Conservation Status of New Zealand Marine Invertebrates, 2009

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Conservation Status of New Zealand Marine Invertebrates, 2009 New Zealand Journal of Marine and Freshwater Research ISSN: 0028-8330 (Print) 1175-8805 (Online) Journal homepage: http://www.tandfonline.com/loi/tnzm20 Conservation status of New Zealand marine invertebrates, 2009 DJ Freeman , BA Marshall , ST Ahyong , SR Wing & RA Hitchmough To cite this article: DJ Freeman , BA Marshall , ST Ahyong , SR Wing & RA Hitchmough (2010) Conservation status of New Zealand marine invertebrates, 2009, New Zealand Journal of Marine and Freshwater Research, 44:3, 129-148, DOI: 10.1080/00288330.2010.495373 To link to this article: http://dx.doi.org/10.1080/00288330.2010.495373 Published online: 06 Sep 2010. Submit your article to this journal Article views: 475 View related articles Citing articles: 6 View citing articles Full Terms & Conditions of access and use can be found at http://www.tandfonline.com/action/journalInformation?journalCode=tnzm20 Download by: [203.118.161.175] Date: 14 February 2017, At: 05:14 New Zealand Journal of Marine and Freshwater Research Vol. 44, No. 3, September 2010, 129Á148 Conservation status of New Zealand marine invertebrates, 2009 DJ Freemana*, BA Marshallb, ST Ahyongc, SR Wingd and RA Hitchmougha aResearch and Development Group, Department of Conservation, Wellington, New Zealand; bMuseum of New Zealand Te Papa Tongarewa, Wellington, New Zealand; cAustralian Museum, Sydney, Australia; dDepartment of Marine Science, Otago University, Dunedin, New Zealand (Received 27 August 2009; final version received 13 May 2010) A re-evaluation of the threat status of New Zealand’s marine invertebrates was undertaken in 2009, following earlier review of New Zealand’s Threat Classification System and subsequent refinement of the national criteria for classifying threat of extinction to New Zealand’s flora and fauna. Sufficient information was available to enable 295 marine invertebrate taxa to be fully evaluated and assigned to a national threat category. The 10 taxa at most risk of extinction (‘nationally critical’)were the giant seep clam Calyptogena sp., the primitive acorn barnacle Chionelasmus crosnieri, O’Shea’s vent barnacle Volcanolepas osheai, the stalked barnacle Ibla idiotica, the four-blotched umbrella octopus Cirroctopus hochbergi, the roughy umbrella octopus Opisthoteuthis chathamensis, the giant squid Idioteuthis cordiformis, the large-egged polychaete Boccardiella magniovata and two gravel maggots, Smeagol climoi and Smeagol manneringi. The key threatening processes identified for marine invertebrates were fishing and land-use associated impacts such as sedimentation. We identified no taxa that had improved in threat status as a result of past or ongoing conservation management action, nor any taxa that had worsened in threat status because of known changes in their distribution, abundance or rate of population decline. We evaluated a small fraction of New Zealand’s marine invertebrate fauna for their threat status. Many taxa remain ‘data deficient’ or unlisted. In addition to the most threatened taxa, we recommend these taxa and their habitats as priorities for further survey and monitoring. Keywords: New Zealand; threatened marine invertebrates; conservation status; threat classification Introduction Lottia alveus, which became extinct following Most marine species are thought to be more a disease outbreak that wiped out its eelgrass resilient to extinction than terrestrial species habitat (Carlton et al. 1991). A number of because of their large effective population sizes, other marine invertebrates are thought to have often over broad ranges (Carlton et al. 1991, become extinct in recent history (Carlton 1993; McKinney 1998). However, marine species with Carlton et al. 1999). particular characteristics, such as slow growth A species’ risk of extinction can be a rate, low adult mobility and small geographic critical consideration in its management, not range, are vulnerable to extirpation and extinc- only at a species level, but at a habitat and tion, with several examples of recent extinctions ecosystem level. Listing a species by its level of and near-extinctions (Roberts & Hawkins threat of extinction can help highlight where 1999). The first documented extinction of a management action and associated resources marine invertebrate was of the eelgrass limpet, need to be focussed (Nielsen & Kenchington *Corresponding author. Email: [email protected] ISSN 0028-8330 print/ISSN 1175-8805 online # 2010 The Royal Society of New Zealand DOI: 10.1080/00288330.2010.495373 http://www.informaworld.com 130 DJ Freeman et al. 2001; Joseph et al. 2008)and inform consid- environment highlights the need for appropriate eration of decisions such as habitat protection conservation management. and resource utilisation (Roberts et al. 2003a, Although all marine mammals, most sea- 2003b). Ongoing assessments of changes in birds and two marine fish are fully protected in species’ threatened status can also provide a New Zealand waters, the only protected mar- way of measuring the effectiveness of conser- ine invertebrates are black corals (all anti- vation management. However, as any conserva- patharian species)and all species of ‘red coral’ tion management action may have substantial (Stylasteridae), which are protected under the impacts on economic activities (particularly in Wildlife Act 1953. Despite their legal protec- the marine environment), accurate identifica- tion, bycatch of these species does occur across tion of species at risk of extinction is an some regions, primarily as a result of bottom important issue (Powles et al. 2000). trawling and dredging (Probert et al. 1997; The IUCN Red List of Threatened Species Clark & O’Driscoll 2003; Consalvey et al. 2006). (IUCN 2010)identifies and documents those Further, some localised coral populations are species most in need of conservation attention vulnerable to other damage associated with if global extinction rates are to be reduced, human activities, such as scuba diving (Miller and provides a global index of the state of et al. 2004). There is also some confusion over change of biodiversity. In 2002, to complement what species comprise the legally-protected ‘red the world view provided by the Red List, corals’ (Consalvey et al. 2006). Many other marine invertebrates are at risk from human New Zealand developed a Threat Classification activities including pollution, habitat loss or System focussed at the national level (Molloy modification, collection, disturbance and fish- et al. 2002). This system provided a process and eries bycatch. Marine invertebrates also sup- criteria for assessing the threat status of New port important recreational, commercial and Zealand’s flora and fauna and provided a more customary fisheries in New Zealand and sensitive classification for taxa with naturally in 2007, four of the 10 marine species restricted distributions and small numbers as a with the highest export dollar value were result of insular rarity. Hitchmough (2002) invertebrates*arrow squid, paua (abalone), presented the results of applying that system green-lipped mussel and rock lobster (Ministry to a range of taxa. An update of the list was of Fisheries 2009). Some areas that support undertaken in 2005 (Hitchmough et al. 2007), particularly sensitive, at risk or ecologically which documented changes in the threat status important marine invertebrate communities of species and added new species to the list. have received protection from fishing and Internationally, marine species have received other threats in New Zealand (Anon 2001; less attention than their terrestrial counterparts, Grange et al. 2003). both in terms of assessments of their threat For some taxa, it is possible confidently to status and associated management responses. list and assess the risk of extinction of all species Just 5% of the species listed on the IUCN Red known to exist in New Zealand (e.g. marine List are marine species and of these, few mammals, terrestrial birds), but the task is large are invertebrate taxa (IUCN 2010). There have for many groups, including the marine inverte- been few attempts to collate information brates. For example, over 3000 marine mollusc on the conservation of marine invertebrates species and subspecies are known from New for particular regions (but see Ponder et al. Zealand waters, of which more than a third 2002). However, their importance for fisheries, remain undescribed (Spencer et al. 2009)and tourism, ecosystem services and as the major the threat list for marine invertebrates com- component of biodiversity in the marine pleted in 2005 was known to be incomplete Conservation status of New Zealand marine invertebrates, 2009 131 (Hitchmough et al. 2007). In 2007, a review of referred our provisional assessments to the New Zealand’s Threat Classification System relevant experts subsequent to the workshop. (Molloy et al. 2002)was undertaken, which The categories used in our evaluation resulted in a new manual for classifying New (Fig. 1)are as defined in Townsend et al. (2008) Zealand’s flora and fauna according to their and are specific to the New Zealand region: threat of extinction (Townsend et al. 2008). As part of the implementation of this revised 1. Extinct; system, we re-evaluated the threat status of 2. Threatened [including Nationally Critical New Zealand marine invertebrates in 2009. This (NC), Nationally Endangered (NE) and paper reports the results of these assessments. Nationally Vulnerable (NV)]; 3. At Risk [including Declining (Dec), Re- covering (Rec), Relict (Rel) and Natu- Methods rally Uncommon
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