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Figure 14 from: Holzenthal R, Blahnik R (2010) Systematics of the Neotropical caddisfly genus Notidobiella Schmid (Trichoptera, Sericostomatidae), with the description of 3 new species. ZooKeys 71: 23-47. https://doi.org/10.3897/zookeys.71.791
Figure 14 - Notidobiella ecuadorensis, sp. n. Wings A forewing B hind wing.
Figure 7 from: Holzenthal R, Blahnik R (2010) Systematics of the Neotropical caddisfly genus Notidobiella Schmid (Trichoptera, Sericostomatidae), with the description of 3 new species. ZooKeys 71: 23-47. https://doi.org/10.3897/zookeys.71.791
Figure 7 - Notidobiella amazoniana, sp. n. Wings A forewing B hind wing.
Figures 46–48 in A review of Australian long-horned caddisflies in the Oecetis pechana-group (Trichoptera: Leptoceridae), with descriptions of thirteen new species
Figures 46–48, Oecetis burtoni Neboiss, male genitalia in ventral, dorsal and lateral views.
Figures 35, 36 in A review of Australian long-horned caddisflies in the Oecetis pechana-group (Trichoptera: Leptoceridae), with descriptions of thirteen new species
Figures 35, 36, Oecetis theischingeri sp. nov., male genitalia in ventral and lateral views.
Figures 30–32 in A review of Australian long-horned caddisflies in the Oecetis pechana-group (Trichoptera: Leptoceridae), with descriptions of thirteen new species
Figures 30–32, Oecetis jenniae sp. nov., male genitalia in dorsal, ventral and lateral views.
FIGURE 5 in New Caddisflies (Insecta, Trichoptera) from the Krabi and Phang Nga Provinces southern Thailand
FIGURE 5. Male genital structures of Hydroptila nevdomek new species: 5A, genitalia, left lateral; 5B, genitalia, dorsal; 5C, genitalia, ventral; 5D, phallus, left lateral.
FIGURE 6 in New Caddisflies (Insecta, Trichoptera) from the Krabi and Phang Nga Provinces southern Thailand
FIGURE 6. Male genital structures of Setodes spp. 6A–6F, Setodes pokamest new species: 6A, genitalia, left lateral; 6B, genitalia, dorsal; 6C, genitalia, ventral; 6D, phallus, dorsal; 6E, phallus, left lateral; 6F, phallus, right lateral. 6G–6H, Setodes melpomene Malicky & Chantaromongkol, phallus: 6G, left lateral; 6H, right lateral.
FIGURE 4 in New Caddisflies (Insecta, Trichoptera) from the Krabi and Phang Nga Provinces southern Thailand
FIGURE 4. Male genital structures of Psychomyia dabudettak new species: 4A, genitalia, left lateral; 4B, genitalia, dorsal; 4C, genitalia, ventral; 4D, phallus, left lateral.
FIGURE 2 in New Caddisflies (Insecta, Trichoptera) from the Krabi and Phang Nga Provinces southern Thailand
FIGURE 2. Map of the eight localities sampled for Trichoptera in the southern part of Thailand. See text for details.
FIGURES 15–19. Hydropsyche briareus Malicky & Chantaramongkol 2000, male genitalia. 15 in New Species and New Records of Caddisflies (Insecta: Trichoptera) from India
FIGURES 15–19. Hydropsyche briareus Malicky & Chantaramongkol 2000, male genitalia. 15, left lateral; 16, dorsal; 17, phallus, left lateral; 18, apex of phallus, ventral; 19, right inferior appendage, caudal.
FIGURES 10–14. Cheumatopsyche chryseis Malicky & Chantaramongkol 1997, male genitalia. 10 in New Species and New Records of Caddisflies (Insecta: Trichoptera) from India
FIGURES 10–14. Cheumatopsyche chryseis Malicky & Chantaramongkol 1997, male genitalia. 10, left lateral; 11, dorsal; 12, right inferior appendage, caudal; 13, apex of phallus, ventral; 14, phallus, left lateral.
Data from: Declining abundance of beetles, moths and caddisflies in the Netherlands
<p>Data used in Hallmann CA, Zeegers T, van Klink R, Vermeulen R, van Wielink P, Spijkers H, van Deijk J, van Steenis W, Jongejans E (2020) Declining abundance of beetles, moths and caddisflies in the Netherlands. Insect Conserv Divers 13:127-139</p> <p>Data were collected at two groups of sites: De Kaaistoep and Wijster, both in the Netherlands. In addition, we obtained data from two KNMI weather stations (for De Kaaistoep data: weather station Gilze-Rijen, for Wijster data: weather station Eelde, at, respectively, 3.6 and 40 km from trapping locations), from which we extracted relevant parameters.</p> <p><em>Collecting at light in De Kaaistoep</em></p> <p>De Kaaistoep is a 330 ha managed natural area consisting of heathland, pine forest and grassland. It was established in 1994 on former arable land. Information about the location and management history can be found in the study by Felix and van Wielink (2008). Insects were attracted by light in combination with a white cloth (Supporting Information Fig. S1) over a period of 3.3 h per trapping night, normally starting around sunset (Hallmann et al. 2020). During this sampling period, individuals of the various insect taxa were counted, or were estimated in the case of large numbers. All macro-moths were always counted and identified, while for other groups of insects, between 25 and 100% were collected for identification. Further details of the sampling protocol are given in the study by van Wielink and Spijkers (2013). The data archived her have been collected during 628 trapping nights between 1997 and 2017, on average 30 evenings per year (10–77). Data were available for the period of 1997–2017 for macro-moths (Lepidoptera), beetles (Coleoptera) and ground beetles (Carabidae), while for caddisflies (Trichoptera), lacewings (Neuroptera), true bugs (Hemiptera-Heteroptera and Hemiptera-Auchenorrhyncha) and mayflies (Ephemeroptera) data were available only for the years 2006 and 2009–2017. Of the large number of Coleoptera, only ground beetles, ladybirds and carrion beetles were identified to species up to 2017, accounting for 48 000 of 239 000 beetle specimens.</p> <p> As it is known that the environmental conditions (like temperature) during each trapping night influenced the number of insects caught, we aimed to include relevant covariates in our analyses. Information about the timing and duration of sampling were available for 91.2% of the nights (n = 574), and lacking more in the first few years of sampling than later on. The number of sampling hours per night varied little among years but did increase from an average of 3.1 h (1997–2009) to an average of 3.8 h per night after 2010 (Hallmann et al. 2020). Timing of onset of sampling was roughly at sunset throughout the years, with the exception of the first few years in which sampling started on average up to half an hour after sunset (Hallmann et al. 2020). </p> <p><em>Pitfall traps near Wijster</em></p> <p>A long-term monitoring program using pitfall traps was started at the Wijster Biological Station (and continued by the Foundation Willem Beijerink Biological Station) in two nature reserves in the province of Drenthe: National Park Dwingelderveld and the fragmented, but increasingly reconnected Hullenzand. In these reserves restoration measures, mainly in the form of topsoil removal and reconnection, were carried out during the early 1990s. The pitfall data have been collected between 1959 and 2016 at in total 48 unique locations (mean = 9, range 4–19 operating locations per year). The locations consisted mainly of heathlands, with some forest sites, a forest edge and an abandoned crop field. At each location, three square pitfall traps (25 by 25 cm) were installed: one lethal funnel trap with a 3% formaldehyde solution and two live traps. The traps at each location were spaced 10 m apart. Caught ground beetles (Coleoptera: Carabidae) have been identified at weekly intervals. Further details on the sampling protocol and the area are given in the study by den Boer and van Dijk (1994). Because we are only interested in recent trends in insect abundances, and because sampling protocols were not consistent in the early years, we here only archive data collected since 1986. We document two types of data: i) the annual sums per species and location for the period of 1986–2016, and ii) the weekly sums per species and location that have been fully digitised and checked: 2002–2017. </p> <p><em>Annual totals 1986–2016</em>. In total, 7778 records of species-specific counts are archived, which amounted to 264 986 individual ground beetles. For 20 records, we used multiple imputation (Onkelinx et al. 2017) to derive more reliable estimates for suspected erroneous counts. This method is based on the correlation structure between years and between other species. Note that in the years 1998–2001, no monitoring took place, and 2004 was omitted because of incomplete catches. </p> <p> </p> <p><em>Species weights</em></p> <p>For biomass estimation we used known species length measurements and known relationships of length to weight (Sabo et al. 2002; García-Barros 2015). For the Carabidae in the Wijster data set, we used the minimum and maximum body length as stated in the Dutch ground beetles field guide (Boeken et al. 2002). </p> <p> </p> <p>KaaistoepOrder.csv </p> <ul> <li>Trich = number of Trichoptera individuals</li> <li>Hemip = number of Hemiptera individuals</li> <li>Neur = number of Neuroptera individuals</li> <li>Ephem = number of Ephemeroptera individuals</li> <li>Hemi.hetero = number of Hemiptera-Heteroptera individuals</li> <li>Hemi.cica = number of Hemiptera- Auchenorrhyncha individuals</li> <li>T = hourly average temperature (in 0.1 degrees Celsius; at 1.5 meter height)</li> <li>U = hourly relative humidity (in %; at 1.5 meter height)</li> <li>RH = hourly sum of precipitation (in 0.1 mm) (negative values for <0.05mm)</li> <li>FH = hourly average windspeed (in 0.1 m/s)</li> <li>start = date and start time of the measurement</li> <li>suns.deviate = number of minutes the measurements started after sunset</li> <li>tdiff = number of hours of measurement</li> </ul> <p> </p> <p>KaaistoepColeo.csv</p> <ul> <li>Coleo = number of Coleoptera individuals</li> <li>T = hourly average temperature (in 0.1 degrees Celsius; at 1.5 meter height)</li> <li>U = hourly relative humidity (in %; at 1.5 meter height)</li> <li>RH = hourly sum of precipitation (in 0.1 mm) (negative values for <0.05mm)</li> <li>FH = hourly average windspeed (in 0.1 m/s)</li> <li>sunset = date and sunset time</li> <li>suns.deviate = number of minutes the measurements started after sunset</li> <li>tdiff = number of hours of measurement</li> </ul> <p> </p> <p>KaaistoepLepi.csv</p> <ul> <li>freq = number of Lepidoptera individuals</li> <li>T = hourly average temperature (in 0.1 degrees Celsius; at 1.5 meter height)</li> <li>U = hourly relative humidity (in %; at 1.5 meter height)</li> <li>RH = hourly sum of precipitation (in 0.1 mm) (negative values for <0.05mm)</li> <li>FH = hourly average windspeed (in 0.1 m/s)</li> <li>sunset = date and sunset time</li> <li>suns.deviate = number of minutes the measurements started after sunset</li> <li>tdiff = number of hours of measurement</li> </ul> <p> </p> <p>KaaistoepCara.csv</p> <ul> <li>Cara = number of Carabidae individuals</li> <li>T = hourly average temperature (in 0.1 degrees Celsius; at 1.5 meter height)</li> <li>U = hourly relative humidity (in %; at 1.5 meter height)</li> <li>RH = hourly sum of precipitation (in 0.1 mm) (negative values for <0.05mm)</li> <li>FH = hourly average windspeed (in 0.1 m/s)</li> <li>sunset = date and sunset time</li> <li>suns.deviate = number of minutes the measurements started after sunset</li> <li>tdiff = number of hours of measurement</li> <li><em>species</em> = number of individuals of each of 94 Carabidae species</li> </ul> <p> </p> <p>KaaistoepSilphi.csv</p> <ul> <li>Silph = number of Silphidae individuals</li> <li>T = hourly average temperature (in 0.1 degrees Celsius; at 1.5 meter height)</li> <li>U = hourly relative humidity (in %; at 1.5 meter height)</li> <li>RH = hourly sum of precipitation (in 0.1 mm) (negative values for <0.05mm)</li> <li>FH = hourly average windspeed (in 0.1 m/s)</li> <li>sunset = date and sunset time</li> <li>suns.deviate = number of minutes the measurements started after sunset</li> <li>tdiff = number of hours of measurement</li> <li><em>species</em> = number of individuals of each of 6 Silphidae species</li> </ul> <p> </p> <p>KaaistoepCocci.csv</p> <ul> <li>Cocci = number of Coccinellidae individuals</li> <li>T = hourly average temperature (in 0.1 degrees Celsius; at 1.5 meter height)</li> <li>U = hourly relative humidity (in %; at 1.5 meter height)</li> <li>RH = hourly sum of precipitation (in 0.1 mm) (negative values for <0.05mm)</li> <li>FH = hourly average windspeed (in 0.1 m/s)</li> <li>sunset = date and sunset time</li> <li>suns.deviate = number of minutes the measurements started after sunset</li> <li>tdiff = number of hours of measurement</li> <li><em>species</em> = number of individuals of each of 23 Coccinellidae species</li> </ul> <p> </p> <p>KaaistoepMacro2.csv (non-zeros)</p> <ul> <li>freq = number of macro-Lepidoptera individuals</li> <li>name = macro-Lepidoptera species</li> <li>year = year of measurement</li> <li>daynr = day of the year</li> </ul> <p> </p> <p>KaaistoepLepiWeights</p> <ul> <li>name = macro-Lepidoptera species</li> <li>mgSabo = mass (mg) estimated using Sabo et al. (2002)</li> <li>mgGarciaBarros = mass (mg) estimated using García-Barros (2015)</li> </ul> <p> </p> <p>WijsterWeek.csv</p> <ul> <li>freq = number of ground beetle individuals</li> <li>date = date of emptying trap</li> <li>dt = number of days a trap has been open</li> <li>trap = randomized trap ID</li> <li>FG = hourly average windspeed (in 0.1 m/s)</li> <li>TG = hourly average temperature (in 0.1 degrees Celsius; at 1.5 meter height)</li> <li>RH = hourly sum of precipitation (in 0.1 mm) (negative values for <0.05mm)</li> <li>UG = hourly relative humidity (in %; at 1.5 meter height)</li> <li><em>species</em> = number of individuals of each of 134 ground beetle species</li> </ul> <p> </p> <p>WijsterColeoWeights</p> <ul> <li>name = ground beetle species</li> <li>mgSabo = mass (mg) estimated using Sabo et al. (2002)</li> </ul> <p> </p> <p>References</p> <p>Boeken M, Desender K, Drost B, van Gijzen T, Koese B, Muilwijk J, Turin H, Vermeulen R (2002) De Loopkevers van Nederland en Vlaanderen (Coleoptera, Carabidae). Jeugdbondsuitgeverij, Nederland</p> <p>den Boer PJ, van Dijk TS (1994) Carabid Beetles in a Changing Environment. 94‐6, Wageningen Agricultural University</p> <p>Felix R, van Wielink P (2008) On the biology of <em>Calodromius bifasciatus</em> and related species in De Kaaistoep (Coleoptera: Carabidae). Entomol Berichten 68:198–209</p> <p>García-Barros E (2015) Multivariate indices as estimates of dry body weight for comparative study of body size in Lepidoptera. Nota Lepidopterol, 38:59–74</p> <p>Hallmann CA, Zeegers T, van Klink R, Vermeulen R, van Wielink P, Spijkers H, van Deijk J, van Steenis W, Jongejans E (2020) Declining abundance of beetles, moths and caddisflies in the Netherlands. Insect Conserv Divers 13:127-139</p> <p>Onkelinx T, Devos K, Quataert P (2017) Working with population totals in the presence of missing data comparing imputation methods in terms of bias and precision. J Ornithol 158:603–615</p> <p>Sabo JL, Bastow JL, Power ME (2002) Length–mass relationships for adult aquatic and terrestrial invertebrates in a California watershed. J North Am Benthol Soc 21:336–343</p> <p>van Wielink P, Spijkers H (2013) Insects nightly attracted to light at a single site in De Kaaistoep, The Netherlands. Orders, families and species identified in 1995–2011. Entomol Berichten, 73:200–214</p>
FIGURES 2A–2N in Four new species of caddisflies (Trichoptera: Polycentropodidae, Psychomyiidae Hydropsychidae, Odontoceridae) from Khao Nan and Tai Rom Yen National Parks, southern Thailand
FIGURES 2A–2N. Male genitalia of Eoneureclipsis spp., 2A–2C, E. chinachotiae n. sp.: 2A, left lateral; 2B, ventral; 2C, phallus, left lateral. 2D–2N, phalli of Eoneureclipsis spp., left lateral: 2D, E. pravrisija; 2E, E. quangi; 2F, E. tieni; 2G, E. nykteus; 2H, E. varsikiyja; 2I, E. alekto; 2J, E. sebulon; 2K, E. limax; 2L, E. akrichalakchmi; 2M, E. querquobad; 2N, E. afonini. A Inf = apical segment of an inferior appendage (paired), B Inf = basal segment of an inferior appendage (paired), Int = intermediate appendages (paired), Sup = Superior appendage (paired), T IX = abdominal tergum IX, S IX = abdominal sternum IX.
FIGURES 1A–1E in Four new species of caddisflies (Trichoptera: Polycentropodidae, Psychomyiidae Hydropsychidae, Odontoceridae) from Khao Nan and Tai Rom Yen National Parks, southern Thailand
FIGURES 1A–1E. Male genitalia of Polyplectropus spp. 1A–1D, Polyplectopus hofmaierae n. sp.: 1A, dorsal; 1B, left lateral; 1C, ventral; 1D, phallus, left lateral. 1E, P. akrisios Malicky 1997, apical end of left inferior appendage, left lateral. Do Lat = dorsolateral process of preanal appendage (paired), Int = intermediate appendage (paired), Me Lat = mesolateral process of preanal appendage (paired), Me Ven = Mesoventral process of preanal appendage (paired), Seg IX = abdominal segment IX.
FIGURES 4A–4F in Four new species of caddisflies (Trichoptera: Polycentropodidae, Psychomyiidae Hydropsychidae, Odontoceridae) from Khao Nan and Tai Rom Yen National Parks, southern Thailand
FIGURES 4A–4F. Male genitalia of Lannapsyche tairomyenensis n. sp. 4A, dorsal. 4B left lateral. 4C, ventral. 4D, right inferior appendage apex, ventral. 4E, phallus, left lateral. 4F, phallus, ventral. Har = harpago (paired), Inf = inferior appendage (paired), Pre = preanal appendage (paired), Seg IX = abdominal segment IX, Seg X = abdominal segment IX, Sub A = dorsal and ventral subapical lobes of basal segment of inferior appendage (paired).
FIGURES 3A–3F in Four new species of caddisflies (Trichoptera: Polycentropodidae, Psychomyiidae Hydropsychidae, Odontoceridae) from Khao Nan and Tai Rom Yen National Parks, southern Thailand
FIGURES 3A–3F. Male genitalia of Hydropsyche spp. 3A–3E, H. khaonanensis n. sp.: 3A, dorsal; 3B, left lateral; 3C, ventral; 3D, phallus, left lateral; 3E, phallus apex, ventral. 3F, H. arcturus, phallus apex, ventral. A Inf = apical segment of inferior appendage (paired), B Inf = basal segment of inferior appendage (paired), Inf = inferior appendage (paired), Seg IX = abdominal segment IX, Seg X = abdominal segment X.
FIGURES 9–11. Ollieopteryx inopinata n in Ollieopteryx, a new genus of caddisflies from Madagascar (Trichoptera Dipseudopsidae)
FIGURES 9–11. Ollieopteryx inopinata n. sp., male genitalia. 9, left lateral (pre. app. = preanal appendage (paired); int. app. = intermediate appendage (paired); inf. app. = inferior appendage (paired); IX, X = abdominal segments IX and X); 10, abdominal segments IX and X, and preanal and intermediate appendages, dorsal; 11, inferior appendages, dorsal.
FIGURES 1–4. Ollieopteryx spp., males. 1 & 2, Ollieopteryx inopinata n in Ollieopteryx, a new genus of caddisflies from Madagascar (Trichoptera Dipseudopsidae)
FIGURES 1–4. Ollieopteryx spp., males. 1 & 2, Ollieopteryx inopinata n. sp.: 1, head (antennal, ocellar, and occipital warts), prothorax, and mesothorax (scutal and scutellar warts). 2, maxillary and labial palps, right and left, respectively. 3 & 4, Ollieopteryx fianarana n. sp.: 3, head, anterior [ant. dor. = anterior dorsal wart, ant. ven. = anterior ventral wart, md. = mandible (paired), lab. p. = labial palp (paired), ha. = haustellum, lac. = lacinia (paired), mx. p. = maxillary palp (paired)]. 4, right wings, dorsal, abbreviations: C = costa; Sc = subcosta; R1, R2, R3, R4, R5 = branches 1–5 of radius; M1, M2, M3, M4 = branches 1–4 of media; Cu1a = anterior branch of cubitus 1; Cu1b = posterior branch of cubitus 1; Cu2 = cubitus 2; 1A, 2A, 3A = anal veins 1–3; P = plica (fold); J = jugal bar; I. II, III, IV, V = forks 1–5; h = humeral crossvein; r = radial crossvein; s = sectoral crossvein; r-m = radial-medial crossvein; m = medial crossvein; m-cu = medial-cubital crossvein; cu = cubital crossvein; cu-a = cubitalanal crossvein; dc = discoidal cell; mc = medial cell; th = thyridial cell.
FIGURE 4 in New long-horned caddisfly genus and species of Leptoceridae (Insecta: Trichoptera) from Brazil
FIGURE 4. Ibyacerina caparao gen. nov. et sp. nov., forewing and hind wing. Abbreviations: C = costal vein, Sc = subcostal vein, R = radial veins R1–R5, M1+2 = anterior median vein, M3+4 = posterior median vein, Cu1, Cu2 = cubital veins (Cu1a, Cu1b, Cu2), 1A, 2A = first and second anal veins, DC = discoidal cell, TC = thyridial cell, s = sectoral crossvein connecting R2+3 with R4+5, r-m = crossvein connecting R and M, m-cu = crossvein connecting M and Cu.
FIGURE 3 in New long-horned caddisfly genus and species of Leptoceridae (Insecta: Trichoptera) from Brazil
FIGURE 3. Ibyacerina caparao gen. nov. et sp. nov., male holotype. 3A, Head, prothorax, and mesothorax, dorsal view; 3B, Head, ventral view.
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