Conservation genetics of the Parma Wallaby Macropus parma: a case study for Australian marsupials

1995 ◽  
Vol 2 (2) ◽  
pp. 150 ◽  
Author(s):  
L. M. McKenzie ◽  
D. W. Cooper

The Parma Wallaby Macropus parma, native only to Australia, exemplifies a number of issues currently under discussion regarding the conservation of Australian marsupials. Thought to be extinct in the earlier part of this century, an expatriate population was identified on Kawau Island, New Zealand in 1967. These animals were used to supply zoos and captive breeding colonies throughout the world. Subsequently, parma populations were rediscovered in the Great Dividing Range of New South Wales, Australia. The Australian populations are small and inhabit severely restricted localities where they are highly vulnerable to predation and further habitat loss. Strategies for the preservation of parmas in Australia include the reintroduction of parmas either directly from Kawau Island or from established captive colonies. However, the founder number of Parma Wallabies on Kawau Island is unknown, hence it is possible the New Zealand derived parmas have a restricted genetic base compromising their suitability for reintroduction programmes. Additionally, there is a possibility that introgression has occurred between parmas and Black-striped Wallabies Macropus dorsalis on the island. Here we report that the level of genetic variation in New Zealand derived Parma Wallabies is not markedly reduced, and that no detectable introgression has taken place between Parma and Black-striped Wallabies. Indeed, re-examination of records casts doubt upon the suggestion that Black-stripes were introduced to Kawau Island.

2021 ◽  
Vol 53 (1) ◽  
pp. 95-101
Author(s):  
Gintaras Kantvilas

AbstractThe lichen genus Lecanactis Körb. in Tasmania comprises six species: L. abietina (Ach.) Körb., which is widespread and pan-temperate; L. latispora Egea & Torrente and L. neozelandica Egea & Torrente, both shared with New Zealand and with the former recorded here from the Auckland Islands for the first time; L. mollis (Stirt.) Frisch & Ertz, shared with Victoria and New Zealand; L. aff. dilleniana (Ach.) Körb., a European species recorded provisionally for Tasmania on the basis of several sterile collections; L. scopulicola Kantvilas, which is described here as new to science and apparently a Tasmanian endemic. This new taxon occurs in rocky underhangs and is characterized by a thick, leprose thallus containing schizopeltic acid, and 3-septate ascospores, 19–30 × 4.5–6 μm. Short descriptions and a discussion of distribution and ecology are given for all species. A key for all 11 Australian species of the genus is provided, including L. subfarinosa (C. Knight) Hellb. and L. tibelliana Egea & Torrente, which are recorded for Australia for the first time, and L. platygraphoides (Müll.Arg.) Zahlbr., a first record for New South Wales. Lecanactis spermatospora Egea & Torrente and L. sulphurea Egea & Torrente are also included.


2021 ◽  
Vol 8 ◽  
pp. 237437352199862
Author(s):  
Tara Dimopoulos-Bick ◽  
Louisa Walsh ◽  
Kim Sutherland

The COVID-19 pandemic continues to affect health care systems globally, and there is widespread concern about the indirect impacts of COVID-19. Indirect impacts are caused by missed or delayed health care—not as a direct consequence of COVID-19 infections. This study gathered experiences of, and perspectives on, the indirect impacts of COVID-19 for health consumers, patients, their families and carers, and the broader community in New South Wales, Australia. A series of semi-structured virtual group discussions were conducted with 33 health consumers and community members between August 24 and August 31, 2020. Data were analyzed using an inductive thematic analysis approach. The analysis identified 3 main themes: poor health outcomes for individuals; problems with how health care is designed and delivered; and increasing health inequality. This case study provides insight into the indirect impacts of COVID-19. Health systems can draw on the insights learned as a source of experiential evidence to help identify, monitor and respond to the indirect impacts of COVID-19.


Author(s):  

Abstract A new distribution map is provided for Monilochaetes infuscans Halsted ex Harter. Hosts: Sweet potato (Ipomoea batatas). Information is given on the geographical distribution in Africa, Sierra Leone, Zimbabwe, Asia, China, Israel, Japan, Korea, Taiwan, Australasia & Oceania, Australia, New South Wales, Queensland, South Australia, Hawaii, New Zealand, US Trust Terr., Europe, Portugal, Azores, North America, USA, South America, Argentina, Brazil.


Author(s):  

Abstract A new distribution map is provided for Pseudomonas syringae pv. pisi (Sackett) Young, Dye & Wilkie. Hosts: Pea (Pisum sativum) and other Apiaceae. Information is given on the geographical distribution in Africa, Kenya, Malawi, Morocco, South Africa, Tanzania, Zimbabwe, Asia, India, Rajasthan, Himachal Pradesh, Indonesia, Israel, Japan, Lebanon, Nepal, Pakistan, Russia, Armenia, Kirghizistan, Australasia & Oceania, Australia, New South Wales, South Australia, Western Australia, Queensland, Tasmania, Victoria, New Zealand, Europe, Bulgaria, Denmark, France, Germany, Greece, Hungary, Italy, Netherlands, Romania, Russia, Ukraine, Voronezh, Moldavia, Switzerland, UK, England, Yugoslavia, North America, Bermuda, Canada, Alberta, British Columbia, Manitoba, Ontario, Quebec, Saskatchewan, Mexico, USA, New York, South America, Argentina, Colombia, Uruguay.


Author(s):  

Abstract A new distribution map is provided for Gnomoniopsis smithogilvyi Shuttleworth, Liew and Guest. Sordariomycetes: Diaporthales. Hosts: sweet chestnut (Castanea sativa) and other chestnut species. Information is given on the geographical distribution in Europe (France, Greece, Italy, mainland Italy, Sardinia, Slovenia, Spain Switzerland, UK, England and Wales), Asia (India, Jammu and Kashmir), Oceania (Australia, New South Wales, Victoria, New Zealand).


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