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FIGURE 1. Vellozia pyrantha. A. Habit with marcescent and reflexed leaves without recent fire influence. B. Habit after fire and flowering. C. Orange flammable resin. D. Flowers. E. Tepal with three stamens. F. Ovary, transversal cut. G–H. Ovary, longitudinal cut. I–M. Fruits morphology variation. K. Apical slits showing seeds inside the fruit. L in Old for people, new for science: a previously undescribed species of harvested Vellozia (Velloziaceae) endemic to the Chapada Diamantina National Park, Bahia (Brazil)
FIGURE 1. Vellozia pyrantha. A. Habit with marcescent and reflexed leaves without recent fire influence. B. Habit after fire and flowering. C. Orange flammable resin. D. Flowers. E. Tepal with three stamens. F. Ovary, transversal cut. G–H. Ovary, longitudinal cut. I–M. Fruits morphology variation. K. Apical slits showing seeds inside the fruit. L. Longer fruits in population of Morro dos Ventos. N. Seeds.
Phytochemical Screening and Microbial Activity of Essential Oil from Aerial Parts of Murraya paniculata (L.) Orange Jasmine
<p>Phytochemical Screening and Microbial Activity of Essential Oil from Aerial Parts of Murraya paniculata (L.) Orange Jasmine </p>
Phytochemical Screening and Microbial Activity of Essential Oil from Aerial Parts of Murraya paniculata (L.) Orange Jasmine
<p>Phytochemical Screening and Microbial Activity of Essential Oil from <br>Aerial Parts of Murraya paniculata (L.) Orange Jasmine </p>
Chapter 4 Effects of orange peel extract on the oxidative potential and laccase gene expression in Trametes versicolor
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Data from: Effect of winter cold duration on spring phenology of the orange tip butterfly, Anthocharis cardamines
The effect of spring temperature on spring phenology is well understood in a wide range of taxa. However, studies on how winter conditions may affect spring phenology are underrepresented. Previous work on Anthocharis cardamines (orange tip butterfly) has shown population-specific reaction norms of spring development in relation to spring temperature and a speeding up of post-winter development with longer winter durations. In this experiment, we examined the effects of a greater and ecologically relevant range of winter durations on post-winter pupal development of A. cardamines of two populations from the United Kingdom and two from Sweden. By analyzing pupal weight loss and metabolic rate, we were able to separate the overall post-winter pupal development into diapause duration and post-diapause development. We found differences in the duration of cold needed to break diapause among populations, with the southern UK population requiring a shorter duration than the other populations. We also found that the overall post-winter pupal development time, following removal from winter cold, was negatively related to cold duration, through a combined effect of cold duration on diapause duration and on post-diapause development time. Longer cold durations also lead to higher population synchrony in hatching. For current winter durations in the field, the A. cardamines population of southern UK could have a reduced development rate and lower synchrony in emergence because of short winters. With future climate change, this might become an issue also for other populations. Differences in winter conditions in the field among these four populations are large enough to have driven local adaptation of characteristics controlling spring phenology in response to winter duration. The observed phenology of these populations depends on a combination of winter and spring temperatures; thus, both must be taken into account for accurate predictions of phenology.
FIGURE 2. Notothylas yunnanensis T.Peng & R.L.Zhu 1. Thalli with mature orange-red sporophytes. 2. Dorsal thallus epidermis, showing each cell containing a single chloroplast with central pyrenoid. 3 in A revision of the genus Notothylas (Notothyladaceae, Anthocerotophyta) in China
FIGURE 2. Notothylas yunnanensis T.Peng & R.L.Zhu 1. Thalli with mature orange-red sporophytes. 2. Dorsal thallus epidermis, showing each cell containing a single chloroplast with central pyrenoid. 3. Two Nostoc colonies within ventral side of solid thallus in transverse section. 4. Four antheridia with orange chromoplasts in irregularly arranged jacket cells. 5. Transverse section of capsule wall. 6. Dehiscing sporophyte with yellowish spores and columella. 7. Epidermis of capsule wall. 8. Three spores and a pseudoelater. 9. Capsule wall showing slightly thick-walled, sub-quadrate to sub-rectangular, irregularly arranged epidermal cells. All from T. Peng et al. 20120715-7 (holotype HSNU).
FIGURE 1. Begonia xuansonensis. A in Begonia xuansonensis, a new orange-flowered species of Begoniaceae from northern Vietnam
FIGURE 1. Begonia xuansonensis. A. Habit; B, C. Leaf, adaxial and abaxial surfaces; D. Distal part of shoot; arrow indicates stipule; E. Portion of internode; F. Inflorescence. Photos: A, C, F from Nuraliev NUR 1070b by M.S. Nuraliev; B, D, E from Do Van Truong ĐVT 388 by T.V. Do.
FIGURE 2 in Begonia xuansonensis, a new orange-flowered species of Begoniaceae from northern Vietnam
FIGURE 2. Begonia xuansonensis, flowers and fruit. A. Pistillate flower bud, lateral view; B. Pistillate flower, lateral view; C. Pistillate flower, front view; D. Inflorescence branch with two dehisced capsules; note numerous small seeds scattered around; E. Staminate flower bud, lateral view; F. Staminate flower, front view. Photos: A–C, E, F from Nuraliev NUR 1070b by M.S. Nuraliev; D from Do Van Truong ĐVT 388 by T.V. Do.
FIGURE 3 in Begonia xuansonensis, a new orange-flowered species of Begoniaceae from northern Vietnam
FIGURE 3. Morphological comparison of Begonia xuansonensis (A–E) with similar Vietnamese species: B. cathayana (F–H), B. baviensis (I–M), B. rubrosetosa (N–R) and B. saolaensis (S–W). A, F, I, N, S. Habit; B, J, O, T. Inflorescence; C, G, K, P, U. Staminate flower; D, H, L, Q, V. Pistillate flower; E, M, R, W. Ovary/capsule. Photos: A–E, I, K by M.S. Nuraliev; F–H by Y.-M. Shui; J, L, M by T.V. Do; N–R by L.V. Averyanov (LE: LE01088955 http://en.herbariumle.ru/?t=occ&id=65474, LE01088957 http://en.herbariumle. ru/?t=occ&id=65476); S–W by T.A. Le (Shui et al. 2019a).
A chromosome-level genome assembly of the orange wheat blossom midge, Sitodiplosis mosellana Géhin (Diptera: Cecidomyiidae)
<p><span>The Orange wheat blossom midge <i>Sitodiplosis mosellana </i>Géhin (Diptera: Cecidomyiidae), an important insect pest, has caused serious yield losses in most wheat-growing areas worldwide in the past half-century. In this study, we assembled the first chromosomal level genome for <i>S. mosellana</i> using PacBio long-read, Illumina short-read sequences and high-throughput chromatin conformation capture (Hi-C) genome scaffolding techniques. The final genome assembly was 180.69 Mb, with contig and scaffold N50 sizes of 998.71 kb and 44.56 Mb, respectively. Hi-C scaffolding reliably anchored four pseudochromosomes, accounting for 99.67% of the assembled genome. The assembly showed high integrity and quality, with 91.7% of short reads mapped to the genome and a coverage rate of 99.8%. The assembly quality was evaluated using Core Eukaryotic Genes Mapping Approach and Benchmarking Universal Single-Copy Orthologs. In total, 12,269 protein-coding genes were predicted, of which 91% were functionally annotated. Phylogenetic analysis indicated that <i>S. mosellana</i> and its close relative the swede midge <i>Contarinia nasturtii</i> diverged about 32.7 million years ago. <i>S. mosellana</i> genome showed high chromosomal synteny with the genome of <i>Drosophila melanogaster</i> and <i>Anopheles gambiae</i>. The key gene families involved in chemosensation and detoxification of plant secondary chemistry were analysed<i>.</i> The high-quality <i>S. mosellana</i> genome data will provide an invaluable resource for research in a broad range of areas, including the biology, ecology, genetics, and evolution of midges as well as insect-plant interactions and co-evolution, and their relatives more generally.</span></p>
FIGURE 2. Aloiampelos tenuior var. ernstii. A in Aloiampelos tenuior var. ernstii, a new orange-flowered variety of rambling aloe (Asphodelaceae subfam. Alooideae)
FIGURE 2. Aloiampelos tenuior var. ernstii. A. Apical, leafy portion of two stems with inflorescences. B. Close-up of an inflorescence showing the relatively short, orange, green-tipped flowers. C. Note the short peduncle. D. Dr Ernst J. van Jaarsveld (1953–) after whom A. tenuior var. ernstii is named. All photographs by Gideon F. Smith.
FIGURE 1 in Aloiampelos tenuior var. ernstii, a new orange-flowered variety of rambling aloe (Asphodelaceae subfam. Alooideae)
FIGURE 1. Aloiampelos tenuior var. tenuior (A–B) and A. tenuior var. rubriflora (C–D). A. Apical, leafy portion of a stem with inflorescences. B. Close-up of an inflorescence. C. Apical, leafy portion of a stem. D. Close-up of an inflorescence. E. The horticulturally popular cultivar A. tenuior var. tenuior 'Gamtoos' is very floriferous. Photographs by Gideon F. Smith (A–C, E) and Estrela Figueiredo (D).
FIGURE 4 in Texas microfungi: a new species of Corynesporopsis (Xylariales) associated with the trifoliate orange
FIGURE 4. SEM micrographs of Corynesporopsis ponciri (BPI 911238, holotype). a. Loose fascicles of conidiophores on the surface of the host. b. Conidiophore with chain of conidia. c. Conidiophores emerging from substomatal stroma. d. Apex of conidium showing apical pore. Scale bars: a = 20 µm; b–c = 10 µm; d = 2 µm.
FIGURE 3 in Texas microfungi: a new species of Corynesporopsis (Xylariales) associated with the trifoliate orange
FIGURE 3. Corynesporopsis ponciri (BPI 911238, holotype). a–b. Branches of Poncirus trifoliata still attached to the trees showing symptoms of colonization. c–d. Colonies on MEA (after 4 wk at 25 °C) on surface and reverse view. e–f. Conidiophores, conidiogenous cells and conidia. g. Apical loci of conidiogenous cells showing channel-like pores (indicated by black arrows) and conidia. h–i. Conidia in chains. j. Conidiogenous cells in lateral view showing the attenuated and flat apical loci. Scale bars: e–f, h–i = 20 µm; g, j = 10 µm.
FIGURE 1 in Texas microfungi: a new species of Corynesporopsis (Xylariales) associated with the trifoliate orange
FIGURE 1. RAxML phylogenetic tree based on a concatenated dataset of ITS-LSU sequences showing the position of Corynesporopsis ponciri relative to C. acaciae in Xylariales. New strains obtained in this study are in bold. Color boxes are used to highlight taxa discussed in the text: blue for C. ponciri, yellow for C. acaciae, pink for Paravamsapriya ostiolata and green for Catenuliconidia uniseptata. Bootstrap support values ≥70% are shown at the nodes and Bayesian posterior probabilities ≥0.95 are indicated by thickened branches.
CitrusUAT: A Dataset of Orange Citrus sinensis Leaves for Abnormality Detection Using Image Analysis Techniques
<p>This dataset provides a collection of color images taken from the orange leaves of <em>Citrus sinensis</em> (L.) Osbeck species with diseases, nutritional deficiencies, and pest symptoms, proper to develop abnormality detection algorithms based on digital image analysis techniques. The dataset comprises 953 color images divided into 12 classes of orange leaves: Healthy, Huanglongbing (HLB), Greasy spot, Iron deficiency, Magnesium deficiency, Manganese deficiency, Nitrogen deficiency, Zinc deficiency, Texas citrus mite, Red scale, Red scale sequelae, and Citrus leafminer. Each color image was segmented by a thresholding method to obtain a binary mask of the leaf region. Samples were analyzed by the quantitative real-time polymerase chain reaction (qPCR) diagnostic test to detect the <em>Ca.</em> L. asiaticus bacterium that causes HLB disease.</p>
Acute Effect of Orange Juice Mixed With Oat β-Glucan on Bioavailability of Polyphenols in Healthy Individuals
ClinicalTrials.gov study NCT04867655. IPD Sharing: Not stated. Countries: 1. Publications: 1.
Orange Juice Consumption in Patients With Hepatitis C
ClinicalTrials.gov study NCT03026569. IPD Sharing: Not stated. Countries: 1. Publications: 1.
Orange Juice Supplementation in Soccer Players
ClinicalTrials.gov study NCT03209596. IPD Sharing: NO. Countries: 1. Publications: 2.
Effects of 100% Orange Juice on Skin Health in Women
ClinicalTrials.gov study NCT04861623. IPD Sharing: Not stated. Countries: 1. Publications: 5.
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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.