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53 results for “Structure Discovery”
Data for "Beyond theory driven discovery: hot random search and datum derived structures"
<p>Data associated with "Beyond theory driven discovery: hot random search and datum derived structures"</p> <p>contributed to: FD 2025: Data-driven discovery in the chemical sciences</p> <p><code>.</code><br><code>├── README</code><br><code>├── b</code><br><code>│ ├── collection</code><br><code>│ ├── eddp</code><br><code>│ ├── test-105-111</code><br><code>│ ├── test-192</code><br><code>│ └── test-56</code><br><code>├── c</code><br><code>│ ├── collection</code><br><code>│ ├── collection-0.5eV</code><br><code>│ ├── collection-1eV</code><br><code>│ ├── manifest-dia</code><br><code>│ ├── test-dia-25-48</code><br><code>│ ├── test-dia-8-24</code><br><code>│ └── test-dia-nosymm-8</code><br><code>└── pyrope</code><br><code> ├── airss</code><br><code> ├── collection-gamma-relax</code><br><code> ├── manifest</code><br><code> └── test</code></p> <p><br>C J Pickard, 2024<br>Cambridge</p>
FIGURE 3. Marskea cuspidata leaf structure. A, E, F in Discovery of isolated leaves of Marskea (Taxaceae) in the Middle Jurassic sediments of Irkutsk Basin (East Siberia, Russia)
FIGURE 3. Marskea cuspidata leaf structure. A, E, F. Cells of the stomatal bands. Flat papillae on periclinal walls are shown by arrows. A. Specimen no. 19-11/8-3. E. External view on SEM, specimen no. 19-11/7 holotype. F. Specimen no. 19-11/7 holotype. B. Lower surface of the epidermis, external view on SEM, specimen no. 19-11/7 holotype. C. Cells of the marginal non-stomatal zone (left) and the stomatal band (right), internal view on SEM, specimen no. 19-11/9-1. D. Cells of the marginal non-stomatal zone, external view on SEM, specimen no. 19-11/7 holotype. G, J, M. Stomatal complexes with proximal papillae. G. Specimen no. 19-11/7 holotype. J. External view on SEM, specimen no. 19-11/7 holotype. M. Specimen no. 19-11/8. H, I, K. Stomatal complexes with cuticular ring around stomatal pit. H. Specimen no. 19-11/8. I. Specimen no. 19-11/6. K. External view on SEM, specimen no. 19-11/7 holotype. L. Adjacent stomatal complexes, specimen no. 19-11/6. N, O. Stomatal complexes, internal view on SEM, specimen no. 19-11/7 holotype.
FIGURE 2. Marskea cuspidata leaf structure. A. Leafs and fragments thereof. A in Discovery of isolated leaves of Marskea (Taxaceae) in the Middle Jurassic sediments of Irkutsk Basin (East Siberia, Russia)
FIGURE 2. Marskea cuspidata leaf structure. A. Leafs and fragments thereof. A*. Specimen no. 19-11/7 holotype. B. Upper surface of the epidermis, specimen no. 19-11/7 holotype. C. Cells of the upper epidermis, specimen no. 19-11/4. D. Cells of the upper epidermis, internal view on SEM, specimen no. 19-11/7 holotype. E. Cells of the upper epidermis, specimen no. 19-11/9-1. Flat papillae on periclinal walls are shown by arrows. F, G. Lower surface of the epidermis with two stomatal bands, specimen no. 19-11/7 holotype. H. Cells of lower surface between stomatal band and leaf edge, specimen no. 19-11/7 holotype. I. Fragment of lower surface with stomatal band and central non-stomatal zone. A horizontal row of adjacent stomatal complexes is shown by arrow, specimen no. 19-11/7 holotype.
FIGURE 5. Macaranga esseriana W.N.Takeuchi. Pistillate structures. A in Floristic discoveries from the LNG Pipeline in Papua New Guinea: Macaranga esseriana sp. nov. (Euphorbiaceae), and noteworthy records for twelve taxa from the southern provinces
FIGURE 5. Macaranga esseriana W.N.Takeuchi. Pistillate structures. A, anthetic inflorescence; B, submature inflorescence with sheathing basal bracts. A–B from Takeuchi et al. 23531.
Data from: Structural variation and its potential impact on genome instability: novel discoveries in the EGFR landscape by long-read sequencing
<p>Studies of structural variation (SV) have been challenging due to technological contraints. With the advent of third generation (long-read) sequencing technology, exploration of longer stretches of DNA not easily examined previously has been made possible. In the present study, we utilized third generation (long-read) sequencing techniques to examime SV in the <em>EGFR </em>landscape of four haplotypes derived from two human samples. We analyzed the <em>EGFR</em> gene and its landscape (+/- 500,000 base pairs) using this sequencing approach and were able to identify regions of non-coding DNA which had relatively high similarity to the most common activating <em>EGFR</em> mutation in non-small cell lung cancer. We discovered that reverse complements to the exon 19 deletion mutation which had at least 60% homology to the <em>EGFR</em> exon 19 canonical deletion and were within ± 421,000 bp of the deletion varied across the five haploid genomes examined (4 patient landscapes and hg38). Although the sample size is limited in this study, the estimated variation observed in genomic stability between the five <em>EGFR</em> haplotypes examined is novel and encourages further work to examine structural variation in larger cohorts.</p>
FIGURE 4. Factor structure graph for Philantomba monticola, P. maxwelli and P in Discovery of a new duiker species (Bovidae: Cephalophinae) from the Dahomey Gap, West Africa
FIGURE 4. Factor structure graph for Philantomba monticola, P. maxwelli and P. walteri sp. n. (OTU30 [Benin+Togo]).
Fig. 8 in HSQC-based small molecule accurate recognition technology discovery of diverse cytotoxic sesquiterpenoids from Elephantopus tomentosus L. and structural revision of molephantins A and B
Fig. 8. (A)The structural revision of molephantin A and B (B) Observed inconsistent NMR data of 9–12.
Fig. 1 in HSQC-based small molecule accurate recognition technology discovery of diverse cytotoxic sesquiterpenoids from Elephantopus tomentosus L. and structural revision of molephantins A and B
Fig. 1. SMART based prioritization of the isolation and the SMART result for Fr. B2 (top 8 structures based on cosine similarity score).
Structure-guided discovery of potent antifungals that prevent Ras signaling by inhibiting protein farnesyltransferase
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Data from: Structural variation and its potential impact on genome instability: novel discoveries in the EGFR landscape by long-read sequencing
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Data from: High-throughput sequencing of Bacillus anthracis in France: investigating genome diversity and population structure using whole-genome SNP discovery
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Discovery of thermostable fluorescently responsive glucose biosensors by structure-assisted function extrapolation
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ChEMBL Data for 'Achieving Well-Informed Decision-Making in Drug Discovery: A Comprehensive Calibration Study using Neural Network-Based Structure-Activity Models'
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Fig. 6. Screening the study area for habitat structures, 6.VI.2020 in The northernmost discovery of Aradus brenskei (Reuter, 1884) (Heteroptera: Aradidae). Considerations on the local distribution and the habitat preferences of this new Belgian species following a nine-months field survey
Fig. 6. Screening the study area for habitat structures, 6.VI.2020. © Brecht Verkempinck.
Fig. 7 in HSQC-based small molecule accurate recognition technology discovery of diverse cytotoxic sesquiterpenoids from Elephantopus tomentosus L. and structural revision of molephantins A and B
Fig. 7. The ORTEP drawing of 9–11.
Fig. 6 in HSQC-based small molecule accurate recognition technology discovery of diverse cytotoxic sesquiterpenoids from Elephantopus tomentosus L. and structural revision of molephantins A and B
Fig. 6. Experimental and calculated ECD spectra of 2, 3, 5, 8, and 12.
Fig. 4 in HSQC-based small molecule accurate recognition technology discovery of diverse cytotoxic sesquiterpenoids from Elephantopus tomentosus L. and structural revision of molephantins A and B
Fig. 4. Key NOESY correlations of 1–12.
Fig. 3. Key HMBC and 1 H– 1 H in HSQC-based small molecule accurate recognition technology discovery of diverse cytotoxic sesquiterpenoids from Elephantopus tomentosus L. and structural revision of molephantins A and B
Fig. 3. Key HMBC and 1 H– 1 H COSY correlations of 1–12.
Fig. 2. Compounds 1–15 isolated from E. tomentosus L in HSQC-based small molecule accurate recognition technology discovery of diverse cytotoxic sesquiterpenoids from Elephantopus tomentosus L. and structural revision of molephantins A and B
Fig. 2. Compounds 1–15 isolated from E. tomentosus L.
Data from: Single nucleotide polymorphism discovery via genotyping by sequencing to assess population genetic structure and recurrent polyploidization in Andropogon gerardii
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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.