cometadata/datacite-rtg-text-other-reclassification-records huggingface dataset:
Brunneifusus ternatanus
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
Neogastropoda
Melongenidae
Brunneifusus
Brunneifusus ternatanus

description: Brunneifusus ternatanus (Gmelin, 1791)
Figs 4 A, 7 B
 Murex ternatanus Gmelin, 1791: 3554. Type locality: Ternate Island, North Maluku, Indonesia.
 Pugilina ternatana. Tantanasiriwong 1978: 15. Nateewathana et al. 1981: 60. Poutiers 1998 b: 586, with in-text figs.
 Hemifusus ternatanus. Yokoyama 1927: 393. Way and Purchon 1981: 318. Swennen et al. 2001: 56, 130, fig. 445. Gemert 2003: 106, with in-text fig. Hylleberg and Kilburn 2003: 88. Robba et al. 2004: 122 – 123, pl. 16, fig. 7 a, b. Dharma 2005: 108, pl. 29, fig. 2 a, b; 316, pl. 123, fig. 7 a, b. Robba et al. 2007: 93 (appendix). Nabhitabhata 2009: 162. Sanpanich and Duangdee 2013: 61. BEDO 2017 b: 288, with in-text fig. Tudu et al. 2018: table 1.
 Brunneifusus ternatanus. Dekkers 2018: 41 – 42, pl. 2, figs 5, 6. Alf and Thach 2021: pl. 1, figs 1 – 9, pl. 2, figs 1 – 3. Wells et al. 2021: 97.
Referred material.
CUF - NKNY - G 21, G 22 (71 shells; Figs 4 A, 7 B).
Habitat.
Mud and muddy sand bottoms from the low tide mark to ~ 10–50 m depth (Poutiers 1998 b; Swennen et al. 2001; Dekkers 2018).
Distribution.
Eastern Indian Ocean; Indo-West Pacific, from Taiwan to Indonesia and the Philippines (Poutiers 1998 b; Robba et al. 2004). Records of fossils from the Pliocene and Quaternary in Indonesia, Japan, and Taiwan (Robba et al. 2004; Dharma 2005).
Record in Thailand.
Gulf of Thailand and Andaman Sea (Wells et al. 2021).
Taxonomic remarks and comparisons.
 This species is the sole member of the genus Brunneifusus, characterised by a determinate outer lip, compared to the indeterminate growth of the outer lip in Hemifusus Swainson, 1840 (Alf and Thach 2021). See also comprehensive taxonomic remarks in Alf and Thach (2021).
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
Nassarius micans
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
Neogastropoda
Nassariidae
Nassarius
Nassarius micans

description: Nassarius micans (A. Adams, 1852)
Figs 3 O, 7 C
 Nassa micans A. Adams, 1852: 106. Type locality: Cagayan, Misamis, Mindanao.
 Nassarius (Zeuxis) micans. Cernohorsky 1984: 147 – 148, pl. 29, figs 8 – 11. Robba et al. 2003: table 5. Robba et al. 2004: 120, pl. 16, fig. 4 a, b. Dharma 2005: 106, pl. 28, fig. 16 a, b. Robba et al. 2007: 93 (appendix). Okutani 2017: 914, pl. 202, fig. 11
 Nassarius micans. Gopalakrishnan et al. 2012: 77. Wells et al. 2021: 99.
Referred material.
CUF - NKNY - G 27 (53 shells; Figs 3 O, 7 C).
Habitat.
Sandy bottoms in subtidal zones down to 50 m depth (Robba et al. 2004; Okutani 2017).
Distribution.
Gulf of Oman to India; Indo-West Pacific, from Japan to Papua New Guinea (Cernohorsky 1984; Robba et al. 2004; Okutani 2017). Records of fossils from the Holocene in Thailand (Robba et al. 2004).
Record in Thailand.
Gulf of Thailand (Wells et al. 2021).
Taxonomic remarks and comparisons.
 This species differs from its similar species, Nassarius comptus (A. Adams, 1852), by having a longer body whorl with narrowly subcanaliculate sutures, a more prominent varix, and a narrower and more elongate aperture (Cernohorsky 1984). See also comprehensive taxonomic remarks in Cernohorsky (1984).
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
Erythrolamprus reginae
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
Erythrolamprus
Erythrolamprus reginae

description: Erythrolamprus reginae (Linnaeus, 1758)
Type locality. Suriname.
Distribution. Known from Bolivia, Brazil, Colombia, Ecuador, French Guiana, Guyana, Peru, Suriname, and Venezuela, along major forest biomes (Plt. 383A). In Brazil, widespread in Amazonia and its contact with the Cerrado and with scattered records in upland Caatinga, and also widespread in the Atlantic Forest, forming a disjunct distribution (Plt. 383A), mostly at low elevations (Plt. 383B). Previous map and taxonomy in Ascenso et al. (2019). Observed in the field in forest, gallery forest, upland forest enclaves in the Caatinga, seasonally flooded areas, and disturbed areas (Martins and Oliveira, 1998; Bernarde and Abe, 2006).
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 45, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
Transcranial alternating current stimulation (tACS) as a treatment for fibromyalgia syndrome?
Creators: name: Frohlich, Flavio
name: Riddle, Justin
Publisher: name: Springer Nature
Year: 2021

description: Dear Editor: We have read with great interest the recent report on a pilot clinical trial of transcranial alternating current stimulation (tACS) for the treatment of fibromyalgia syndrome (FMS). In this pilot study, 11 patients with FMS received 10 days of tACS combined and 10 days of transcranial random noise stimulation (tRNS), both combined with physical therapy, in a randomized, double-blind cross-over study. Fifteen patients completed one arm of the study. The authors individualized stimulation by comparing the topology of spectral amplitude in 5 canonical bands (delta, theta, alpha1, alpha2, and beta) from resting-state EEG with healthy controls; 11 of 15 participants received stimulation at 30 Hz, whereas the remaining 4 participants received stimulation at 4 Hz for the tACS condition. While the idea for this trial is certainly exciting, we are concerned about several pronounced shortcomings of the presented results that we feel have not received sufficient attention in the published manuscript.
Changes in BMI During the COVID-19 Pandemic.
Creators: name: Dong, Yanan
name: Dabelea, Dana
name: Camargo, Carlos A
name: Rundle, Andrew G
name: Hedderson, Monique
name: Stanford, Joseph B
name: Chen, Zhanghua
name: Karagas, Margaret R
name: O'Connor, Thomas G
name: Ferrara, Assiamira
name: Herbstman, Julie B
name: Gilbert-Diamond, Diane
name: Aschner, Judy L
name: Carroll, Kecia
name: Wright, Rosalind J
name: Jacobson, Lisa
name: Chandran, Aruna
name: Lester, Barry M
name: Hodges, Marie L
name: Fry, Rebecca C
name: Gilliland, Frank D
name: Bekelman, Traci A
name: Teitelbaum, Susan L
name: O'Shea, T Michael
name: Dunlop, Anne L
name: Ganiban, Jody M
name: Hudak, Mark L
name: Hockett, Christine W
name: Carnell, Susan
name: Knapp, Emily A
name: Alshawabkeh, Akram
name: Hartert, Tina
name: McEvoy, Cindy T
Publisher: name: American Academy of Pediatrics (AAP)
Year: 2022

description: BACKGROUND AND OBJECTIVES: Experts hypothesized increased weight gain in children associated with the coronavirus disease 2019 (COVID-19) pandemic. Our objective was to evaluate whether the rate of change of child body mass index (BMI) increased during the COVID-19 pandemic compared with prepandemic years. METHODS: The study population of 1996 children ages 2 to 19 years with at least 1 BMI measure before and during the COVID-19 pandemic was drawn from 38 pediatric cohorts across the United States participating in the Environmental Influences on Child Health Outcomes-wide cohort study. We modeled change in BMI using linear mixed models, adjusting for age, sex, race, ethnicity, maternal education, income, baseline BMI category, and type of BMI measure. Data collection and analysis were approved by the local institutional review board of each institution or by the central Environmental Influences on Child Health Outcomes institutional review board. RESULTS: BMI increased during the COVID-19 pandemic compared with previous years (0.24 higher annual gain in BMI during the pandemic compared with previous years, 95% confidence interval 0.02 to 0.45). Children with BMI in the obese range compared with the healthy weight range were at higher risk for excess BMI gain during the pandemic, whereas children in higher-income households were at decreased risk of BMI gain. CONCLUSIONS: One effect of the COVID-19 pandemic is an increase in annual BMI gain during the COVID-19 pandemic compared with the 3 previous years among children in our national cohort. This increased risk among US children may worsen a critical threat to public health and health equity.
Nassarius siquijorensis
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
Neogastropoda
Nassariidae
Nassarius
Nassarius siquijorensis

description: Nassarius siquijorensis (A. Adams, 1852)
Figs 3 P, 7 D
 Nassa siquijorensis A. Adams, 1852: 97. Type locality: Island of Siquijor, Philippines.
 Nassa (Zeuxis) siquijorensis. Tesch 1915: 59, pl. 81, figs 128 a, b, 129 a, b.
 Nassarius (Zeuxis) siquijorensis. Cernohorsky 1978: 88, pl. 27, fig. 8. Cernohorsky 1984: 134 – 136, pl. 25, figs 12 – 14, pl. 26, figs 1 – 5. Robba et al. 2003: table 5. Robba et al. 2004: 120 – 121, pl. 16, fig. 5 a, b. Dharma 2005: 106, pl. 28, fig. 14 a – c. Robba et al. 2007: 93 (appendix).
 Nassarius siquijorensis. Nobuhara 1993: fig. 8 - 1 a, 8 - 1 b. Swennen et al. 2001: 56, 130, fig. 442. Hylleberg and Kilburn 2003: 87. Kool 2007: figs 17 – 20. Martin 2008: 120, pl. 355, fig. 13; 128, pl. 359, fig. 13. Surakiatchai et al. 2018: table 5, pl. 1, fig. 9 a, b. Wells et al. 2021: 99.
 Zeuxis siquijorensis. Thach 2005: 148, pl. 44, fig. 25.
 Nassarius siquinjorensis [sic]. Yang et al. 2017: 90, fig. 371.
Referred material.
CUF - NKNY - G 01 (10 shells; Figs 3 P, 7 D).
Habitat.
Sandy and muddy bottoms from subtidal zones to 450 m depth (Cernohorsky 1984; Thach 2005; Yang et al. 2017).
Distribution.
Red Sea to India; Indo-West Pacific, from Japan to Indonesia and New Caledonia (Cernohorsky 1984; Dharma 2005; Yang et al. 2017). Records of fossils from the Pliocene in Indonesia and from the Holocene in Thailand (Cernohorsky 1984; 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, Nassarius castus (Gould, 1850), in having a more tapering spire, canaliculate sutures, and considerably more numerous axial ribs (Cernohorsky 1984). See also comprehensive taxonomic remarks in Cernohorsky (1984) and Kool (2007).
 Superfamily Muricoidea 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
Bioinspired and biomimetic membranes for enzyme reactions
Creators: name: Barricella, Sara
Publisher: name: Monash University
Year: 2025
Subjects: classificationCode: 340104
subject: Flow analysis
classificationCode: 310601
subject: Biocatalysis and enzyme technology

description: The doctoral thesis presents the development of a flow biocatalysis platform using membranes as scaffold for enzyme cascade reactions. The research involved covalent grafting of engineered enzymes onto modified membranes to enhance enzyme retention and membrane permeability. Challenges, including reduced enzymatic activity, prompted an alternative immobilization strategy using polydopamine and polyethyleneimine co-deposition for enzyme compartmentalization. This approach was optimized for enzyme retention and membrane performance and tested across various enzyme cascade systems. The results demonstrated increased enzyme stability and reaction yields, reduced inhibition, and effective co-factor retention, highlighting membranes’ potential as versatile tool for flow biocatalysis.
Erythrolamprus rochai Ascenso 2019
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
Erythrolamprus
Erythrolamprus rochai

description: Erythrolamprus rochai Ascenso et al., 2019
Type locality. Serra do Navio, state of Amapá, Brazil.
Distribution. Endemic to Brazil (Plt. 384A). Known only from the type locality in a mountain range of central Amapá in the vicinity of the Amapari River, a tributary of the Araguari River (Ascenso et al., 2019), in eastern Amazonia (Plt. 384A), at low elevations (Plt. 384B). 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 45, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
EXPLORING THE FASCINATING WORLD OF BIOLOGICAL MATERIALS: NATURE'S BLUEPRINT FOR INNOVATION
Creators: name: Xolboyeva Dilruzabegim Uralovna
Publisher: name: Zenodo
Year: 2024

description: This article delves into the captivating realm of biological materials, elucidating their diverse properties, structures, and applications across various fields. Nature has long served as a source of inspiration for material scientists and engineers, offering a rich tapestry of biological materials with unique functionalities and remarkable performance. From the exquisite strength of spider silk to the self-healing capabilities of certain proteins, biological materials showcase the ingenuity of evolution and provide valuable insights for innovation in materials science and engineering. Through an exploration of key examples and recent advancements, this article sheds light on the profound impact of biological materials on technology, biomedicine, and sustainability.
MPEC 2024-M101 : 2024 MX
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 MX

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.
Socio-demographic and trauma-related predictors of depression within eight weeks of motor vehicle collision in the AURORA study
Creators: name: Beaudoin, Francesca L.
name: Zeng, Donglin
name: Pizzagalli, Diego A.
name: Hendry, Phyllis L.
name: Sampson, Nancy
name: Sheikh, Sophia
name: Bruce, Steven E.
name: Hwang, Irving
name: Joormann, Jutta
name: Punches, Brittany E.
name: Barch, Deanna
name: Peak, David A.
name: Murty, Vishnu
name: Stevens, Jennifer S.
name: McGrath, Meghan E.
name: Lee, Sue
name: Musey, Paul I.
name: Merchant, Roland
name: Sergot, Paulina
name: Kessler, Ronald C.
name: Harte, Steven E.
name: Haran, John P.
name: Domeier, Robert M.
name: Rauch, Scott L.
name: Ressler, Kerry J.
name: Peacock, William F.
name: Jones, Christopher W.
name: Hudak, Lauren A.
name: Pascual, Jose
name: Germine, Laura T.
name: Clifford, Gari
name: Rathlev, Niels K.
name: Linnstaedt, Sarah D.
name: Luna, Beatriz
name: Pearson, Claire
name: Mohiuddin, Kamran
name: Seamon, Mark
name: An, Xinming
name: Koenen, Karestan C.
name: Neylan, Thomas C.
name: Sanchez, Leon D.
name: Fermann, Gregory
name: McLean, Samuel A.
Publisher: name: Cambridge University Press (CUP)
Year: 2020

description: BACKGROUND: This is the first report on the association between trauma exposure and depression from the Advancing Understanding of RecOvery afteR traumA(AURORA) multisite longitudinal study of adverse post-traumatic neuropsychiatric sequelae (APNS) among participants seeking emergency department (ED) treatment in the aftermath of a traumatic life experience. METHODS: We focus on participants presenting at EDs after a motor vehicle collision (MVC), which characterizes most AURORA participants, and examine associations of participant socio-demographics and MVC characteristics with 8-week depression as mediated through peritraumatic symptoms and 2-week depression. RESULTS: Eight-week depression prevalence was relatively high (27.8%) and associated with several MVC characteristics (being passenger v. driver; injuries to other people). Peritraumatic distress was associated with 2-week but not 8-week depression. Most of these associations held when controlling for peritraumatic symptoms and, to a lesser degree, depressive symptoms at 2-weeks post-trauma. CONCLUSIONS: These observations, coupled with substantial variation in the relative strength of the mediating pathways across predictors, raises the possibility of diverse and potentially complex underlying biological and psychological processes that remain to be elucidated in more in-depth analyses of the rich and evolving AURORA database to find new targets for intervention and new tools for risk-based stratification following trauma exposure.
Indothais gradata
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
Neogastropoda
Muricidae
Indothais
Indothais gradata

description: Indothais gradata (Jonas, 1846)
Figs 4 F, 7 F
 Purpura gradata Jonas, 1846: 14 – 15. Type locality: Indian Ocean, near Singapore.
 Thais gradata. Bussarawit 1991: 33. Middelfart 1997: 367 – 368, pl. 4, fig. 1. Tan 2000: 499. Hylleberg and Kilburn 2003: 76. Dharma 2005: 170, pl. 60, fig. 11 a, b; 340, pl. 135, fig. 1 a – e. Printrakoon et al. 2008: table 1. Yang et al. 2017: 76, fig. 316.
 Stramonita gradata. Wilson 1994: 47, pl. 4, fig. 5 a, b. Thach 2005: 128, pl. 37, figs 33, 37.
 Indothais gradata. Okutani 2017: 963, pl. 255, fig. 9. Wells et al. 2021: 114.
Referred material.
CUF - NKNY - G 29 (1 shell; Figs 4 F, 7 F).
Habitat.
Rocky bottom at a depth from 1 to 5 m (Thach 2005; Okutani 2017).
Distribution.
Indo-West Pacific, from Japan to Australia (Okutani 2017; Yang et al. 2017). Records of fossils from the Middle to Late Pliocene in Indonesia (Dharma 2005).
Record in Thailand.
Andaman Sea (Wells et al. 2021).
Taxonomic remarks and comparisons.
This species is recognised based on the descriptions and figures in Middlefart (1997), specifically in having an erect and crenulate outer lip, which has a pronounced indentation in the subsutural ramp area, and an aperture with four denticles with proceeding lirae present inside.
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
When a birth cohort grows up: challenges and opportunities in longitudinal developmental origins of health and disease (DOHaD) research
Creators: name: Howland, Steve
name: Hivert, Marie-France
name: Johnson, Christine C.
name: Jackson, Daniel J.
name: O'Shea, T. Michael
name: Killingbeck, MollyAn
name: Rollins, Julie V.
name: Perera, Frederica
name: Herbstman, Julie B.
name: Fry, Rebecca C.
name: Jones, Kyra
name: Gold, Diane R.
name: Ownby, Dennis
name: Ortega, Marleny
name: Bastain, Theresa M.
name: Oken, Emily
name: Breton, Carrie V.
name: Bornkamp, Nicole
Publisher: name: Cambridge University Press (CUP)
Year: 2022

description: High-quality evidence from prospective longitudinal studies in humans is essential to testing hypotheses related to the developmental origins of health and disease. In this paper, the authors draw upon their own experiences leading birth cohorts with longitudinal follow-up into adulthood to describe specific challenges and lessons learned. Challenges are substantial and grow over time. Long-term funding is essential for study operations and critical to retaining study staff, who develop relationships with participants and hold important institutional knowledge and technical skill sets. To maintain contact, we recommend that cohorts apply multiple strategies for tracking and obtain as much high-quality contact information as possible before the child's 18th birthday. To maximize engagement, we suggest that cohorts offer flexibility in visit timing, length, location, frequency, and type. Data collection may entail multiple modalities, even at a single collection timepoint, including measures that are self-reported, research-measured, and administrative with a mix of remote and in-person collection. Many topics highly relevant for adolescent and young adult health and well-being are considered to be private in nature, and their assessment requires sensitivity. To motivate ongoing participation, cohorts must work to understand participant barriers and motivators, share scientific findings, and provide appropriate compensation for participation. It is essential for cohorts to strive for broad representation including individuals from higher risk populations, not only among the participants but also the staff. Successful longitudinal follow-up of a study population ultimately requires flexibility, adaptability, appropriate incentives, and opportunities for feedback from participants.
Erythrolamprus semiaureus
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
Erythrolamprus
Erythrolamprus semiaureus

description: Erythrolamprus semiaureus (Cope, 1862)
Type locality. “ Paraguay,” probably from the mouth of the Paraguay River according to Gans, 1964. See also Giraudo et al., 2006.
Distribution. Known from Argentina, Brazil, Paraguay, and Uruguay, at the southern portion of the South American open diagonal (Plt. 385A). In Brazil, widespread in Pampas Grasslands, with marginal records in the Atlantic Forest (Plt. 385A), mostly at low elevations (Plt. 385B). Previous map and taxonomy in Giraudo et al. (2006). Observed in the field in seasonally flooded grassland (Giraudo et al., 2006; Arzamendia and Giraudo, 2009; Quintela et al., 2011a; Santos et al., 2010) and grassland (Cacciali 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 45, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
Learning the lessons of failure: how internal auditors can keep IT projects on course
Creators: name: Kelly, Chris
name: Thurston, David
Publisher: name: figshare
Year: 2022
Subjects: subject: 80608 Information Systems Development Methodologies
subject: FOS: Computer and information sciences

description: Information Technology (IT) projects easily go awry due to their complexity and the different groups of people involved in their design, testing and implementation. Fundamentally, the goals of these groups of people are in conflict. While outside stakeholders such as customers and the audit committee do not necessarily understand what the fuss is about. Being independent, internal audit has a central role to play in ensuring each group avoids taking risky shortcuts in order to achieve their own objectives at the cost of overall project success.
Murex trapa Roding 1798
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
Neogastropoda
Muricidae
Murex
Murex trapa

description: Murex trapa Röding, 1798
Figs 4 B, 8 B
 Murex trapa Röding, 1798: 145. Type locality: Tranquebar, India. Tantanasiriwong 1978: 13, fig. 174. Nateewathana et al. 1981: 59. Way and Purchon 1981: 318. Ponder and Vokes 1988: 41 – 45, figs 17 – 19, 67 g, h, 71 b, c, 73 d, 83 g, h. Bussarawit 1991: 31. Middelfart 1997: 352, pl. 1, fig. 1. Poutiers 1998 b: 565, with in-text figs. Subba Rao and Dey 2000: 102. Tan 2000: 503. Swennen et al. 2001: 55, 126, fig. 410. Hylleberg and Kilburn 2003: 72 – 73. Robba et al. 2003: table 5. Robba et al. 2004: 96 – 97, pl. 12, fig. 9 a, b. Dharma 2005: 158, pl. 54, fig. 4 a, b; 334, pl. 132, fig. 3 a – c. Ramakrishna et al. 2007: 10, 85 – 86. Robba et al. 2007: 92 (appendix). Houart 2008: 136, pl. 636, fig. 2. Nabhitabhata 2009: 147. BEDO 2017 b: 312, with in-text fig. Yang et al. 2017: 70, fig. 288. Surakiatchai et al. 2018: table 5, pl. 1, fig. 7 a, b. Tudu et al. 2018: table 1. Wells et al. 2021: 116.
 Murex cf. trapa. Aungtonya and Hylleberg 1998: 319.
 Murex (Murex) trapa. Gemert 2003: 105. Thach 2005: 119, pl. 34, fig. 9. Merle et al. 2011: 59, text-fig. 27 e; pl. 4, fig. 7; pl. 5, figs 8 – 10. Gopalakrishnan et al. 2012: 77. Sanpanich and Duangdee 2013: 63. Okutani 2017: 947, pl. 238, fig. 6.
Referred material.
CUF - NKNY - G 09 (33 shells; Figs 4 B, 8 B).
Habitat.
Fine sand and muddy sand bottoms at a depth of 5–60 m (Swennen et al. 2001; Robba et al. 2004).
Distribution.
Indian Ocean; Indo-West Pacific, from Japan to Fiji Islands (Dharma 2005; Okutani 2017). Records of fossils from the Middle Miocene to Holocene in Indonesia, Malaysia, the Philippines, Taiwan, and Thailand (Ponder and Vokes 1988; Robba et al. 2004; Dharma 2005; 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 other related species in having a higher spire, angulated whorls, and shorter spines (Ponder and Vokes 1988). See also comprehensive taxonomic remarks in Ponder and Vokes (1988).
 Superfamily Conoidea Fleming, 1822
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
Erythrolamprus taeniogaster
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
Erythrolamprus
Erythrolamprus taeniogaster

description: Erythrolamprus taeniogaster (Jan, 1863)
Type locality. Brazil.
Distribution. Known from Bolivia, Brazil, Colombia, Ecuador, French Guiana, and Peru, along major forest biomes (Plt. 386A). In Brazil, widespread in Amazonia south of the Amazon River, and in northern Atlantic Forest, forming a disjunct distribution (Plt. 386A), with scattered records in the Caatinga and the Cerrado (Plt. 386A), mostly at low elevations (Plt. 386B). Previous map and taxonomy in Fernandes et al. (2002), see also Dixon (1983). Observed in the field in forest, gallery forest, upland forest and open and disturbed areas (Loebmann and Haddad, 2010; FranÇa and Bezerra, 2010; Frota et al., 2005; Luiselli, 2006).
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 45, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
MPEC 2024-J83 : 2024 JV1
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 JV1

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.
Prenatal Exposure to Per- and Polyfluoroalkyl Substances and Childhood Autism-related Outcomes
Creators: name: Braun, Joseph M.
name: Dunlop, Anne L.
name: Liang, Donghai
name: Hamra, Ghassan B.
name: Ames, Jennifer L.
name: Oh, Jiwon
name: Lin, Pi-I D.
name: Avalos, Lyndsay A.
name: Woodruff, Tracey J.
name: Burjak, Mohamad
name: Program collaborators for Environmental influences on Child Health Outcomes
name: Morello-Frosch, Rachel
name: Zhu, Yeyi
name: Bulka, Catherine M.
name: Hedderson, Monique M.
name: O'Connor, Thomas G.
name: Croen, Lisa A.
name: Karagas, Margaret R.
name: Ferrara, Assiamira
name: Lyall, Kristen
name: Padula, Amy M.
name: Fry, Rebecca C.
name: Moore, Brianna
Publisher: name: Wolters Kluwer
Year: 2023

description: BACKGROUND: Epidemiologic evidence linking prenatal exposure to per- and polyfluoroalkyl substances (PFAS) with altered neurodevelopment is inconclusive, and few large studies have focused on autism-related outcomes. We investigated whether blood concentrations of PFAS in pregnancy are associated with child autism-related outcomes. METHODS: We included 10 cohorts from the National Institutes of Health (NIH)-funded Environmental influences on Child Health Outcomes (ECHO) program (n = 1,429). We measured 14 PFAS analytes in maternal blood collected during pregnancy; eight analytes met detection criteria for analysis. We assessed quantitative autism-related traits in children via parent report on the Social Responsiveness Scale (SRS). In multivariable linear models, we examined relationships of each PFAS (natural log-transformed) with SRS scores. We further modeled PFAS as a complex mixture using Bayesian methods and examined modification of these relationships by child sex. RESULTS: Most PFAS in maternal blood were not associated with child SRS T-scores. Perfluorononanoic acid (PFNA) showed the strongest and most consistent association: each 1-unit increase in ln-transformed PFNA was associated with greater autism-related traits (adjusted Î² [95% confidence interval (CI)] = 1.5 [-0.1, 3.0]). The summed mixture, which included six PFAS detected in >70% of participants, was not associated with SRS T-scores (adjusted Î² [95% highest posterior density interval] = 0.7 [-1.4, 3.0]). We did not observe consistent evidence of sex differences. CONCLUSIONS: Prenatal blood concentrations of PFNA may be associated with modest increases in child autism-related traits. Future work should continue to examine the relationship between exposures to both legacy and emerging PFAS and additional dimensional, quantitative measures of childhood autism-related outcomes.
Erythrolamprus trebbaui
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
Erythrolamprus
Erythrolamprus trebbaui

description: Erythrolamprus trebbaui (Roze, 1958)
Type locality. Auyantepui, Bolivar, Venezuela.
Distribution. Known from Brazil and Venezuela (Plt. 387A). In Brazil, recorded in Guianan savannas, at the border between Brazil and Venezuela (Plt. 387A), at high elevations (Plt. 387B). Previous map and taxonomy in Dixon (1983, 1989). Observed in the field in a rocky stream in dense and humid evergreen forest and in boggy meadows, both on top of sandstone tepuis above 1,700 m (Myers and Donnely, 2008).
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 45, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
Prenatal and perinatal factors associated with neonatal neurobehavioral profiles in the ECHO Program
Creators: name: Sheinkopf, Stephen J.
name: Carter, Brian S.
name: McGowan, Elisabeth C.
name: Smith, Lynne M.
name: Dansereau, Lynne M.
name: Everson, Todd M.
name: Camerota, Marie
name: Lester, Barry M.
name: DellaGrotta, Sheri A.
name: Neal, Charles R.
name: Hofheimer, Julie A.
name: Stroustrup, Annemarie
name: O'Shea, Thomas Michael
name: Helderman, Jennifer B.
name: Brennan, Patricia A.
name: Loncar, Cynthia M.
name: Aschner, Judy
name: Conradt, Elisabeth
name: Pastyrnak, Steven L.
name: Kuiper, Jordan R.
name: Marsit, Carmen J.
name: Karagas, Margaret R.
name: Zhang, Xueying
name: Crowell, Sheila E.
name: Check, Jennifer
Publisher: name: Springer Nature
Year: 2023

description: BackgroundSingle-cohort studies have identified distinct neurobehavioral profiles that are associated with prenatal and neonatal factors based on the NICU Network Neurobehavioral Scale (NNNS). We examined socioeconomic, medical, and substance use variables as predictors of NNNS profiles in a multi-cohort study of preterm and term-born infants with different perinatal exposures.MethodsWe studied 1112 infants with a neonatal NNNS exam from the Environmental influences on Child Health Outcomes (ECHO) consortium. We used latent profile analysis to characterize infant neurobehavioral profiles and generalized estimating equations to determine predictors of NNNS profiles.ResultsSix distinct neonatal neurobehavioral profiles were identified, including two dysregulated profiles: a hypo-aroused profile (16%) characterized by lethargy, hypotonicity, and nonoptimal reflexes; and a hyper-aroused profile (6%) characterized by high arousal, excitability, and stress, with low regulation and poor movement quality. Infants in the hypo-aroused profile were more likely to be male, have younger mothers, and have mothers who were depressed prenatally. Infants in the hyper-aroused profile were more likely to be Hispanic/Latino and have mothers who were depressed or used tobacco prenatally.ConclusionsWe identified two dysregulated neurobehavioral profiles with distinct perinatal antecedents. Further understanding of their etiology could inform targeted interventions to promote positive developmental outcomes.ImpactPrior research on predictors of neonatal neurobehavior have included single-cohort studies, which limits generalizability of findings.In a multi-cohort study of preterm and term-born infants, we found six distinct neonatal neurobehavioral profiles, with two profiles being identified as dysregulated.Hypo- and hyper-aroused neurobehavioral profiles had distinct perinatal antecedents.Understanding perinatal factors associated with dysregulated neurobehavior could help promote positive developmental outcomes.
Erythrolamprus typhlus
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
Erythrolamprus
Erythrolamprus typhlus

description: Erythrolamprus typhlus (Linnaeus, 1758)
Type locality. “Asia” (in error).
Distribution. Known from Bolivia, Brazil, Colombia, Ecuador, French Guiana, Guyana, Paraguay, Peru, Suriname, and Venezuela, mainly at forested biomes (Plt. 388A). In Brazil, widespread in Amazonia and the southern portion of the Atlantic Forest, with scattered records in the Cerrado, Pantanal and Chiquitano Dry Forest (Plt. 388A), mostly at low elevations (Plt. 388B). Previous map and taxonomy in Dixon (1989). Observed in the field in forest, dry forest, and disturbed areas (Cunha and Nascimento, 1993; Martins and Oliveira, 1998; Marques et al., 2001).
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 45, DOI: 10.2994/SAJH-D-19-00120.1, http://zenodo.org/record/10061686
Maoritomella vallata
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
Neogastropoda
Borsoniidae
Maoritomella
Maoritomella vallata

description: Maoritomella vallata (Gould, 1860)
Figs 4 S, 9 A
 Drillia vallata Gould, 1860: 336. Type locality: Hong Kong. Johnson 1964: 164, pl. 7, fig. 6.
 Asthenotoma vallata. Yen 1944: 575, pl. 51, figs 6, 7.
 Maoritomella vallata. Robba et al. 2003: table 5. Robba et al. 2004: 134 – 135, pl. 18, fig. 5 a, b. Robba et al. 2007: 94 (appendix). Wells et al. 2021: 100.
Referred material.
CUF - NKNY - G 30 (5 shells; Figs 4 S, 9 A).
Habitat.
Probably present in shallow sublittoral areas (Robba et al. 2004).
Distribution.
Indo-West Pacific. Records of fossils from the Holocene in Thailand (Robba et al. 2004).
Record in Thailand.
Gulf of Thailand (Wells et al. 2021).
Taxonomic remarks and comparisons.
 This species is recognised based on the descriptions and figures in Yen (1944), Johnson (1964), and Robba et al. (2004), specifically in having a high-spired and claviform shell, with the sculpture of one rather strong and peripheral spiral cord, a weaker one abapical to the spiral cord, and one or two spiral threads on the shoulder slope, resulting in a total of 12–14 spirals occurring along the body whorl. This species is poorly known and has been assigned to Maoritomella due to a blunt, smooth, and paucispiral protoconch (1.5 whorls in this species), which is the diagnostic character of the genus (Powell 1942).
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