cometadata/datacite-rtg-text-other-reclassification-records huggingface dataset:
Magallana gigas
Creators: name: Jirapatrasilp, Parin
name: Cuny, Gilles
name: Kocsis, László
name: Sutcharit, Chirasak
name: Ngamnisai, Nom
name: Charoentitirat, Thasinee
name: Kumpitak, Satapat
name: Suraprasit, Kantapon
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Animalia
Mollusca
Bivalvia
Ostreida
Ostreidae
Magallana
Magallana gigas

description: Magallana cf. gigas (Thunberg, 1793)
Figs 12 E, 14 D
 cf. Ostrea gigas Thunberg, 1793: 140 – 142, pl. 6, figs 1 – 3. Type locality: Japan. Yokoyama 1927: 402.
 cf. Crassostrea gigas. Tantanasiriwong 1979: 7. Nateewathana et al. 1981: 65. Poutiers 1998 a: 233, with in-text figs. Aungtonya et al. 1999: 375. Robba et al. 2002: 69, 71, pl. 5, fig. 3 a, b. Hylleberg and Kilburn 2003: 162. Beu et al. 2004: 154 – 156, fig. 9 d. Thach 2005: 257. Robba et al. 2007: 84 (appendix). Printrakoon et al. 2008: table 1. Huber 2010: 180, with in-text fig. Sanpanich 2011: table 2. Huber 2015: C 5155. Okutani 2017: 1183, pl. 483, fig. 7. Yang et al. 2017: 176, 178, fig. 685. Surakiatchai et al. 2018: table 6, pl. 3, fig. 6 a, b. Tudu et al. 2018: table 1.
 cf. Crassostrea cf. gigas. Swennen et al. 2001: 45, 72, text-fig. 62, fig. 62.
 cf. Crassostrea (Magallana) gigas. Lutaenko et al. 2019: 187 – 188, pl. 15, fig. a – f.
 cf. Magallana gigas. Wells et al. 2021: 60.
Referred material.
CUF - NKNY - B 13 (130 L + 16 R shells; Figs 12 E, 14 D).
Habitat.
Attached to rocks from intertidal zones down to 30 m depth, in mud, bays, and sheltered areas that are often brackish with low salinity water (Thach 2005; Huber 2015).
Distribution.
Cosmopolitan (Huber 2015). Records of fossils from the Miocene to Holocene in Japan, New Zealand, Taiwan, and Thailand (Robba et al. 2002; Beu et al. 2004; Surakiatchai et al. 2018).
Record in Thailand.
Gulf of Thailand and Andaman Sea (Wells et al. 2021).
Taxonomic remarks and comparisons.
 The cupped oysters in the subfamily Crassostreinae could not be identified at species level based on shell characters or soft tissue alone (Salvi and Mariottini 2021). Therefore, we tentatively identify these specimens of giant cupped oysters as belonging to Magallana gigas, due to large and thick shells and the presence of this species in Thailand (Wells et al. 2021).
 Order Pectinida Gray, 1854
 Superfamily Anomioidea Rafinesque, 1815
description: Published as part of Jirapatrasilp, Parin, Cuny, Gilles, Kocsis, László, Sutcharit, Chirasak, Ngamnisai, Nom, Charoentitirat, Thasinee, Kumpitak, Satapat & Suraprasit, Kantapon, 2024, Mid-Holocene marine faunas from the Bangkok Clay deposits in Nakhon Nayok, the Central Plain of Thailand, pp. 1-110 in ZooKeys 1202 on pages 1-110, DOI: 10.3897/zookeys.1202.119389
Information sur les marchands d'oignons
Creators: name: Musée National Des Arts Et Traditions Populaires (Paris)
name: Centre D'ethnologie Française
Publisher: name: École des Hautes Études en Sciences Sociales; Institut  interdisciplinaire d'anthropologie du contemporain (Paris); Laboratoire d'anthropologie et d'histoire de l'institution de la culture (Paris)
Year: 2024

Abstract
Placuna placenta
Creators: name: Jirapatrasilp, Parin
name: Cuny, Gilles
name: Kocsis, László
name: Sutcharit, Chirasak
name: Ngamnisai, Nom
name: Charoentitirat, Thasinee
name: Kumpitak, Satapat
name: Suraprasit, Kantapon
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Animalia
Mollusca
Gastropoda
Pectinida
Juliidae
Placuna
Placuna placenta

description: Placuna placenta (Linnaeus, 1758)
Figs 13 A, 14 E
 Anomia placenta Linnaeus, 1758: 703. Type locality: unknown.
 Placuna placenta. Lynge 1909: 107 – 108. Tantanasiriwong 1979: 6. Morris and Purchon 1981: 324. Nateewathana et al. 1981: 64. Oliver 1992: 86, pl. 17, fig. 6 a, b. Bosch et al. 1995: 234, fig. 1018. Poutiers 1998 a: 218, with in-text figs. Aungtonya et al. 1999: 376. Subba Rao and Dey 2000: 230. Swennen et al. 2001: 46, 76, text-fig. 80, fig. 80. Robba et al. 2002: 77, pl. 6, fig. 10 a, b. Hylleberg and Kilburn 2003: 169 – 170. Robba et al. 2003: table 5. Dharma 2005: 246, pl. 98, fig. 17. Dey and Ramakrishna 2007: 154, 197. Robba et al. 2007: 84 (appendix). Nabhitabhata 2009: 20, with in-text fig., 347. Huber 2010: 190, with in-text fig. Sanpanich 2011: table 2. Huber 2015: C 5627. Yang et al. 2017: 176, fig. 681. Surakiatchai et al. 2018: table 6, pl. 3, fig. 8 a, b. Tudu et al. 2018: table 1. Wells et al. 2021: 64.
 Placuna (Placuna) placenta. Dheeradilok et al. 1984: pl. 2, fig. 14. Thach 2005: 266, pl. 81, fig. 4.
Referred material.
CUF - NKNY - B 22 (19 L + 18 R shells; Figs 13 A, 14 E).
Habitat.
Sandy mud in intertidal zones and shallow waters down to 35 m depth, in quiet waters of lagoons, protected bays, and mangrove areas, or near estuaries (Poutiers 1998 a; Thach 2005; Yang et al. 2017).
Distribution.
Indian Ocean; Indo-West Pacific, from Japan to Australia (Huber 2015). Records of fossils from the Late Miocene to Holocene in Indonesia, Japan, the Philippines, Taiwan, and Thailand (Robba et al. 2002; Surakiatchai et al. 2018).
Record in Thailand.
Gulf of Thailand and Andaman Sea (Wells et al. 2021).
Taxonomic remarks and comparisons.
 This species differs from its similar species, Placuna ephippium (Philipsson, 1788), by having an almost circular shell and a right valve bearing a hinge plate with arrowhead-shaped lamellar teeth with the posterior ridge distinctly longer than the anterior one (Poutiers 1998 a; Swennen et al. 2001).
 Superfamily Pectinoidea Rafinesque, 1815
description: Published as part of Jirapatrasilp, Parin, Cuny, Gilles, Kocsis, László, Sutcharit, Chirasak, Ngamnisai, Nom, Charoentitirat, Thasinee, Kumpitak, Satapat & Suraprasit, Kantapon, 2024, Mid-Holocene marine faunas from the Bangkok Clay deposits in Nakhon Nayok, the Central Plain of Thailand, pp. 1-110 in ZooKeys 1202 on pages 1-110, DOI: 10.3897/zookeys.1202.119389
Xenodon rabdocephalus
Creators: name: Nogueira, Cristiano C.
name: Argôlo, Antonio J. S.
name: Arzamendia, Vanesa
name: Azevedo, Josué A.
name: Barbo, Fausto E.
name: Bérnils, Renato S.
name: Bolochio, Bruna E.
name: Borges-Martins, Marcio
name: Brasil-Godinho, Marcela
name: Braz, Henrique
name: Buononato, Marcus A.
name: Cisneros-Heredia, Diego F.
name: Colli, Guarino R.
name: Costa, Henrique C.
name: Franco, Francisco L.
name: Giraudo, Alejandro
name: Gonzalez, Rodrigo C.
name: Guedes, Thaís
name: Hoogmoed, Marinus S.
name: Marques, Otavio A. V.
name: Montingelli, Giovanna G.
name: Passos, Paulo
name: Prudente, Ana L. C.
name: Rivas, Gilson A.
name: Sanchez, Paola M.
name: Serrano, Filipe C.
name: Silva Jr., Nelson J.
name: Strüssmann, Christine
name: Vieira-Alencar, João Paulo S.
name: Zaher, Hussam
name: Sawaya, Ricardo J.
name: Martins, Marcio
Publisher: name: Zenodo
Year: 2019
Subjects: Biodiversity
Taxonomy
Animalia
Chordata
Reptilia
Squamata
Colubridae
Xenodon
Xenodon rabdocephalus

description: Xenodon rabdocephalus (Wied, 1824)
Type locality. “ Sertão of Bahia, Brazil.”
Distribution. Known from Bolivia, Brazil, Colombia, Ecuador, French Guiana, Guyana, Peru, Suriname, and Venezuela, largely associated to South American major forested biomes (Plt. 404A). In Brazil, widespread in Amazonia, and in central and southern Atlantic Forest, forming a disjunct distribution, with marginal records in the Chiquitano Dry Forest, northwestern Cerrado and its contact areas with the Pantanal (Plt. 404A), mostly at low elevations (Plt. 404B). Observed in the field in wetlands and gallery forest in (Martins and Oliveira, 1998; Martins et al., 2008b; Nogueira et al., 2010).
description: Published as part of Nogueira, Cristiano C., Argôlo, Antonio J. S., Arzamendia, Vanesa, Azevedo, Josué A., Barbo, Fausto E., Bérnils, Renato S., Bolochio, Bruna E., Borges-Martins, Marcio, Brasil-Godinho, Marcela, Braz, Henrique, Buononato, Marcus A., Cisneros-Heredia, Diego F., Colli, Guarino R., Costa, Henrique C., Franco, Francisco L., Giraudo, Alejandro, Gonzalez, Rodrigo C., Guedes, Thaís, Hoogmoed, Marinus S., Marques, Otavio A. V., Montingelli, Giovanna G., Passos, Paulo, Prudente, Ana L. C., Rivas, Gilson A., Sanchez, Paola M., Serrano, Filipe C., Silva Jr., Nelson J., Strüssmann, Christine, Vieira-Alencar, João Paulo S., Zaher, Hussam, Sawaya, Ricardo J. & Martins, Marcio, 2019, Atlas of Brazilian Snakes: Verified Point-Locality Maps to Mitigate the Wallacean Shortfall in a Megadiverse Snake Fauna, pp. 1-274 in South American Journal of Herpetology 14 (s 1) on page 47, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
Volachlamys singaporina
Creators: name: Jirapatrasilp, Parin
name: Cuny, Gilles
name: Kocsis, László
name: Sutcharit, Chirasak
name: Ngamnisai, Nom
name: Charoentitirat, Thasinee
name: Kumpitak, Satapat
name: Suraprasit, Kantapon
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Animalia
Mollusca
Bivalvia
Pectinida
Pectinidae
Volachlamys
Volachlamys singaporina

description: Volachlamys singaporina (Sowerby II, 1842)
Figs 12 B, 14 F
 Pecten singaporinus Sowerby II, 1842: 74, pl. 13, fig. 55; pl. 14, fig. 71. Type locality: Singapore. Lynge 1909: 155.
 Volachlamys singaporina. Roussy 1991: 21. Poutiers 1998 a: 210, with in-text figs. Aungtonya et al. 1999: 376. Swennen et al. 2001: 45, 74, fig. 70. Gemert 2003: 108. Hylleberg and Kilburn 2003: 169. Dharma 2005: 248, pl. 99, fig. 13 a – e; 364, pl. 147, fig. 3 a, b. Thach 2005: 263, pl. 80, fig. 13. Nabhitabhata 2009: 342. Huber 2010: 203, with in-text fig. Huber 2015: C 6118. BEDO 2017 a: 236, with in-text fig. Yang et al. 2017: 172, fig. 667. Dijkstra and Beu 2018: 296 – 298, figs 98, 100 j, l, 101 d, e. Wells et al. 2021: 67.
Referred material.
CUF - NKNY - B 07 (32 L + 32 R shells; Figs 12 B, 14 F).
Habitat.
Byssally attached under coral boulders and rocks, on sand and sandy mud in intertidal zones down to 22 m depth (Huber 2015).
Distribution.
Indo-West Pacific, from China to Australia (Huber 2015; Dijkstra and Beu 2018). Records of fossils from the Middle to Late Pliocene in Indonesia (Dharma 2005).
Record in Thailand.
Gulf of Thailand and Andaman Sea (Wells et al. 2021).
Taxonomic remarks and comparisons.
 This species differs from its similar species, Volachlamys tranquebaria (Gmelin, 1791) and V. hirasei (Bavay, 1904), by having square and well-defined 18–24 ribs with wider interspaces between the ribs (Dharma 2005; Dijkstra and Beu 2018). See also comprehensive taxonomic remarks in Dijkstra and Beu (2018)
 Superorder Heteroconchia Gray, 1854
 Order Lucinida Gray, 1854
 Superfamily Lucinoidea J. Fleming, 1828
description: Published as part of Jirapatrasilp, Parin, Cuny, Gilles, Kocsis, László, Sutcharit, Chirasak, Ngamnisai, Nom, Charoentitirat, Thasinee, Kumpitak, Satapat & Suraprasit, Kantapon, 2024, Mid-Holocene marine faunas from the Bangkok Clay deposits in Nakhon Nayok, the Central Plain of Thailand, pp. 1-110 in ZooKeys 1202 on pages 1-110, DOI: 10.3897/zookeys.1202.119389
New Solar Setup With Acoustic Diagnostic Techniques For Csp Materials. Comparison Of The Proposed Behavior Model With The Experimental Results From The Developed Test Bed.
Creators: name: Lalau, Yasmine
name: Faugeroux, Olivier
name: Guillot, Emmanuel
name: Andre, Damien
name: Huger, Marc
name: Proust, Alain
name: Chotard, Thierry
name: Claudet, Bernard
Publisher: name: Zenodo
Year: 2017
Subjects: concentrated solar power
central receiver
thermo-mechanical behaviour
acoustic emission

description: A promising route toward affordable and efficient solar energy conversion lies in the development of the high temperature Concentrated Solar Power (CSP) tower. The extreme thermal stress conditions to which the tower receivers may be submitted raise the question of the ability of these components to efficiently perform over extended periods of time.

Conventional methods commonly used to assess the mechanical stability and lifetime of these components involve laboratory testing, which suffers from the fundamental inability of these methods to effectively reproduce the real operating conditions. In this work, we suggest an original set-up based upon the use of acoustic emission for in-situ thermomechanical investigation of receiver materials exposed to concentrated solar irradiation, named IMPACT (In-situ thermo-Mechanical Probe by ACoustic Tracking). The ability of this set-up to precisely track the nature, the location and the dynamics of mechanical defects in the receiver material is assessed. Implications for future characterization tools aimed at obtaining an in-depth understanding of the thermo-mechanical behaviour of a wide range of materials in real-working operation is also discussed.
Elevations of inflammatory proteins in neonatal blood are associated with obesity and overweight among 2-year-old children born extremely premature
Creators: name: Leviton, Alan
name: Perrin, Eliana M
name: Fichorova, Raina N
name: van der Burg, Jelske W
name: Allred, Elizabeth N
name: O'Shea, T Michael
name: Skinner, Asheley Cockrell
name: Bose, Carl
Publisher: name: Springer Nature
Year: 2018

description: BackgroundChildhood obesity is associated with elevated blood concentrations of inflammation markers. It is not known to what extent inflammation precedes the development of obesity.MethodsIn a cohort of 882 infants born before 28 weeks of gestation, we examined relationships between concentrations of 25 inflammation-related proteins in blood obtained during the first two postnatal weeks and body mass index at 2 years of age.ResultsAmong children delivered for spontaneous indications (n=734), obesity was associated with elevated concentrations of four proteins (IL-1Î², IL-6, TNF-R1, and MCP-1) on the first postnatal day; one protein (IL-6) on postnatal day 7; and two proteins (ICAM-3 and VEGF-R1) on postnatal day 14. Among children delivered for maternal or fetal indications (n=148), obesity was associated with elevated concentrations of seven proteins on the 14th postnatal day. In multivariable models in the spontaneous indications subsample, elevated IL-6 on day 1 predicted obesity (odds ratio: 2.9; 95% confidence limits: 1.2, 6.8), whereas elevated VCAM-1 on day 14 predicted overweight at 2 years of age (odds ratio: 2.3; 95% confidence limits: 1.2, 4.3).ConclusionsIn this cohort, neonatal systemic inflammation preceded the onset of obesity, suggesting that inflammation might contribute to the development of obesity.
Geloina bengalensis
Creators: name: Jirapatrasilp, Parin
name: Cuny, Gilles
name: Kocsis, László
name: Sutcharit, Chirasak
name: Ngamnisai, Nom
name: Charoentitirat, Thasinee
name: Kumpitak, Satapat
name: Suraprasit, Kantapon
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Animalia
Mollusca
Bivalvia
Venerida
Cyrenidae
Geloina
Geloina bengalensis

description: Geloina bengalensis (Lamarck, 1818)
Figs 13 C, 15 B
 Cyrena bengalensis Lamarck, 1818: 554. Type locality: Bengal.
 Polymesoda (Geloina) bengalensis. Brandt 1974: 310 – 311, pl. 28, fig. 83. Nateewathana 1995: 106, with in-text fig. Aungtonya et al. 1999: 380. Robba et al. 2002: 106, pl. 16, fig. 9. Robba et al. 2003: tables 1, 2. Robba et al. 2007: 87 (appendix). Nabhitabhata 2009: 21, with in-text fig, 471.
 Polymesoda bengalensis. Poutiers 1998 a: 319, with in-text figs. Dharma 2005: 266, pl. 108, fig. 25. Dey 2006: 74 – 75, figs 113, 114. Tudu et al. 2018: table 1.
 Geloina bengalensis. Huber 2015: 319; C 20908. BEDO 2017 a: 252, with in-text fig. Wells et al. 2021: 39.
Referred material.
CUF - NKNY - B 31 (2 L + 3 R shells; Figs 13 C, 15 B).
Habitat.
In intertidal zones, river deltas, estuaries, mud flats, and in mangrove areas (Poutiers 1998 a; Huber 2015).
Distribution.
Bay of Bengal; Indo-West Pacific, from Taiwan to Indonesia (Huber 2015). Records of fossils from the Holocene in Thailand (Robba et al. 2002).
Record in Thailand.
Gulf of Thailand and Andaman Sea (Wells et al. 2021).
Taxonomic remarks and comparisons.
This species is recognised based on the descriptions and figures in Robba et al. (2002) and Huber (2015), specifically in having a solid, inflated, pronounced inequilateral, and subtriangular shell shape.
 Superfamily Mactroidea Lamarck, 1809
description: Published as part of Jirapatrasilp, Parin, Cuny, Gilles, Kocsis, László, Sutcharit, Chirasak, Ngamnisai, Nom, Charoentitirat, Thasinee, Kumpitak, Satapat & Suraprasit, Kantapon, 2024, Mid-Holocene marine faunas from the Bangkok Clay deposits in Nakhon Nayok, the Central Plain of Thailand, pp. 1-110 in ZooKeys 1202 on pages 1-110, DOI: 10.3897/zookeys.1202.119389
Antenatal and Neonatal Antecedents of Executive Dysfunctions in Extremely Preterm Children
Creators: name: Joseph, Robert M.
name: Allred, Elizabeth N.
name: Kuban, Karl K. C.
name: Leviton, Alan
name: O'Shea, T. Michael
name: Taylor, H. Gerry
Publisher: name: SAGE Publications
Year: 2018

description: To find out why children born extremely preterm are at heightened risk of executive dysfunctions, the authors assessed 716 children who were 10 years old born extremely preterm whose IQ was â‰¥ 70. A working memory dysfunction (n = 169), an inhibition dysfunction (n = 360), a switching dysfunction (355), and all 3 (executive dysfunction; n = 107) were defined on the basis of Z-scores â‰¤ -1 on the Differential Ability Scales-II Working Memory composite, and/or on the NEPSY-II Inhibition-Inhibition and Inhibition-Switching subtests. All risk profiles include an indicator of socioeconomic disadvantage. The risk profile of each of the 3 individual dysfunctions includes an indicator of the newborn's immaturity, and the risk profiles of the inhibition dysfunction and switching dysfunction also include an indicator of inflammation. Only the switching dysfunction was associated with fetal growth restriction. The risk factors for executive dysfunction can be subsumed under the 4 themes of socioeconomic disadvantage, immaturity/vulnerability, inflammation, and fetal growth restriction.
Xenodon severus
Creators: name: Nogueira, Cristiano C.
name: Argôlo, Antonio J. S.
name: Arzamendia, Vanesa
name: Azevedo, Josué A.
name: Barbo, Fausto E.
name: Bérnils, Renato S.
name: Bolochio, Bruna E.
name: Borges-Martins, Marcio
name: Brasil-Godinho, Marcela
name: Braz, Henrique
name: Buononato, Marcus A.
name: Cisneros-Heredia, Diego F.
name: Colli, Guarino R.
name: Costa, Henrique C.
name: Franco, Francisco L.
name: Giraudo, Alejandro
name: Gonzalez, Rodrigo C.
name: Guedes, Thaís
name: Hoogmoed, Marinus S.
name: Marques, Otavio A. V.
name: Montingelli, Giovanna G.
name: Passos, Paulo
name: Prudente, Ana L. C.
name: Rivas, Gilson A.
name: Sanchez, Paola M.
name: Serrano, Filipe C.
name: Silva Jr., Nelson J.
name: Strüssmann, Christine
name: Vieira-Alencar, João Paulo S.
name: Zaher, Hussam
name: Sawaya, Ricardo J.
name: Martins, Marcio
Publisher: name: Zenodo
Year: 2019
Subjects: Biodiversity
Taxonomy
Animalia
Chordata
Reptilia
Squamata
Colubridae
Xenodon
Xenodon severus

description: Xenodon severus (Linnaeus, 1758)
Type locality. “Asia” (in error). Corrected to South America by Günther (1863).
Distribution. Known from Bolivia, Brazil, Colombia, Ecuador,French Guiana, Guyana, Peru, Suriname,and Venezuela, largely associated to Amazonian forest (Plt. 405A). In Brazil, widespread in Amazonia and Guianan savannas, with marginal records in Chiquitano Dry Forest and the northern portion of the Cerrado (Plt. 405A), mostly at low elevations (Plt. 405B). Observed in the field in forested areas near creeks (Ávila-Pires et al., 2010).
description: Published as part of Nogueira, Cristiano C., Argôlo, Antonio J. S., Arzamendia, Vanesa, Azevedo, Josué A., Barbo, Fausto E., Bérnils, Renato S., Bolochio, Bruna E., Borges-Martins, Marcio, Brasil-Godinho, Marcela, Braz, Henrique, Buononato, Marcus A., Cisneros-Heredia, Diego F., Colli, Guarino R., Costa, Henrique C., Franco, Francisco L., Giraudo, Alejandro, Gonzalez, Rodrigo C., Guedes, Thaís, Hoogmoed, Marinus S., Marques, Otavio A. V., Montingelli, Giovanna G., Passos, Paulo, Prudente, Ana L. C., Rivas, Gilson A., Sanchez, Paola M., Serrano, Filipe C., Silva Jr., Nelson J., Strüssmann, Christine, Vieira-Alencar, João Paulo S., Zaher, Hussam, Sawaya, Ricardo J. & Martins, Marcio, 2019, Atlas of Brazilian Snakes: Verified Point-Locality Maps to Mitigate the Wallacean Shortfall in a Megadiverse Snake Fauna, pp. 1-274 in South American Journal of Herpetology 14 (s 1) on page 47, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
Xenodon werneri Eiselt 1963
Creators: name: Nogueira, Cristiano C.
name: Argôlo, Antonio J. S.
name: Arzamendia, Vanesa
name: Azevedo, Josué A.
name: Barbo, Fausto E.
name: Bérnils, Renato S.
name: Bolochio, Bruna E.
name: Borges-Martins, Marcio
name: Brasil-Godinho, Marcela
name: Braz, Henrique
name: Buononato, Marcus A.
name: Cisneros-Heredia, Diego F.
name: Colli, Guarino R.
name: Costa, Henrique C.
name: Franco, Francisco L.
name: Giraudo, Alejandro
name: Gonzalez, Rodrigo C.
name: Guedes, Thaís
name: Hoogmoed, Marinus S.
name: Marques, Otavio A. V.
name: Montingelli, Giovanna G.
name: Passos, Paulo
name: Prudente, Ana L. C.
name: Rivas, Gilson A.
name: Sanchez, Paola M.
name: Serrano, Filipe C.
name: Silva Jr., Nelson J.
name: Strüssmann, Christine
name: Vieira-Alencar, João Paulo S.
name: Zaher, Hussam
name: Sawaya, Ricardo J.
name: Martins, Marcio
Publisher: name: Zenodo
Year: 2019
Subjects: Biodiversity
Taxonomy
Animalia
Chordata
Reptilia
Squamata
Colubridae
Xenodon
Xenodon werneri

description: Xenodon werneri Eiselt, 1963
Type locality. “Africa” (in error).
Distribution. Known from Brazil, French Guiana, and Suriname, restricted to the Guiana Shield (Plt. 406A). In Brazil, restricted to northeastern Amazonia, (Plt. 406A) at low elevations (Plt. 406B). Observed in the field in forested areas near creeks (Ávila-Pires et al., 2010).
description: Published as part of Nogueira, Cristiano C., Argôlo, Antonio J. S., Arzamendia, Vanesa, Azevedo, Josué A., Barbo, Fausto E., Bérnils, Renato S., Bolochio, Bruna E., Borges-Martins, Marcio, Brasil-Godinho, Marcela, Braz, Henrique, Buononato, Marcus A., Cisneros-Heredia, Diego F., Colli, Guarino R., Costa, Henrique C., Franco, Francisco L., Giraudo, Alejandro, Gonzalez, Rodrigo C., Guedes, Thaís, Hoogmoed, Marinus S., Marques, Otavio A. V., Montingelli, Giovanna G., Passos, Paulo, Prudente, Ana L. C., Rivas, Gilson A., Sanchez, Paola M., Serrano, Filipe C., Silva Jr., Nelson J., Strüssmann, Christine, Vieira-Alencar, João Paulo S., Zaher, Hussam, Sawaya, Ricardo J. & Martins, Marcio, 2019, Atlas of Brazilian Snakes: Verified Point-Locality Maps to Mitigate the Wallacean Shortfall in a Megadiverse Snake Fauna, pp. 1-274 in South American Journal of Herpetology 14 (s 1) on page 47, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
Hand Preference and Cognitive, Motor, and Behavioral Functioning in 10-Year-Old Extremely Preterm Children
Creators: name: ELGAN Study Investigators
name: Allred, Elizabeth N.
name: Anderson, Peter J.
name: Leviton, Alan
name: Kuban, Karl C.K.
name: O'Shea, T. Michael
name: Joseph, Robert M.
name: Burnett, Alice C.
Publisher: name: Elsevier
Year: 2018

description: The association of hand preference (left, mixed, and right) with cognitive, academic, motor, and behavioral function was evaluated in 864 extremely preterm children at 10 years of age. Left-handed and right-handed children performed similarly but mixed-handed children had greater odds of functional deficits across domains than right-handed children.
High-density EEG characterization of brain responses to auditory rhythmic stimuli during wakefulness and NREM sleep
Creators: name: Page, Jessica M.
name: Alagapan, Sankaraleengam
name: Boyle, Michael R.
name: Fröhlich, Flavio
name: Price, Betsy
name: Lustenberger, Caroline
name: Patel, Yogi A.
Publisher: name: Elsevier
Year: 2017

description: Auditory rhythmic sensory stimulation modulates brain oscillations by increasing phase-locking to the temporal structure of the stimuli and by increasing the power of specific frequency bands, resulting in Auditory Steady State Responses (ASSR). The ASSR is altered in different diseases of the central nervous system such as schizophrenia. However, in order to use the ASSR as biological markers for disease states, it needs to be understood how different vigilance states and underlying brain activity affect the ASSR. Here, we compared the effects of auditory rhythmic stimuli on EEG brain activity during wake and NREM sleep, investigated the influence of the presence of dominant sleep rhythms on the ASSR, and delineated the topographical distribution of these modulations. Participants (14 healthy males, 20-33 years) completed on the same day a 60 min nap session and two 30 min wakefulness sessions (before and after the nap). During these sessions, amplitude modulated (AM) white noise auditory stimuli at different frequencies were applied. High-density EEG was continuously recorded and time-frequency analyses were performed to assess ASSR during wakefulness and NREM periods. Our analysis revealed that depending on the electrode location, stimulation frequency applied and window/frequencies analysed the ASSR was significantly modulated by sleep pressure (before and after sleep), vigilance state (wake vs. NREM sleep), and the presence of slow wave activity and sleep spindles. Furthermore, AM stimuli increased spindle activity during NREM sleep but not during wakefulness. Thus, (1) electrode location, sleep history, vigilance state and ongoing brain activity needs to be carefully considered when investigating ASSR and (2) auditory rhythmic stimuli during sleep might represent a powerful tool to boost sleep spindles.
Standella pellucida
Creators: name: Jirapatrasilp, Parin
name: Cuny, Gilles
name: Kocsis, László
name: Sutcharit, Chirasak
name: Ngamnisai, Nom
name: Charoentitirat, Thasinee
name: Kumpitak, Satapat
name: Suraprasit, Kantapon
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Animalia
Mollusca
Bivalvia
Venerida
Mactridae
Standella
Standella pellucida

description: Standella pellucida (Gmelin, 1791)
Figs 13 B, 15 D
 Mactra pellucida Gmelin, 1791: 3260 – 3261. Type locality: “ Guinea coast. ” Sanpanich 2011: table 2.
 Standella pellucida. Lynge 1909: 224. Nabhitabhata 2009: 418. Huber 2010: 451, with in-text figs. Huber 2015: C 22028. Tudu et al. 2018: table 1. Wells et al. 2021: 42.
 Meropesta pellucida. Bosch et al. 1995: 248, fig. 1100. Poutiers 1998 a: 281, with in-text figs. Swennen et al. 2001: 47, 83, text-fig. 116, fig. 116. Robba et al. 2002: 91 – 92, pl. 12, fig. 6. Dey and Ramakrishna 2007: 211. Robba et al. 2007: 86 (appendix). Meyer et al. 2008: tables 2, 3. Nabhitabhata 2009: 417. Wong 2009: 289, figs 9 a, b, 22. BEDO 2017 a: 155. Yang et al. 2017: 196, fig. 752.
Referred material.
CUF - NKNY - B 30 (1 L + 1 R shells; Figs 13 B, 15 D).
Habitat.
Fine sand and mud in intertidal zones down to 4 m depth, in lagoons, and at the fringe of mangrove areas (Poutiers 1998 a; Huber 2015).
Distribution.
Arabian Gulf and Indian Ocean; Indo-West Pacific, from Japan to Australia (Bosch et al. 1995; Wong 2009; Huber 2015). Records of fossils from the Quaternary in Indonesia and from the Holocene in Thailand (Robba et al. 2002).
Record in Thailand.
Gulf of Thailand and Andaman Sea (Wells et al. 2021).
Taxonomic remarks and comparisons.
This species is recognised based on the descriptions and figures in Robba et al. (2002) and Huber (2010), specifically in having a longer than high, inequilateral, and elliptical shell with an oval-shaped anterior margin and a somewhat pointed posterior margin, an outer surface sculptured with uneven and fine growth markings, and faint posterior radial striation. An exceedingly shallow radial depression is sometimes observed in the mid-anterior part. Huber (2015) indicated that the type locality in Guinea is erroneous.
 Superfamily Tellinoidea Blainville, 1814
description: Published as part of Jirapatrasilp, Parin, Cuny, Gilles, Kocsis, László, Sutcharit, Chirasak, Ngamnisai, Nom, Charoentitirat, Thasinee, Kumpitak, Satapat & Suraprasit, Kantapon, 2024, Mid-Holocene marine faunas from the Bangkok Clay deposits in Nakhon Nayok, the Central Plain of Thailand, pp. 1-110 in ZooKeys 1202 on pages 1-110, DOI: 10.3897/zookeys.1202.119389
Amnesteophis melanauchen
Creators: name: Nogueira, Cristiano C.
name: Argôlo, Antonio J. S.
name: Arzamendia, Vanesa
name: Azevedo, Josué A.
name: Barbo, Fausto E.
name: Bérnils, Renato S.
name: Bolochio, Bruna E.
name: Borges-Martins, Marcio
name: Brasil-Godinho, Marcela
name: Braz, Henrique
name: Buononato, Marcus A.
name: Cisneros-Heredia, Diego F.
name: Colli, Guarino R.
name: Costa, Henrique C.
name: Franco, Francisco L.
name: Giraudo, Alejandro
name: Gonzalez, Rodrigo C.
name: Guedes, Thaís
name: Hoogmoed, Marinus S.
name: Marques, Otavio A. V.
name: Montingelli, Giovanna G.
name: Passos, Paulo
name: Prudente, Ana L. C.
name: Rivas, Gilson A.
name: Sanchez, Paola M.
name: Serrano, Filipe C.
name: Silva Jr., Nelson J.
name: Strüssmann, Christine
name: Vieira-Alencar, João Paulo S.
name: Zaher, Hussam
name: Sawaya, Ricardo J.
name: Martins, Marcio
Publisher: name: Zenodo
Year: 2019
Subjects: Biodiversity
Taxonomy
Animalia
Chordata
Reptilia
Squamata
Colubridae
Amnesteophis
Amnesteophis melanauchen

description: Amnesteophis melanauchen (Jan, 1863)
Type locality. “ Bahia.” Known only from the type specimen deposited at the Leiden Museum. According to Myers (2011), the original catalog entry for the holotype is “ Bahia au Brésil,” which could refer to the city of Salvador, to its surrounding districts, or to the old administrative province that gave name to the present state of Bahia in Brazil. Therefore, the precise locality where the only known specimen was collected cannot be defined with certainty.
Distribution. Unknown. Given the uncertainties on the type locality, no map was provided for this enigmatic species, possibly occurring in the state of Bahia, northeastern Brazil. We follow Myers (2011) in tentatively assigning Amnesteophis to the Xenodontinae. However, this is based merely on geographic grounds rather than morphological or molecular affinities (Myers, 2011). No detailed field data on habitat use are available for this species.
description: Published as part of Nogueira, Cristiano C., Argôlo, Antonio J. S., Arzamendia, Vanesa, Azevedo, Josué A., Barbo, Fausto E., Bérnils, Renato S., Bolochio, Bruna E., Borges-Martins, Marcio, Brasil-Godinho, Marcela, Braz, Henrique, Buononato, Marcus A., Cisneros-Heredia, Diego F., Colli, Guarino R., Costa, Henrique C., Franco, Francisco L., Giraudo, Alejandro, Gonzalez, Rodrigo C., Guedes, Thaís, Hoogmoed, Marinus S., Marques, Otavio A. V., Montingelli, Giovanna G., Passos, Paulo, Prudente, Ana L. C., Rivas, Gilson A., Sanchez, Paola M., Serrano, Filipe C., Silva Jr., Nelson J., Strüssmann, Christine, Vieira-Alencar, João Paulo S., Zaher, Hussam, Sawaya, Ricardo J. & Martins, Marcio, 2019, Atlas of Brazilian Snakes: Verified Point-Locality Maps to Mitigate the Wallacean Shortfall in a Megadiverse Snake Fauna, pp. 1-274 in South American Journal of Herpetology 14 (s 1) on page 48, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
Joannisiella oblonga
Creators: name: Jirapatrasilp, Parin
name: Cuny, Gilles
name: Kocsis, László
name: Sutcharit, Chirasak
name: Ngamnisai, Nom
name: Charoentitirat, Thasinee
name: Kumpitak, Satapat
name: Suraprasit, Kantapon
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Animalia
Mollusca
Bivalvia
Venerida
Ungulinidae
Joannisiella
Joannisiella oblonga

description: Joannisiella oblonga (Hanley, 1846)
Figs 12 S, 15 F
 Cyrenoidea oblonga Hanley, 1846 a: 10 (plate explanation). Type locality: Philippines. Hanley 1856: 353, pl. 15, fig. 6. Coan and Kabat 2012: 320.
 Diplodonta (Joannisiella) oblonga. Lynge 1909: 176.
 Cycladicama oblonga. Dheeradilok et al. 1984: pl. 2, figs 6, 7. Robba et al. 2002: 79, pl. 7, fig. 9 a, b. Hylleberg and Kilburn 2003: 174. Robba et al. 2003: tables 3, 4. Robba et al. 2007: 85 (appendix). Nabhitabhata 2009: 389. Yang et al. 2017: 182, fig. 704. Surakiatchai et al. 2018: table 6, pl. 3, fig. 10 a, b.
 Joannisiella oblonga. Huber 2015: 341, 829, with in-text figs; C 21436. Wells et al. 2021: 42.
Referred material.
CUF - NKNY - B 09, B 17 (59 L + 66 R shells; Figs 12 S, 15 F).
Habitat.
Muddy bottom with soft clay, muddy sediments on mud flats, and in the shallow waters from intertidal zones down to 36 m depth (Huber 2015; Yang et al. 2017).
Distribution.
Indo-West Pacific, from Japan to Indonesia and the Philippines (Huber 2015; Yang et al. 2017). Records of fossils from the Middle Miocene to Holocene in Indonesia, Japan, the Philippines, Taiwan, and Thailand (Robba et al. 2002; Surakiatchai et al. 2018).
Record in Thailand.
Gulf of Thailand (Wells et al. 2021).
Taxonomic remarks and comparisons.
This species is characterised by its elongate, ovate-triangular shaped, and posteriorly grooved shell (Robba et al. 2002; Huber 2015).
 Superfamily Veneroidea Rafinesque, 1815
description: Published as part of Jirapatrasilp, Parin, Cuny, Gilles, Kocsis, László, Sutcharit, Chirasak, Ngamnisai, Nom, Charoentitirat, Thasinee, Kumpitak, Satapat & Suraprasit, Kantapon, 2024, Mid-Holocene marine faunas from the Bangkok Clay deposits in Nakhon Nayok, the Central Plain of Thailand, pp. 1-110 in ZooKeys 1202 on pages 1-110, DOI: 10.3897/zookeys.1202.119389
Antecedents of Screening Positive for Attention Deficit Hyperactivity Disorder in Ten-Year-Old Children Born Extremely Preterm
Creators: name: Joseph, Robert M.
name: Allred, Elizabeth N.
name: Scott, Megan N.
name: Kuban, Karl
name: Hooper, Stephen R.
name: ELGAN Study Investigators
name: Hunter, Scott J.
name: O'Shea, T. Michael
name: Leviton, Alan
Publisher: name: Elsevier
Year: 2017

description: BACKGROUND: The incidence of attention deficit hyperactivity disorder is higher among children born very preterm than among children who are mature at birth. METHODS: We studied 583 ten-year-old children who were born before 28 weeks of gestation whose IQ was above 84 and had a parent-completed Child Symptom Inventory-4, which allowed classification of the child as having or not having symptoms of attention deficit hyperactivity disorder. For 422 children, we also had a teacher report, and for 583 children, we also had a parent report of whether or not a physician made an attention deficit hyperactivity disorder diagnosis. RESULTS: The risk profile of screening positive for attention deficit hyperactivity disorder based on a parent's report differed from the risk profile based on the teacher's report, whereas the risk profile according to a physician and according to any two observers closely resembled the parent-reported profile. Among the statistically significant risk factors were young maternal age (parent, physician, and two observers), maternal obesity (parent, physician, and two observers), maternal smoking (parent, physician, and two observers), magnesium given at delivery for seizure prophylaxis (parent and two observers), recovery of Mycoplasma sp. from the placenta (teacher and two observers), low gestational age (parent and two observers), low birth weight (teacher and physician), singleton (parent, physician, and two observers), male (parent, teacher, physician, and two observers), mechanical ventilation on postnatal day seven (physician), receipt of a sedative (parent and two observers), retinopathy of prematurity (parent), necrotizing enterocolitis (physician), antibiotic receipt (physician and two observers), and ventriculomegaly on brain scan (parent and two observers). CONCLUSIONS: The multiplicity of risk factors identified can be subsumed as components of four broad themes: low socioeconomic state, immaturity or vulnerability, inflammation, and epigenetic phenomena.
Xenopholis scalaris
Creators: name: Nogueira, Cristiano C.
name: Argôlo, Antonio J. S.
name: Arzamendia, Vanesa
name: Azevedo, Josué A.
name: Barbo, Fausto E.
name: Bérnils, Renato S.
name: Bolochio, Bruna E.
name: Borges-Martins, Marcio
name: Brasil-Godinho, Marcela
name: Braz, Henrique
name: Buononato, Marcus A.
name: Cisneros-Heredia, Diego F.
name: Colli, Guarino R.
name: Costa, Henrique C.
name: Franco, Francisco L.
name: Giraudo, Alejandro
name: Gonzalez, Rodrigo C.
name: Guedes, Thaís
name: Hoogmoed, Marinus S.
name: Marques, Otavio A. V.
name: Montingelli, Giovanna G.
name: Passos, Paulo
name: Prudente, Ana L. C.
name: Rivas, Gilson A.
name: Sanchez, Paola M.
name: Serrano, Filipe C.
name: Silva Jr., Nelson J.
name: Strüssmann, Christine
name: Vieira-Alencar, João Paulo S.
name: Zaher, Hussam
name: Sawaya, Ricardo J.
name: Martins, Marcio
Publisher: name: Zenodo
Year: 2019
Subjects: Biodiversity
Taxonomy
Animalia
Chordata
Reptilia
Squamata
Colubridae
Xenopholis
Xenopholis scalaris

description: Xenopholis scalaris (Wucherer, 1861)
Type locality. Not defined. Type series formed by two specimens (no holotype designated), one from Canavieiras, state of Bahia, Brazil, and another from Mata de São João, Bahia, Brazil.
Distribution. Known from Bolivia, Brazil, Colombia, Ecuador, and Peru, largely associated to South American major forested biomes (Plt. 407A). In Brazil, widespread in Amazonia and the Atlantic Forest, forming a disjunct distribution (Plt. 407A), mostly at low elevation (Plt. 407B). Observed in the field in primary forest (Martins and Oliveira, 1998).
description: Published as part of Nogueira, Cristiano C., Argôlo, Antonio J. S., Arzamendia, Vanesa, Azevedo, Josué A., Barbo, Fausto E., Bérnils, Renato S., Bolochio, Bruna E., Borges-Martins, Marcio, Brasil-Godinho, Marcela, Braz, Henrique, Buononato, Marcus A., Cisneros-Heredia, Diego F., Colli, Guarino R., Costa, Henrique C., Franco, Francisco L., Giraudo, Alejandro, Gonzalez, Rodrigo C., Guedes, Thaís, Hoogmoed, Marinus S., Marques, Otavio A. V., Montingelli, Giovanna G., Passos, Paulo, Prudente, Ana L. C., Rivas, Gilson A., Sanchez, Paola M., Serrano, Filipe C., Silva Jr., Nelson J., Strüssmann, Christine, Vieira-Alencar, João Paulo S., Zaher, Hussam, Sawaya, Ricardo J. & Martins, Marcio, 2019, Atlas of Brazilian Snakes: Verified Point-Locality Maps to Mitigate the Wallacean Shortfall in a Megadiverse Snake Fauna, pp. 1-274 in South American Journal of Herpetology 14 (s 1) on page 48, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
Xenopholis undulatus
Creators: name: Nogueira, Cristiano C.
name: Argôlo, Antonio J. S.
name: Arzamendia, Vanesa
name: Azevedo, Josué A.
name: Barbo, Fausto E.
name: Bérnils, Renato S.
name: Bolochio, Bruna E.
name: Borges-Martins, Marcio
name: Brasil-Godinho, Marcela
name: Braz, Henrique
name: Buononato, Marcus A.
name: Cisneros-Heredia, Diego F.
name: Colli, Guarino R.
name: Costa, Henrique C.
name: Franco, Francisco L.
name: Giraudo, Alejandro
name: Gonzalez, Rodrigo C.
name: Guedes, Thaís
name: Hoogmoed, Marinus S.
name: Marques, Otavio A. V.
name: Montingelli, Giovanna G.
name: Passos, Paulo
name: Prudente, Ana L. C.
name: Rivas, Gilson A.
name: Sanchez, Paola M.
name: Serrano, Filipe C.
name: Silva Jr., Nelson J.
name: Strüssmann, Christine
name: Vieira-Alencar, João Paulo S.
name: Zaher, Hussam
name: Sawaya, Ricardo J.
name: Martins, Marcio
Publisher: name: Zenodo
Year: 2019
Subjects: Biodiversity
Taxonomy
Animalia
Chordata
Reptilia
Squamata
Colubridae
Xenopholis
Xenopholis undulatus

description: Xenopholis undulatus (Jensen, 1900)
Type locality. Lagoa Santa, state of Minas Gerais, Brazil.
Distribution. Known from Brazil and Paraguay, mostly along the South American open diagonal (Plt. 408A). In Brazil, widespread in the Cerrado, with marginal isolated records in the Atlantic Forest, Araucaria Forest, and contact areas between Caatinga and Atlantic Forest (Plt. 408A), mostly at intermediate to high elevations (Plt. 408B). Observed in the field in gallery forest and upland forest (FranÇa et al., 2008; Loebmann and Haddad, 2010).
description: Published as part of Nogueira, Cristiano C., Argôlo, Antonio J. S., Arzamendia, Vanesa, Azevedo, Josué A., Barbo, Fausto E., Bérnils, Renato S., Bolochio, Bruna E., Borges-Martins, Marcio, Brasil-Godinho, Marcela, Braz, Henrique, Buononato, Marcus A., Cisneros-Heredia, Diego F., Colli, Guarino R., Costa, Henrique C., Franco, Francisco L., Giraudo, Alejandro, Gonzalez, Rodrigo C., Guedes, Thaís, Hoogmoed, Marinus S., Marques, Otavio A. V., Montingelli, Giovanna G., Passos, Paulo, Prudente, Ana L. C., Rivas, Gilson A., Sanchez, Paola M., Serrano, Filipe C., Silva Jr., Nelson J., Strüssmann, Christine, Vieira-Alencar, João Paulo S., Zaher, Hussam, Sawaya, Ricardo J. & Martins, Marcio, 2019, Atlas of Brazilian Snakes: Verified Point-Locality Maps to Mitigate the Wallacean Shortfall in a Megadiverse Snake Fauna, pp. 1-274 in South American Journal of Herpetology 14 (s 1) on page 48, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
Potamocorbula undetermined
Creators: name: Jirapatrasilp, Parin
name: Cuny, Gilles
name: Kocsis, László
name: Sutcharit, Chirasak
name: Ngamnisai, Nom
name: Charoentitirat, Thasinee
name: Kumpitak, Satapat
name: Suraprasit, Kantapon
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Animalia
Mollusca
Bivalvia
Myida
Corbulidae
Potamocorbula
Potamocorbula undetermined

description: Potamocorbula sp.
Figs 12 N, 16 E
Referred material.
CUF - NKNY - B 26 (112 shells; Figs 12 N, 16 E).
Habitat.
Mostly present in intertidal zones, estuarine and brackish habitats (Huber 2015).
Distribution.
 This genus is mostly distributed in the Indian Ocean and Indo-West Pacific, except for the species Potamocorbula adusta (Reeve, 1844), which is recorded only from West Africa (Huber 2015).
Taxonomic remarks and comparisons.
 These specimens are assigned to Potamocorbula based on the descriptions in Coan (2002), specifically in having smooth shells. Currently, there are a total of nine species in this genus (Huber 2015; MolluscaBase 2023), in which two species, P. fasciata (Reeve, 1843) and P. laevis (Hinds, 1843), are recorded from Thailand (Wells et al. 2021). However, our specimens have a more quadrate shell shape, probably suggesting the presence of other different species.
 Superfamily Pholadoidea Lamarck, 1809
description: Published as part of Jirapatrasilp, Parin, Cuny, Gilles, Kocsis, László, Sutcharit, Chirasak, Ngamnisai, Nom, Charoentitirat, Thasinee, Kumpitak, Satapat & Suraprasit, Kantapon, 2024, Mid-Holocene marine faunas from the Bangkok Clay deposits in Nakhon Nayok, the Central Plain of Thailand, pp. 1-110 in ZooKeys 1202 on pages 1-110, DOI: 10.3897/zookeys.1202.119389
Xenopholis werdingorum Jansen 2009
Creators: name: Nogueira, Cristiano C.
name: Argôlo, Antonio J. S.
name: Arzamendia, Vanesa
name: Azevedo, Josué A.
name: Barbo, Fausto E.
name: Bérnils, Renato S.
name: Bolochio, Bruna E.
name: Borges-Martins, Marcio
name: Brasil-Godinho, Marcela
name: Braz, Henrique
name: Buononato, Marcus A.
name: Cisneros-Heredia, Diego F.
name: Colli, Guarino R.
name: Costa, Henrique C.
name: Franco, Francisco L.
name: Giraudo, Alejandro
name: Gonzalez, Rodrigo C.
name: Guedes, Thaís
name: Hoogmoed, Marinus S.
name: Marques, Otavio A. V.
name: Montingelli, Giovanna G.
name: Passos, Paulo
name: Prudente, Ana L. C.
name: Rivas, Gilson A.
name: Sanchez, Paola M.
name: Serrano, Filipe C.
name: Silva Jr., Nelson J.
name: Strüssmann, Christine
name: Vieira-Alencar, João Paulo S.
name: Zaher, Hussam
name: Sawaya, Ricardo J.
name: Martins, Marcio
Publisher: name: Zenodo
Year: 2019
Subjects: Biodiversity
Taxonomy
Animalia
Chordata
Reptilia
Squamata
Colubridae
Xenopholis
Xenopholis werdingorum

description: Xenopholis werdingorum Jansen et al., 2009
Type locality. Hacienda San Sebastián, Ñuflo de Chávez, department of Santa Cruz, Bolivia.
Distribution. Known from Bolivia and Brazil, in the central portion of South America (Plt. 409A). In Brazil, restricted to the western portion of the Cerrado and its contact areas with the Pantanal and Chiquitano Dry Forest (Plt. 409A) at low elevations (Plt. 409B). Observed in the field in savanna enclave within dry forest, primary forest, and disturbed areas (Carvalho and Nogueira, 1998; Jansen et al., 2009; Powell et al., 2016).
description: Published as part of Nogueira, Cristiano C., Argôlo, Antonio J. S., Arzamendia, Vanesa, Azevedo, Josué A., Barbo, Fausto E., Bérnils, Renato S., Bolochio, Bruna E., Borges-Martins, Marcio, Brasil-Godinho, Marcela, Braz, Henrique, Buononato, Marcus A., Cisneros-Heredia, Diego F., Colli, Guarino R., Costa, Henrique C., Franco, Francisco L., Giraudo, Alejandro, Gonzalez, Rodrigo C., Guedes, Thaís, Hoogmoed, Marinus S., Marques, Otavio A. V., Montingelli, Giovanna G., Passos, Paulo, Prudente, Ana L. C., Rivas, Gilson A., Sanchez, Paola M., Serrano, Filipe C., Silva Jr., Nelson J., Strüssmann, Christine, Vieira-Alencar, João Paulo S., Zaher, Hussam, Sawaya, Ricardo J. & Martins, Marcio, 2019, Atlas of Brazilian Snakes: Verified Point-Locality Maps to Mitigate the Wallacean Shortfall in a Megadiverse Snake Fauna, pp. 1-274 in South American Journal of Herpetology 14 (s 1) on page 48, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
Pholas orientalis Gmelin 1791
Creators: name: Jirapatrasilp, Parin
name: Cuny, Gilles
name: Kocsis, László
name: Sutcharit, Chirasak
name: Ngamnisai, Nom
name: Charoentitirat, Thasinee
name: Kumpitak, Satapat
name: Suraprasit, Kantapon
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Animalia
Mollusca
Bivalvia
Myida
Pholadidae
Pholas
Pholas orientalis

description: Pholas orientalis Gmelin, 1791
Figs 12 U, 16 H
 Pholas orientalis Gmelin, 1791: 3216. Type locality: Siam [Thailand] and Tranquebar. Morris and Purchon 1981: 327. Nateewathana 1995: 111, with in-text fig. Poutiers 1998 a: 356, with in-text figs. Subba Rao and Dey 2000: 286. Swennen et al. 2001: 50, 98, fig. 219. Haga 2010: 396, pl. 1193, figs 2, 3. BEDO 2017 a: 168, with in-text fig. Hylleberg and Kilburn 2003: 224. Dey and Ramakrishna 2007: 160, 251 – 252. Nabhitabhata 2009: 510. Gopalakrishnan et al. 2012: 61. Yang et al. 2017: 246, fig. 916. Tudu et al. 2018: table 1. Wells et al. 2021: 37.
 Pholas siamensis Spengler, 1792: 88 – 89. Type locality: the Gulf of Thailand, the mouth of the river Qweda, where it goes up to Alastav. Knudsen and Jensen 2001: 547 – 556, figs 1 – 4.
 Pholas (Monothyra) orientalis. Lynge 1909: 282. Aungtonya et al. 1999: 383. Robba et al. 2002: 121, pl. 21, fig. 5. Robba et al. 2003: tables 3 – 5. Dharma 2005: 270, pl. 110, fig. 25; 368, pl. 149, fig. 18 a, b. Thach 2005: 304, pl. 91, fig. 6. Robba et al. 2007: 88 (appendix). Huber 2010: 473, with in-text fig. Huber 2015: C 22846.
Referred material.
CUF - NKNY - B 05 (26 L + 73 R shells; Figs 12 U, 16 H).
Habitat.
Boring down to 50 cm depth in peat, soft rocks, stiff clay, or sticky and soft sandy-mud bottoms rich in silt and detritus, often near river mouths, from intertidal and sublittoral zones at a depth from 1 to 30 m (Poutiers 1998 a; Huber 2015).
Distribution.
Indian Ocean; Indo-West Pacific, from Taiwan to Australia (Huber 2015). Records of fossils from the Middle Miocene to Holocene in Indonesia, Myanmar, and Thailand (Robba et al. 2002; Dharma 2005).
Record in Thailand.
Gulf of Thailand and Andaman Sea (Wells et al. 2021).
Taxonomic remarks and comparisons.
This species is recognised based on the descriptions and figures in Poutiers (1998 a), Swennen et al. (2001), and Robba et al. (2002), specifically in having antero-dorsal reflection that has axial supports.
 Famliy Teredinidae Rafinesque, 1815
description: Published as part of Jirapatrasilp, Parin, Cuny, Gilles, Kocsis, László, Sutcharit, Chirasak, Ngamnisai, Nom, Charoentitirat, Thasinee, Kumpitak, Satapat & Suraprasit, Kantapon, 2024, Mid-Holocene marine faunas from the Bangkok Clay deposits in Nakhon Nayok, the Central Plain of Thailand, pp. 1-110 in ZooKeys 1202 on pages 1-110, DOI: 10.3897/zookeys.1202.119389