cometadata/datacite-rtg-text-other-reclassification-records huggingface dataset:
Neurocognition after motor vehicle collision and adverse post-traumatic neuropsychiatric sequelae within 8 weeks: Initial findings from the AURORA study
Creators: name: Rathlev, Niels K
name: Sheikh, Sophia
name: House, Stacey L
name: Hendry, Phyllis L
name: Rauch, Scott L
name: Peak, David A
name: Scheuer, Luke
name: Pietrzak, Robert H
name: Mohiuddin, Kamran
name: Pizzagalli, Diego A
name: Germine, Laura T
name: Jovanovic, Tanja
name: Linnstaedt, Sarah D
name: Kessler, Ronald C
name: Bruce, Steven E
name: Punches, Brittney E
name: Stevens, Jennifer S
name: Storrow, Alan B
name: An, Xinming
name: Clifford, Gari D
name: Hwang, Irving
name: Passell, Eliza
name: Beaudoin, Francesca L
name: Barch, Deanna M
name: Lee, Sue
name: Martini, Paolo
name: Lewandowski, Christopher
name: Harte, Steven E
name: Joormann, Jutta
name: Ressler, Kerry J
name: Sanchez, Leon D
name: Domeier, Robert M
name: McLean, Samuel A
name: Elliott, James M
name: Rutter, Lauren A
name: Neylan, Thomas C
name: Pearson, Claire
name: Koenen, Karesten C
name: Pascual, Jose L
name: McGrath, Meghan E
name: Musey, Paul I
name: Zeng, Donglin
name: Jones, Christopher W
name: Sampson, Nancy
Publisher: name: Elsevier
Year: 2021

description: BACKGROUND: Previous work has indicated that differences in neurocognitive functioning may predict the development of adverse post-traumatic neuropsychiatric sequelae (APNS). Such differences may be vulnerability factors or simply correlates of APNS-related symptoms. Longitudinal studies that measure neurocognitive functioning at the time of trauma are needed to determine whether such differences precede the development of APNS. METHODS: Here, we present findings from a subsample of 666 ambulatory patients from the AURORA (Advancing Understanding of RecOvery afteR trumA) study. All patients presented to EDs after a motor vehicle collision (MVC). We examined associations of neurocognitive test performance shortly after MVC with peritraumatic symptoms in the ED and APNS (depression, post-traumatic stress, post-concussive symptoms, and pain) 2 weeks and 8 weeks later. Neurocognitive tests assessed processing speed, attention, verbal reasoning, memory, and social perception. RESULTS: Distress in the ED was associated with poorer processing speed and short-term memory. Poorer short-term memory was also associated with depression at 2 weeks post-MVC, even after controlling for peritraumatic distress. Finally, higher vocabulary scores were associated with pain 2 weeks post-MVC. LIMITATIONS: Self-selection biases among those who present to the ED and enroll in the study limit generalizability. Also, it is not clear whether observed neurocognitive differences predate MVC exposure or arise in the immediate aftermath of MVC exposure. CONCLUSIONS: Our results suggest that processing speed and short-term memory may be useful predictors of trauma-related characteristics and the development of some APNS, making such measures clinically-relevant for identifying at-risk individuals.
Xenodon dorbignyi
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 dorbignyi

description: Xenodon dorbignyi (Bibron in Duméril et al., 1854)
Type locality. “ South America. ” Type series collected in Buenos Aires, Argentina; Montevideo, Uruguay and Santa Catarina, Brazil.
Distribution. Known from Argentina, Brazil, Paraguay, and Uruguay, mostly along open biomes (Plt. 396A). In Brazil, widespread in Pampas Grasslands (Plt. 396A), at low elevations (Plt. 396B). Taxonomy in Hoge et al. (1975). Observed in the field in grassland (Lema et al., 1983; Oliveira et al., 2001; Winck et al., 2007; Ghizoni-Jr. et al., 2009; Tozetti et al., 2009; Quintela et al., 2011b).
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 46, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
Saccella mauritiana
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
Nuculanida
Nuculanidae
Saccella
Saccella mauritiana

description: Saccella mauritiana (Sowerby I, 1833)
Figs 10 D, 12 P
 Nucula mauritiana Sowerby I, 1833: 15, fig. 7. Type locality: Mauritius.
 Nuculana mauritiana. Lynge 1909: 105. Swennen et al. 2001: 43, 62, fig. 4. Gopalakrishnan et al. 2012: 61.
 Nuculana (Scaeoleda) caspidata [non Gould]. Robba et al. 2002: 53, pl. 1, fig. 3 a, b.
 Nuculana (Scaeoleda) mauritiana. Robba et al. 2003: tables 1, 3, 5. Robba et al. 2004: 245. Robba et al. 2007: 83 (appendix). Negri et al. 2014: table 3.
 Sacella mauritiana [sic]. Nabhitabhata 2009: 278.
 Nuculana (Saccella) mauritiana. Huber 2010: 97, with in-text fig. Huber 2015: C 612.
 Saccella mauritiana. Wells et al. 2021: 50.
Referred material.
CUF - NKNY - B 24 (20 shells; Figs 10 D, 12 P).
Habitat.
Sublittoral on mainly mud and clay with sand and shells at a depth from 11 to 92 m (Huber 2015).
Distribution.
Indian Ocean; Indo-West Pacific, from China 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 (Swennen et al. 2001; Nabhitabhata 2009; 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 strong commarginal ridges in the umbonal area then changing into flat and somewhat imbricate low rugae which are more raised on crossing the postero-dorsal keel. This species often co-occurs with Jupiteria puellata, which has an unsculptured shell (Robba et al. 2002).
 Superorder Pteriomorphia Beurlen, 1944
 Order Arcida Stoliczka, 1871
 Superfamily Arcoidea 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
Xenodon guentheri Boulenger 1894
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 guentheri

description: Xenodon guentheri Boulenger, 1894
Type locality. Lagos, Timbó, state of Santa Catarina, Brazil.
Distribution. Endemic to Brazil (Plt. 397A).Restricted to the Araucaria Forest (Plt. 397A), mostly at high elevations (Plt. 397B). Observed in the field in grassland, upland forest, and disturbed areas (Abegg et al., 2018).
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
Anadara inaequivalvis
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
Arcida
Arcidae
Anadara
Anadara inaequivalvis

description: Anadara inaequivalvis (Bruguière, 1789)
Figs 11 D, 13 D
 Arca inaequivalvis Bruguière, 1789: 106 – 107. Type locality: East India. Reeve 1844: Arca, pl. 8, sp. 54.
 Scapharca inaequivalvis. Tantanasiriwong 1979: 4. Morris and Purchon 1981: 322. Nateewathana et al. 1981: 63. Poutiers 1998 a: 152, with in-text figs. Subba Rao and Dey 2000: 205. Robba et al. 2002: 58 – 59, pl. 2, fig. 8. Robba et al. 2003: tables 4, 5. Robba et al. 2007: 83 (appendix). Nabhitabhata 2009: 294. Negri et al. 2014: table 3. Okutani 2017: 1168, pl. 468, fig. 3. Yang et al. 2017: 148, fig. 580.
 Anadara (Scapharca) inaequivalvis. Vongpanich 1996: 182, figs 21 – 23. Aungtonya et al. 1999: 372. Dharma 2005: 242, pl. 96, fig. 10. Dey and Ramakrishna 2007: 151, 174. Huber 2010: 137, with in-text fig. Huber 2015: C 3218.
 Anadara cf. inaequivalvis. Swennen et al. 2001: 44, 65 – 66, fig. 29.
 Anadara inaequivalvis. Hylleberg and Kilburn 2003: 148. Poppe 2010 a: 474, pl. 928, figs 5, 6. Sanpanich 2011: table 2. Gopalakrishnan et al. 2012: 59. Surakiatchai et al. 2018: table 6, pl. 3, fig. 1 a, b. Tudu et al. 2018: table 1. Tudu et al. 2019: 38 – 40, fig. 3 c – e. Wells et al. 2021: 52.
Referred material.
CUF - NKNY - B 03, B 21 (21 L + 30 R shells; Figs 11 D, 13 D).
Habitat.
Sandy and muddy bottoms in intertidal and upper sublittoral zones (Robba et al. 2002; Huber 2015).
Distribution.
Red Sea to India Ocean; Indo-West Pacific, from Japan to Australia as well as from Mediterranean and Black Sea (Robba et al. 2002; Tudu et al. 2019). Records of fossils from the Late Miocene and Pliocene in Indonesia and from the Holocene in 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 is recognised based on the descriptions and figures in Poutiers (1998 a) and Tudu et al. (2019), specifically in having an inflated, inequilateral, and roughly quadrate shell shape with 30–37 radial ribs.
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
Development and Psychometric Validation of the Pandemic-Related Traumatic Stress Scale for Children and Adults
Creators: name: Cella, David
name: Hofheimer, Julie A.
name: O'Shea, T. Michael
name: Conradt, Elisabeth
name: Alshawabkeh, Akram N.
name: LeWinn, Kaja Z.
name: Neiderhiser, Jenae M.
name: Collazo, Shaina
name: Blackwell, Courtney K.
name: Joseph, Christine
name: Crowell, Sheila E.
name: Mason, W. Alex
name: Lasky-Su, Jessica A.
name: Bastain, Tracy
name: Brennan, Patricia A.
name: Trasande, Leonardo
name: Ganiban, Jody M.
name: Algermissen, Molly A.
name: McKee, Kimberly S.
name: Jackson, Kathryn L.
name: Breton, Carrie
name: Karagas, Margaret R.
name: McGowan, Elisabeth C.
name: Wright, Rosalind J.
name: Pagliaccio, David
name: Oken, Emily
name: Gold, Diane R.
name: Chandran, Aruna
name: Miller, Rachel L.
name: Singh, Anne Marie
name: Leve, Leslie D.
name: Schmidt, Rebecca J.
name: Herbstman, Julie B.
name: Elliott, Amy J.
name: Duarte, Cristiane S.
name: Lester, Barry
name: Blair, Clancy
name: Stanford, Joseph B.
name: Frazier, Jean A.
name: Enlow, Michelle Bosquet
name: Margolis, Amy E.
name: O'Connor, Thomas G.
name: Sherlock, Phillip
name: Avalos, Lyndsay A.
name: Bush, Nicole R.
name: Deoni, Sean
Publisher: name: American Psychological Association (APA)
Year: 2023

description: To assess the public health impact of the COVID-19 pandemic on mental health, investigators from the National Institutes of Health Environmental influences on Child Health Outcomes (ECHO) research program developed the Pandemic-Related Traumatic Stress Scale (PTSS). Based on the Diagnostic and Statistical Manual of Mental Disorders, 5th Edition (DSM-5) acute stress disorder symptom criteria, the PTSS is designed for adolescent (13-21 years) and adult self-report and caregiver-report on 3-12-year-olds. To evaluate psychometric properties, we used PTSS data collected between April 2020 and August 2021 from non-pregnant adult caregivers (n = 11,483), pregnant/postpartum individuals (n = 1,656), adolescents (n = 1,795), and caregivers reporting on 3-12-year-olds (n = 2,896). We used Mokken scale analysis to examine unidimensionality and reliability, Pearson correlations to evaluate relationships with other relevant variables, and analyses of variance to identify regional, age, and sex differences. Mokken analysis resulted in a moderately strong, unidimensional scale that retained nine of the original 10 items. We detected small to moderate positive associations with depression, anxiety, and general stress, and negative associations with life satisfaction. Adult caregivers had the highest PTSS scores, followed by adolescents, pregnant/postpartum individuals, and children. Caregivers of younger children, females, and older youth had higher PTSS scores compared to caregivers of older children, males, and younger youth, respectively. (PsycInfo Database Record (c) 2023 APA, all rights reserved).
Xenodon histricus
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 histricus

description: Xenodon histricus (Jan, 1863)
Type locality. South America fide Jan and Sordelli (1865).
Distribution. Known from Argentina, Brazil, Paraguay, and Uruguay, mostly along open biomes (Plt. 398A). In Brazil, widespread in the Pampas Grassland, with marginal records in the Araucaria Forest, Atlantic Forest, and Cerrado (Plt. 398A), at low to high elevations (Plt. 398B). Previous map and taxonomy in Hoge et al. (1975). Observed in the field in grassland and savanna (Di-Bernardo et al., 2003).
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
MPEC 2024-J84 : 2024 JW1
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 JW1

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.
TNRC18 engages H3K9me3 to mediate silencing of endogenous retrotransposons
Creators: name: Xu, Chenxi
name: Kim, Arum
name: Burkholder, Nathaniel T.
name: Kanchi, Krishna L.
name: Guo, Yiran
name: Song, Jikui
name: Kuhlers, Peyton C.
name: Mackintosh, Samuel G.
name: Raab, Jesse R.
name: Diao, Yarui
name: Zhao, Shuai
name: Cai, Ling
name: Storey, Aaron J.
name: Lu, Jiuwei
name: Fan, Huitao
name: Sun, Tongyu
name: Wang, Gang Greg
name: Tackett, Alan J.
name: Strahl, Brian D.
name: Pan, Bo
name: Byrum, Stephanie D.
name: Gong, Weida
name: Edmondson, Ricky D.
Publisher: name: Springer Nature
Year: 2023

description: Trimethylation of histone H3 lysine 9 (H3K9me3) is crucial for the regulation of gene repression and heterochromatin formation, cell-fate determination and organismal development1. H3K9me3 also provides an essential mechanism for silencing transposable elements1,2,3,4. However, previous studies have shown that canonical H3K9me3 readers (for example, HP1 (refs. 5,6,7,8,9) and MPP8 (refs. 10,11,12)) have limited roles in silencing endogenous retroviruses (ERVs), one of the main transposable element classes in the mammalian genome13. Here we report that trinucleotide-repeat-containing 18 (TNRC18), a poorly understood chromatin regulator, recognizes H3K9me3 to mediate the silencing of ERV class I (ERV1) elements such as LTR12 (ref. 14). Biochemical, biophysical and structural studies identified the carboxy-terminal bromo-adjacent homology (BAH) domain of TNRC18 (TNRC18(BAH)) as an H3K9me3-specific reader. Moreover, the amino-terminal segment of TNRC18 is a platform for the direct recruitment of co-repressors such as HDAC–Sin3–NCoR complexes, thus enforcing optimal repression of the H3K9me3-demarcated ERVs. Point mutagenesis that disrupts the TNRC18(BAH)-mediated H3K9me3 engagement caused neonatal death in mice and, in multiple mammalian cell models, led to derepressed expression of ERVs, which affected the landscape of cis-regulatory elements and, therefore, gene-expression programmes. Collectively, we describe a new H3K9me3-sensing and regulatory pathway that operates to epigenetically silence evolutionarily young ERVs and exert substantial effects on host genome integrity, transcriptomic regulation, immunity and development.
Xenodon matogrossensis
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 matogrossensis

description: Xenodon matogrossensis (Scrocchi and Cruz, 1993)
Type locality. Miranda, state of Mato Grosso do Sul, Brazil.
Distribution. Endemic to Brazil (Plt. 399A). Widespread in the Pantanal and its contact areas with the southwestern portion of the Cerrado (Plt. 399A), at low elevations of the upper Paraguay River depression (Plt. 399B). Observed in the field in dry forest (Ferrarezzi, 1993).
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
Academic Achievement Deficits and Their Neuropsychological Correlates in Children Born Extremely Preterm
Creators: name: Akshoomoff, Natacha
name: Kuban, Karl C. K.
name: Allred, Elizabeth N.
name: Taylor, H. Gerry
name: Heeren, Timothy
name: Joseph, Robert M.
name: O'Shea, Thomas M.
Publisher: name: Wolters Kluwer
Year: 2017

description: OBJECTIVE: The purpose of this study was to examine the risks associated with learning disabilities (LDs) in a large sample of children born extremely preterm. We predicted higher than expected rates of LD, particularly in math, and children with LD in math, reading, or both would have lower intelligence quotients (IQs) and specific patterns of neuropsychological deficits. METHODS: We evaluated academic achievement, rates of LD, and their neuropsychological correlates in the Extremely Low Gestational Age Newborns (ELGANs) Study cohort of 10-year-old children born at 23 to 27 weeks gestational age. Primary analyses focused on children without intellectual disability (verbal IQ > 70 and nonverbal IQ > 70; N = 668). Low achievement was defined as a standard score â‰¤85 on the reading or math measures. RESULTS: The risk of low math achievement scores (27%) was 1.5 times higher than the risk of low reading achievement scores (17%). Children were classified as having LD based on low achievement criteria in reading only (RD, 6.4% of sample), math only (MD, 16.2%), both reading and math (RD/MD, 8.3%), or no reading or math disabilities (No LD, 69.1%). Although all 3 LD groups had multiple neuropsychological weaknesses compared with the No LD group, the RD and MD groups had different patterns of neuropsychological impairment. CONCLUSION: These children from the ELGAN cohort had higher than expected rates of LD, particularly in mathematics, even after taking socioeconomic status into consideration. These results indicate specific cognitive weaknesses that differ between extremely preterm children with RD and MD.
Tegillarca nodifera
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
Arcida
Arcidae
Tegillarca
Tegillarca nodifera

description: Tegillarca nodifera (Martens, 1860)
Figs 12 A, 14 A
 Arca nodifera Martens, 1860: 17. Type locality: Bankok [Bangkok, Thailand].
 Anadara nodifera. Nateewathana et al. 1981: 63. Nateewathana 1995: 101, with in-text fig. Poutiers 1998 a: 148, with in-text figs. Aungtonya et al. 1999: 372. Hylleberg and Kilburn 2003: 148 – 149, pl. 1, fig. 5. Nabhitabhata 2009: 284. Hylleberg and Aungtonya 2013: 94.
 Anadara (Tegillarca) nodifera. Vongpanich 1996: 189 – 190, figs 51 – 54.
 Tegillarca nodifera. Swennen et al. 2001: 44, 67, text-fig. 26, fig. 36. Thach 2005: 244, pl. 75, fig. 18. Huber 2010: 141, with in-text fig. Huber 2015: C 3366. BEDO 2017 a: 28, with in-text fig. Yang et al. 2017: 150, fig. 587. Tudu et al. 2018: table 1. Tudu et al. 2019: 44, fig. 5 e, f. Wells et al. 2021: 54.
Referred material.
CUF - NKNY - B 01, B 02, B 15 (26 L + 31 R shells; Figs 12 A, 14 A).
Habitat.
On mud and sand bottoms, in intertidal or near mangrove forests and shallow sublittoral waters down to a depth of 10 m (Poutiers 1998 a; Huber 2015).
Distribution.
Eastern Indian Ocean; Indo-West Pacific, from East China Sea to Indonesia (Poutiers 1998 a; Huber 2015; Tudu et al. 2019).
Record in Thailand.
Gulf of Thailand and Andaman Sea (Wells et al. 2021).
Taxonomic remarks and comparisons.
 This species differs from its similar species, Tegillarca granosa, by having a more elongated shell with a higher number of ribs (19 – 23) and a higher number of nodules on ribs (Tudu et al. 2019).
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 merremii
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 merremii

description: Xenodon merremii (Wagler in Spix, 1824)
Type locality. Salvador, state of Bahia, Brazil.
Distribution. Known from Argentina, Bolivia, Brazil, and Paraguay and Venezuela, associated to the open South American diagonal (Plt. 400A). In Brazil, widespread in Atlantic Forest, Araucaria Forest, Pampa Grasslands, Cerrado, Pantanal, Caatinga, with marginal records in Amazonia and Chiquitano Dry Forest (Plt. 400A), from low to high elevations (Plt. 400B). Observed in the field in open areas, including grassland, savanna, and disturbed areas (Sawaya et al., 2008; Valdujo et al., 2009).
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
Sandracottus Sharp 1882
Creators: name: Hendrich, Lars
name: Brancucci, Michel
Publisher: name: Zenodo
Year: 2025
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Coleoptera
Dytiscidae
Sandracottus

description: GenusSandracottusSharp, 1882
Notes.
Medium-sized (11.9–16.6 mm) oval beetles, black or with contrasting black and yellow markings. Outer margin of metaventral wings arcuate not straight as in Hydaticus Leach, 1817. Metacoxal lines obliterated so that no supra-articular border present; mesofemur with longer ventral setae, at least some as long as half width of mesofemur. Spur on metatibia blunt, minutely emarginate at apex. A small genus of 11 species and one subspecies distributed in the Oriental and Australasian realms. The larvae of S. dejeanii (Aubé, 1898) was described by Vazirani (1971). All larval instars of S. hunteri and S. femoralis were described in detail by Alarie et al. (2023).
World check list of Sandracottus
Sandracottus bakewellii bakewellii (Clark, 1864) Northern and coastal eastern Australia
Sandracottus bakewellii guttatus (Sharp, 1882) Central Australia
= Sandracottus rotundus ab. reductus Zimmermann, 1926
Sandracottus bizonatus Régimbart, 1899 Malaysia: Sabah, Sarawak, Indonesia: Kalimantan
Sandracottus chevrolati (Aubé, 1838) Indonesia: Lesser Sunda Islands, Timor, Tanimbar, Central and Southern Sulawesi
= Sandracottus mixtus (Blanchard, 1853) (syn. nov.)
Sandracottus dejeanii (Aubé, 1838) India, Nepal, Pakistan, Myanmar, E Iran
= Sandracottus vijayakumari Anand et al. 2021 (syn. nov.)
Sandracottus femoralis Heller, 1934 Indonesia: Moluccas, Irian Jaya; Papua New Guinea, Solomon Islands
= Sandracottus flavocinctus (Guérin-Méneville, 1830)
= Sandracottus guerini Balfour-Browne, 1939 (syn. nov.)
Sandracottus festivus (Illiger, 1802) China (?), India, Bhutan, Sri Lanka, Pakistan
Sandracottus hunteri (Crotch, 1872) India, Nepal, China, Korea, Vietnam, Laos, Myanmar, Thailand, Cambodia, West Malaysia, Indonesia: Sumatra, Java, Bali
= Sandracottus fasciatus (Fabricius, 1775)
= Sandracottus fasciatus var. crucialis Régimbart, 1899
= Sandracottus manipurensis Vazirani, 1969 (syn. nov.)
Sandracottus insignis (Wehncke, 1876) Philippines: Palawan, Luzon, Mindanao, Malaysia: Sabah (?)
= Sandracottus baeri (Régimbart, 1877)
= Sandracottus insignis ornatus Sharp, 1882) (syn. nov.)
Sandracottus jaechi Wewalka & Vazirani, 1975 Sri Lanka: Nuwara Eliya
Sandracottus maculatus (Wehncke, 1876) Thailand, Vietnam, Laos, Cambodia, Malaysia: Sabah; Indonesia: Sumatra, Java, Kalimantan; Philippines: Mindanao
= Sandracottus wehnckei J. Balfour-Browne, 1944
= Sandracottus angulifer Heller, 1934 (syn. nov.)
= Sandracottus palawanensis Sato, 1978 (syn. nov.)
= Sandracottus nauticus Sharp, 1882 (syn. nov.)
Sandracottus rotundus Sharp, 1882 Indonesia: Sulawesi
Descriptions
description: Published as part of Hendrich, Lars & Brancucci, Michel, 2025, Revision of the Oriental and Australasian diving beetle genus Sandracottus Sharp, 1882 (Coleoptera, Dytiscidae, Dytiscinae), pp. 87-147 in ZooKeys 1223 on pages 87-147, DOI: 10.3897/zookeys.1223.138220
Modulating neural oscillations by transcranial static magnetic field stimulation of the dorsolateral prefrontal cortex: A crossover, double-blind, sham-controlled pilot study
Creators: name: Fröhlich, Flavio
name: Ahn, Sangtae
name: Alagapan, Sankaraleengam
name: Sheffield, Alec
Publisher: name: Wiley
Year: 2018

description: Transcranial static magnetic field stimulation (tSMS) is a novel non-invasive brain stimulation technique that has been shown to locally increase alpha power in the parietal and occipital cortex. We investigated if tSMS locally increased alpha power in the left or right prefrontal cortex, as the balance of left/right prefrontal alpha power (frontal alpha asymmetry) has been linked to emotional processing and mood disorders. Therefore, altering frontal alpha asymmetry with tSMS may serve as a novel treatment to psychiatric diseases. We performed a crossover, double-blind, sham-controlled pilot study to assess the effects of prefrontal tSMS on neural oscillations. Twenty-four right-handed healthy participants were recruited and received left dorsolateral prefrontal cortex (DLPFC) tSMS, right DLPFC tSMS, and sham tSMS in a randomized order. Electroencephalography data were collected before (2Â min eyes-closed, 2Â min eyes-open), during (10Â min eyes-open), and after (2Â min eyes-open) stimulation. In contrast with our hypothesis, neither left nor right tSMS locally increased frontal alpha power. However, alpha power increased in occipital cortex during left DLPFC tSMS. Right DLPFC tSMS increased post-stimulation fronto-parietal theta power, indicating possible relevance to memory and cognition. Left and right DLPFC tSMS increased post-stimulation left hemisphere beta power, indicating possible changes to motor behavior. Left DLPFC tSMS also increased post-stimulation right frontal beta power, demonstrating complex network effects that may be relevant to aggressive behavior. We concluded that DLPFC tSMS modulated the network oscillations in regions distant from the location of stimulation and that tSMS has region specific effects on neural oscillations.
MPEC 2024-M103 : 2024 MY
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 MY

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.
Long-Range GABAergic Inputs Regulate Neural Stem Cell Quiescence and Control Adult Hippocampal Neurogenesis
Creators: name: Wen, Zhexing
name: Deisseroth, Karl
name: Asrican, Brent
name: Li, Weidong
name: Haniff, Isaac
name: Bao, Hechen
name: Gu, Bin
name: Song, Juan
name: Philpot, Benjamin
name: Lim, Szu-Aun
name: Ramakrishnan, Charu
Publisher: name: Elsevier
Year: 2017

description: The quiescence of adult neural stem cells (NSCs) is regulated by local parvalbumin (PV) interneurons within the dentate gyrus (DG). Little is known about how local PV interneurons communicate with distal brain regions to regulate NSCs and hippocampal neurogenesis. Here, we identify GABAergic projection neurons from the medial septum (MS) as the major afferents to dentate PV interneurons. Surprisingly, dentate PV interneurons are depolarized by GABA signaling, which is in sharp contrast to most matureÂ neurons hyperpolarized by GABA. Functionally, these long-range GABAergic inputs are necessary and sufficient to maintain adult NSC quiescence and ablating them leads to NSC activation and subsequent depletion of the NSC pool. Taken together, these findings delineate a GABAergic network involving long-range GABAergic projection neurons and local PV interneurons that couples dynamic brain activity to the neurogenic niche in controlling NSC quiescence and hippocampal neurogenesis.
Xenodon nattereri
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 nattereri

description: Xenodon nattereri (Steindachner, 1867)
Type locality. Brazil.
Distribution. Endemic to Brazil (Plt. 401A). Widespread in the Cerrado, and in tis contact areas with the Atlantic Forest and Chiquitano Dry Forest. An isolated record in upland grassland areas within the Caatinga (Plt. 401A), mostly at intermediate to high elevations (Plt. 401B). Observed in the field in savannas and grasslands (FranÇa et al., 2008; Sawaya et al., 2008, Valdujo et al., 2009).
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 neuwiedii Gunther 1863
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 neuwiedii

description: Xenodon neuwiedii Günther, 1863
Type locality. Rio de Janeiro, state of Rio de Janeiro, Brazil.
Distribution. Known from Argentina and Brazil along the Atlantic forest (Plt. 402A). In Brazil, widespread in Atlantic Forest and Araucaria Forest (Plt. 402A), from low to high elevations (Plt. 402B). Observed in the field in open areas, forest edges, and disturbed areas (Giraudo and Scrocchi, 2002; Morato, 2005; Bérnils, 2009; Hartmann et al., 2009).
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
Noetiella pectunculiformis
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
Arcida
Noetiidae
Noetiella
Noetiella pectunculiformis

description: Noetiella pectunculiformis (Dunker, 1866)
Figs 12 D, 14 C
 Barbatia pectunculiformis Dunker, 1866: 88 – 89, pl. 28, figs 4 – 6. Type locality: Borneo.
 Arca (Fossularca) pectunculiformis. Lynge 1909: 115.
 Striarca pectunculiformis. Tantanasiriwong 1979: 4. Morris and Purchon 1981: 323. Nateewathana et al. 1981: 63. Aungtonya et al. 1999: 373.
 Scelidionarca pectunculiformis. Robba et al. 2002: 61, pl. 2, fig. 14 q, b. Robba et al. 2007: 84 (appendix). Nabhitabhata 2009: 297.
 Noetiella pectunculiformis. Huber 2010: 146, with in-text fig. Huber 2015: C 3575. BEDO 2017 a: 43, with in-text fig. Kantharajan et al. 2017: table 1, fig. 2 - 11. Wells et al. 2021: 55.
Referred material.
CUF - NKNY - B 27 (4 L + 4 R shells; Figs 12 D, 14 C).
Habitat.
In soft clay, mud or sand, in subtidal zones from a depth of 2–43 m, and in mangrove forests (Huber 2015; Kantharajan et al. 2017).
Distribution.
India Ocean; Indo-West Pacific, from South China to Indonesia (Huber 2015; Kantharajan et al. 2017). 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 (2010), specifically in having a roundly trapezoidal and inequilateral shell shape with the sculpture of dense, faint radials, and coarse growth markings.
 Order Ostreida Férussac, 1822
 Superfamily Ostreoidea 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
Neural mechanisms underlying GABAergic regulation of adult hippocampal neurogenesis
Creators: name: Bao, Hechen
name: Catavero, Christina
name: Song, Juan
Publisher: name: Springer Nature
Year: 2017

description: Within the dentate gyrus of the adult hippocampus is the subgranular zone, which contains a neurogenic niche for radial-glia like cells, the most primitive neural stem cells in the adult brain. The quiescence of neural stem cells is maintained by tonic gamma-aminobutyric acid (GABA) released from local interneurons. Once these cells differentiate into neural progenitor cells, GABA continues to regulate their development into mature granule cells, the principal cell type of the dentate gyrus. Here, we review the role of GABA circuits, signaling, and receptors in regulating development of adult-bornÂ cells, as well as the molecular players that modulate GABA signaling. Furthermore, we review recent findings linking dysregulation of adult hippocampal neurogenesis to the altered GABAergic circuitry and signaling under various pathological conditions.
Lhx6-positive GABA-releasing neurons of the zona incerta promote sleep
Creators: name: Kim, Eileen
name: Hattar, Samer
name: Bao, Hechen
name: Kim, Dong Won
name: Zhang, Yi Stephanie
name: Kim, Juhyun
name: Brown, Solange P.
name: Blackshaw, Seth
name: Liu, Chang
name: Lim, Szu-Aun
name: Song, Juan
name: Pachnis, Vassilis
name: Denaxa, Myrto
name: Wickersham, Ian R.
name: Liu, Kai
Publisher: name: Springer Nature
Year: 2017

description: GABAergic Lhx6+ neurons in the ventral zona incerta promote both rapid eye movement and non-rapid eye movement sleep and inhibit the activity of wake-promoting GABAergic and Hcrt+ neurons of the lateral hypothalamus.
Xenodon pulcher
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 pulcher

description: Xenodon pulcher (Jan, 1863)
Type locality. Bolivia.
Distribution. Known from Argentina, Bolivia, Brazil, and Paraguay along the Chaco (Plt. 403A). In Brazil, a single record in a small portion of the Chaco east of the Paraguay River (Plt. 403A) at a low elevation (Plt. 403B). 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 47, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686