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    Dario Cardozo

    Fil: Cardozo, Dario Elbio. Consejo Nacional de Investigaciones Cientificas y Tecnicas. Centro Cientifico Tecnologico Conicet - Nordeste. Instituto de Biologia Subtropical. Instituto de Biologia Subtropical - Nodo Posadas | Universidad... more
    Fil: Cardozo, Dario Elbio. Consejo Nacional de Investigaciones Cientificas y Tecnicas. Centro Cientifico Tecnologico Conicet - Nordeste. Instituto de Biologia Subtropical. Instituto de Biologia Subtropical - Nodo Posadas | Universidad Nacional de Misiones. Instituto de Biologia Subtropical. Instituto de Biologia Subtropical - Nodo Posadas; Argentina
    <i>Physalaemus carrizorum</i>, new species Synonyms <i>Paludicola gracilis</i> Boulenger, 1883: Berg, 1896 (<i>partim</i>); Nieden, 1923 (<i>partim</i>); Miranda-Ribeiro, 1926... more
    <i>Physalaemus carrizorum</i>, new species Synonyms <i>Paludicola gracilis</i> Boulenger, 1883: Berg, 1896 (<i>partim</i>); Nieden, 1923 (<i>partim</i>); Miranda-Ribeiro, 1926 (<i>partim</i>). <i>Physalaemus gracilis</i> (Boulenger, 1883): Parker, 1927 (<i>partim</i>); Freiberg, 1942 (<i>partim</i>); Cochran, 1955 (<i>partim</i>); Cei, 1956 (<i>partim</i>); Cei and Roig, 1961; Gallardo, 1961; Barrio, 1965 (<i>partim</i>); Gallardo, 1966; Cei, 1980 (<i>partim</i>); Frost, 1985 (<i>partim</i>); Cei, 1987 (<i>partim</i>); Langone, 1989 (<i>partim</i>); Gallardo and Varela, 1992 (<i>partim</i>); Klappenbach and Langone, 1992 (<i>partim</i>); Duellman, 1993 (<i>partim</i>); Langone, 1994 (<i>partim</i>); Achaval and Olmos, 1997 (<i>partim</i>); Lavilla <i>et al.</i>, 2000 (<i>partim</i>); Lavilla and Cei, 2001 (<i>partim</i>); Nascimento <i>et al.</i>, 2005 (<i>partim</i>). <i>Physalaemus</i> aff. <i>gracilis</i>: Vaira <i>et al.</i>, 2012. <i>Physalaemus</i> sp. (aff. <i>gracilis</i>): Kwet, 2001. <i>Physalaemus</i> sp.: Lourenço <i>et al.,</i> 2015. <b>Holotype (fig. 2, table 2).</b> MACN 35081 (adult male) collected on 10–18 February 1994 by J.C. Baciluk, J. Faivovich and M. López at " INTA, campo anexo cuartel Río Victoria " (26°58'S, 54°29'W, datum WGS 84; 550 m above sea level [asl]), San Vicente, National Route 14 km. 1025, Departamento Guaraní, Misiones province, Argentina. <b>Paratopotypes (table 2)</b>. MACN 35082–4 (adult males) with the same data as holotype. MACN 49611–2 (adult males) collected on 5–18 January 1995 by J.C. Baciluk and J. Faivovich. MACN 50747 (adult male) collected on 12 December 2001 by J. Faivovich, S. Nenda, and A. Sehinkman. <b>Paratypes (table 2).</b> All the paratypes collected in Misiones province, Argentina at Departamento Cainguás: MACN 50755 (male) collected on October 1972 by A. Barrio and J. Poirot at Arroyo Moncholito and Arroyo Central, General Belgrano. MACN 50757 (female) collected on 14 September 1971 by J. Foerster at 2 de Mayo (27°2'23"S, 54°40'30"W; 505 m asl). LGE 153 [...]
    <i>Pseudopaludicola parnaiba,</i> new species <b>Holotype (figs. 1–2).</b> URCA 2160 (Adult male) collected on April 14 2012 by I.J. Roberto, R.W. Ávila, C.F. Da Silva and D.B. Oliveira, approximately 12 kilometers... more
    <i>Pseudopaludicola parnaiba,</i> new species <b>Holotype (figs. 1–2).</b> URCA 2160 (Adult male) collected on April 14 2012 by I.J. Roberto, R.W. Ávila, C.F. Da Silva and D.B. Oliveira, approximately 12 kilometers (in straight line) southeast of Ribeiro Gonçalves (07° 35 ' 42.15 "S / 45 ° 20 ' 36.63 "W; datum WGS 84), Municipality of Ribeiro Gonçalves, Piauí State, Brazil. <b>Paratypes.</b> Three adult females (URCA 2164, 2166, 2181), and 12 adult males (URCA 2158, 2162 3, 2165, 2168, 2174, 2178, 2180, 2182, 2184, 2191 2) collected on 14 April 2012 by the same collectors and at the same locality as the holotype, and eight adult males (URCA 2361 3; URCA 3864 – 8) collected on 18 January 2011 by I.J. Roberto, S.C. Ribeiro and J.A. Araújo Filho at the same locality as the holotype. <b>Diagnosis.</b> <i>Pseudopaludicola parnaiba</i> <b>sp. nov.</b> is a member of <i>Pseudopaludicola</i>, based on the presence of one hypertrophied antebrachial tubercle on the external border of the forearms, posterolateral process of the hyoid outlined and epicoracoid cartilages slightly overlapped. The new species is characterized by the following: its small size (SVL in males 11.5–14.5, <i>n</i> = 21; females: 13.0– 14.3, <i>n</i> = 3); body slender; toe tips knobbed with central groove; abdominal fold complete; tibio-tarsal articulation reaching the posterior border of the eye; prepollex and prehallux with base element and one segment; and advertisement call composed of a series of non-pulsed notes, with 6 to 46 notes per call and dominant frequency of 4794.7 ± 296.3 Hz. <b>Comparison with other species.</b> The advertisement call with groups of 6–46 non-pulsed notes per call distinguishes <i>P. parnaiba</i> from all <i>Pseudopaludicola</i> species with pulsed advertisement calls: <i>P. boliviana</i> (Duré <i>et al.</i> 2004), <i>P. m u r u nd u</i> (Toledo <i>et al.</i> 2010), <i>P. s e r r a n a</i> (Toledo, 2010) <i>P. falcipes</i>, <i>P. mystacalis</i>, <i>P. saltica</i> (Haddad and Cardoso, 1987) and <i>P. m i n e i r a</i> ( [...]
    <i>Hypsiboas andinus</i> (Müller) Figs. 1A, 1B and 3A. <i>External morphology.—</i> Lot MLP DB 4806, Figs. 4A and 4B. Body depressed (BMH/ BMW = 0.86 ± 0.04); body length little longer than one third of total... more
    <i>Hypsiboas andinus</i> (Müller) Figs. 1A, 1B and 3A. <i>External morphology.—</i> Lot MLP DB 4806, Figs. 4A and 4B. Body depressed (BMH/ BMW = 0.86 ± 0.04); body length little longer than one third of total length (BL/TL = 0.34 ± 0.01); body shape ovoid in dorsal view; widest at posterior third of body, behind spiracle. In lateral view, ventral contour of body flat in gular and branchial regions, convex in abdominal region. Dorsal contour of body slightly convex from eyes to origin of dorsal fin. Snout semicircular in dorsal view, rounded in lateral view. Nostrils oval, with thin pigmented marginal rim, with a small subtriangular fleshy projection in medial margin (Fig. 18A); nostrils dorsolaterally located (EN/ BWN = 0.58 ± 0.04), placed in a depression and closer to eyes than to the tip of the snout (FN/ END = 1.45 ± 0.18), more visible in dorsal than in lateral view. Eyes large (E/ BWE = 0.24 ± 0.02), dorsally positioned (EO/ BWE = 0.73 ± 0.03), dorsolaterally directed, not visible in ventral view. Spiracle single, lateral and sinistral; its inner wall fused to body except for its distal end (Fig. 17A); its opening oval, slightly elevated, with a diameter smaller than tube diameter, located between second and posterior thirds of body (RSD/ BL = 0.64 ± 0.02), posterodorsally directed, visible in lateral and dorsal views. Lateral line system visible. Intestinal assa located at centre of abdominal region. Vent tube starts at midline, at posterior end of body, reaching free margin of lower fin, opening dextral. Tail large (TaL/TL = 0.66 ± 0.01), with both fins a little higher than body height (MTH/ BMH = 1.07 ± 0.07). Dorsal fin originates at tail-body junction. Edge of dorsal fin slightly convex, free margin of ventral fin almost flat. Tail axis straight, tail tip pointed; tail musculature reaching tail tip. Oral disc (Fig. 8A) anteroventral, small (OD/ BMW = 0.35 ± 0.02, disc measured folded), with a well marked infra–angular constriction at each side (also a less marked supra-angular constriction in two speci [...]
    <i>Hypsiboas caingua</i> (Carrizo) Figs. 1C and 1D <i>External morphology.—</i> Lot MLP DB 4258, Figs. 4C and 4D. Body slightly depressed (BMH/ BMW = 0.90 ± 0.04); body length little less than one third of total... more
    <i>Hypsiboas caingua</i> (Carrizo) Figs. 1C and 1D <i>External morphology.—</i> Lot MLP DB 4258, Figs. 4C and 4D. Body slightly depressed (BMH/ BMW = 0.90 ± 0.04); body length little less than one third of total length (BL/TL = 0.32 ± 0.01); body ovoid in dorsal view; widest at posterior third of body. In lateral view, ventral contour of body flat or slightly concave in gular and branchial regions, convex in abdominal region. Dorsal contour of body convex. Snout acutely rounded in dorsal view, rounded in lateral view. Nostrils oval, with a subtriangular or rounded elevated projection in medial margin (Fig. 18B); nostrils dorsolaterally located (EN/ BWN = 0.68 ± 0.04), placed in a depression, closer to eyes than to the tip of snout (FN/ END = 1.38 ± 0.24), more visible in dorsal than in lateral view. Eyes large (E/ BWE = 0.27 ± 0.01), dorsally positioned (EO/ BWE = 0.91 ± 0.02), laterally oriented, external edge of corneas visible in ventral view. Spiracle single, lateral and sinistral; it projects a tube posterodorsally directed, with its internal wall free from body; its opening oval, with a diameter smaller than or equal to tube diameter, located in posterior third of body (RSD/ BL = 0.76 ± 0.05), visible in dorsal and lateral views. Lateral line system visible. Infraorbital line runs in a groove which is evident from anterior edge of nostrils to behind posterior edge of eyes (Fig. 19A). Intestinal assa located at centre of abdominal region. Vent tube starts at midline, at the posterior end of body, reaches margin of the lower fin and opens dextrally. Tail large (TaL/TL = 0.68 ± 0.01), with both fins higher than body height (MTH/ BMH = 1.10 ± 0.06). Dorsal fin originates at the end of body; its origin is abrupt in some specimens. Ventral fin origin concealed by vent tube. Tail axis straight, tail tapering markedly in last half; end acute; tail musculature reaching tail tip. Oral disc (Figs. 8B and 9A) anteroventral, small (OD/ BMW = 0.35 ± 0.05, disc measured folded) with a well marked infraangular constriction [...]
    <i>Hypsiboas faber</i> (Wied-Neuwied) Figs. 2A and 3D <i>External morphology.—</i> Lot MACN 35116, (Figs. 5C–E). Body depressed (BMH/ BMW = 0.86 ± 0.03); body length little less than one third of total length... more
    <i>Hypsiboas faber</i> (Wied-Neuwied) Figs. 2A and 3D <i>External morphology.—</i> Lot MACN 35116, (Figs. 5C–E). Body depressed (BMH/ BMW = 0.86 ± 0.03); body length little less than one third of total length (BL/TL = 0.31 ± 0.01); body shape oval in dorsal view, widest behind the eyes. In lateral view, ventral contour of body slightly concave in gular and branchial regions, convex in abdominal region. Snout rounded in dorsal and lateral views. Dorsal contour of body almost flat from eyes to origin of dorsal fin. Nostrils oval, rimmed, with triangular elevated projection in the medial margin (Fig. 18C); nostrils dorsolaterally located (EN/ BWN = 0.67 ± 0.05), placed in a depression, closer to eyes than to the tip of snout (FN/ END = 1.20 ± 0.17), more visible in dorsal than in lateral view. Eyes large (E/ BWE = 0.19 ± 0.02), dorsally positioned (EO/ BWE = 0.79 ± 0.03), dorsolaterally directed, not visible in ventral view. Spiracle single, lateral, sinistral and short; its inner wall fused to body except for a variable length at its distal end; its opening oval, elevated, with diameter slightly smaller than tube diameter, located in posterior third of body (RSD/ BL = 0.74 ± 0.03), posterodorsally directed, visible in lateral and posterior views. Lateral line system visible with a unique pattern of ventrolateral aggregations of neuromasts at each side of the body, near the body-tail junction (Figs. 15 A–E and 20A). Intestinal assa located approximately at centre of abdominal region. Vent tube starts at midline, at the posterior end of the body, reaches free margin of lower fin, opening dextral. Tail large (TAL/TL = 0.69 ± 0.01), with both fins higher than body height (MTH/ BMH = 1.12 ± 0.05). Dorsal fin originates at tail-body junction. Ventral fin origin concealed by vent tube. Tail axis straight, edges of both fins subparallel, converging at posterior third, end acutely rounded; tail musculature reaching tail tip. Oral disc (Figs. 8D and 9B) anteroventral, not visible dorsally, small (OD/ BMW = 0.39 ± 0.04), vent [...]
    <i>Hypsiboas riojanus</i> (Koslowsky) Figs. 2F and 3H <i>External morphology.—</i> Lot MLP DB 2440, Figs. 7C and 7D. Body depressed (BMH/BMW = 0.86 ± 0.02); body length little longer than one third of total length... more
    <i>Hypsiboas riojanus</i> (Koslowsky) Figs. 2F and 3H <i>External morphology.—</i> Lot MLP DB 2440, Figs. 7C and 7D. Body depressed (BMH/BMW = 0.86 ± 0.02); body length little longer than one third of total length (BL/TL = 0.35 ± 0.02); body shape ovoid in dorsal view with a constriction behind eyes; widest at posterior third of body, behind spiracle. In lateral view, ventral contour of body flat in gular and branchial regions, convex in abdominal region. Dorsal contour of body almost flat from eyes to origin of dorsal fin. Snout semicircular in dorsal view and rounded in lateral view. Nostrils oval, with thin marginal rim, with a small rounded or subtriangular fleshy projection in medial margin; nostrils dorsolaterally located (EN/BWN = 0.54 ± 0.06), placed in a depression, closer to eyes than to the tip of snout (FN/END = 1.32 ± 0.15), more visible in dorsal than in lateral view. Eyes large (E/BWE = 0.21 ± 0.01), dorsally positioned (EO/BWE = 0.75 ± 0.03), dorsolaterally directed, not visible in ventral view. Spiracle single, lateral and sinistral; its inner wall fused to body except for its distal end; its opening oval, slightly elevated, with a diameter smaller than tube diameter, located between second and posterior thirds of body (RSD/ BL = 0.65 ± 0.03), posterodorsally directed, visible in lateral and dorsal views. Lateral line system visible. Intestinal assa located at centre of abdominal region. Vent tube starting at midline, at posterior end of body, reaching margin of lower fin, opening dextral. Tail large (TaL/TL = 0.65 ± 0.02), with both fins slightly lower than body height (MTH/BMH = 0.98 ± 0.04). Dorsal fin originates at tail-body junction. Ventral fin origin concealed by vent tube. Edges of both fins sub-parallel for first and second thirds, convergent in last one. Tail axis straight, tail tip rounded; tail musculature not reaching tail tip. Oral disc (Figs. 8H and 9F) anteroventral, small (OD/BMW = 0.33 ± 0.02, disc measured folded), with a well marked infraangular constriction on each side of or [...]
    <i>Hypsiboas punctatus rubrolineatus</i> (B. Lutz) Figs. 2B and 3F <i>External morphology.—</i> Lot MLP DB 4548, Figs. 6C and 6D. Body depressed (BMH/BMW = 0.81 ± 0.03); little longer than one third of total length... more
    <i>Hypsiboas punctatus rubrolineatus</i> (B. Lutz) Figs. 2B and 3F <i>External morphology.—</i> Lot MLP DB 4548, Figs. 6C and 6D. Body depressed (BMH/BMW = 0.81 ± 0.03); little longer than one third of total length (BL/TL = 0.35 ± 0.01); body shape oval in dorsal view, widest at spiracle level. In lateral view, ventral contour of body flat in gular and concave in branchial regions, slightly convex in abdominal region. Dorsal contour of body slightly convex from the nostrils to beginning of dorsal fin. Snout rounded in dorsal and lateral views. Nostrils oval, with slightly elevated marginal rim and a rounded projection in medial margin; nostrils dorsolaterally located (EN/BWN = 0.57 ± 0.03), placed in a depression, closer to eyes than to the tip of snout (FN/END = 1.37 ± 0.30), visible in dorsal and lateral views. Eyes large (E/BWE = 0.23 ± 0.03), dorsally positioned (EO/BWE = 0.70 ± 0.04) and dorsolaterally directed, not visible in ventral view. Spiracle single, lateral and sinistral, its inner wall fused to body except for its distal end; its opening oval, elevated, with diameter smaller than or equal to tube diameter, located in posterior third of body (RSD/BL = 0.71 ± 0.03), visible in dorsal and lateral views. Lateral line system visible. Intestinal assa located at the centre of abdominal region. Vent tube starts at midline, at posterior end of body, reaching free margin of lower fin, opening dextral. Tail large (TaL/TL = 0.65 ± 0.01), with both fins higher than body height (MTH/ BMH = 1.12 ± 0.03). Dorsal fin originates at tail-body junction. Ventral fin origin concealed by vent tube. Dorsal fin contour slightly convex; ventral fin contour almost flat, both fins tapering to tip of tail in last third. Tail axis straight, end acute; tail musculature reaching tail tip. Oral disc (Figs. 8F and 9D) ventral, small (OD/ BMW = 0.46 ± 0.02, disc measured folded) with a well marked infraangular constriction on each side. Marginal papillae simple; those at anterior lip short and blunt, while the ones at posterior lip l [...]
    FIGURE 3. Physalaemus carrizorum sp. nov. in life.A) Paratype LGE 15320; B) ventral view of the paratype LGE 15325.
    FIGURE 2. Physalaemus carrizorum sp. nov., holotype, MACN 35081. A) Dorsal view, and B) ventral view of the body; C) lateral view of the head; D) palmar view of hand; E) plantar view of foot.Scale bar 1 cm.
    FIGURE 1. Advertisement call of Physalaemus gracilis. A) Sonogram. B) Spectrogram. Time in seconds (s). Frequency in KiloHertz (KHz).
    Cesar Aguilar, Leandro Alcalde, Phillip Allman, Staci Amburgey, Thomas Anderson, Denis Andrade, Fabien Aubret, Délio Baêta, Betsy Bancroft, Anthony Barley, Christopher Beachy, David Beamer, Daniel Beck, Rayna Bell, Gabriel Blouin-Demers,... more
    Cesar Aguilar, Leandro Alcalde, Phillip Allman, Staci Amburgey, Thomas Anderson, Denis Andrade, Fabien Aubret, Délio Baêta, Betsy Bancroft, Anthony Barley, Christopher Beachy, David Beamer, Daniel Beck, Rayna Bell, Gabriel Blouin-Demers, David Booth, Rafael Bovo, Reuber Brandão, Josephine Braun, Valerie Buxton, Nathan Byer, Michael Caldwell, Carlos Camp, Dario Cardozo, Michael Cardwell, Emerson Castilho-Martins, Santiago Castroviejo-Fischer, Ming-Feng Chuang, Vincent Cobb, Kristina Cohen, Warren Conway, Andrew Cronin, Dane Crossley, Brian Crother, Helio da Silva, Raul Dı́az, Jr., Roberta Damasceno, Juan Daza, Vania Regina De Assis, Andre Luiz de Carvalho, David Delaney, Pedro E. Dias, Colleen Downs, Douglas Eifler, Julian Faivovich, Bryan Falk, Rodrigues da Silva Fernando, Patrick Fitze, Jinzhong Fu, Megan Gall, Ariovaldo Giaretta, Matthew Gifford, Xavier Glaudas, Scott Goetz, Jeronimo Gomes Da Silva Neto, Johana Goyes, Taran Grant, Eli Greenbaum, Lee Grismer, Peng Guo, Jen Hamel, Fabio Hepp, Tom Herman, Grant Hokit, Marinus Hoogmoed, Steven Hromada, Kim Hunter, Margaret Hunter, Elizabeth Jockusch, Gunther Köhler, Ben Karin, David Kizirian, Sean Kuchta, Chi-Yun Kuo, Simon Lailvaux, Norman Lee, Edgar Lehr, Felipe Leite, Erik Lindquist, Ana Longo, Jeffrey Lovich, Kate Marshall, Itamar Martins, Alicia Mathis, Ross McCulloch, Jimmy McGuire, Joseph Mendelson III, Alice Millikin, Thomas Mohrman, Miguel Molina-Borja, Leonardo Moreira, Martha Munoz, Matthew Murphy, Megan Murphy, Rene Murrieta-Galindo, Edward Myers, Melia Nafus, Edward Narayan, Lorin Neuman-Lee, Zaida Ortega, Jhon Jairo Ospina-Sarria, Dustin Owen, Mónica Páez, Theodore Papenfuss, James Parham, Gabriela Parra, Ann Paterson, Joseph Pechmann, Guillem Perez, Bill Peterman, Jennifer Pramuk, Alejandro Rı́os-Franceschi, Michael Reichert, Jeanne Robertson, John Roe, Juliana Roscito, Sean Rovito, Sara Ruane, Samantha Rumschlag, Luis Martin San-Jose Garcia, Pilar Santidrián Tomillo, Pedro Segurado, David Sever, Shane Siers, Lora Smith, John Socha, Carol Spencer, Nancy Staub, Brian Sullivan, Bill Sutton, Mariane Targino, Ryan Taylor, Stanley Trauth, Ines Van Bocxlaer, Fernando Vargas-Salinas, Florencia Vera Candioti, Katyuscia Vieira, Wolfgang Wüster, Hardin Waddle, Theresa Walters, Daniel Warner, Gregory Watkins-Colwell, David Weisrock, Perry Wood, Tristram Wyatt, Luis Zambrano.
    The invasive Hemidactylus mabouia (Moreau de Jonnès, 1818) is one of the most widespread introduced species of reptiles, being present in the New World at least 500 years ago. In this work, we report for the first time, the presence of... more
    The invasive Hemidactylus mabouia (Moreau de Jonnès, 1818) is one of the most widespread introduced species of reptiles, being present in the New World at least 500 years ago. In this work, we report for the first time, the presence of the invasive gecko H. mabouia in the dry Chaco, a biogeographic region included in the Gran Chaco Sudamericano. We collected 3 individuals in an urban zone at Las Lomitas, Patiño department, Formosa Province, Argentina. This new record extends the distribution range of this introduced species by nearly 300 km (in a straight line) from Formosa city, the nearest point previously reported.
    Pseudopaludicola canga was described by Giaretta & Kokubum (2003) based on 74 individuals previously assigned to P.mystacalis by Lobo (1995). In the diagnosis of P. canga, the original authors assigned the presence of terminal... more
    Pseudopaludicola canga was described by Giaretta & Kokubum (2003) based on 74 individuals previously assigned to P.mystacalis by Lobo (1995). In the diagnosis of P. canga, the original authors assigned the presence of terminal T-shapedphalanges as a character state for this taxon. However, the osteology of P. canga is not described and the presence of toetips not expanded laterally is a characteristic share with all members of Pseudopaludicola unassigned to any group. In thiswork is describe for first time the osteology of P. canga, re-examining the external morphology providing a new diagnosisand establishing the taxonomic position of P. canga in the framework of phylogenetic hypothesis proposed by Lobo(1995). Additionally, is compared the toe tip digit IV, between P. falcipes and all the species included in the P. pusilla groupand updated the type locality of P. canga. The osteology reveals that P. canga has the toe tips not T-shaped as mentionedby the original authors and this ch...
    The hylid tribe Cophomantini is a diverse clade of Neotropical treefrogs composed of the genera Aplastodiscus, Boana, Bokermannohyla, Hyloscirtus, and Myersiohyla. The phylogenetic relationships of Cophomantini have been comprehensively... more
    The hylid tribe Cophomantini is a diverse clade of Neotropical treefrogs composed of the genera Aplastodiscus, Boana, Bokermannohyla, Hyloscirtus, and Myersiohyla. The phylogenetic relationships of Cophomantini have been comprehensively reviewed in the literature, providing a suitable framework for the study of chromosome evolution. Employing different banding techniques, we studied the chromosomes of 25 species of Boana and 3 of Hyloscirtus; thus providing, for the first time, data for Hyloscirtus and for 15 species of Boana. Most species showed karyotypes with 2n = 2x = 24 chromosomes; some species of the B. albopunctata group have 2n = 2x = 22, and H. alytolylax has 2n = 2x = 20. Karyotypes are all bi-armed in most species presented, with the exception of H. larinopygion (FN = 46) and H. alytolylax (FN = 38), with karyotypes that have a single pair of small telocentric chromosomes. In most species of Boana, NORs are observed in a single pair of chromosomes, mostly in the small ch...
    Fakhrul Zaman Abdullah, Fahad Bin Sultan University, College of Business and Management, Tabuk, Saudi Arabia Khalid Aboura, University of Dammam, College of Business Administration, Damman, Saudi Arabia Andrew A. Adams, Meiji University,... more
    Fakhrul Zaman Abdullah, Fahad Bin Sultan University, College of Business and Management, Tabuk, Saudi Arabia Khalid Aboura, University of Dammam, College of Business Administration, Damman, Saudi Arabia Andrew A. Adams, Meiji University, Graduate School of Business Administration, Tokyo, Japan Klara Antlova, Technical University of Liberec, Faculty of Economics, Liberec, Czech Republic Łukasz Arendt, University of Lodz, Faculty of Economics and Sociology, Lodz, Poland Alireza Aslani, University of Tehran, Faculty of New Sciences and Technology, Tehran, Iran Emira Becic, Ministry of Science, Education and Sports, Zagreb, Croatia Mojca Bernik, University of Maribor, Faculty of Organizational Sciences, Kranj, Slovenia Mahdi Bohlouli, University of Siegen, Faculty of Natural Sciences and Engineering, Siegen, Germany Lucie Bohmova, University of Economics, Prague, Faculty of Informatics and Statistics, Prague, Czech Republic Vesna Bosilj Vuksic, University of Zagreb, Faculty of Economics and Business, Zagreb, Croatia Zita Bosnjak, University of Novi Sad, Faculty of Economics in Subotica, Serbia Javier F. Boyas, The University of Mississippi, School of Applied Sciences, University, MS 38677, USA Brendan Burchell, University of Cambridge, Department of Sociology, Cambridge, UK Bernard Casey, University of Warwick, Institute for Employment Research and London School of Economics, UK Katarzyna Cheba, Westpomeranian University of Technology, Szczecin, Poland Jan Capek, Masaryk University, Faculty of Economics and Administration, Brno, Czech Republic Mladen Cudanov, University of Belgrade, Faculty of Organizational Sciences, Beograd, Serbia Jose Maria Fernandez-Crehuet, Technical University of Madrid, Department of Organization, Engineering, Business Administration and Statistics, Madrid, Spain Lidia Galabova, Technical University Sofia, Department of Economics, Industrial Engineering and Management, Sofia, Bulgaria Bartlomiej Gawin, University of Gdansk, Department of Business Informatics, Sopot, Poland Bostjan Gomiscek, University of Maribor, Faculty of Organizational Sciences, Kranj, Slovenia Edward Granter, University of Manchester, Manchester Business School, Manchester, UK Vladimiras Gražulis, Mykolas Romeris University, Faculty of Politics and Management, Vilnius, Lithuania Marta Gross, University of Warmia and Mazury, Faculty of Geodesy, Geospatial and Civil Engineering, Olsztyn, Poland Jonas Hedman, Copenhagen Business School, Department of IT Management, Copenhagen, Denmark Miroljub Ignjatovic, University of Ljubljana, Faculty of Social Sciences, Ljubljana, Slovenia Dejan Ilic, Faculty of Strategic and Operational Management, Belgrade, Serbia Mojca Indihar Stemberger, University of Ljubljana, Faculty of Economics, Ljubljana, Slovenia Eva Jereb, University of Maribor, Faculty of Organizational Sciences, Kranj, Slovenia Mojca Jurisevic, University of Ljubljana, Faculty of Education, Ljubljana, Slovenia Marija Kastelan Mrak, University of Rijeka, Faculty of Economics, Rijeka, Croatia Richard Kemp, Kemp IT Law, London, UK Miroljub Kljajic, University of Maribor, Faculty of Organizational Sciences, Kranj, Slovenia Jure Kovac, University of Maribor, Faculty of Organizational Sciences, Kranj, Slovenia Tatjana Kovac, Faculty of Commercial and Business Sciences, Celje, Slovenia Tatjana Kozjek, University of Ljubljana, Faculty of Administration, Ljubljana, Slovenia Konrad Kulakowski, AGH University of Science and Technology, Department of Applied Computer Science, Krakow, Poland Aleksandra Labus, University of Belgrade, Faculty of Organizational Sciences, Beograd, Serbia Violet Lazarevic, Monash University, Monash Business School, Melbourne, Australia Gregor Lenart, University of Maribor, Faculty of Organizational Sciences, Kranj, Slovenia Liudmila Lobanova, Vilnius Gediminas Technical University, Department of International Economics and Management, Vilnius, Lithuania Matjaž Maletic, University of Maribor, Faculty of Organizational Sciences, Kranj, Slovenia Damjan Maletic, University of Maribor, Faculty of Organizational Sciences, Kranj, Slovenia Miha Maric, University of Maribor, Faculty of Organizational Sciences, Kranj, Slovenia Janko Marovt, University of Maribor, Faculty of Economics and Commerce, Maribor, Slovenia Milos Maryska, Prague University of Economic, Department of Information Technologies, Prague, Czech Republic Renata Mekovec, University of Zagreb, Faculty of Organization and Informatics, Varaždin, Croatia Bozena Mielczarek, Wroclaw University of Technology, Institute of Organization and Management, Wroclaw, Poland Katja Mihelic, University of Ljubljana, Faculty of Economics, Ljubljana, Slovenia Veselina Milanova, University of St. Gallen, Institute of Insurance Economics, St. Gallen, Switzerland Monika Mynarska, Cardinal Stefan Wyszynski University, Warsaw, Poland Valentinas Navickas, Kaunas University of Technology, Faculty of Economics and Management, Kaunas, Lithuania Juraj Nemec, Masaryk…
    Dendropsophini is the most species-rich tribe within Hylidae with 234 described species. Although cytogenetic information is sparse, chromosome numbers and morphology have been considered as an important character system for systematic... more
    Dendropsophini is the most species-rich tribe within Hylidae with 234 described species. Although cytogenetic information is sparse, chromosome numbers and morphology have been considered as an important character system for systematic inferences in this group. Using a diversity of standard and molecular techniques, we describe the previously unknown karyotypes of the genera Xenohyla, Scarthyla and Sphaenorhynchus and provide new information on Dendropsophus and Lysapsus. Our results reveal significant karyotype diversity among Dendropsophini, with diploid chromosome numbers ranging from 2n = 22 in S. goinorum, 2n = 24 in Lysapsus, Scinax, Xenohyla, and almost all species of Sphaenorhynchus and Pseudis, 2n = 26 in S.carneus, 2n = 28 in P.cardosoi, to 2n = 30 in all known Dendropsophus species. Although nucleolar organizer regions (NORs) and C-banding patterns show a high degree of variability, NOR positions in 2n = 22, 24 and 28 karyotypes and C-banding patterns in Lysapsus and Pseu...
    FIGURE 4. Advertisement call of Physalaemus carrizorum sp. nov. A) Sonogram. B) Spectrogram. Time in seconds (s). Frequency in KiloHertz (KHz).
    A new species of Pseudopaludicola from western Piauf State, Brazil, in the Cerrado domain is described. Pseudopaludicola parnaiba sp. nov. is a member of the genus Pseudopaludicola, on the basis of the presence of one hypertrophied... more
    A new species of Pseudopaludicola from western Piauf State, Brazil, in the Cerrado domain is described. Pseudopaludicola parnaiba sp. nov. is a member of the genus Pseudopaludicola, on the basis of the presence of one hypertrophied antebrachial tubercle, posterolateral process of the hyoid outlined and epicoracoid cartilages slightly overlapped. The new species is characterized by an advertisement call composed of 6-46 non-pulsed notes per call and dominant frequency of 4794 ± 296 Hz, which supports an independent lineage. Additionally, the small size, body slender, toe tips knobbed with central groove, abdominal fold complete, tibio-tarsal articulation reaching the posterior border of the eye, and prepollex and prehallux composed of base and one element are character states that distinguish P. parnaiba from all the members of Pseudopaludicola. We provide its formal description with regard to external morphology, osteological characters and advertisement call.
    A new species of Physalaemus from Misiones province, Argentina, in the Atlantic forest domain is described. The new species is a member of the P. gracilis group, based on its phylogenetic position and the occurrence of a putative... more
    A new species of Physalaemus from Misiones province, Argentina, in the Atlantic forest domain is described. The new species is a member of the P. gracilis group, based on its phylogenetic position and the occurrence of a putative morphological synapomorphy (occurrence of an unpigmented median stripe on throat, chest, and/or abdomen). Physalaemus sp. nov. is characterized by a long advertisement call composed of non-pulsed notes with slightly descendant modulation, large size (mean SVL = 32.0 mm males, 34.0 mm females), slender body aspect, head longer than wide, supratympanic fold developed, an unpigmented median stripe on venter, medium sized inguinal glands, tarsal tubercle present, and supernumerary tubercles on hands and feet, which are character states that combined distinguish the new species from all the members of the genus. In this study, we provide its formal description based on external morphology, advertisement call, and 16S genetic distance. In addition, the distributi...
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    We describe a new species of Oreobates from Jujuy, Argentina. The new species is clearly diagnosable from other species of Oreobates by a combination of morphological characters and support by molecular evidence (genetic distance and... more
    We describe a new species of Oreobates from Jujuy, Argentina. The new species is clearly diagnosable from other species of Oreobates by a combination of morphological characters and support by molecular evidence (genetic distance and phylogenetic analysis). We also provide taxonomic comments about O. discoidalis and O. barituensis, emphasizing the need for an exhaustive revision of these species.
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