Find research datasets worth reusing
Search datasets from major research repositories and use ShareScore to quickly assess how well each record supports discovery, access, and reuse.
31,887
datasets available to search
ShareScore release 0.9.0
Dataset results
31,887 results for “three”
Figure 7 in Abundance, reproduction, and feeding of three species of British terrestrial planarians: Observations over 4 years
Figure 7. Khaki Microplana species. (a) Monthly occurrence (corrected numbers) over 48 months from March 2001 to February 2005: 1 to 5 on the x-axis are years 2001 to 2005; (b) mean¡SE monthly numbers from January (J) to December (D) over 4 years.
Figure 8 in Abundance, reproduction, and feeding of three species of British terrestrial planarians: Observations over 4 years
Figure 8. Kitchen site: cocoons (& and solid line) and hatchlings (• and dashed line) in 2003 and 2004. Mean¡SE values for each month.
Figure 12 in Review of the Genus Megalomma (Polychaeta: Sabellidae) in Australia with Description of Three New Species, New Records and Notes on Certain Features with Phylogenetic Implications
Figure 12. SEM of Megalomma sp. 2, MV F70842. (A) anterior thoracic chaetiger and posterior peristomial ring collar, dorsal view; (B) same, lateral view; (C) dorsal most subdistal radiolar eye; (D) notochaetae, first chaetiger; (E) uncini, anterior thoracic chaetiger; (F) companion chaetae, anterior thoracic chaetae; (G) posterior thoracic notochaetal fascicle, ventral view; (H) anterior abdominal uncini; (I) anterior abdominal neurochaetal fascicle.
Figure 11 in Review of the Genus Megalomma (Polychaeta: Sabellidae) in Australia with Description of Three New Species, New Records and Notes on Certain Features with Phylogenetic Implications
Figure 11. SEM of Megalomma inflata n.sp., AM W23057; (A) tip of radioles and dorsalmost compound subdistal eyes; (B) base of radiolar crown and anterior segments, lateral view; (C) margins of collar, dorsolateral view; (D) chaetae, first thoracic segment; (E) chaetae, anterior thoracic segment; (F) inferior thoracic chaetae, posterior thoracic segment; (G) abdominal chaetae; (H) thoracic uncini; (I) companion chaetae, same chaetiger; (J) anterior abdominal uncini.
Figure 7 in Review of the Genus Megalomma (Polychaeta: Sabellidae) in Australia with Description of Three New Species, New Records and Notes on Certain Features with Phylogenetic Implications
Figure 7. SEM of Megalomma interrupta n.sp. paratype, AM W35479. (A) anterior thoracic chaetiger and posterior peristomial ring collar, ventral view; (B) same, dorsal view; (C) thorax and branchial crown junction, showing dorsal collar margins, lateral view; (D) chaetae fascicle, first thoracic chaetiger, ventral view; (E) companion chaetae, second thoracic chaetiger; (F) uncini, same chaetiger; (G) uncini, last thoracic chaetiger; (H) last thoracic notochaetal fascicle, ventral view; (I) anterior abdominal neurochaetal fascicle, ventral view; (J) anterior abdominal uncini; (K) subdistal compound radiolar eye.
Figure 9 in Review of the Genus Megalomma (Polychaeta: Sabellidae) in Australia with Description of Three New Species, New Records and Notes on Certain Features with Phylogenetic Implications
Figure 9. Graph representing the variety of number of pairs of eyes against the number of pairs of radioles in Megalomma interrupta n.sp.
Figure 10 in Review of the Genus Megalomma (Polychaeta: Sabellidae) in Australia with Description of Three New Species, New Records and Notes on Certain Features with Phylogenetic Implications
Figure 10. SEM of Megalomma cf. miyukiae, AM W35502: (A) anterior thoracic chaetiger and posterior peristomial ring collar, ventral view; (B) same, dorsal view; (C) notochaetae, first chaetiger, ventral view; (D) inferior thoracic chaetae, anterior chaetiger, ventral view; (E) whole fascicle; (F) thoracic uncini; (G) abdominal uncini; (H) companion chaetae; (I) anterior abdominal neurochaetal fascicle.
Figure 6 in Review of the Genus Megalomma (Polychaeta: Sabellidae) in Australia with Description of Three New Species, New Records and Notes on Certain Features with Phylogenetic Implications
Figure 6. SEM of Megalomma cf. acrophthalmos, MAGNT W14008. (A) dorsal collar margins with dorsal lappets; (B) lateral collar margins and anterior thoracic chaetigers, lateral view; (C) anterior collar margins and ventral lappets; (D) chaetae first thoracic chaetiger, ventral view; (E) chaetae of second thoracic chaetiger, ventral view; (F) uncini, same segment; (G) uncini last thoracic segment; (H) companion chaetae posterior thoracic chaetiger; (I) chaetae, anterior abdominal segment; (J) uncini, same chaetiger.
Figure 2 in Review of the Genus Megalomma (Polychaeta: Sabellidae) in Australia with Description of Three New Species, New Records and Notes on Certain Features with Phylogenetic Implications
Figure 2. Photographs. (A–E) Megalomma phyllisae n.sp., holotype AM W13643: (A) anterior thoracic chaetiger and branchial crown, lateral view; (B) subdistal compound eye in dorsal most radiole; (C) posterior peristomial ring collar and anterior thoracic chaetigers, dorsal view; (D) same, ventral view; (E) posterior abdominal chaetiger and pygidium, dorsal view. (F–I) Megalomma trioculatum (paratype, USNM 38409): (F) radiolar crown and anterior segments, lateral view; (G) dorsal collar margins; (H) ventral lappets and anterior segments, lateral view; (I) dorsal most radiole with compound subdistal eye. (J–M) Megalomma interrupta n.sp. [Continued on facing page…]
Figure 13 in Review of the Genus Megalomma (Polychaeta: Sabellidae) in Australia with Description of Three New Species, New Records and Notes on Certain Features with Phylogenetic Implications
Figure 13. First of two parsimonious trees of 39 steps with consistency index of 0.48 of and retention indices of 0.67. Black dots represent synapomorphies and white dots homo- plasies. Jackknife support are in all clades below 37 with the exception of the Megalomma clade with 100 support value. The second MPT differs in the position of M. nechamae, as sistergroup of the clade M. lanigera–M. suspiciens.
Figure 3 in Review of the Genus Megalomma (Polychaeta: Sabellidae) in Australia with Description of Three New Species, New Records and Notes on Certain Features with Phylogenetic Implications
Figure 3. SEM of Megalomma phyllisae n.sp., paratype AM W35476: (A) chaetae last thoracic chaetiger, ventral view; (B,C) companion chaetae same chaetiger; (D) uncini same chaetiger; (E) uncini anterior abdominal chaetiger; (F) Anterior abdominal chaetae, dorsal view; (G) detail of inferior abdominal chaetae same chaetiger.
Figure 8 in Review of the Genus Megalomma (Polychaeta: Sabellidae) in Australia with Description of Three New Species, New Records and Notes on Certain Features with Phylogenetic Implications
Figure 8. SEM of Megalomma interrupta n.sp. (A–D) AM W35490, from Lizard Island (QLD): (A) uncini, third thoracic chaetiger; (B) inferior notochaetae, fifth thoracic chaetiger, ventral view; (C) anterior abdominal neurochaetae, ventral view; (D) anterior abdominal uncini. (E–H) AM W35488, from One Tree Island (QLD), with radiolar eyes on dorsalmost pairs of radioles: (E) thoracic uncini; (F) thoracic inferior notochaetae, ventral view; (G) anterior abdominal neurochaetae, ventral view; (H) anterior abdominal uncini. (I–K) AM W35488 from One Tree Island (QLD) with several radiolar eyes: (I) thoracic uncini; (J) thoracic inferior notochaetae, ventral view; (K) anterior abdominal uncini. (L–O) AM W35498, specimen from Kimberleys (WA): (L) uncini, third thoracic chaetiger; (M) notochaetae, fourth thoracic chaetiger, ventral view; (N) anterior abdominal neurochaetae; (O) anterior abdominal uncini.
Full expression and splicing QTL summary statistics for three human spinal cord segments
<p>This dataset is part of the manuscript: <strong>"Integrative genetic analysis of the amyotrophic lateral sclerosis spinal cord implicates glial activation and suggests new risk genes</strong>" by Jack Humphrey, et al.</p> <p>The files below contain nominal and permuted quantitative trait loci (QTL) associations between common genetic variants derived from whole genome sequencing and either gene expression or splicing phenotypes generated from RNA-seq of post-mortem spinal cord sections. All QTLs were mapped with TensorQTL.</p> <p>Nominal association files are coordinate sorted, bgzip-compressed and tabix-indexed tab-separated variable files. Top association files are gzip-compressed tab-separated variable files.</p> <p>Sample sizes for each dataset are as follows:</p> <p>Cervical spinal cord n = 216.</p> <p>Lumbar spinal cord n = 197.</p> <p>Thoracic spinal cord n = 68.</p> <p>Description of files:<br> CervicalSpinalCord_expression_peer30_gene.cis_qtl.txt.gz - <strong>Top per-gene </strong>eQTL summary statistics from cervical spinal cord <br> CervicalSpinalCord_expression_peer30_gene.cis_qtl_nominal_tabixed.tsv.gz - <strong>Full nominal</strong> eQTL summary statistics from cervical spinal cord <br> CervicalSpinalCord_splicing_peer15_cluster.cis_qtl.txt.gz - <strong>Top per-cluster </strong>sQTL summary statistics from cervical spinal cord<br> CervicalSpinalCord_splicing_peer15_gene.cis_qtl_nominal_tabixed.tsv.gz - <strong>Full nominal</strong> sQTL summary statistics from cervical spinal cord<br> LumbarSpinalCord_expression_peer30_gene.cis_qtl.txt.gz - <strong>Top per-gene </strong>eQTL summary statistics from lumbar spinal cord<br> LumbarSpinalCord_expression_peer30_gene.cis_qtl_nominal_tabixed.tsv.gz -<strong> Full nominal</strong> eQTL summary statistics from lumbar spinal cord<br> LumbarSpinalCord_splicing_peer10_cluster.cis_qtl.txt.gz - <strong>Top per-cluster </strong>sQTL summary statistics from lumbar spinal cord<br> LumbarSpinalCord_splicing_peer10_gene.cis_qtl_nominal_tabixed.tsv.gz - <strong>Full nominal</strong> sQTL summary statistics from lumbar spinal cord<br> ThoracicSpinalCord_expression_peer10_gene.cis_qtl.txt.gz - <strong>Top per-gene </strong>eQTL summary statistics from thoracic spinal cord<br> ThoracicSpinalCord_expression_peer10_gene.cis_qtl_nominal_tabixed.tsv.gz - <strong>Full nominal</strong> eQTL summary statistics from thoracic spinal cord<br> ThoracicSpinalCord_splicing_peer5_cluster.cis_qtl.txt.gz - <strong>Top per-cluster </strong>sQTL summary statistics from thoracic spinal cord<br> ThoracicSpinalCord_splicing_peer5_gene.cis_qtl_nominal_tabixed.tsv.gz - <strong>Full nominal</strong> sQTL summary statistics from thoracic spinal cord</p> <p>als_snps_maf0.01_alleles.tsv.gz<strong> - Allele information</strong> for all SNPs tested in the eQTL and sQTL analysis</p> <p>Table columns are formatted as follows:</p> <p>Nominal QTL results include all SNP-gene pairs tested using either a 1Mb window from each side of the transcription start site (TSS) of the gene (eQTLs) or 100kb either side of the middle of the splicing cluster (sQTLs). Table columns are formatted as follows:</p> <ul> <li>phenotype_id - ensembl ID of the gene tested (GENCODE v30) for eQTL, or the ID of the splice junction for sQTLs, splicing junction position, splicing cluster id, and gene Ensembl id (GENCODE v30),separated by a colon</li> <li>variant_id - SNP tested for association (rsid or chr:position:ref:alt)</li> <li>tss_distance - distance of the SNP to the gene transcription start site (TSS)</li> <li>maf - minor allele frequency in cohort</li> <li>ma_samples - number of samples carrying the minor allele</li> <li>ma_count - total number of minor alleles across individuals</li> <li>pval_nominal - nominal <em>P</em>-value from linear regression</li> <li>slope - slope of the linear regression</li> <li>slope_se - standard error of the slope</li> </ul> <p>Permuted QTL results include only the top SNP-gene association for each gene (eQTL) or cluster (sQTL). Table columns are formatted as follows:</p> <ul> <li>phenotype_id - ensembl ID of the gene tested (GENCODE v30), or the coordinates of the cluster, formatted as coordinate, splicing cluster id, and gene Ensembl id (GENCODE v30), separated by a colon</li> <li>num_var - total number of variants tested in <em>cis</em></li> <li>beta_shape1 - first parameter value of the fitted beta distribution</li> <li>beta_shape2 - second parameter value of the fitted beta distribution</li> <li>true_df - effective degrees of freedom the beta distribution approximation</li> <li>pval_true_df - empirical <em>P</em>-value for the beta distribution approximation</li> <li>variant_id - ID of the top variant (rsid or chr:position:ref:alt)</li> <li>tss_distance - distance of the SNP to the gene transcription start site (TSS)</li> <li>ma_samples - number of samples carrying the minor allele</li> <li>ma_count - total number of minor alleles across individuals</li> <li>maf -minor allele frequency in MiGA cohort</li> <li>ref_factor - flag indicating if the alternative allele is the minor allele in the cohort (1 if AF <= 0.5, -1 if not)</li> <li>pval_nominal - nominal <em>P</em>-value from linear regression</li> <li>slope - slope of the linear regression</li> <li>slope_se - standard error of the slope</li> <li>pval_perm - first permutation <em>P</em>-value directly obtained from the permutations with the direct method</li> <li>pval_beta - second permutation <em>P</em>-value obtained via beta approximation. This is the one to use for downstream analysis</li> <li>qval - Storey q-value derived from pval_beta (FDR adjusted)</li> <li>pval_nominal_threshold - nominal <em>P</em>-value threshold for calling a variant-gene pair significant for the gene</li> </ul> <p>Allele Information for each variant:</p> <ul> <li>CHROM - chromosome position of the variant</li> <li>POS - position of the variant in the chromosome</li> <li>REF - reference allele (GRCh38)</li> <li>ALT - alternative allele (this is the <strong>effect</strong> allele in the eQTL and sQTL analysis)</li> <li>ID - variant id (rsid or chr:position:ref:alt)</li> </ul>
Fig. 29 in Revision of the Andrena wollastoni group (Hymenoptera, Anthophila, Andrenidae) from the Madeira Archipelago and the Canary Islands: upgrading of three former subspecies and a description of three new subspecies
Fig. 29: Index spectrum (boxplots) of HL/HW index (head length to width) of the different taxa. Groups with the same letter are not significantly different. In the case of groups of two letters, significance exists only with one group identified by a single letter. Significance levels: * p <= 0,05; ** p <= 0,01; *** p <= 0,001; ns = not significant.
Fig. 32 in Revision of the Andrena wollastoni group (Hymenoptera, Anthophila, Andrenidae) from the Madeira Archipelago and the Canary Islands: upgrading of three former subspecies and a description of three new subspecies
Fig. 32: Shape PC1 plotted against shape PC2 and the two best plotted ratios of morphometric features: (a) Andrena acuta – A. catula, (b) A. acuta – A. dourada, (c) A. acuta – A. g. palmae, (d) A. acuta – A. lineolata, (e) A. acuta – A. tiaretta, and (f) A. acuta – A. wollastoni.
Fig. 36 in Revision of the Andrena wollastoni group (Hymenoptera, Anthophila, Andrenidae) from the Madeira Archipelago and the Canary Islands: upgrading of three former subspecies and a description of three new subspecies
Fig. 36: Shape PC1 plotted against shape PC2 and the two best plotted ratios of morphometric features: (a) Andrena a. acuta – A. g. palmae, (b) A. a. tenoensis – A. a. wildpreti, (c) A. a. tenoensis – A. g. gomerensis, (d) A. a. tenoensis – A. g. palmae, (e) A. g. gomerensis – A. a. wildpreti, (f) A. g. palmae – A. a. wildpreti.
Fig. 35 in Revision of the Andrena wollastoni group (Hymenoptera, Anthophila, Andrenidae) from the Madeira Archipelago and the Canary Islands: upgrading of three former subspecies and a description of three new subspecies
Fig. 35: Shape PC1 plotted against shape PC2 and the two best plotted ratios of morphometric features: (a) A. lineolata – A. tiaretta, (b) A. lineolata – A. wollastoni, (c) A. tiaretta – A. wollastoni, (d) A. a. acuta – A. a.tenoensis, (e) A. a. acuta – A. wildpreti, and (f) A. a. acuta – A. g. gomerensis.
Fig. 34 in Revision of the Andrena wollastoni group (Hymenoptera, Anthophila, Andrenidae) from the Madeira Archipelago and the Canary Islands: upgrading of three former subspecies and a description of three new subspecies
Fig. 34: Shape PC1 plotted against shape PC2 and the two best plotted ratios of morphometric features: (a) A. dourada – A. lineolata, (b) A. dourada – A. tiaretta, (c) A. dourada – A. wollastoni, (d) A. gomerensis – A. lineolata, (e) A. gomerensis – A. tiaretta, and (f) A. gomerensis – A. wollastoni.
Fig. 27 in Revision of the Andrena wollastoni group (Hymenoptera, Anthophila, Andrenidae) from the Madeira Archipelago and the Canary Islands: upgrading of three former subspecies and a description of three new subspecies
Fig. 27: Body length spectrum (boxplots) of the different taxa. Groups with the same letter are not significantly different. In the case of groups of two letters, significance exists only with one group identified by a single letter. Significance levels: * p <= 0,05; ** p <= 0,01; *** p <= 0,001; ns = not significant.
Fig. 26 in Revision of the Andrena wollastoni group (Hymenoptera, Anthophila, Andrenidae) from the Madeira Archipelago and the Canary Islands: upgrading of three former subspecies and a description of three new subspecies
Fig. 26: Type specimen (lectotype) of Andrena wollastoni COCKERELL, 1922 (NHMUK). Photos by D. Notton: (a) habitus, dorsal view. (b) register label, syntype label, lectotype label, type number label, barcode number. (c) habitus, lateral view. (d) head, frontal view. (e) scopa.
ScienceDex guides
Understand access before you commit
These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
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.