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Data from: Validity of bioelectrical impedance analysis in predicting total body water and adiposity among Senegalese school-aged children
Introduction: Childhood obesity is currently a serious public health challenge in developing countries. Therefore, an accurate assessment of adiposity is required. The objective of this study was to validate BIA prediction equations for the assessment of total body water and adiposity or percentage of body fat for the first time in Senegalese school-aged children. Methods: One-hundred-fifty-one (151) pupils who were 8-11 years old were randomly selected from four public schools in Dakar. The body composition measured by deuterium dilution method (DDM) was used as the reference method and compared to that predicted by BIA using a multi-frequency analyser. Stepwise backward multiple linear regression was performed to calculate TBW and %BF in a subsample, which were then validated it in the rest of the sample. The Bland and Altman approach was used to assess the agreement between the two methods (bias and limits of agreement). Results: FFM was higher in boys (24.6±6.9 kg) compared to girls (21.2±3.3 kg; P<0.001), and %BF was lower in boys (5.1±4.6 kg) compared to girls (5.3±3.8 kg; P<0.05). Overall, 11.3% of children were obese (%BF ≥25% in boys, and ≥30% in girls) and 4.6% were overweight/obese according to their BMI-z score (>+1). The equations developed were as follows: TBW=0.376(Height²/Z50)-0.470 (sex) +0.076(weight) +0.065(height)-2.28. %BF= -1.10(height²/Z50) +3.14(sex)+1.57(weight)-4.347. These specific equations showed good precision and a low and non-significant mean bias (0.11 kg, P=0.279; and 0.19 kg, P=0.764) for TBW and %BF, respectively. Conclusion: The newly developed equations can be used as an accurate and alternative tool for screening for obesity among African school-aged children in various settings
Datasets and model outputs used for validating WASP for SURFEX v8.0
<p>These datasets contain the model outputs used for validating the WASP SURFEX v8.0 parameterization of turbulent fluxes at sea. The file LION_BUOY.tar contains (ascii format) the tubrulent fluxes computed from the surface parameters recorded at the Météo-France LION buoy (in the centre of the Gulf of Lion, NW Mediterranean Sea) at an hourly frequency between 2001 and 2014, using the bulk softwares COARE 3.0 with various wave representation and WASP with waves. The file AROME_MED.tar contains the outputs of the AROME operational model with ECUME or WASP representation of the turbulent fluxes, on the case study of October 2016, that were used to validate the parameterization as presented in the paper. The file AROME_OI.tar contains the outputs of AROME OI on the case of the tropical cyclone Batsirai in the Indian Ocean, in February 2022. The file ARPEGE_CLIM_AMIP contains the outputs of the low-resolution, AMIP runs performed using the ECUME and WASP parameterization.</p>
FIGURE 2 in On the validity of Caryothraustes canadensis frontalis (Hellmayr, 1905) (Aves: Cardinalidae)
FIGURE 2. Geographic variation in forehead coloration of the Caryothraustes canadensis complex. From left to right: C. c. frontalis from Alagoas (MZUSP 39307, 37728), C. c. brasiliensis from Bahia and Minas Gerais (MZUSP 91568, 25280) and C. c. canadensis from Pará (MZUSP 46050, 46048), Brazil. Note the black forehead of C. c. frontalis, the yellow forehead of C. c. brasiliensis and the green forehead of C. c. canadensis.
FIGURE 1 in On the validity of Caryothraustes canadensis frontalis (Hellmayr, 1905) (Aves: Cardinalidae)
FIGURE 1. Known distribution of Caryothraustes canadensis canadensis and C. c. simulans (green), C. c. frontalis (red) and C. c. brasiliensis (yellow). Ranges modified from BirdLife International (2020) and Tonetti et al. (2017). The illustrated river is the São Francisco River.
FIGURES 3–4 in Replacement names for Beckius Dechambre, 1992 and Syrictes Prell, 1936, and validation of Neoryctes Arrow, 1908 (Coleoptera: Scarabaeidae: Dynastinae)
FIGURES 3–4. Dorsal view of males. 3, Kirprellius syrichtus (Fabricius, 1775), new combination (image by Johan Pretorius, https://inaturalist.ca/photos/15855083, Creative Commons). 4, Neoryctes williamsi Cook, Howden, & Peck, 1995, paratype (image by Alain Galant).
FIGURES 1–2 in Replacement names for Beckius Dechambre, 1992 and Syrictes Prell, 1936, and validation of Neoryctes Arrow, 1908 (Coleoptera: Scarabaeidae: Dynastinae)
FIGURES 1–2. Male of Debeckius beccarii (Gestro, 1876), new combination. 1, dorsal view (image by JohnSka, https://commons.wikimedia.org/w/index.php?curid=25049952, Creative Commons); 2, parameres (from Endrődi 1976).
Graph-based Leaf–Wood Separation Method for Individual Trees Using Terrestrial Lidar Point Clouds: Labeled validation data
<p>Set of 10 manually labeled point clouds used in the performance assessment of "Graph-based Leaf–Wood Separation Method for Individual Trees Using Terrestrial Lidar Point Clouds". This dataset is a collection of single trees scanned from different regions covering tropical, temperate, and boreal species—with heights ranging from 5.4 to 43.7 m, using the Riegl VZ-400 and Leica ScanStation C10 terrestrial laser scanner. These data have been preprocessed. For the original data, see https://doi.org/10.5061/dryad.10hq7;<br> https://doi.org/10.5061/dryad.np5hqbzp6;<br> https://doi.org/10.1594/PANGAEA.942856.</p>
FIGURE 5 in Taxonomic status of Rana nigromaculata mongolia and the validity of Pelophylax tenggerensis (Anura, Ranidae)
FIGURE 5. Coloration of Pelophylax mongolicus comb. nov. (A) male CIB 118075, (B) male SYAU BAA000001, (C) female IVPP OV2729, (D) male SYAU BAA000021. Photographed by Jin-Long Ren and Shengbo Zhou.
FIGURE 2 in Taxonomic status of Rana nigromaculata mongolia and the validity of Pelophylax tenggerensis (Anura, Ranidae)
FIGURE 2. Plots of the first principal component (PC1) versus the second (PC2) Pelophylax mongolicus comb. nov. (red) and P. nigromaculatus (blue). A. Males, B. females.
FIGURE 1 in Taxonomic status of Rana nigromaculata mongolia and the validity of Pelophylax tenggerensis (Anura, Ranidae)
FIGURE 1. The collection localities of Pelophylax mongolicus comb. nov. (marked with the green circles) and P. nigromaculatus (marked with the blue circles) in this study. (1) Tumed Right Banner, Baotou, Inner mongolia (type locality of P. mongolicus comb. nov.); (2) Shapotou District, Zhongwei, Ningxia (type locality of "P. tenggerensis"); (3) Fenghuang Park, Yinchuan, Ningxia; (4) Liupan Mountain Nature Reserve, Guyuan, Ningxia; (5) Yongchenghu Park, Baoji, Shaanxi; (6) Gaotai Town, Hanzhong, Shaanxi; (7) Wuhou District, Chengdu, Sichuan; (8) Yuehu Park, Changsha, Hunan; (9) Hanxue Park, Shangrao, Jiangxi; (10) Santaishan Park, Suqian, Jiangsu; (11) Mashan Park, Qingdao, Shandong; (12) Dongling Park, Shenyang, Liaoning.
FIGURE 6 in Taxonomic status of Rana nigromaculata mongolia and the validity of Pelophylax tenggerensis (Anura, Ranidae)
FIGURE 6. Preservative coloration of specimen SYAU BAA000001 of Pelophylax mongolicus comb. nov. (A) Dorsal view, (B) ventral view, (C) lateral view, (D) ventral view of the hand, (E) ventral view of the foot.
FIGURE 4 in Taxonomic status of Rana nigromaculata mongolia and the validity of Pelophylax tenggerensis (Anura, Ranidae)
FIGURE 4. The holotype (CIB 80001/CAS166936) of Rana tenggerensis. (A) Dorsal view, (B) ventral view, (C) ventral view of left hand, (D) ventral view of left foot. Photographed by Jin-Long Ren.
FIGURE 4 in Reinstatement of "Hippolyte St. Pauli" Brandt, 1851 as a valid species of Lebbeus White, 1847 (Decapoda: Caridea: Thoridae)
FIGURE 4. Lebbeus sanctipauli (Brand, 1851), male (cl 7.0 mm; TUF). A, carapace and left cephalic appendages, lateral view; B, rostrum and anterior part of carapace, lateral view; C, endopod of left pleopod 1, dorsal (anterior) view; D, appendices interna and masculina of left pleopod 2, dorsomesial view.
FIGURE 3 in Reinstatement of "Hippolyte St. Pauli" Brandt, 1851 as a valid species of Lebbeus White, 1847 (Decapoda: Caridea: Thoridae)
FIGURE 3. Lebbeus sanctipauli (Brand, 1851), female (cl 8.7 mm; CBM-ZC 10176), left thoracic appendages. A, maxilliped 3, lateral view; B, same appendage, distal part of ultimate article, extensor view; C, same appendage, distal part of antepenultimate article, lateral view; D, pereopod 1, lateral view; E, same appendage, chela, extensor view; F, same appendage, tip of fingers; G, pereopod 2, lateral view; H, pereopod 3, lateral view; I, same appendage, dactylus and distal part of propodus, lateral view; J, pereopod 4, lateral view; K, pereopod 5, lateral view.
FIGURE 5 in Reinstatement of "Hippolyte St. Pauli" Brandt, 1851 as a valid species of Lebbeus White, 1847 (Decapoda: Caridea: Thoridae)
FIGURE 5. Lebbeus polaris (Sabine, 1824). A–E, female (cl 11.0 mm; HUMZ-C 1368); F, G, male (cl 10.7 mm; same lot). A, carapace and left cephalic appendages, lateral view; B, rostrum and anterior part of carapace, lateral view; C, telson, dorsal view; D, right pereopod 3, lateral view; E, same appendage, dactylus and distal part of propodus, lateral view; F, carapace and cephalic right appendages, lateral view; G, rostrum and anterior part of carapace, lateral view.
FIGURE 2 in Reinstatement of "Hippolyte St. Pauli" Brandt, 1851 as a valid species of Lebbeus White, 1847 (Decapoda: Caridea: Thoridae)
FIGURE 2. Lebbeus sanctipauli (Brand, 1851), female (cl 8.7 mm; CBM-ZC 10176). A, rostrum, lateral view; B, anterior part of carapace and cephalic appendages, dorsal view (marginal setae on antennal scaphocerites omitted); C, telson, dorsal view; D, same, posterior margin, dorsal view.
FIGURE 1 in Reinstatement of "Hippolyte St. Pauli" Brandt, 1851 as a valid species of Lebbeus White, 1847 (Decapoda: Caridea: Thoridae)
FIGURE 1. Lebbeus sanctipauli (Brand, 1851), female (cl 8.7 mm; CBM-ZC 10176), habitus in lateral view.
Rusia, Lake Rudolf, Ethiopia. Taxonomic status and constitution of G. pulvinatus have been disputed by some authors, but D. M. Lay in 1983, G. G. Musser and M. D. Carleton in 2005, D. C. D. Happold in 2013, and A. Monadjem and colleagues in 2015 considered it valid. Standard karyotype was provided by B. Hubert in 1978. Monotypic. Distribution. Djibouti, SW Ethiopia, and NW Kenya; it may occur in extreme SE South Sudan. in Muridae
Rusia, Lake Rudolf, Ethiopia. Taxonomic status and constitution of G. pulvinatus have been disputed by some authors, but D. M. Lay in 1983, G. G. Musser and M. D. Carleton in 2005, D. C. D. Happold in 2013, and A. Monadjem and colleagues in 2015 considered it valid. Standard karyotype was provided by B. Hubert in 1978. Monotypic. Distribution. Djibouti, SW Ethiopia, and NW Kenya; it may occur in extreme SE South Sudan.
First described as a member of genus Uro-mys, arctum was placed in Melomys by O. Thomas in 1922 and in subgenus Melomys by H. Riummler in 1936 as a subspecies Of M. leucogaster. In his 1996 revision, J. I. Menzies found M. arcium to be close to M. leucogaster, and T. F. Flannery in 1995 suggested it as a valid species, an opinion followed by G. G. Musser and M. D. Carleton in 2005. Monotypic. | Distribution. Rossel I, Louisiade Archipelago, Papua New Guinea. in Muridae
First described as a member of genus Uro-mys, arctum was placed in Melomys by O. Thomas in 1922 and in subgenus Melomys by H. Riummler in 1936 as a subspecies Of M. leucogaster. In his 1996 revision, J. I. Menzies found M. arcium to be close to M. leucogaster, and T. F. Flannery in 1995 suggested it as a valid species, an opinion followed by G. G. Musser and M. D. Carleton in 2005. Monotypic. | Distribution. Rossel I, Louisiade Archipelago, Papua New Guinea.
Trojan Detection Challenge Datasets (New Detection Track Validation Set)
<p>This upload contains the new version of the detection track validation set for the Trojan Detection Challenge NeurIPS 2022 competition. This is meant for participants in the detection who do not want to redownload the full dataset. For the full dataset including data for other tracks, see <a href="https://zenodo.org/record/6894041">https://zenodo.org/record/6894041</a>.</p>
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
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International Brain Laboratory public data
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OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.