The known cicada fauna of Peru is identified. Fidicinoides ptychodiropeda n. sp., Guyalna capnopteryx n. sp., G. chrysinothrix n. sp., G. dyticamazona n. sp., G. spilonotophora n. sp., Carineta acommosis n. sp., C. bitorquata n. sp., C. castaneopercula n. sp., C. dicrophryxothrix n. sp., C. digitata n. sp., C. nigrafissura n. sp., C. quadrofastigiata n. sp., C. rumipataensis n. sp., C. tingomariaensis n. sp., C. tricuspis n. sp., Herrera castanetorquata n. sp., H. cephalodigramma n. sp., H. chanchamayoensis n. sp., H. dentata n. sp., H. moyabambaensis n. sp., H. nigropercula n. sp., H. polygramma n. sp., H. quadrimacula n. sp., and H. viriventralis n. sp. are described as new. Three taxa, Cicada (Prunasis) pulcherrima var. a Stål, 1862a, C. (P.) pulcherrima var. b Stål, 1862a, and C. (P.) pulcherrima var. c Stål, 1862a are shown to be unavailable as well as junior synonyms of Prunasis pulcherrima (Stål, 1854) which is shown to be the correct name for the taxon over the preoccupied Cicada viridula Walker, 1850. The first records of Durangona tigrina Distant, 1911, Fidicina obscura Boulard Martinelli, 1996, F. robini Boulard Martinelli, 1996, Fidicinoides descampsi Boulard Martinelli, 1996, F. determinata (Walker, 1858a), F. duckensis Boulard Martinelli, 1996, F. pseudethelae Boulard Martinelli, 1996, Proarna bergi (Distant, 1892a), P. dactyliophora Berg, 1879, P. strigicollis Jacobi, 1907, Guyalna aurora Ruschel, 2017, G. bicolor (Olivier, 1790), G. chlorogena (Walker, 1850), G. distanti (Goding, 1925), G. glauca (Goding, 1925), Majeorona aper (Walker, 1850), M. ecuatoriana Goding, 1925, M. truncata Goding, 1925, Orialella aerizulae Boulard, 1986b, Calyria cuna (Walker, 1850), Prunasis pulcherrima (Stål, 1854), Taphura boulardi Sanborn, 2011a, Carineta boulardi Champanhet, 1999, Carineta cearana Distant, 1906b, C. congrua Walker, 1858b, C. dolosa Boulard, 1986a, C. doxiptera Walker, 1858a, C. ecuatoriana Goding, 1925, C. gemella Boulard, 1986a, C. hamata Sanborn, 2019b, C. matura Distant, 1892b, C. pilifera Walker, 1858a, C. pilosa Walker, 1850, C. ventrilloni Boulard, 1986a, Herrera concolor Sanborn, 2019b, H. melanomesocranon Sanborn, 2019b, and H. phyllodes Sanborn, 2019b are provided. The records for Durangona tigrina Distant, 1911 are the first records of the genus Durangona Distant, 1911 and tribe Durangonini Moulds and Marshall, 2018 and the records for Prunasis pulcherrima (Stål, 1854) are the first for the genus Prunasis Stål, 1862a in Peru. Previous records of Zammara tympanum (Fabricius, 1803), Orialella boliviana (Distant, 1904b), Guyalna brisa (Walker, 1850) and Selymbria stigmatica (Germar, 1834) are considered to be misidentifications of Z. hertha Schmidt, 1919, O. aerizulae, G. dyticamazona n. sp. and S. madredediosensis Sanborn, 2019b, respectively, so that Z. tympanum, O. boliviana, G. brisa and S. stigmatica are removed from the cicada fauna of Peru. The Peruvian records of Dorisiana semilata (Walker, 1850) are shown to be due to an incorrect synonymy of D. metcalfi Sanborn Heath, 2014 and the species is removed from the faunal list as well. Additional new records of Fidicinoides poulaini Boulard Martinelli, 1996 are provided for Brazil and Guyalna chlorogena (Walker, 1850) for French Guiana to expand the known distribution of these species. The currently known Peruvian cicada fauna is comprised of 114 described species from 23 genera, eight tribes and three subfamilies with a 115% increase in the known cicada fauna provided here.
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http://dx.doi.org/10.11646/zootaxa.4785.1.1 | DOI Listing |
J Environ Radioact
December 2024
Institut für Meteorologie, Freie Universität Berlin, Berlin, Germany.
The concentration of near-surface Beryllium-7 contains valuable information about the atmosphere, e.g., the tropospheric circulation, precipitation pattern or specific atmospheric phenomena, like the El Niño Southern Oscillation.
View Article and Find Full Text PDFZootaxa
May 2024
10900 County Road 352; Blanket; TX 76432; USA.
Circ Arrhythm Electrophysiol
June 2024
Cardiovascular Division, Department of Medicine, Vanderbilt University Medical Center, Nashville, TN (K.H., Z.T.Y., J.R.M.-P., E.M.P., G.E.D., T.Y.H., K.T., M.K., T.D.R., J.A.M., S.S., J.C.E., P.J.S., A.E., M.L.W., H.T., G.F.M., A.N.K., W.G.S.).
Background: Irrigated radiofrequency ablation with half-normal saline can potentially increase lesion size but may increase the risk of steam pops with the risk of emboli or perforation. We hypothesized that pops would be preceded by intracardiac echocardiography (ICE) findings as well as a large impedance fall.
Methods: In 100 consecutive patients undergoing endocardial ventricular arrhythmia radiofrequency ablation with half-normal saline, we attempted to observe the ablation site with ICE.
Europace
February 2024
Cardiovascular Division, Department of Medicine, Vanderbilt University Medical Center, 1215 21st Ave South, MCE 5th Floor, South Tower, Nashville, TN 37232, USA.
Aims: Failure of radiofrequency (RF) ablation of ventricular arrhythmias is often due to inadequate lesion size. Irrigated RF ablation with half-normal saline (HNS) has the potential to increase lesion size and reduce sodium delivery to the patient if the same volume of RF irrigant were used for normal saline (NS) and HNS but could increase risks related to steam pops and lesion size. This study aims to assess periprocedural complications and acute ablation outcome of ventricular arrhythmias ablation with HNS.
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