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14 results for “Mallotus”
Herbarium specimen image of Mallotus philippinensis Müll.Arg., part of the collection of Botanic Garden and Botanical Museum Berlin
Part of a training dataset of scanned herbarium specimens. The data paper and a summary landing page will be published on Zenodo as it gets published.<br><br>Content of this deposition:<br><br>- A JSON-LD datafile listing the label data associated with this herbarium specimen. The Darwin and Dublin Core data standards are used for most values.<br>- A JPEG image file of the scanned herbarium sheet.<br>- A lossless TIFF image from which the JPEG image has been derived.<br>- Two PNG files containing segmented image overlays of the scanned herbarium sheet. The _all extension indicates that all labels, color charts and pieces of text have received a different color against a black background color. The _sel extension indicates that these elements are white if they're barcode labels, yellow if they're color charts and red if they're anything else.
Herbarium specimen image of Mallotus paniculatus Müll.Arg., part of the collection of Botanic Garden and Botanical Museum Berlin
Part of a training dataset of scanned herbarium specimens. The data paper and a summary landing page will be published on Zenodo as it gets published.<br><br>Content of this deposition:<br><br>- A JSON-LD datafile listing the label data associated with this herbarium specimen. The Darwin and Dublin Core data standards are used for most values.<br>- A JPEG image file of the scanned herbarium sheet.<br>- A lossless TIFF image from which the JPEG image has been derived.<br>- Two PNG files containing segmented image overlays of the scanned herbarium sheet. The _all extension indicates that all labels, color charts and pieces of text have received a different color against a black background color. The _sel extension indicates that these elements are white if they're barcode labels, yellow if they're color charts and red if they're anything else.
FIG. 3 in Diversity of Nodal Structure in Mallotus nudiflorus (L.) Kulju & Welzen (Euphorbiaceae) - insight into the evolution of "Howard's Split-Lateral"
FIG. 3. — Transections as diagrammatic illustrations of nodal vasculature pattern and probable steps of evolutionary developmental stages based on Sinnott (1914): A-C, E, development of unilacunar node from trilacunar through approximation of lateral gaps and traces; A, D, E, development of unilacunar node from trilacunar through abolition of lateral gaps and traces; A, J, development of mutilacunar node from trilacunar through amplification of gaps and traces; F-I,Development of "split-laterals" from basic trilacunar in opposite leaves: F, typical trilacunar three trace situation for both the opposite leaves; G, approximation of lateral gaps and traces, note tiny part of parent vascular cylinder between the traces; H, two lateral traces within a single gap; I, Typical "split-lateral" situa- tion, note the movement of "split-lateral" after division; A-E, J, after Sinnott (1914); F-I, present study. Abbreviations: see Figure 1.
FIG. 2 in Diversity of Nodal Structure in Mallotus nudiflorus (L.) Kulju & Welzen (Euphorbiaceae) - insight into the evolution of "Howard's Split-Lateral"
FIG. 2. — Nodal configurations of Mallotus nudiflorus (L.) Kulju & Welzen (continued): A-C, left side with a single trace and right side with a "split-lateral", note the independent origin of median trace in each case; D-F, right side of one of the three different nodes with two lateral traces, note gradual reduction of parent stelar part between the traces and approximation of traces; single row of xylem of parent stele in F. Abbreviations: see Fig.1. Scale bars: A-C, 3 mm; D-F, 0.5 mm.
FIG. 1 in Diversity of Nodal Structure in Mallotus nudiflorus (L.) Kulju & Welzen (Euphorbiaceae) - insight into the evolution of "Howard's Split-Lateral"
FIG. 1. — Nodal configurations of Mallotus nudiflorus (L.) Kulju & Welzen: A, trilacunar three traces for both cotyledonary leaves; B, trilacunar three traces for first alternate green leaves in seedling; C, D, typical trilacunar three traces situation for both the oppo- site leaves; E-G, left side with two separate lateral traces and right side with a "split-lateral"; H-J, left side with two separate traces within a single gap and right side with very closely approximated two traces with separate gaps, note the tiny part of parent vascular cylinder in between the traces (I); K-M, left side with two separate traces within a single gap and right side with a "split-lateral" (note sclerenchymatous layer absent); N-P; typical "split-lateral" situation for both the opposite leaves, note initiation of division of "splitlaterals" (O). Abbreviations: lt, lateral trace; mt, median trace; pc, parent vascular cylinder, sl, split lateral; p, phloem; s, sclerenchyma; x, xylem. Scale bars: A, B, 1 mm; C, D, 5 mm; E-P, 4 mm.
Data from: Seasonal dynamics of spatial distribution and overlap between Northeast Arctic cod (Gadus morhua) and capelin (Mallotus villosus) in the Barents Sea
The trophic link between cod (Gadus sp.) and capelin (Mallotus sp.) is important in many panarctic ecosystems. Since the early 2000s, the Northeast Arctic cod stock (G. morhua) in the Barents Sea has increased greatly, and the sea has been exceptionally warm. Such changes have potentially large effects on species distributions and overlap, which in turn could affect the strength of species interactions. Due to its high latitude location, the Barents Sea has strong seasonal variation in physical conditions and interactions. To study drivers of variation in cod-capelin overlap, we use data from two annual surveys run in winter and in autumn of 2004-2015. We first model winter and autumn spatial distributions of mature and immature cod and capelin. We then calculate overlap from model predictions on a grid with similar spatial resolution as the survey data. Our approach allowed us to interpret changes in overlap as species-specific effects of stock size and temperature, while accounting for sampling variation due to sampling time and depth. We found that during winter both species expanded their distribution in response to increased stock sizes, but how strongly and where the expansion occurred varied. The effect of temperature on distributions varied in space, and differed for cod and capelin and for different components of the two species. The results for autumn were clearer and more consistent. Both species expanded their distribution areas as their stock sizes increased. A positive effect of temperature was found in the north-eastern Barents Sea, where temperatures were lowest at the start of the study. Overlap increased and shifted north-eastwards during the study period and remained high despite a decline in the capelin stock. The increased overlap during autumn could mainly be attributed to the shift in cod distribution with increased cod stock biomass.
FIGURE 3 in Typification of Adelia resinosa, the basionym of Mallotus resinosus (Euphorbiaceae), and its three new synonyms from India
FIGURE 3. Lectotype of Mallotus beddomei (© The Board of Trustees of the RBG, Kew). Available at: http://specimens.kew.org/ herbarium/K000252831
FIGURE 2 in Typification of Adelia resinosa, the basionym of Mallotus resinosus (Euphorbiaceae), and its three new synonyms from India
FIGURE 2. Lectotype of Rottlera aureopunctata (© The Board of Trustees of the RBG, Kew). Available at: http://specimens.kew.org/ herbarium/K000247008
Data from: Historical introgression and the role of selective vs. neutral processes in structuring nuclear genetic variation (AFLP) in a circumpolar marine fish, the capelin (Mallotus villosus)
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Data from: Seasonal dynamics of spatial distribution and overlap between Northeast Arctic cod (Gadus morhua) and capelin (Mallotus villosus) in the Barents Sea
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Copy Number variants in Mallotus villosus
<p>Taking advantage of recent developments allowing CNV analysis from RAD-seq data (<a class="nova-e-link nova-e-link--color-inherit nova-e-link--theme-decorated" href="https://www.researchgate.net/deref/http%3A%2F%2Fdx.doi.org%2F10.1111%2Fmec.15565?_sg%5B0%5D=-uwA9TZisRRXnspI5ElYUaPv2ChLuHLDZPIJZABoML2rc-geS2mVnZVIt2u4FAB6_SPD-DeRxtzyN3RjHivkmfmvEg.JqPMUYewJwfNoZvoALtl54UTEL4BWYI0NA87y3HrK16wm8cRVOG0c0owiV4QoaSysHfAZCLPkLmn-UaqCdolJQ">10.1111/mec.15565</a>), we investigated how variation in fitness-related traits, local environmental conditions and demographic history are associated with CNVs, and how subsequent copy number variation drives population genetic structure in a marine fish, the capelin (<i>Mallotus villosus</i>). We collected 1536 DNA samples from 35 sampling sites in the north Atlantic Ocean and identified 6620 putative CNVs. Raw sequencing data for GBS libraries have been published in a previous study (Cayuela et al. 2020, <a class="nova-e-link nova-e-link--color-inherit nova-e-link--theme-decorated" href="https://www.researchgate.net/deref/http%3A%2F%2Fdx.doi.org%2F10.1111%2Fmec.15499?_sg%5B0%5D=OGdqMkvPArx5ICrgLrdT_ifFufXzoOZp0J7gLQEctL4EWpJv-h9FK8yFaom_h68N368lpxVYXRREN9BRpAi7lH0n8A.ylPnOWuObAEr1NJn9bzfYxNNAAwvYDvN0jDBR05xnfdW8Azf-PmnI7jDZFhecO1Kt1aTdFuxG0Yr3ff2e10XCg">10.1111/mec.15499</a>) and are available under accession no. PRJNA631144. Here, we provide the files of normalized read depth for the 6620 putative CNVs and environmental data used in our CNV analyses.</p>
FIGURE 1 in Typification of Adelia resinosa, the basionym of Mallotus resinosus (Euphorbiaceae), and its three new synonyms from India
FIGURE 1. Neotype of Adelia resinosa. Available at: https://collections.nmnh.si.edu/search/botany/
Copy Number variants in Mallotus villosus
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Gene-metabolite network analysis revealed tissue specific accumulation of therapeutic metabolites in Mallotus japonicus
GEO Series GSE179338. Mallotus japonicus. 7 samples. Type: Expression profiling by high throughput sequencing.
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