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Update on the 53Mn-53Cr ages of dolomite in the Ivuna CI chondrite and asteroid Ryugu sample
<p>Table S1: XRD data of synthetic carbonates</p> <p>Table S2: Checmical composition of synthetic carbonates</p> <p>Table S3: SIMS data of synthetic carbonates and San Carlos olivine</p> <p>Table S4: SIMS data of Ivuna H2 dolomite</p> <p> </p>
Fig. 4 in Age and body size of Salamandrella keyserlingii (Caudata: Hynobiidae): a difference in altitudes, latitudes, and temperatures
Fig. 4 Fittest equations (rational function approximation or second order polynomial regression) between latitude (x-axis: °N)/temperature in descending order (x-axis: °C) and maximum body size (y-axis: mm). No relationship was found between latitude and M-TOL (solid circle: n 018, R 2 0.043, P 0.4116, y intercept 144.876, slope 0.414) M-SVL 0000– or (open circle: n 024, R 2 00.020, P00.5097, y intercept 077.240, slope 0 –0.175). Rational function approximations indicated an intraspecific tendency to decrease M-TOL (Equation a: y ¼ 4: 98338 x 454: 274 þ 16386: 0= x R2 ¼ 0: 202> 0: 043 regression coefficient for a given linear ' regression) with increased latitude from 43 to 57°N and then increase the size from 57 to 69°N (U shaped curve), unlike M-SVL (Equation b: y ¼ 0: 351151 x þ 21: 1776 þ 1478: 83= x R2 ¼ 0: 022 0: 020). A ' significant relationship was not found between temperature and M-TOL (n 18, R 2 0.127, P 0.1464, y intercept 124.426, slope 0.857), and 00000 – neither relationship nor trend was found between temperature and M-SVL (n 22, R 2 0.001, P 0.8804, y intercept 68.330, slope 0.048). Poly00000 – nomial regressions also appeared to decrease M-TOL (Equation c: y ¼ 0: 142278 x2 þ 1: 91652 x þ 121: 877 R2 ¼ 0: 304> 0: 127 ' regression coefficient for a given linear regression) with decreased temperature from 8 to –7 °C and then increase the size from –7 to –15 °C (U shaped curve), but they did not show any trend for M-SVL (Equation d: y ¼ 0: 00965508 x2 þ 0: 0919399 x þ 68: 1711 R2 ¼ 0: 003 0: 001) '
FIGURE 3. a. Acer campestre young tree bark. b. Aged tree bark. c in Confirmation of Acer campestre (Sapindaceae) presence in Algeria and new sites records
FIGURE 3. a. Acer campestre young tree bark. b. Aged tree bark. c. Shoot of the year. d. Axillary bud. e. Terminal bud. Photographed by S. Ait Said (a–b) and Z. Chikhaoui (c–e).
Data and code used for 'Assessing the Accuracy of Activity Classification Using Thigh-Worn Accelerometry: A Validation Study of ActiPASS in School-Aged Children'
<p>This repository contains all data necessary to reproduce the results for the manuscript titled 'Assessing the Accuracy of Activity Classification Using Thigh-Worn Accelerometry: A Validation Study of ActiPASS in School-Aged Children'.</p>
Figure 2 in Effect of body size, age and timing of breeding on clutch and egg size of female Eastern Gray Treefrogs, Hyla versicolor
Figure 2. Determinants of clutch size (# eggs) in female Hyla versicolor. (A) Relationship between female body length and clutch size; (B) relationship between body condition and clutch size; (C) relationship between age and clutch size; (D) relationship between breeding season date and clutch size. Second and third clutches of repeat-breeding females are indicated as red symbols. Significant relationships are indicated by trendlines (see also Table 2).
Figure 1 in Effect of body size, age and timing of breeding on clutch and egg size of female Eastern Gray Treefrogs, Hyla versicolor
Figure 1. Lifespan, age and between-year growth of female Hyla versicolor. (A) Age distribution of females in the study population, and the relationship between age and body length. (B) Change in body length of the 7 females that were recaptured in consecutive years. Gray lines indicate averages.
Properties of intermediate- to high-mass stars in the young cluster M17 Characterizing the (pre-)Zero Age Main Sequence
<p>Data and extra figures of the paper "Properties of intermediate- to high-mass stars in the young cluster M17 -- Characterizing the (pre-)Zero Age Main Sequence" by Frank Backs. Published in Astronomy and Astrophysics.</p> <p>The observed data and the fitted models are included. The fitting algorithm Kiwi-GA is available on Github: https://github.com/sarahbrands/Kiwi-GA</p> <p>Additional figures are available. These figures give an overview of the best fit models for each line like Fig. 1 in the paper. </p>
FIGURE 2 in New Non-Marine Ostracod Genera And Species Of Aptian Age From Araripe Basin, Northeast Brazil
FIGURE 2. Lithological profile (in meters) of the outcrops and the well core showing the core interval and samples collected from the outcrops. A, Três Irmãos Quarry, 1BAr17 outcrop, Crato Formation. B, Composite profile containing the 3BAr01– 3BAr06 outcrops along the Batateira River, Barbalha Formation up to the contact with the Crato Formation. C, 2-AR-SR-1ACE well core. (Modified from Guzmán et al. 2022).
FIGURE 5 in New Non-Marine Ostracod Genera And Species Of Aptian Age From Araripe Basin, Northeast Brazil
FIGURE 5. Detailed illustration of the outline and ornamentation of the new species. A (left view): Batecypris reticularis sp. nov. noded; B (right view): Macunhaella posteroaltis sp. nov.; C (right view): Timiriasevia aratra sp. nov.; D (right view): Theriosynoecum favus sp. nov.; E (left view): Wolburgiopsis magnafossa sp. nov. Scale bar: 100 μm.
FIGURE 1 in New Non-Marine Ostracod Genera And Species Of Aptian Age From Araripe Basin, Northeast Brazil
FIGURE 1. Map of the study area showing the collection and drilling location in the Araripe Basin, NE of Brazil. Produced using ESRI ArcMap v.10.3 software with metadata provided by Geological Survey of Brazil.
FIGURE 4 in New Non-Marine Ostracod Genera And Species Of Aptian Age From Araripe Basin, Northeast Brazil
FIGURE 4. New taxa of Ostracoda. A–C (right view, left view and dorsal): Batecypris reticularis sp. nov. noded; D–F (left view, right view and dorsal): Batecypris reticularis sp. nov. unnoded; G–J (left view, right view, dorsal and detail of the muscle scars): Macunhaella posteroaltis sp. nov.; K–M (RV, left view and dorsal): Timiriasevia aratra sp. nov.; N–P (left view, right view and dorsal): Theriosynoecum favus sp. nov.; Q–S (right view, left view and dorsal): Wolburgiopsis magnafossa sp. nov. Scale bar: 100 μm.
FIGURE 3 in New Non-Marine Ostracod Genera And Species Of Aptian Age From Araripe Basin, Northeast Brazil
FIGURE 3. Stratigraphy and abundances of ostracod species recovered from the Santana Group, showing the biozonation, including new taxa. (Modified from Guzmán et al. 2023).
FIGURE 4. Concordia Age plot for sample PCM3Aug14-04. Data have been corrected for 230 in PE Note: Corrigenda to Murphey et al. 2018
FIGURE 4. Concordia Age plot for sample PCM3Aug14-04. Data have been corrected for 230Th disequilibrium.
Age at tumor diagnosis UNIPI Animal Cancer Registry dataset (2008-2023)
<p>Dataset with canine histologically-diagnosed tumor cases collected between January 1<sup>st</sup>, 2008, and December 31<sup>st</sup>, 2023 in the UNIPI pathology-based Animal Cancer Registry (Italy) and included in the study intitled: "<span>Age at Tumor Diagnosis in 14,636 Canine Cases from the Pathology-based UNIPI Animal Cancer Registry, Italy: One Size Doesn't Fit All". </span></p> <p>The tumor diagnoses are coded according to the Vet-ICD-O-canine-1 coding system.</p> <p>The subset included in Event History Analysis model is also provided.</p>
Figure 5 in Mating behaviour in ageing Teratorhabditis palmarum (Nematoda: Rhabditida)
Figure 5. Duration of mating of 2- and 10-day-old males with different age groups of females. Significant differences are indicated with an asterisk (p <.05).
Figure 4 in Mating behaviour in ageing Teratorhabditis palmarum (Nematoda: Rhabditida)
Figure 4. Duration of different phases of mating behaviour of 10-day-old males with 2- and 10-day-old females. Significant differences are indicated with an asterisk (p <.05).
Figure 3 in Mating behaviour in ageing Teratorhabditis palmarum (Nematoda: Rhabditida)
Figure 3. Duration of different phases of mating behaviour of 2-day-old males with 2- and 10-day-old females. Significant differences are indicated with an asterisk (p <.05).
Figure 2 in Mating behaviour in ageing Teratorhabditis palmarum (Nematoda: Rhabditida)
Figure 2. Sub-behaviours in mating and post-mating phases of T. palmarum: copulating (adhering, ejaculating and detaching) and enduring (sluggish and strolling).
Figure 1 in Mating behaviour in ageing Teratorhabditis palmarum (Nematoda: Rhabditida)
Figure 1. Sub-behaviours in pre-mating phases of T. palmarum: searching (crawling, accessing and encountering) and contacting (touching, coiling and positioning).
Genetic risk score and age at onset
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Allen Brain Atlas
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DANDI Archive for NWB datasets
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International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
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.