© Biospeologica Bibliographia - Publications 2010-2
© Biospeologica Bibliographia - Publications 2010-2
© Biospeologica Bibliographia - Publications 2010-2
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<strong>©</strong> <strong>Biospeologica</strong> <strong>Bibliographia</strong><br />
<strong>Publications</strong> <strong>2010</strong>-1<br />
Page 19 sur 116<br />
Parabathynellidae) from Western Australia. Journal of<br />
Natural History 44(17/18, May):993-1079. DOI:<br />
http://dx.doi.org/10.1080/00222930903537066. ABS: Ten<br />
new species of Brevisomabathynella Cho, Park & Ranga Reddy, 2006 are<br />
described and illustrated from the arid region of Western Australia.<br />
Comparison of the external morphology revealed the presence of three<br />
common characters distributed among the 10 species: the five-segmented<br />
antenna, the absence of the basipodal seta on the male thoracopod VIII<br />
and the absence of a basiventral seta on the uropodal exopod. This<br />
character combination is not found in Notobathynella and Billibathynella,<br />
but only in Brevisomabathynella, a genus known from two described<br />
species both with unusual characters. Despite the three common<br />
attributes, the 10 new species differ remarkably from these two described<br />
species, but could not be defined by their own synapomorphy.<br />
Consequently, and cognizant of a previously performed molecular<br />
analysis, we assign the 10 new species to Brevisomabathynella and<br />
amend the generic diagnosis. The species inhabit shallow aquifers in<br />
groundwater calcretes and each appears to be endemic to a given calcrete<br />
formation. The two species previously known and the 10 species now<br />
described include four sympatric species pairs, with similar-sized<br />
sympatric species differing markedly in body form. Brevisomabathynella<br />
inhabit groundwater up to at least marine salinity. KW:<br />
Brevisomabathynella, Parabathynellidae, new species, Yilgarn, Western<br />
Australia, Australia.<br />
CHRISTIAN (E.), <strong>2010</strong>. Höhlenfauna am Ostrand der Alpen.<br />
Naturschutz bunt - Zeitschrift des Naturschutzbund NÖ<br />
<strong>2010</strong>(1):8-9.<br />
CÎMPEAN (M.-D.), <strong>2010</strong>. Taxonomical and ecological study<br />
of water mite communities (Acari, Hydrachnidia) from the<br />
river Somesul Mic catchment area and their role as<br />
indicators of water quality. "Babes-Bolyai" University,<br />
Cluj-Napoca Biology and Geology Faculty, Taxonomy<br />
and Ecology Department. Summary of the thesis, 31 p.<br />
ÇİNBİLGEL (İ.) & GÖKÇEOĞLU (M.), <strong>2010</strong>. Flora of<br />
Altınbeşik Cavern National Park (İbradı-Akseki,<br />
Antalya/Turkey). Biological Diversity and Conservation<br />
3(3):85-110. http://www.biodicon.com/index_dosyalar/Page407.htm<br />
CLABORN (D. M.), <strong>2010</strong>. The biology and control of<br />
leishmaniasis vectors. Journal of Global Infectious<br />
Diseases 2(2, May/August):127-134. DOI:<br />
http://dx.doi.org/10.4103/0974-777X.62866.<br />
COKENDOLPHER (J. C.) & KREJCA (J. K.), <strong>2010</strong>. A<br />
New Cavernicolous Parobisium Chamberlin, 1930<br />
(Pseudoscorpiones: Neobisiidae) from Yosemite National<br />
Park, U. S. A. Occasional Papers, Museum of Texas Tech<br />
University, 297(September 30):26 p. ABS: A new species of<br />
troglobitic Parobisium pseudoscorpion is described from two caves<br />
developed in granite talus slopes in the Yosemite Valley, U. S. A. The 16<br />
species of the genus are all from the northern hemisphere (western U. S.<br />
A., China, Japan, South Korea). A taxonomic key to the genus in the U.<br />
S. A. is provided. The new species has only an anterior pair of pale<br />
colored eyespots without tapetum and is blind. Extensive searching at<br />
other shallow nearby caves and on the surface has not revealed any other<br />
specimens of this species, although it is common within certain areas of<br />
the two known caves. This may be only the second troglobite described<br />
from granite talus caves in North America, and suggests the potential for<br />
fruitful exploration in regions not traditionally sampled for subterranean<br />
fauna. KW: Cavernicolous, boulders, granitic cave, Parobisium,<br />
pseudoscorpions, talus, troglobite, Yosemite National Park.<br />
http://www.nsrl.ttu.edu/publications/opapers.htm<br />
COKENDOLPHER (J. C.), SISSOM (W. D.) &<br />
REDDELL (J. R.), <strong>2010</strong>. A New Species of Apozomus<br />
(Arachnida: Schizomida: Hubbardiidae) from Peninsular<br />
Malaysia. Occasional Papers, Museum of Texas Tech<br />
University, 298(October 27):8 p. ABS: A new species of the<br />
genus Apozomus Harvey, 1992 is described from Malaysia. It was<br />
collected in a termite nest and is therefore likely a termitophile. The new<br />
species is the 14 th described species of the order from Southeast Asia, and<br />
the 19 th member of the genus Apozomus. The described taxa of the<br />
Schizomida from Southeast Asia are reviewed. Many species remain to<br />
Bernard LEBRETON & Jean-Pierre BESSON<br />
Créé le : 01.01.<strong>2010</strong><br />
Modifié le : 30.06.<strong>2010</strong><br />
be studied and described. KW: Apozomus, Longipeditermes, new species,<br />
Peninsular Malaysia, schizomid, taxonomy, termite.<br />
http://www.nsrl.ttu.edu/publications/opapers.htm<br />
Commonwealth of Australia, <strong>2010</strong>. Focusing on the<br />
Landscape. Biodiversity in Australia's National Reserve<br />
System. 148 p.<br />
Commonwealth of Australia, <strong>2010</strong>. Focusing on the<br />
Landscape. Biodiversity in Australia's National Reserve<br />
System. Part A: Fauna. 197 p.<br />
Commonwealth of Australia, <strong>2010</strong>. Focusing on the<br />
Landscape. Biodiversity in Australia's National Reserve<br />
System. Part B: Vascular Flora. 514 p.<br />
COOK (L. D.), TREWICK (S. A.), MORGAN-<br />
RICHARDS (M.) & JOHNS (P. M.), <strong>2010</strong>. Status of the<br />
New Zealand cave weta (Rhaphidophoridae) genera<br />
Pachyrhamma, Gymnoplectron and Turbottoplectron.<br />
Invertebrate Systematics 24(2):131-138. DOI:<br />
http://dx.doi.org/10.1071/IS09047. ABS: The New Zealand<br />
Rhaphidophoridae Walker, 1869 comprise 18 endemic genera (including<br />
8 that are monotypic). Although there are many new species to be<br />
described, rationalisation at the genus level is also required due to<br />
inconsistencies in their current systematics. Even the largest and best<br />
known taxa, including those that occupy cave systems and are the most<br />
frequently encountered by people, require taxonomic revision. These cave<br />
weta include species assigned to three poorly differentiated genera,<br />
Pachyrhamma Brunner v. Wattenwyl, 1888, Gymnoplectron Hutton,<br />
1897 and Turbottoplectron Salmon, 1948, that are best known from North<br />
Island New Zealand. We used mitochondrial DNA sequence data to<br />
examine their relationships using representatives of each genus. The<br />
results indicate that a single genus Pachyrhamma would be appropriate<br />
for all, as Gymnoplectron and Turbottoplectron nest phylogenetically<br />
within it. There are insufficient morphological, spatial or ecological<br />
reasons to justify retention of all three. However, we also note that<br />
species level diversity does not correlate with genetic or spatial diversity;<br />
some species are genetically well partitioned and widespread while others<br />
have narrow ranges in single cave systems and are closely related to one<br />
another. KW: Phylogeography, species radiation.<br />
COOMBS (S.), <strong>2010</strong>. S 9.2. Active flow-sensing for spatial<br />
exploration and navigation:55. In: 9 th International<br />
Congress of Neuroethology, Salamanca (Spain), 2-7<br />
August <strong>2010</strong>. Sponsored by the International Society for<br />
Neuroethology (neuroethology.org). Abstracts. ABS: Blind<br />
cavefish (Astyanax mexicanus) are unable to scan their surroundings from<br />
a single vantage point by visual or other long-range sensory systems to<br />
determine the spatial configuration of their distant surroundings. Rather,<br />
they must rely on short-range senses and swim within sensory range of<br />
each landmark feature. Thus, any knowledge of the spatial relationship<br />
between two or more features must be obtained from sequential<br />
encounters. In order to sense nearby features without touching them, fish<br />
use active-flow sensing to detect the spatiotemporal perturbations caused<br />
by nearby stationary objects in their own self-generated flow fields.<br />
Given that flow signal generation and reception is coupled to the coast<br />
phase of their burst-coast swimming gait, sensory updates about their<br />
position in space with respect to their surroundings are intermittent and<br />
constrained by locomotor demands. As a consequence, spatial exploration<br />
and navigation pose special challenges for blind cavefish. Comparative<br />
studies on the swimming trajectories and fine-scale swimming kinematics<br />
of blind cavefish and their nearest sighted relative, a morph of the same<br />
species, reveal interesting similarities and differences in the sensorimotor<br />
strategies used by these two morphs when exploring novel environments.<br />
Comparisons suggest that both morphs share common strategies for<br />
regulating the temporal characteristics of burst-coast swimming<br />
kinematics, but that blind morphs differ significantly from sighted<br />
morphs in their swimming trajectories and in lateral line-enabled abilities<br />
to link swim cycles into sequences that form straight trajectories. These<br />
differences can best be understood in terms of the intermittent and shortrange<br />
challenges of active flow-sensing by blind cavefish and suggest that<br />
these fish have evolved behavioral strategies for coping with these<br />
challenges.<br />
COOPER (J. E.) & COOPER (M. R.), <strong>2010</strong>. Long-term<br />
mark-recapture studies of population sizes in the<br />
stygobiotic crayfishes (Decapoda: Cambaridae) of Shelta