cometadata/datacite-rtg-text-other-reclassification-records huggingface dataset:
Tegenaria zamanii Marusik & Omelko 2014
Creators: name: Marusik, Yuri M.
name: Zamani, Alireza
Publisher: name: Zenodo
Year: 2015
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Arachnida
Araneae
Agelenidae
Tegenaria
Tegenaria zamanii

description: Tegenaria zamanii Marusik & Omelko, 2014
Figs 1‒7
Tegenaria zamanii Marusik & Omelko, in Marusik et al. (2014): 256, f. 1a‒l, 2a‒e (♀).
Material examined: IRAN: 1 ♂ (SMF), Golestan Province: Gorgan, Khan Bebin, Shirabad Waterfall, Shirabad Cave, 36°56’N, 55°02’E, 256 m, July 2015 (A. Zamani).
Note. Findings of the male proved that this species belongs to Tegenaria sensu stricto, but not to the related Eratigena Bolzern, Burckhardt & Hänggi, 2013, and fit the diagnosis provided by Bolzern et al. (2013): six retromarginal teeth of subequal size, presence of a lateroventral ridge (lacking in Eratigena) and bifid apex of the conductor.
Diagnosis. Male of T. zamanii is most similar to those of T. domestica, the generotype, by having short conductor, short embolus, lamellate tibial apophysis and elongate tip of the cymbium, but can be distinguished by thinner embolus with gradually tapering tip (not abrupt as in T. domestica, cf. Fig. 37 in Guseinov et al. 2005), almost reduced prolateral arm of the conductor, shorter tegulum and much longer palp, almost as long as body (prolateral arm of conductor well developed, tegulum elongate and palp almost twice shorter than body).
Description. Male. Total length 7.5. Carapace 3.7 long, 2.75 wide. Light coloured (Figs. 5, 7). Carapace uniformly yellow with slightly darker cephalic part. Sternum with pattern as in female, but almost indistinct: with wide light median band, round light lateral spots missing. Chelicerae with 3 pro- and 6 retromarginal teeth of subequal size. Legs very long and without annulations (Figs. 5, 7). Leg I length 28.9 (7.5, 1.5, 8.0, 8.3, 3.6). Abdomen coloured as in female. Palp as in Figs. 1‒4, 6; 6.9 long (2.75, 0.75, 1.85, 1.55), almost as long as whole body. Femur wider than other segments. Distal part of tibia with lateroventral ridge (Vr) and wide and flat apophysis. Cymbium long, its tip longer than basal part and bulb. Bulb slightly longer than wide; median apophysis (Ta) wider than long; conductor massive with almost reduced prolateral arm (Pa), retrolateral arm (Ra) with bifid apex (Fig. 1); embolus short, gradually tapering, rounded, starts at a 9 o'clock position.
Female. Described in details in Marusik et al. (2014).
Distribution. Known only from Shirabad Cave in Golestan Province, northern Iran.
description: Published as part of Marusik, Yuri M. & Zamani, Alireza, 2015, First description of the male of Tegenaria zamanii Marusik & Omelko, 2014 (Araneae: Agelenidae) from northern Iran, pp. 226-228 in Zootaxa 4052 (2) on pages 226-227, DOI: 10.11646/zootaxa.4052.2.6, http://zenodo.org/record/239940
Vicia tetrasperma Schreb. 1771
Creators: name: Roze, Ieva
name: Rūrāne, Ieva
Publisher: name: Zenodo
Year: 2013
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Magnoliopsida
Fabales
Fabaceae
Vicia
Vicia tetrasperma

description: Vicia tetrasperma (L.) Schreb. 1771,
 Spicil. Fl. Lips.: 26; Klinge, 1882, Fl. Est. Liv. Curl.: 595; Б. Федч. 1948, Фл. СССР, 13: 410; Līvena, 1957, Latv. PSR Fl. 3: 182; P. W. Ball, 1968, Fl. Europ. 2: 133; Цвелев, 1987, Фл. европ. части СССР, 6: 138; Yakovlev et al. 1996, Legumes north. Eurasia: 576.
 Ervum tetraspermum L. 1753, Sp. Pl.: 738; Ašmanis, 1923, Latv. Fl.: 101.
Forests, edges of forests, meadows, railway edges. Not rare, in all territory.
description: Published as part of Roze, Ieva & Rūrāne, Ieva, 2013, Revision Of Genus Vicia L. In The Flora Of Latvia, pp. 85-93 in Acta Biologica Universitatis Daugavpiliensis 13 (1) on page 88, DOI: 10.5281/zenodo.10979673
Phragmataecia minor Moore 1879
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia minor

description: Phragmataecia minor Moore, 1879
Moore, 1879: 87.
Type locality: Silhet [Bangladesh]. Type material (holotype) in MHUB, probably lost. Distribution: Bangladesh, Myanmar.
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 597, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
Phragmataecia monika Yakovlev & Saldaitis 2012
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia monika

description: Phragmataecia monika Yakovlev & Saldaitis, 2012
Yakovlev & Saldaitis, 2012 in Ivinskis et al., 2012: 36-39. Type locality: China, Qin Liang Feng, Zhejiang prov. [province] Type material (holotype) in MWM, examined.
Distribution: China, Zhejiang prov.
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 597, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
Litophyton simplex Van 2020, sp. nov.
Creators: name: Van Ofwegen, Leen P.
Publisher: name: Zenodo
Year: 2020
Subjects: Biodiversity
Taxonomy
Animalia
Cnidaria
Anthozoa
Alcyonacea
Nephtheidae
Litophyton
Litophyton simplex

description: Litophyton simplex sp. nov.
(Figs. 42d, 49a, 50)
Material examined. Holotype NTM C3949, Queensland, Great Barrier Reef, Davies reef, depth 10-15 m, 15 April 1981, coll. Z. Dinesen; paratype NTM C4023, same data as holotype.
Description. The holotype NTM C3949 is 6.5 cm high and 6 cm wide, the stalk is 2 cm high (Fig. 49a). The polyps are up to 0.80 mm wide and 0.95 mm high, and grouped in long catkins.
Polyps. Without clear arrangement of sclerites (Fig. 42d). Abaxial point sclerites are spindles, up to 0.40 mm long, with simple tubercles (Fig. 50a). Scales and rods, 0.03-0.12 mm long, are present laterally and adaxially, and they are also present in the tentacles and polyp stalk (Fig. 50 b-c). Supporting bundle without projecting spindles or one projecting for a maximum distance of 0.10 mm, composed of spindles, up to 1.00 mm long, with simple tubercles (Fig. 51d). Several polyp sclerites have an optically black inner core.
Surface layer top stalk. Spindles and unilaterally spinose spindles, up to 0.50 mm long, with simple and complex tubercles (Fig. 50 e-f).
Surface layer base stalk. Capstans, derivatives of capstans, spindles and unilaterally spinose spindles, all with simple and complex tubercles (Fig. 50 g-h). The spindles are up to 0.50 mm long.
Interior stalk. Spindles, up to 1.00 mm long, with simple tubercles (Fig. 50k), and pointed ends (Fig. 50 i-j).
Etymology. The Latin simplex, simple, referring to the simple tuberculation of the sclerites of this species.
Distribution. Great Barrier Reef: Davies reef.
Remarks. The species resembles L. nigrescens (Roxas, 1933) (Ternate) (Figs. 51, 56a) but differs in having much coarser, sparse tuberculation in the stalk sclerites.
description: Published as part of Van Ofwegen, Leen P., 2020, The genus Litophyton Forskål, 1775 (Octocorallia: Alcyonacea: Nephtheidae) from Australia, pp. 1-131 in Zootaxa 4764 (1) on page 60, DOI: 10.11646/zootaxa.4764.1.1, http://zenodo.org/record/3764923
MPEC 2024-X42 : 2024 XG
Creators: name: Minor Planet Center Staff
Publisher: name: The Minor Planet Center
Year: 2024
Subjects: subject: Small Solar System bodies
valueUri: http://astrothesaurus.org/uat/1469
subject: 2024 XG

description: The Minor Planet Electronic Circulars contain information on unusual minor planets, routine data on comets and natural satellites, and occasional editorial announcements.  They are published on behalf of Division F of the International Astronomical Union by the Minor Planet Center, Smithsonian Astrophysical Observatory, Cambridge, MA 02138, U.S.A.
Litophyton snakeensis Van 2020, sp. nov.
Creators: name: Van Ofwegen, Leen P.
Publisher: name: Zenodo
Year: 2020
Subjects: Biodiversity
Taxonomy
Animalia
Cnidaria
Anthozoa
Alcyonacea
Nephtheidae
Litophyton
Litophyton snakeensis

description: Litophyton snakeensis sp. nov.
(Figs. 49b, 42e, 52-53)
Material examined. Holotype NTM C10439, Queensland, Great Barrier Reef, Snake reef, depth 10-12 m, 14 December 1990, coll. J. Jan; paratypes: NTM C3988, Queensland, Great Barrier Reef, Rib reef, depth 10-15 m, 26 May 1981, coll. Z. Dinesen; NTM C4011, Queensland, Great Barrier Reef, Davies reef, depth 10-15 m, 15 April 1981, coll. Z. Dinesen; NTM C4340, Queensland, Great Barrier Reef, Myrmidon reef, depth 0-5 m; 7 January 1981, coll. Z. Dinesen.
Description. The holotype NTM C10439 is 12 cm high and 12.5 cm wide, the stalk is 3.5 cm high (Fig. 49b). The polyps are up to 0.80 mm high and 0.50 mm wide, and grouped in conical catkins.
Polyps. Without clear arrangement of sclerites (Fig. 42e). Abaxial and lateral point sclerites are spindles with simple tubercles, up to 0.40 mm long (Fig. 52a), adaxial scales and rods are present, which are also present in the tentacles (Fig. 52 b-c). Several of these scales and rods have a crystalline texture. Supporting bundle with spindles, up to 1.40 mm long, with simple tubercles (Fig. 52d), and not projecting beyond the polyp head. Several polyp sclerites have an optically black inner core.
Surface layer top stalk. Spindles and unilaterally spinose spindles, up to 0.80 mm long, with simple and complex tubercles (Fig. 52e).
Surface layer base stalk. Capstans, derivatives of capstans, spindles and unilaterally spinose spindles, the smaller sclerites with simple tubercles, the larger ones also with complex tubercles (Fig. 53 a-b). The capstans and derivatives of capstans are 0.05-0.15 mm long, the spindles are up to 0.60 mm long.
Interior stalk. Spindles, up to 1.5 mm long, with simple tubercles (Fig. 53e), and pointed ends; several branched (Fig. 53 c-d).
Etymology. Named after the type locality.
Distribution. Great Barrier Reef: Snake reef, Rib reef, Davies reef, Myrmidon reef.
Remarks. The big interior spindles and many unilateral spinose spindles in the surface of the base of the stalk are characteristic for the species.
description: Published as part of Van Ofwegen, Leen P., 2020, The genus Litophyton Forskål, 1775 (Octocorallia: Alcyonacea: Nephtheidae) from Australia, pp. 1-131 in Zootaxa 4764 (1) on pages 64-70, DOI: 10.11646/zootaxa.4764.1.1, http://zenodo.org/record/3764923
Phragmataecia okovangae Clench 1959
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia okovangae

description: Phragmataecia okovangae Clench, 1959
Clench, 1959: 10–11.
Type locality: Andara, Okovango [NE Namibia]. Type material (holotype) in ZSM, examined. Distribution: RSA, Namibia.
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 597, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
Vicia sepium L. 1753
Creators: name: Roze, Ieva
name: Rūrāne, Ieva
Publisher: name: Zenodo
Year: 2013
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Magnoliopsida
Fabales
Fabaceae
Vicia
Vicia sepium

description: Vicia sepium L. 1753,
 Sp. Pl.: 737; J. Fisch. 1784, Zusätze Vers. Naturg. Livl.: 129; Б. Федч. 1948, Фл. СССР, 13: 455, p.p.; Līvena, 1957, Latv. PSR Fl. 3: 188, p.p.; P. W. Ball, 1968, Fl. Europ. 2: 134, p.p.; Цвелев, 1987, Фл. европ. части СССР, 6: 140, p.p.; Yakovlev et al. 1996, Legumes north. Eurasia: 573, p.p.
Meadows, forests, roadsides, railway edges. Very frequent, in all territory.
 a. subsp. sepium
Meadows, forests, railway edges. Very frequent, in all territory.
 b. subsp. montana (W.D.J. Koch) Hämet-Ahti V. sepium L. subsp. montana (W.D.J. Koch) Hämet-Ahti, 1970, Ann. Bot. Fenn. 7, 2: 173; Tabaka, Leht and Jankevičiené, 1996, Fl. Balt. Countr. 2: 157.
 V. sepium var. montana W.D.J. Koch, 1835, Syn. Fl. Germ.: 196; Klinge, 1882, Fl. Est. Liv. Curl.: 596.
 V. sepium β montana: J. Fleisch. und Em. Lindem. 1839, in J. Fleisch., Fl. Esth. Liv. Kurl.: 263.
 V. sepium auct., non L.: Б. Федч. 1948, Фл. СССР, 13: 455, p.p.; Līvena, 1957, Latv. PSR Fl. 3: 188, p.p.; P. W. Ball, 1968, Fl. Europ. 2: 134, p.p.; Цвелев, 1987, Фл. европ. части СССР, 6: 140, p.p.; Yakovlev et al. 1996, Legumes north. Eurasia: 573, p.p.
Forests, shrubberies, roadsides. Rare, in all territory.
description: Published as part of Roze, Ieva & Rūrāne, Ieva, 2013, Revision Of Genus Vicia L. In The Flora Of Latvia, pp. 85-93 in Acta Biologica Universitatis Daugavpiliensis 13 (1) on pages 88-89, DOI: 10.5281/zenodo.10979673
Litophyton squamatum Van 2020, sp. nov.
Creators: name: Van Ofwegen, Leen P.
Publisher: name: Zenodo
Year: 2020
Subjects: Biodiversity
Taxonomy
Animalia
Cnidaria
Anthozoa
Alcyonacea
Nephtheidae
Litophyton
Litophyton squamatum

description: Litophyton squamatum sp. nov.
(Figs. 49c, 42f, 54-55)
Material examined. Holotype NTM C4136, Queensland, Great Barrier Reef, Davies reef, depth 5-10 m, 15 April 1981, coll. Z. Dinesen.
Description. The holotype NTM C4136 is 10 cm high and 6.5 cm wide, the stalk is 3 cm high (Fig. 49c). The polyps are up to 1.2 mm high and 0.8 mm wide, and grouped in long catkins.
Polyps. Without clear arrangement of sclerites (Fig. 42f). Abaxial and point sclerites are spindles up to 0.50 mm long, with dense simple and complex tubercles (Fig. 54a), laterally they are smaller and less tuberculate (Fig. 54b). Adaxial scales and rods are present, which are also present in the tentacles and polyp stalk (Fig. 54c). Supporting bundle composed of spindles, up to 1 mm long, with simple tubercles (Fig. 54d). The supporting bundles spindles have an optically black inner core (not shown in drawing of polyp).
Surface layer top stalk. Spindles and unilaterally spinose spindles, up to 0.50 mm long, with dense simple and complex tubercles (Fig. 54e).
Surface layer base stalk. Capstans, derivatives of capstans, spindles and unilaterally spinose spindles, all with dense simple and complex tubercles (Fig. 55 a-b). The capstans and derivatives of capstans are 0.05-0.15 mm long, the spindles are up to 0.40 mm long.
Interior stalk. Spindles, up to 0.7 mm long, with simple and complex tubercles (Fig. 55e), and pointed ends; several are branched (Fig. 55 c-d).
Distribution. Great Barrier Reef: Davies reef.
Etymology. The Latin squamatum, scaly, referring to the many big scales in the polyps of this species.
Remarks. The species resembles L. oxleyensis sp. nov., but differs by its interior spindles having pointed ends.
description: Published as part of Van Ofwegen, Leen P., 2020, The genus Litophyton Forskål, 1775 (Octocorallia: Alcyonacea: Nephtheidae) from Australia, pp. 1-131 in Zootaxa 4764 (1) on page 70, DOI: 10.11646/zootaxa.4764.1.1, http://zenodo.org/record/3764923
Preliminary Investigation on the Development and Performance of Self-immune and Self-healing Soil-Cement Systems Under Freeze-Thaw Cycles
Creators: name: Chen, JT
name: Jin, F
name: Al-Tabbaa, A
Publisher: name: Springer Singapore
Year: 2018
Subjects: Soil-cement
Microcapsule
Freeze-thaw (f-t) cycles
Self-immune
Self-healing

description: Inspiration from biological systems has recently fuelled research in the built environment to develop smart materials that comprise sustainable and resilient systems, which similarly can continually adapt and respond to their environment. Many of these activities have so far focused on concrete for structural applications. However, to date there has been little work on the development of effective smart systems for geotechnical applications. Those systems and relevant geotechnical applications pose very different and more difficult and challenging problems compared to concrete and require a complete rethink of how to design such smart systems. The focus of the work reported in this paper is on the development and performance of self-immune and self-healing soil-cement systems subject to freeze-thaw (f-t) cycles. This was addressed with two types of microcapsules: SikaAer® Solid and Lambson microcapsules. Unconfined compressive strength (UCS), water content and volume stability were investigated after f-t cycles. By adding 1% (by soil mass) Lambson microcapsule, the UCS of 20% cement stabilised soil samples subjected 1-12 f-t cycles was improved by 21-40%. The f-t durability was also largely improved by adding 1% (by soil mass) SikaAer® Solid, where no deterioration in UCS was observed; change in volume and moisture content was largely reduced; and no crack formation was observed by optical microscopy after 10 f-t cycles. This study presents evidence of the significant potential for soil-cement system to possess self-immune or self-healing capabilities through the implementation of appropriate microcapsules
Phragmataecia pacifica Yakovlev 2007
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia pacifica

description: Phragmataecia pacifica Yakovlev, 2007
Yakovlev, 2007b: 22–23.
Type locality: Russia, Daghestan, 5 km E. Urma. Type material (holotype) in MWM, examined. Distribution: Russia, Daghestan.
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 597, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
Phragmataecia parvipuncta
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia parvipuncta

description: Phragmataecia parvipuncta (Hampson, 1892)
Cossus parvipunctus Hampson, 1892: 306 Type locality: Naga Hills [India].
Type material (holotype) in BMNH, examined. Distribution: India, Sri Lanka, Vietnam.
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 597, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
title: Effect of Gender, Play Partner, and Play Context on Speech and Gesture Production of Children and Their Parents
Creators: name: Pinar, Ebru
Publisher: name: Georgia State University
Year: 2026

description:
Children show gender differences in extent of early language abilities (e.g., first words, first sentences; Eriksson et al., 2012)a pattern that also becomes evident in their gestures (e.g., zal??kan & Goldin-Meadow, 2010). Parents also show variability in the speech and gestures they use with their children, with some studies suggesting greater speech and gesture production by mothers as compared to fathers (Golinkoff & Ames, 1979; Grebelsky-Lichtman, 2016)a pattern that also vary by child sex. However, less is known about the source of these differences. In this project, we examine two key factors that might explain sex differences in both childrens and parents speech and gesture production in early interactions, namely the play partner and the play context, across two studies. In Study 1, we asked whether children (33 boys, 33 girls; ages 3-to-5) will show sex differences in speech and gesture production with different play partners (mother vs. father) and whether these patterns will vary by play context (feminine, masculine, neutral). In study 2, we asked whether parents (66 mothers, 66 fathers) will show sex differences in speech and gesture production with different play partners (sons vs. daughters) and whether these patterns will differ by play context (feminine, masculine, neutral). We focused on both amount, diversity and complexity of speech and gesture production in three different play contexts (stereotypically feminine, stereotypically masculine, neutral) in each study. Our findings suggest that, aside from speech complexity, the feminine context mostly elicited the highest levels of speech and gesture production in both children and parents. Additionally, while children did not exhibit strong gender-typed behaviors in their communication, parents did. Overall, our studies will provide a comprehensive assessment of factors that contribute to sex differences in both childrens and parents multi-modal communications.
Litophyton Forskal 1775
Creators: name: Van Ofwegen, Leen P.
Publisher: name: Zenodo
Year: 2020
Subjects: Biodiversity
Taxonomy
Animalia
Cnidaria
Anthozoa
Alcyonacea
Nephtheidae
Litophyton

description: Key to the species of Litophyton group IV (3 species)
(polyp stalk without small rods)
1. Polyps with strongly developed sclerites................................................................ L. grandis
-. Polyps with less strongly developed sclerites.................................................................... 2
2. Big wide interior spindles (> 1 mm long) with very regular tubercles........................................ L. carnatum
-. Small slender interior spindles (<1 mm long); opaque polyp sclerites................................................ 3
3. Spindles with blunt ends present in interior of the base of the stalk.......................................... L. oxleyensis
-. No spindles with blunt ends...................................................................... L. pandoraensis
Remarks. As the polyps of L. oxleyensis mostly have scales it also fits group III, where it was described.
L. compactum (Verseveldt, 1966), described from Indonesia, falls in this group (Figs. 42 g-h, 56b, 57). It has similar tuberculated interior stalk sclerites as L. carnatum but they are only about 1 mm long in L. compactum. It differs from L. pandoraensis by having the tuberculation of the interior stalk sclerites much finer, and from L. grandis, which has much stronger developed point sclerites.
L. elongatum (Kükenthal, 1895) (Ternate, Indonesia) resembles L. compactum but because of a large amount of detritus attached to the colony the polyp sclerite arrangement could not be drawn. However, the colony and sclerites are presented (Fig. 56c, 58). The most obvious difference is the presence of long rods (Fig. 58d), which are not from the polyp stalk but are polyp spindles.
L. pyramidalis (Kükenthal, 1895) (Ternate, Indonesia) (Figs. 56d, 59) shows sclerites similar to those of L. elongatum and therefore I here synonymize it with L. elongatum (Kükenthal, 1895). Especially the smooth spindles from the interior of the top of the stalk are strikingly similar in both species (Figs. 58g, 59h). The polyp sclerite arrangement of L. pyramidalis could be drawn (Fig. 59a).
description: Published as part of Van Ofwegen, Leen P., 2020, The genus Litophyton Forskål, 1775 (Octocorallia: Alcyonacea: Nephtheidae) from Australia, pp. 1-131 in Zootaxa 4764 (1) on pages 70-71, DOI: 10.11646/zootaxa.4764.1.1, http://zenodo.org/record/3764923
Gallinago Brisson 1760
Creators: name: Steadman, David W.
name: Takano, Oona M.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Chordata
Aves
Charadriiformes
Scolopacidae
Gallinago

description: Genus Gallinago Brisson, 1760
The fossils are referred to Gallinago rather than Scolopax (the other genus of Scolopacidae likely to occur in noncultural prehistoric deposits in the West Indies) because of these characters, taken in part from Takano and Steadman (2015) and Olson (1976): coracoid —processus procoracoideus joins corpus coracoideus more abruptly; humerus —corpus humeri more slender; fossa pneumotricipitalis dorsalis deeper; distal end less expanded dorsoventrally; processus supracondylaris dorsalis better developed dorsally and proximally; fossa musculi brachialis more concave; ulna —olecranon shorter; carpometacarpus —notch on caudal side of the dorsal rim of trochlea carpalis shallower; tibiotarsus —crista cnemialis lateralis more expanded proximally; tarsometatarsus —more slender overall; cotyla medialis more concave in dorsal (acrotarsial) aspect; sulcus extensorius less concave.
description: Published as part of Steadman, David W. & Takano, Oona M., 2016, A new extinct species of Snipe (Aves: Scolopacidae: Gallinago) from the West Indies, pp. 345-358 in Zootaxa 4109 (3) on page 348, DOI: 10.11646/zootaxa.4109.3.5, http://zenodo.org/record/262221
HALO: Post-Link Heap-Layout Optimisation
Creators: name: Savage, Joe
name: Jones, Timothy
Publisher: name: Association for Computing Machinery
Year: 2020
Subjects: Memory management
dynamic allocation
cache locality
profile-guided optimisation
binary rewriting

description: Today, general-purpose memory allocators dominate the landscape of dynamic memory management. While these so- lutions can provide reasonably good behaviour across a wide range of workloads, it is an unfortunate reality that their behaviour for any particular workload can be highly suboptimal. By catering primarily to average and worst-case usage patterns, these allocators deny programs the advantages of domain-specific optimisations, and thus may inadvertently place data in a manner that hinders performance, generating unnecessary cache misses and load stalls. To help alleviate these issues, we propose HALO: a post-link profile-guided optimisation tool that can improve the layout of heap data to reduce cache misses automatically. Profiling the target binary to understand how allocations made in different contexts are related, we specialise memory-management routines to allocate groups of related objects from separate pools to increase their spatial locality. Unlike other solutions of its kind, HALO employs novel grouping and identification algorithms which allow it to create tight-knit allocation groups using the entire call stack and to identify these efficiently at runtime. Evaluation of HALO on contemporary out-of-order hardware demonstrates speedups of up to 28% over jemalloc, out-performing a state-of-the-art data placement technique from the literature.
Phragmataecia pectinicornis
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia pectinicornis

description: Phragmataecia pectinicornis (Strand, 1914)
Phragmatoecioides pectinicornis Strand, 1914: 103. Type locality: Bahr el Abiad [Sudan].
Type material (holotype) in MHUB, examined. Distribution: Sudan.
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 597, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
Litophyton carnatum Van 2020, sp. nov.
Creators: name: Van Ofwegen, Leen P.
Publisher: name: Zenodo
Year: 2020
Subjects: Biodiversity
Taxonomy
Animalia
Cnidaria
Anthozoa
Alcyonacea
Nephtheidae
Litophyton
Litophyton carnatum

description: Litophyton carnatum sp. nov.
(Figs. 56e, 60a, 61a, 62-65)
Material examined. Holotype NTM C4100, Queensland, Great Barrier Reef, Dip reef, depth 1-5 m, 6 February 1981, coll. Z. Dinesen; paratype NTM C3947, Queensland, Great Barrier Reef, Dip reef, depth 10-15 m, 9 January 1981, coll. Z. Dinesen.
Description. The NTM C4100 holotype is 6.5 cm high and 14 cm wide (Fig. 56e). The stalk is 1.5 cm long. The polyps are up to 0.9 mm wide and 1.1 mm high, grouped in conical catkins.
Polyps. With a relatively regular arrangement of sclerites in eight points (Fig. 61a). Abaxial and lateral point sclerites are spindles with simple tubercles and spines, largest spindles present abaxially, up to 0.40 mm long (Fig. 62a), laterally they are up to 0.25 mm long (Fig. 62b). In the adaxial points there are small rods and curved scales, similar to those of the tentacles, up to 0.15 mm long (Fig. 62 c-d). Spindles of the supporting bundle are up to 1 mm long, with simple and complex tubercles, and spines, more numerous at one end; spindles not projecting beyond the polyp (Fig. 62e).
Surface layer top stalk. Spindles and unilaterally spinose spindles, up to 0.5 mm long, with simple and complex tubercles (Fig. 62f).
Surface layer base stalk. Capstans, derivatives of capstans, spindles, and unilaterally spinose spindles (Fig. 63 ab). Capstans 0.05-0.20 mm long; spindles up to about 0.6 mm long. All sclerites with simple and complex tubercles.
Interior stalk. Robust spindles, up to 1.5 mm long, with pointed or blunt ends (Fig. 63c) and simple tubercles (Fig. 63e). The smaller ones are often branched (Fig. 63d).
Etymology. The Latin carnatum, fat, corpulent, fleshy, refers to the very fat interior stalk spindles.
Distribution. Great Barrier Reef, Dip reef.
Remarks. Paratype NTM C3947 (Fig. 60a) has even longer internal stalk spindles (Fig. 65a), up to 2 mm long. Also several polyps have the supporting bundle projecting beyond the polyp body for a distance up to 0.30 mm.
description: Published as part of Van Ofwegen, Leen P., 2020, The genus Litophyton Forskål, 1775 (Octocorallia: Alcyonacea: Nephtheidae) from Australia, pp. 1-131 in Zootaxa 4764 (1) on page 73, DOI: 10.11646/zootaxa.4764.1.1, http://zenodo.org/record/3764923
Phragmataecia pelostema
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia pelostema

description: Phragmataecia pelostema (Hering, 1923)
Synatophleps pelostema Hering, 1923: 15. Type locality: Misahöhe [Togo].
Type material (holotype) in MHUB, examined. Distribution: Togo, Cameroon, Nigeria.
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 597, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
Phragmataecia psyche
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia psyche

description: Phragmataecia psyche (Le Cerf, 1919)
Azygophleps psyche Le Cerf, 1919: 28.
Type locality: Dahomey, Plateau de Zaganado [Benin]. Type material (holotype) in MNHN, examined. Distribution: Benin.
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 597, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
Litophyton grandis Van 2020, sp. nov.
Creators: name: Van Ofwegen, Leen P.
Publisher: name: Zenodo
Year: 2020
Subjects: Biodiversity
Taxonomy
Animalia
Cnidaria
Anthozoa
Alcyonacea
Nephtheidae
Litophyton
Litophyton grandis

description: Litophyton grandis sp. nov.
(Figs. 60b, 61b, 66)
Material examined. Holotype NTM C5419, RH87-6, Western Australia, Cape Leveque, sandy beach, LWS, 18 March 1987, coll. R. Hanley.
Description. The NTM C5419 holotype is 11 cm high and 11.5 cm wide (Fig. 60b). The stalk is 3.5 cm long. The polyps are up to 0.7 mm wide and 0.6 mm high, grouped in conical catkins.
Polyps. With no arrangement of sclerites as points (Fig. 61b). Abaxial and lateral sclerites are spindles unilaterally ornamented with many big spines, largest spindles present abaxially, up to 0.40 mm long, laterally they are up to 0.20 mm long (Fig. 66a); laterally there also are some simple spindles (Fig. 66b).The adaxial sclerites are small curved scales, similar to those of the tentacles, up to 0.15 mm long (Fig. 66c). Spindles of the supporting bundle are up to 1 mm long, with simple tubercles, and not projecting beyond the polyp (Fig. 66d).
Surface layer top stalk. Mostly capstans and derivatives of capstans, 0.05-0.20 mm long; a few spindles (not depicted) and unilaterally spinose spindles are also present, up to 0.3 mm long, with simple and complex tubercles (Fig. 66 e-f).
Surface layer base stalk. Mostly capstans and derivatives of capstans (Fig. 66 g-h), a few spindles and unilaterally spinose spindles are also present (not depicted). Capstans 0.05-0.20 mm long; spindles up to about 0.4 mm long. All sclerites with simple tubercles.
Interior stalk. Spindles, up to 0.75 mm long, with pointed ends (Fig. 66 i-j) and simple tubercles (Fig. 66k).
Etymology. The Latin grandis, great, large, grown, strong, refers to the strongly developed polyp sclerites.
Distribution. Western Australia.
description: Published as part of Van Ofwegen, Leen P., 2020, The genus Litophyton Forskål, 1775 (Octocorallia: Alcyonacea: Nephtheidae) from Australia, pp. 1-131 in Zootaxa 4764 (1) on page 73, DOI: 10.11646/zootaxa.4764.1.1, http://zenodo.org/record/3764923
Phragmataecia purpureus Fletcher 1926
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia purpureus

description: Phragmataecia purpureus Fletcher, 1926
Fletcher, 1926: 58.
Type locality: Bihar, Pusa.
Type material (lectotype) в Agricultur. Research Inst., Pusa, India. Distribution: India (Bihar).
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 598, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
The spinning toilet brush–a classroom experiment on the mechanical equivalent of Joule's heat
Creators: name: Boczianowski, Franz
name: Priemer, Burkhard
Publisher: name: Humboldt-Universität zu Berlin
Year: 2023
Subjects: subject: classroom experiment
subject: Joule’s experiment
subject: replication
subject: 370 Bildung und Erziehung
subject: 530 Physik

description: Although Joule’s experiment on the mechanical equivalent of heat is well known and discussed in many introductory physics courses and textbooks, we are not aware of any version of this experiment that can be set up by lecturers or teachers using standard laboratory equipment. To fill this gap, we present a setup quite similar to Joule’s original experiment and show what kind of quantitative results can be obtained with it. It will be shown that temperature control is a major challenge, making Joule’s work even more impressive.
Phragmataecia pygmaea Graeser 1888
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia pygmaea

description: Phragmataecia pygmaea Graeser, 1888
Phragmatoecia (sic!) pygmaea Graeser, 1888: 119. Type locality: Ussuri.
Type material (syntypes) in ZISP, examined. Distribution: SE Russia, Korea, NE China (Yakovlev 2011).
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 598, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
Local governments as gatekeepers to community gardens: what does “support” mean?
Creators: name: Carrad, Amy
name: Rose, Nick
name: Charlton, Karen
name: Reeve, Belinda
Publisher: name: Taylor & Francis
Year: 2023
Subjects: subject: Molecular Biology
subject: Environmental Sciences not elsewhere classified
subject: Ecology
subject: FOS: Biological sciences
subject: Sociology
subject: FOS: Sociology
subject: Cancer

description: In Australia, community gardens (CGs) commonly take the form of communally-operated growing spaces situated on public land administered by local governments (LGs). LGs and their policies are gatekeepers for CGs, and their support can determine garden viability; however, evidence regarding the nature of “support” in this context is limited. This research identified CG policies through the websites of all LGs (n = 207) in New South Wales (NSW) and Victoria, Australia and analysed these policies to describe which LGs have a CG policy, the aims of LGs’ support, the departments responsible for CGs, and what practical supports LGs provide. Thirty-nine CG policies were analysed. Most commonly, policies existed to provide a standardised framework for how LG would facilitate community groups to establish and manage CGs, and to define the roles and responsibilities of LG and community groups. Departments responsible for CG policy implementation were categorised as Community, Environment and Infrastructure, Planning, and/or Strategic and Corporate. Overall, LGs took a “hands-off” facilitator role, rather than one of an implementation partner. Common supports during application and establishment included LG arranging a licence agreement for leasing the land, assisting with site identification, and helping groups with the application process. During the garden maintenance phase, the most common supports were providing platforms for networking between CGs, providing education and information, assisting groups to apply for grants, and providing in-kind support. Recommendations for LGs, community members, and other levels of government are provided. Key Policy HighlightsCurrently, the nature of support provided by Australian local governments to community gardens is variable and largely limited to a “facilitator” role.Local government support could be strengthened by producing clear and comprehensive policies, reducing bureaucratic red tape, and institutionalising processes that preserve public land for food production.All levels of government can allocate ongoing funding for edible gardens at community level. Currently, the nature of support provided by Australian local governments to community gardens is variable and largely limited to a “facilitator” role. Local government support could be strengthened by producing clear and comprehensive policies, reducing bureaucratic red tape, and institutionalising processes that preserve public land for food production. All levels of government can allocate ongoing funding for edible gardens at community level.
Litophyton pandoraensis Van 2020, sp. nov.
Creators: name: Van Ofwegen, Leen P.
Publisher: name: Zenodo
Year: 2020
Subjects: Biodiversity
Taxonomy
Animalia
Cnidaria
Anthozoa
Alcyonacea
Nephtheidae
Litophyton
Litophyton pandoraensis

description: Litophyton pandoraensis sp. nov.
(Figs. 60 c-d, 61c, 67-68)
Material examined. Holotype NTM C4053, Queensland, Great Barrier Reef, Pandora reef, depth 1-5 m, 28 May
1981, coll. Z. Dinesen; paratypes: NTM C3945, Queensland, Great Barrier Reef, Pandora reef, depth 5-9 m, 28 May 1981, coll. Z. Dinesen; NTM C3970, Queensland, Great Barrier Reef, Pandora reef, depth 1-4 m, 28 May 1981, coll. Z. Dinesen; NTM C4070, Queensland, Great Barrier Reef, Davies reef, depth 15-21 m, 15 April 1981, coll. Z. Dinesen.
Description. The NTM C4053 holotype is 8 cm high and 7.5 cm wide (Fig. 60c). The stalk is 2.5 cm long. The polyps are up to 0.6 mm wide and 0.5 mm high, grouped in long catkins.
Polyps. With irregular arrangement of sclerites in eight points (Fig. 61c). Abaxial point sclerites are spindles with simple tubercles and spines, largest spindles up to 0.50 mm long (Fig. 67a). Laterally and adaxially the polyp sclerites are rods, up to 0.30 mm long, with small prickles on their surface (Fig. 67b). The tentacles have scales and rods up to 0.10 mm long (Fig. 67c). Spindles of the supporting bundle are up to 0.75 mm long, with simple tubercles and spines, more numerous at one end; spindles not projecting beyond the polyp (Fig. 67d).
Surface layer top stalk. Spindles and unilaterally spinose spindles, up to 0.5 mm long, with simple and complex tubercles (Fig. 67e).
Surface layer base stalk. Capstans, derivatives of capstans, spindles, and unilaterally spinose spindles (Fig. 67f). Capstans 0.10-0.20 mm long; spindles up to about 0.35 mm long. Sclerites with simple and complex tubercles.
Interior stalk. Spindles, up to 1 mm long, with pointed ends (Fig. 67g) and complex tubercles (Fig. 67i). The smaller ones are often branched (fig. 67h).
Etymology. Named after the type locality.
Distribution. Great Barrier Reef: Pandora reef, Davies reef.
Remarks. NTM C3945 (Fig. 60d) does not show the point spindles lacking tuberculation. It also lacks the radiates and derivatives of radiates of the surface layer of the base of the stalk (Fig. 68). Probably the very base of the colony is missing.
The species mostly resembles specimens of L. oxleyensis sp. nov. lacking scales (see remarks after key) but differs in lacking interior spindles with blunt ends.
description: Published as part of Van Ofwegen, Leen P., 2020, The genus Litophyton Forskål, 1775 (Octocorallia: Alcyonacea: Nephtheidae) from Australia, pp. 1-131 in Zootaxa 4764 (1) on pages 73-74, DOI: 10.11646/zootaxa.4764.1.1, http://zenodo.org/record/3764923
Phragmataecia roborowskii Alpheraky 1897
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia roborowskii

description: Phragmataecia roborowskii Alphéraky, 1897
Phragmatoecia (sic!) roborowskii Alphéraky, 1897: 235 –236. Type locality: desert de Gobi [NW China].
Type material (syntypes) in ZISP, examined. Synonymy:
= Phragmataecia longialatus Hua, Chou, Fang et Chen, 1990: 114 –115. Type locality: Hotan, Xinjang [NW China]. Type material (holotype) in NWAU.
Distribution: NW China, S. Mongolia.
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 598, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
Phragmataecia saccharum Moore 1879
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia saccharum

description: Phragmataecia saccharum Moore, 1879
Moore, 1879: 87.
Type locality: Darjiling [India]. Type material (holotype) in MHUB. Probably lost. Distribution: India.
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 598, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
Litophyton Forskal 1775
Creators: name: Van Ofwegen, Leen P.
Publisher: name: Zenodo
Year: 2020
Subjects: Biodiversity
Taxonomy
Animalia
Cnidaria
Anthozoa
Alcyonacea
Nephtheidae
Litophyton

description: Key to the species of Litophyton group V (11 species)
(polyp stalk with small rods)
1. Many crowded rods present in long polyp stalk........................................................ L. brachiatum
-. Fewer rods present in short polyp stalk......................................................................... 2
2. Polyp stalk with rods and ovals.............................................................................. 3
-. No ovals in polyp stalk..................................................................................... 4
3. Interior stalk sclerites include spindles with blunt ends................................................. L. burfordensis
-. Interior spindles only with pointed ends.................................................................. L. mollis
4. Interior stalk spindles include branched forms................................................................... 5
-. Interior stalk sclerites not branched............................................................................ 9
5. Interior stalk spindles small, less than 1 mm long, and slender................................................ L. folium
-. Interior stalk sclerites longer than 1 mm ........................................................................ 6
6. Interior stalk spindles with large rough tubercles....................................................... L. darleyensis
-. Interior stalk spindles with small tubercles...................................................................... 7
7. Interior stalk spindles wide, smaller ones heavily branched............................................ L. sanctuaryensis
-. All interior stalk spindles branched............................................................................ 8
8. Surface stalk sclerites mostly spindles................................................................... L. fusum
-. Surface stalk also with many derivatives of capstans................................................. L. horseshoeensis
9. Internal stalk spindles with blunt ends................................................................. L. crassum
-. Internal stalk spindles with pointed ends....................................................................... 10
10. Internal stalk spindles with distant coarse tubercles, unilaterally spinose sclerites of surface stalk large (- 0.25 mm). L. verrucosum
-. Internal stalk spindles with small fine tubercles, unilaterally spinose sclerites of surface stalk small (<0.20 mm).... L. swainensis
description: Published as part of Van Ofwegen, Leen P., 2020, The genus Litophyton Forskål, 1775 (Octocorallia: Alcyonacea: Nephtheidae) from Australia, pp. 1-131 in Zootaxa 4764 (1) on page 74, DOI: 10.11646/zootaxa.4764.1.1, http://zenodo.org/record/3764923
MPEC 2024-X43 : 2024 XH
Creators: name: Minor Planet Center Staff
Publisher: name: The Minor Planet Center
Year: 2024
Subjects: subject: Small Solar System bodies
valueUri: http://astrothesaurus.org/uat/1469
subject: 2024 XH

description: The Minor Planet Electronic Circulars contain information on unusual minor planets, routine data on comets and natural satellites, and occasional editorial announcements.  They are published on behalf of Division F of the International Astronomical Union by the Minor Planet Center, Smithsonian Astrophysical Observatory, Cambridge, MA 02138, U.S.A.
Phragmataecia sericeata Hampson 1910
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia sericeata

description: Phragmataecia sericeata Hampson, 1910
Hampson, 1910: 129.
Type locality: S. Nigeria, Vivet.
Type material (holotype) in BMNH, examined. Distribution: Ghana, Nigeria.
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 598, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855
Phragmataecia sumatrensis Snellen 1892
Creators: name: Yakovlev, Roman V.
name: Witt, Thomas J.
Publisher: name: Zenodo
Year: 2016
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Cossidae
Phragmataecia
Phragmataecia sumatrensis

description: Phragmataecia sumatrensis Snellen, 1892
Phragmatoecia (sic!) sumatrensis Snellen, 1892: 29 –30. Type locality: Soepajang; Datar; Silage; Sidjosadjoeng [Sumatra]. Type material (syntypes) in RMNH, examined. Distribution: Sumatra Isl.
description: Published as part of Yakovlev, Roman V. & Witt, Thomas J., 2016, A world catalogue of Phragmataecia (Lepidoptera: Cossidae), with a new species from Kazakhstan and Kyrgyzstan, pp. 589-600 in Zootaxa 4085 (4) on page 598, DOI: 10.11646/zootaxa.4085.4.8, http://zenodo.org/record/1052855