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.
142
datasets available to search
ShareScore release 0.9.0
Dataset results
142 results for “Papaveraceae”
FIGURE 1 in Corydalis ternatifolia belongs to C. sect. Asterostigmata, not C. sect. Incisae (Papaveraceae): Evidence from morphological and phylogenetic study
FIGURE 1. Morphological comparison of Corydalis ternatifolia (1) and type species of C. sect. Incisae (C. incisa, 2) and of C. sect. Asterostigmata (C. temulifolia, 3). a. stigmas; b. flowers; c. inner petals; d. lower petals; e. capsules; f. seeds; g. caruncles. Pictures by Dong Wang.
FIGURE 4. A1–G1. Corydalis nanchuanensis. A2–G2. C. sheareri. A. Inflorescences. B in Corydalis nanchuanensis (Papaveraceae), a new species from Chongqing, China
FIGURE 4. A1–G1. Corydalis nanchuanensis. A2–G2. C. sheareri. A. Inflorescences. B. Flowers, showing frontal (left) and lateral (right) views. C. Stigmas, showing lateral (left) and frontal (right) views. D. Seeds. E. Lower parts of plants. F. Leaves. G. Bracts, showing lower, middle and upper bracts from left to right.
FIGURE 3. Corydalis nanchuanensis. A. Habitat. B. Leaf. C. Inflorescence. D. Tubers. E in Corydalis nanchuanensis (Papaveraceae), a new species from Chongqing, China
FIGURE 3. Corydalis nanchuanensis. A. Habitat. B. Leaf. C. Inflorescence. D. Tubers. E. Bracts, showing variation of size and shape. F. Stigma of unopened flower, showing lateral (F1) and frontal (F2) views; arrows indicate a pair of commissural papillae. G. Flowers, showing frontal (G1) and lateral views (G2), and lateral view of the dissected flower (G3). H. Spurlet (indicated by upward arrow) and sepal (indicated by the left arrow). I. Nectary. J. Capsule. K. Longitudinal section of capsule. L. Seed, with the white part being the elaiosome. M. Lateral view of seed under SEM. N. Seed surface ornamentation under SEM.
FIGURE 2. Corydalis nanchuanensis. A. Habit. B. Flower with a lower bract. C1. Low bract. C2–C4. Upper bracts. D. Capsule. E. Stigma. F. Seed. Drawn from YSR 8423 in Corydalis nanchuanensis (Papaveraceae), a new species from Chongqing, China
FIGURE 2. Corydalis nanchuanensis. A. Habit. B. Flower with a lower bract. C1. Low bract. C2–C4. Upper bracts. D. Capsule. E. Stigma. F. Seed. Drawn from YSR 8423.
FIGURE 3 in A new species of Bracon (Braconidae: Braconinae) from central Mexico, probable parasitoid of a weevil that feeds on roots of Argemone ochroleuca Sweet (Papaveraceae)
FIGURE 3. Habitus of B. hidalguensis sp. nov. A) paratype male, lateral view; B) holotype female, dorsal view.
FIGURE 2 in A new species of Bracon (Braconidae: Braconinae) from central Mexico, probable parasitoid of a weevil that feeds on roots of Argemone ochroleuca Sweet (Papaveraceae)
FIGURE 2. Bracon hidalguensis sp. nov., holotype female, except G paratype male. A) mesoscutum, dorsal view; B) head, frontal view; C) head and mesosoma, lateral view; D) head and mesosoma, dorsal view; E) first metasomal tergite, dorsal view; F) second and third metasomal tergites, dorsal view; G) mesosoma, lateral view; H) fore and hind wings.
FIGURE 1. A in A new species of Bracon (Braconidae: Braconinae) from central Mexico, probable parasitoid of a weevil that feeds on roots of Argemone ochroleuca Sweet (Papaveraceae)
FIGURE 1. A) Argemone ochroleuca (Papaveraceae); B) larva of C. leucophaeus boring the epidermis of roots of A. ochroleuca. C) Adult of C. leucophaeus; D) larva of C. leucophaeus with an undetermined ectoparasitic larva.
FIGURE 1 in Corydalis mianxianensis (Papaveraceae), a new species from limestone cliffs in central China, and notes on the Shaanxi record of C. saxicola G.S.Bunting
FIGURE 1. Habitat, habit and morphology of Corydalis mianxianensis (D. Wang et al. 210003). A. habitat; B. inflorescence; C. fruits; D–G. flower showing the lateral view (D), front view (E), adaxial view of flower showing the apex of upper petal (F) and abaxial view of flower showing the apex of lower petal (G).
Data from: Response of ants to human-altered habitats with reference to seed dispersal of Corydalis giraldii Fedde (Papaveraceae)
Open the record for dataset details and reuse information.
Data from: A new infrageneric classification of Meconopsis (Papaveraceae) based on a well-supported molecular phylogeny
Open the record for dataset details and reuse information.
Corydalis austroshaanxiensis sp. nov. (Papaveraceae), a neglected species from Shaanxi, China, and a revised circumscription for C. pseudoincisa C.Y. Wu, Z.Y. Su & Lidén
Open the record for dataset details and reuse information.
Data from: Assignment of homoeologues to parental genomes in allopolyploids for species tree inference, with an example from Fumaria (Papaveraceae)
There is a rising awareness that species trees are best inferred from multiple loci while taking into account processes affecting individual gene trees, such as substitution model error (failure of the model to account for the complexity of the data) and coalescent stochasticity (presence of incomplete lineage sorting). Although most studies have been carried out in the context of dichotomous species trees, these processes operate also in more complex evolutionary histories involving multiple hybridizations and polyploidy. Recently, methods have been developed that accurately handle incomplete lineage sorting in allopolyploids, but they are thus far restricted to networks of diploids and tetraploids. We propose a procedure that improves on this limitation by designing a workflow that assigns homoeologues to hypothetical diploid ancestral genomes prior to genome tree construction. Conflicting assignment hypotheses are evaluated against substitution model error and coalescent stochasticity. Incongruence that cannot be explained by stochastic mechanisms needs to be explained by other processes (e.g., homoploid hybridization or paralogy). The data can then be filtered to build multilabeled genome phylogenies using inference methods that can recover species trees, either in the face of substitution model error and coalescent stochasticity alone, or while simultaneously accounting for hybridization. Methods are already available for folding the resulting multilabeled genome phylogeny into a network. We apply the workflow to the reconstruction of the reticulate phylogeny of the plant genus Fumaria (Papaveraceae) with ploidal levels ranging from 2x to 14x. We describe the challenges in recovering nuclear NRPB2 homoeologues in high ploidy species while combining in vivo cloning and direct sequencing techniques. Using parametric bootstrapping simulations we assign nuclear homoeologues and chloroplast sequences (four concatenated loci) to their common hypothetical diploid ancestral genomes. As these assignments hinge on effective population size assumptions, we investigate how varying these assumptions impacts the recovered multilabeled genome phylogeny.
Fig. 1 in Lectotypification of Papaver cambricum L. (Papaveraceae)
Fig. 1. – Lectotype of Papaver cambricum L. [Herb. Burser IX: 45, UPS-BURSER] [© Herbarium UPS. Reproduced with permission]
Fig. 1 in The discovery and naming of Papaver orientale s.l. (Papaveraceae) with notes on its nomenclature and early cultivation
Fig. 1. – Papaver pseudo-orientale (Fedde) Medw. Pen-and-ink drawing by C. Aubriet, 1701. [MS 78, fig. 198; © Muséum national d'Histoire naturelle, Bibliothèque centrale, Paris]
Figure 6 from: Chen J-T, Kuang T-H, Huang X-H, Zhang X-J, Sun H, Deng T (2022) Taxonomic identity of Corydalis lidenii (Papaveraceae). PhytoKeys 190: 35-45. https://doi.org/10.3897/phytokeys.190.80724
Figure 6 Distribution of Corydalis microflora. (Notes: the red dot represents type locality of C. lidenii and the black dot represents paratype locality of C. lidenii, the red triangle represents the type locality of C. microfloraa the Box-plot of comparison of spur/inner petals of C. lidenii and C. microflorab the comparison of spur and inner petals of C. lidenii and C. microflora).
Figure 5 from: Chen J-T, Kuang T-H, Huang X-H, Zhang X-J, Sun H, Deng T (2022) Taxonomic identity of Corydalis lidenii (Papaveraceae). PhytoKeys 190: 35-45. https://doi.org/10.3897/phytokeys.190.80724
Figure 5 Corydalis microflora at the type locality of C. lideniiA capsule B longitudinal section of capsule C seeds with elaiosome D flower and nectary (arrow) E nectary F sepal G stigma (profile and edge).
Figure 1 from: Chen J-T, Kuang T-H, Huang X-H, Zhang X-J, Sun H, Deng T (2022) Taxonomic identity of Corydalis lidenii (Papaveraceae). PhytoKeys 190: 35-45. https://doi.org/10.3897/phytokeys.190.80724
Figure 1 Photographs of the types of Corydalis lideniiA lectotype-CDBI149418, designated here! B isolectotype-CDBI149417 C, D paratypes-SM.
Figure 4 from: Chen J-T, Kuang T-H, Huang X-H, Zhang X-J, Sun H, Deng T (2022) Taxonomic identity of Corydalis lidenii (Papaveraceae). PhytoKeys 190: 35-45. https://doi.org/10.3897/phytokeys.190.80724
Figure 4 Corydalis microflora at the type locality of C. lideniiA habitat and flowering branch B flowering branch C small axillary raceme and flower D leaf adaxial surfaces E leaf abaxial surfaces F, G rhizome with small crowded fleshy scales at base H–J inflorescence and flowers K fruiting raceme.
FIGURE 1 in Corydalis nanchuanensis (Papaveraceae), a new species from Chongqing, China
FIGURE 1. Holotype sheet of Corydalis nanchuanensis.
FIGURE 5 in Corydalis nanchuanensis (Papaveraceae), a new species from Chongqing, China
FIGURE 5. Distribution of Corydalis nanchuanensis (●).
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.