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1,065 results for “katydid”
Figs 139–152 in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 16
Figs 139–152. Elbenia: 139 – E. (Elbenia) eudigitata sp. n.; 140–149 – E. (Aequapteron)
Figs 63–79 in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 16
Figs 63–79. Elbenia (Elbenia), male: 63–68 – E. (E.) carinata sp. n.; 69 – E. (E.)
Figs 1–12 in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 16
Figs 1–12. Elbenia, male: 1–3 – E. (Tamdaopteron) ryabovi sp. n.; 4–6 – E. (T.) daedala
Data from: Large-scale bioacoustic monitoring to elucidate the distribution of a non-native katydid
<p>For animals that produce species-specific audible sounds, environmental recordings combined with automated acoustic monitoring software (passive acoustic monitoring, PAM) may be an effective monitoring tool because it allows audio data from many, widely distributed autonomous recording units (ARUs) to be processed in a relatively short period of time. Males of many insect species produce loud, species-specific mating songs, yet acoustic insects have received less attention from PAM relative to vertebrates.</p> <p>We evaluated the use of PAM to monitor, <em>Roeseliana roeselii</em> (Orthoptera, Tettigoniidae), an acoustic insect that has expanded its range to Alberta, Canada far outside its naturalized North American range. We analyzed environmental recordings from ARUs: 1) at two control sites known to be occupied by <em>R. roeselii</em>, and 2) across Alberta established by the Alberta Biodiversity Monitoring Institute (ABMI) to search for new populations.</p> <p>PAM successfully detected <em>R. roeselii</em> at the two control sites, but not at any of the 74 ABMI sites that we analyzed. Despite the failure to detect new locations of <em>R. roeselii</em>, our analysis of ABMI environmental recordings detected several other species of acoustic insects, including <em>Orchelimum gladiator</em>, <em>Gryllus</em> sp. and <em>Allonemobius</em> spp.</p> <p>Our results add to the growing body of work showing the feasibility of using PAM for acoustic insects. We make suggestions for how to maximize the effectiveness of this monitoring tool for the conservation and management of singing insects in North America.</p>
Video of male postcopulatory tremulation of the katydid, Nesoecia nigrispina (Orthoptera, Pseudophyllinae)
<p>After copulation, the female does not emit signals, and the male continues to produce rhythmic series of vibrations. From time to time, the male produces a series of oscillations of extremely high-amplitude single blows of the body against the substrate during which the insect literally jumps in place (see in the end of the video).</p> <p>Recordings were performed using a Nikon 1J4 video camera without an infrared filter under the light of an Orient SAL-130C infrared illuminator.</p> <p> </p>
Video of female wing and mandibular protest sounds of the katydid, Nesoecia nigrispina (Orthoptera, Pseudophyllinae)
<p>The katydids,<em> Nesoecia nigrispina</em> (Stal, 1873) (Orthoptera, Pseudophyllinae, Cocconotini) emit sound signals in three ways: using the tegminal sound apparatus (males only), wings, and, presumably, mandibles (individuals of both sexes). The repertoire of sound signals includes calling song of two types and 3 types of protest signals. Males, which, like other katydids, have tegminal stridulatory organ, produce sounds of all types. However, the emission of protest signals of the 2nd and 3rd types is carried out with the help of the wings and mouth organs (apparently, mandibles). Females can also produce Type 2 and Type 3 protest sounds in the same way as males.</p> <p>In the video, can be seen and heard how the female produces wing protest sounds, as well as short clicks that accompany the movements of the mouthparts.</p>
Video of male wing and mandibular protest sounds of the katydid, Nesoecia nigrispina (Orthoptera, Pseudophyllinae)
<p>The katydids,<em> Nesoecia nigrispina</em> (Stal, 1873) (Orthoptera, Pseudophyllinae, Cocconotini) emit sound signals in three ways: using the tegminal sound apparatus (males only), wings, and, presumably, mandibles (individuals of both sexes). The repertoire of sound signals includes calling song of two types and 3 types of protest signals. Males, which, like other katydids, have tegminal stridulatory organ, produce sounds of all types. However, the emission of protest signals of the 2nd and 3rd types is carried out with the help of the wings and mouth organs (apparently, mandibles). Females can also produce Type 2 and Type 3 protest sounds in the same way as males.</p> <p>In the video, can be seen and heard how the male produces wing protest sounds, as well as short clicks can be heard that accompany the movements of the mouthparts.</p>
Figs 46–68 in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 15
Figs 46–68. Meconematina: 46–49 – Xiphidiopsis (Xiphidiopsis) beybienkoi adjacens
Figs 69–88 in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 15
Figs 69–88. Meconematina: 69–74 – Rhinoteratura uniformis (Gor.); 75, 76 – Rh. ketambe
Figs 30–45 in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 15
Figs 30–45. Xizicus spp.: 30–35 – X. (Eoxizicus) reductus sp. n.; 36–39 – X. (Axizicus?)
Figs 1–13. Subtilodecma gen. n in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 15
Figs 1–13. Subtilodecma gen. n.: 1–7 – S. unilobata sp. n.; 8–13 – S. bilobata sp. n. Male
Figs 26–40 in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 14
Figs 26–40. Lipotactes spp.: 26–29 – L. (Lipotactes) alienus lambir subsp. n.; 30–33 – L. (L.)
Figs 41–65 in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 14
Figs 41–65. Lipotactes spp., schematically: 41 – L. (Prolipotactes) hamatus wartabone
Figs 77–87 in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 14
Figs 77–87. Lipotactes spp.: 77 – L. (Lipotactes) alienus lambir subsp. n.; 78 – L. (L.) a.
Figs 1–25 in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 14
Figs 1–25. Lipotactes spp., schematically: 1–3 – L. (Lipotactes) alienus lambir subsp. n.;
Figs 177–188. Anelytra s. l in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 13
Figs 177–188. Anelytra s. l., ovipositor from side: 177 – A. (Euanelytra) namlik sp. n.;
Figs 97–133. Anelytra s. l in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 13
Figs 97–133. Anelytra s. l.: 97–100 – A. (Anelytra) archaica sp. n.; 101–105 – A. (Ane-
Figs 156–176. Anelytra s.l in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 13
Figs 156–176. Anelytra s.l., male, genital sclerites and cercus: 156, 157 – A. (Euanelytra)
Figs 134–155. Anelytra s. l in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 13
Figs 134–155. Anelytra s. l., male genitalia: 134–136 – A. (Euanelytra) namlik sp. n.;
Figs 31–50. Liara s. l in Taxonomy of the katydids (Orthoptera: Tettigoniidae) from East Asia and adjacent islands. Communication 13
Figs 31–50. Liara s. l.: 31–36 – L. (Liara) bifurcata sp. n.; 37–43 – L. (Liara) inaculeata
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Allen Brain Atlas
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International Brain Laboratory public data
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OpenNeuro
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