Pereira, IG Cowx & MM Coelho (eds), Conservation of freshwater fishes: options for the future, Blackwell Science, Oxford.

Crivelli, AJ (2002) 'The role of protected areas in freshwater fish conservation', in M Collares Pereira, IG Cowx & MM Coelho (eds), Conservation of freshwater fishes: options for the future, Blackwell Science, Oxford. This appears to be the only global review published so far. Please let me know if a recent similar review has been published.

Diamond, J (1975) 'The island dilemma: lessons of modern biogeographic studies for the design of natural reserves', Biological Conservation, vol. 7, pp. 129-46.

Filipe, A. F., Marques, T. A., Seabra, S., Tiago, P., Ribeiro, F., Moreira da Costa, L., Cowx, I. G., and Collares-Pereira, M. J. (2004) Selection of priority areas for fish conservation in Guadiana River Basin, Iberian Peninsula. Conservation Biology 18(1):189-200.

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Jackson, S. F., M. Kershaw, and K. J. Gaston. 2004. Size matters: The value of small populations for wintering waterbirds. Animal Conservation 7, (3): 229-239, www.csa.com <http://www.csa.com>

Keith, P. (2000). The part played by protected areas in the conservation of threatened French freshwater fish. Biological Conservation, 92: 265-273.

Lehmann, G. 1983. Changes in the protected area "maistaller-moore" near kufstein (Northern Tyrol) effected by civilisation over the last 50 years - demonstrated by the example of dragonflies (insecta: Odonata). Berichte des Naturwissenschaftlich-Medizinischen Vereins in Innsbruck 70, : 111-119.

Leidy, RA & Moyle, PB (1998) 'Conservation status of the world's fish fauna', in PL Fiedler & PM Kareiva (eds), Conservation biology for the coming decade, Chapman & Hall, London, pp. 187-227.

Lyle, A.A. & Maitland, P.S. (1992). Conservation of freshwater fish in the British Isles : the status of fish in National Nature Reserves. Aquatic Conservation of Marine and Freshwater Ecosysteme, 2, 19-34.

Madson J, Pihl S, and Clausen P (1998) Establishing a reserve network for waterfowl in Denmark: a biological evaluation of needs and consequenses. Biological Conservation (85):241-255.

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Mathevet, R., and A. Tamisier. 2002. Creation of a nature reserve, its effects on hunting management and waterfowl distribution in the camargue (southern france). Biodiversity and Conservation 11, (3) (Mar): 509-519.

Minckley, WL & Deacon, JE (eds) (1991) Battle against extinction: native fish management in the American West, University of Arizona Press, Tucson.

Moyle, P.B. (1995). Conservation of native freshwater fishes in the mediterranean type climate of California, USA : a review. Biological Conservation, 72(2), 271-279.

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Trenchard, P. 1991. Protected area management in burundi: The role of parks in protecting lake tanganyika. 1. int. conf. on the conservation and biodiversity of lake tanganyika, bujumbura (burundi), 11-13 mar 1991. [Gestion des regions protegees au Burundi: Role des parcs pour la protection du lac Tanganyika]., edited by A. S. Cohen. [NP] (USA): BIODIVERSITY SUPPORT PROGRAM.

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Global Gap Analysis: Priority Regions for Expanding the Global Protected-Area Network.

Ana S L Rodrigues; H Resit Akçakaya; Sandy J Andelman; Mohamed I Bakarr; et al.

Bioscience; Dec 2004; 54, 12; Academic Research Library

pg. 1092

Protected areas are the single most important conservation tool. The global protected-area network has grown substantially in recent decades, now occupying 11.5% of Earth's land surface, but such growth has not been strategically aimed at maximizing the coverage of global biodiversity. In a previous study, we demonstrated that the global network is far from complete, even for the representation of terrestrial vertebrate species. Here we present a first attempt to provide a global framework for the next step of strategically expanding the network to cover mammals, amphibians, freshwater turtles and tortoises, and globally threatened birds. We identify unprotected areas of the world that have remarkably high conservation value (irreplaceability) and are under serious threat. These areas concentrate overwhelmingly in tropical and subtropical moist forests, particularly on tropical mountains and islands. The expansion of the global protected-area network in these regions is urgently needed to prevent the loss of unique biodiversity. [PUBLICATION ABSTRACT]

Coverage Provided by the Global Protected-Area System: Is It Enough?

Thomas M Brooks; Mohamed I Bakarr; Tim Boucher; Gustavo A B da Fonseca; et al.

Bioscience; Dec 2004; 54, 12; Academic Research Library

pg. 1081

Protected-area targets of 10% of a biome, of a country, or of the planet have often been used in conservation planning. The new World Database on Protected Areas shows that terrestrial protected-area coverage now approaches 12% worldwide. Does this mean that the establishment of new protected areas can cease? This was the core question of the "Building Comprehensive Protected Area Systems" stream of the Fifth World Parks Congress in Durban, South Africa, in 2003. To answer it requires global gap analysis, the subject of the special section of BioScience for which this article serves as an introduction. We also provide an overview of the extraordinary data sets now available to allow global gap analysis and, based on these, an assessment of the degree to which existing protected-area systems represent biodiversity. Coverage varies geographically, but is less than 2% for some bioregions, and more than 12% of 11,633 bird, mammal, amphibian, and turtle species are wholly unrepresented. The global protected-area systems are far from complete. [PUBLICATION ABSTRACT]

Key Biodiversity Areas as Site Conservation Targets

Güven Eken; Leon Bennun; Thomas M Brooks; Will Darwall; et al.

Bioscience; Dec 2004; 54, 12; Academic Research Library

pg. 1110

Site conservation is among the most effective means to reduce global biodiversity loss. Therefore, it is critical to identify those sites where unique biodiversity must be conserved immediately. To this end, the concept of key biodiversity areas (KBAs) has been developed, seeking to identify and, ultimately, ensure that networks of globally important sites are safeguarded. This methodology builds up from the identification of species conservation targets (through the IUCN Red List) and nests within larger-scale conservation approaches. Sites are selected using standardized, globally applicable, threshold-based criteria, driven by the distribution and population of species that require site-level conservation. The criteria address the two key issues for setting site conservation priorities: vulnerability and irreplaceability. We also propose quantitative thresholds for the identification of KBAs meeting each criterion, based on a review of existing approaches and ecological theory to date. However, these thresholds require extensive testing, especially in aquatic systems. [PUBLICATION ABSTRACT]

Darwall WRT, Vié J-C.
Identifying important sites for conservation of freshwater biodiversity: Extending the species-based approach.
Journal of Fisheries Management and Ecology. Forthcoming.

Heath MF, Evans MI. 2000. Important Bird Areas in Europe: Priority Sites for Conservation. Cambridge (United Kingdom): BirdLife International.
(IUCN] The World Conservation Union. 1993. Parks for Life: Report of the IVth World Congress on National Parks and Protected Areas. Gland (Switzerland): IUCN.
______. 2001. IUCN Red List Categories and Criteria, Version 3.1. Cambridge (United Kingdom): IUCN.
______. 2003. 2003 IUCN Red List of Threatened Species. Cambridge (United Kingdom): IUCN. (15 November 2004; www.iucnredlist.org)

Fri Mar 11 23:19:55 EST 2005

Cambridge Scientific Abstracts, Biological Sciences

Marked Records

Last Search Query: (freshwater or (fresh water)) and (protectedarea or protected area))

Your comments: A search on 'freshwater protected area'

Record 1 of 41

DN: Database Name

Biological Sciences

TI: Title

A fine-scale gap analysis of the existing protected area system in Hong Kong, China

AU: Author

Yip, JY; Corlett, RT; Dudgeon, D

AF: Affiliation

Department of Ecology & Biodiversity, The University of Hong Kong,

Pokfulam Road, Hong Kong SAR, China, [mailto:

SO: Source

Biodiversity and Conservation [Biodivers. Conserv.]. Vol. 13, no. 5,

pp. 943-957. May 2004.

IS: ISSN

0960-3115

DE: Descriptors

Biodiversity; Environment management; Rare species; Species diversity;

Species richness; Population-environment relations; Population growth;

Environmental policy; Gap analysis; Government policy; Amphibia;

Reptilia; Mammalia; Aves; Formicidae; Papilionoidea; Anisoptera;

Zygoptera; China, People's Rep., Hong Kong

AB: Abstract

As well as being one of the most densely populated areas on Earth,

Hong Kong also has the highest percentage of protected areas (38% of

the 1098 km super(2) land area) of any administrative region in the

Asia Pacific. Overlay of field records from a biodiversity survey of

eight taxa (amphibians, reptiles, mammals, breeding birds, ants,

butterflies, dragonflies and rare vascular plants) in 1 km grid

squares with protected areas indicated that over half of the 623

species of conservation concern (globally, regionally, or locally

restricted species) were under-represented. Ants, butterflies and

reptiles were most poorly represented. The hotspots of different taxa

also received differing levels of protection. Hong Kong's protected

areas are biased towards high-altitude habitats, so the

under-represented species are mostly associated with the lowland

habitats (freshwater wetlands, abandoned agriculture and feng shui

woods). Since the restricted species are scattered and the hotspots of

different taxa do not overlap, a large protected area network will be

required to represent all species. This indicates the challenge that

will be encountered in the conservation of many other parts of Asia

that support burgeoning human populations, and where landscapes are

increasingly human-dominated.

LA: Language

English

SL: Summary Language

English

PY: Publication Year

2004

PT: Publication Type

Journal Article

ID: Identifiers

plants; Amphibians; Reptiles; Mammals; Birds; Ants; Butterflies;

Dragonflies; Damselflies

CL: Classification

M1 110 Population-Environment Relations; D 04700 Management; Z 05205

Populations & general ecology; EE 10 General Environmental

Engineering

UD: Update

200405

AN: Accession Number

5868279

Record 2 of 41

DN: Database Name

ASFA: Aquatic Sciences and Fisheries Abstracts

TI: Title

Effectiveness of the global protected area network in representing species diversity

AU: Author

Rodrigues, ASL; Andelman, SJ; Bakarr, MI; Boitani, L; Brooks, TM;

Cowling, RM; Fishpool, LDC; Fonseca, GABD; Gaston, KJ; Hoffmann, M;

Long, JS; Marquet, PA; Pilgrim, JD; Pressey, RL; Schipper, J;

Sechrest, W; Stuart, SN; Underhill, LG; Waller, RW; Watts, MEJ; Yan,

X

AF: Affiliation

Center for Applied Biodiversity Science, Conservation International,