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2,214 results for “Walls”
Supplementary material 1 from: Groom Q, Desmet P, Reyserhove L, Adriaens T, Oldoni D, Vanderhoeven S, Baskauf SJ, Chapman A, McGeoch M, Walls R, Wieczorek J, Wilson JR.U, Zermoglio PFF, Simpson A (2019) Improving Darwin Core for research and management of alien species. Biodiversity Information Science and Standards 3: e38084. https://doi.org/10.3897/biss.3.38084
Distinct values for dwc:establishmentMeans and their frequency from observations on the Global Biodiversity Information Facility on 27 February 2017. Taken from GitHub repository of the Darwin Core Questions & Answers Site (https://github.com/tdwg/dwc-qa/tree/master/data/GBIFDistinctValues).
Supplementary material 2 from: Groom Q, Desmet P, Reyserhove L, Adriaens T, Oldoni D, Vanderhoeven S, Baskauf SJ, Chapman A, McGeoch M, Walls R, Wieczorek J, Wilson JR.U, Zermoglio PFF, Simpson A (2019) Improving Darwin Core for research and management of alien species. Biodiversity Information Science and Standards 3: e38084. https://doi.org/10.3897/biss.3.38084
A tab-delimited file mapping values (synonyms; orthographic and language variations) found in Darwin Core dwc:establishmentMeans to a controlled vocabulary.
Analysis of heritage stones and model wall paintings by pulsed laser excitation of Raman, laser-induced fluorescence and laser-induced breakdown spectroscopy signals with a hybrid system
<p>Laser based analysis of artworks benefits from the development of hybrid instruments where a single laser source serves to excite fluorescence, Raman and laser induced breakdown spectroscopy (LIBS) signals. Laser induced fluorescence (LIF) and Raman spectra provide information at the molecular level, while LIBS serves for identifying the elemental composition of the substrate under consideration. Studies using several excitation wavelengths on different types of materials and substrates help to develop and establish these hybrid systems for the conservation of artworks.</p>
Mutual control of coherent spin waves and magnetic domain walls in a magnonic device
<p>Data shown in the main text and the supplementary materials of Mutual control of coherent spin waves and magnetic domain walls in a magnonic device.</p>
A fungal endophyte induces local cell-wall mediated resistance in wheat roots against take-all disease
<p>Datasets to accompany 'A fungal endophyte induces local cell-wall mediated resistance in wheat roots against take-all disease', <span>DOI: 10.3389/fpls.2024.1444271.</span></p> <p><span>These are datasheet 1 and table S2.</span></p> <p> </p>
FIGURE 1. A-C. Fagraea coromandelina Wight, D-F. Fagraea obovata Wall. A and D in Notes on taxonomic identity and typification of Fagraea coromandelina (Gentianaceae)
FIGURE 1. A-C. Fagraea coromandelina Wight, D-F. Fagraea obovata Wall. A and D. Leaves; B and E. Flowers; C and F. Fruits.
FIGURE 1 in Onosma dolichoutum W.T.Wang (Boraginaceae), a new synonym of O. bracteatum Wall.
FIGURE 1. (A) lectotype of Onosma bracteatum Wall. (K001110354); (B) O. bracteatum collected from Jilong. (PE01961598); (C) abaxial leaf surface with three veins; (D) inflorescence.
FIGURE 6. Labidodemas semperianum Selenka, 1867. MZB Hol.385. Ossicles dorsal body wall, A in Sea cucumbers of the genus Labidodemas (Holothuroidea: Holothuriida: Holothuriidae) from Indonesia, with the description of a new species and a revised key to the genus
FIGURE 6. Labidodemas semperianum Selenka, 1867. MZB Hol.385. Ossicles dorsal body wall, A: tables; B: pseudo-button. Ossicles ventral body wall, C: tables; D: buttons.
Figure 2 in Rediscovery of Ilex excelsa (Wall.) Voigt (Aquifoliaceae) in Western Himalaya after 64 years
Figure 2. Ilex excela (Wall.) Voigt: (A) habit, (B) twig showing leaves and floral buds, (C) mature leaf, (D) floral buds, (E) male inflorescence, (F) mature fruits.
Effect of the overexpression of the GGP1 gene on cell wall remodelling and redox state in the tomato fruit
<p> </p> <p>The deposited data were collected as a part of the studies entitled ‘Effect of the overexpression of the GGP1 gene on cell wall remodelling and redox state in the tomato fruit’.</p> <p>The research is the result of cooperation between institutions: </p> <ul> <li>Group for Plant Molecular Biology, Institute of Molecular Genetics and Genetic Engineering (IMGGE) at the University of Belgrade (Serbia),</li> <li>Institute of Agrophysics, Polish Academy of Sciences (Poland),</li> <li>Department of Pharmaceutical Sciences, at the Aristotle University of Thessaloniki (Greece).</li> </ul> <p>The use of advanced microscopic techniques (immunolabeling method), methods of molecular biology (Western blotting), and biochemistry (HPLC, measurement of enzyme activities) allows for expanding knowledge in the field of plant cell physiology and horticulture. </p> <p> The attached files have been compressed to *.zip format. The dataset consists of the following files:</p> <p>A_1_Antioxidant enzymes activities</p> <p>A_2_CLSM imaging</p> <p>A_3_Native polyacrylamide electrophoresis of antioxidant enzymes</p> <p>A_4_Phenolic components in the fruit tissue</p> <p>A_5_Western Blotting with quantitative analysis</p>
The cell wall changes as a result of the disturbed presence of AGPs by Yariv reagent addition.
<p>The deposited data were collected as a part of the studies entitled ‘How does the structure of the cell wall change as a result of the disturbed presence of AGPs by Yariv reagent addition?’</p> <p>The research is the result of cooperation between institutions: Institute of Agrophysics, Polish Academy of Sciences (Poland), and Department of Chemistry, Brown University (USA). The use of advanced microscopic techniques (immunolabeling method), methods of molecular biology (Western blotting, ELISA) allows for expanding knowledge in the field of plant cell physiology and biochemistry. </p> <p> </p> <p>The attached files have been compressed to *.zip format. The dataset consists of the following files:</p> <p>A_1_CLSM imaging</p> <p>A_2_ELISA</p> <p>A_3_Western blotting.</p>
FIGURE 3. Gaultheria fragrantissima Wall. A in Gaultheria stapfiana (Ericaceae), a species to be recognized: insights from morphology, leaf anatomy and pollen morphology
FIGURE 3. Gaultheria fragrantissima Wall. A. habit; B. flower; C–D. bracts; E–F. bracteoles; G–H. calyx lobes; I. corolla lobe; J–K. stamens; L. pistil; M. ovule; N–O. ovary (t. s.); P–Q. fruits; R. seeds. — Scale bars: A = 1 cm; B, P = 2 mm; C–H, J–L, N, O = 1 mm; Q = 5 mm (A–R: drawn from S. Panda 30701).
FIGURE 1. Chusquea matlatzinca. A. Branch complement showing extravaginal branching. B. Culm internode showing hollow culm and thick walls. C. Bud complement. D. Culm with culm leaves. E. Foliage leaf complement. F. Foliage leaf ligular area, abaxial view. G in Two new species of Chusquea (Poaceae: Bambusoideae: Bambuseae) from Mexico, one of them morphologically unusual, and a key to the Mexican sections of Chusquea
FIGURE 1. Chusquea matlatzinca. A. Branch complement showing extravaginal branching. B. Culm internode showing hollow culm and thick walls. C. Bud complement. D. Culm with culm leaves. E. Foliage leaf complement. F. Foliage leaf ligular area, abaxial view. G. Detail of the tessellate venation pattern in the foliage leaf blades. H. Culm leaves abaxial view showing hispid indument. (based on Ruiz-Sanchez & Álvarez 405). Drawn by Alfonso Barbosa.
FIGURE 5. Anthoceros subtilis Steph. A. Capsule epidermis with thin walls and stomata. B. SEM micrograph showing sporophyte fragment with tetrads and pseudoelaters. C in A revision of the genus Anthoceros (Anthocerotaceae, Anthocerotophyta) in China
FIGURE 5. Anthoceros subtilis Steph. A. Capsule epidermis with thin walls and stomata. B. SEM micrograph showing sporophyte fragment with tetrads and pseudoelaters. C. Pseudoelaters with thin-walls and irregular thickenings. D. SEM micrograph showing proximal face of spore which is spinulose and has distinct trilete mark. E. SEM micrograph showing distal spore face which is papillate to spinulose with spines often united at the base. All from R.-H. Dai PX95106 (GACP). Scale bars: A, C=50 µm; B, D, E=10 µm.
Wall Three Fabrication Process
<p>This film contains video documentation of the demonstrator "Wall Three" fabrication</p> <p> </p> <p>This file is part of a doctoral thesis appendix:</p> <p>Scherer, A.L. (2021). "<em>CONCRETE FORM[ing]WORK: </em><em>Design, Fabrication, Simulation & Correlation of Parametric Patterned Flexible Formwork and Concrete" </em>[Doctoral Thesis, KTH Royal Institute of Technology, School of Architecture]</p>
Cell wall thickness and composition are involved in photosynthetic limitation
<p><span><span><span><span><span><span><span><span><span><span><span>The key role of cell walls in setting mesophyll conductance to CO<sub>2</sub> (<i>g</i><sub>m</sub>) and, consequently, photosynthesis, is reviewed. First, the theoretical properties of cell walls that can affect <i>g</i><sub>m</sub> are presented. Then, we focus on cell wall thickness (<i>T</i><sub>cw</sub>) reviewing empirical evidence showing that <i>T</i><sub>cw</sub> varies strongly among species and phylogenetic groups in a way that correlates with <i>g</i><sub>m</sub> and photosynthesis i.e. the thicker the mesophyll cell walls, the lower <i>g</i><sub>m</sub> and photosynthesis. Potential interplays of <i>g</i><sub>m</sub>, <i>T</i><sub>cw</sub>, dehydration tolerance and hydraulic properties of leaves are also discussed. Dynamic variations of <i>T</i><sub>cw</sub> in response to the environment and their implications in the regulation of photosynthesis are discussed, and recent evidence suggesting an influence of cell wall composition on <i>g</i><sub>m</sub> are presented. We then propose a hypothetical mechanism for the influence of cell walls on photosynthesis, combining the effects of thickness and composition, particularly pectins. Finally, we discuss the prospects for using biotechnology for enhancing photosynthesis by means of altering cell wall-related genes.</span></span></span></span></span></span></span></span></span></span></span></p>
Google Earth trace and GPS coordinates of Mongolian Great Wall
<p>Google Earth trace and GPS coordinates of Mongolian Great Wall.</p>
FIGURE 1. Female genitalia posterior wall. A in Collaria columbiensis Carvalho, 1984, a newly recognized synonym of Collaria scenica (Stal, 1859) (Hemiptera: Heteroptera: Miridae)
FIGURE 1. Female genitalia posterior wall. A—Collaria scenica (redrawn from Carvalho & Fontes, 1981); B— Collaria columbiensis (paratype specimen digital photo by Gonzalo Abril Ramírez); C—median lobe of Collaria columbiensis (paratype specimen digital photo by Gonzalo Abril Ramírez); D—support plate of anterior gonapohyses (redrawn from Carvalho, 1984).
Figure 6 in Morphology of the Podarcis wall lizards (Squamata: Lacertidae) from the Iberian Peninsula and North Africa: patterns of variation in a putative cryptic species complex
Figure 6. Observed frequencies for the different character states of the categorical pholidotic characters presenting sufficient variation across the sample examined, and multidimensional scaling (MDS) scatter plot of Manly's overlap index between lineages. White always represents character state 0 and black represents character state 1, except for SL_SUBOC, in which white represents state 4 and black represents state 5. See Table 1 for group codes, Material and methods for variable abbreviations, and Figure 1 for the visual symbols used to represent each lineage.
Figure 5 in Morphology of the Podarcis wall lizards (Squamata: Lacertidae) from the Iberian Peninsula and North Africa: patterns of variation in a putative cryptic species complex
Figure 5. Scatter plots of individuals scores (small symbols) and group means (big symbols) of the first three principal components of variation in continuous pholidotic traits for the mitochondrial lineages examined, considering males (top) and females (bottom) separately. The most highly (+, positively; -, negatively) contributing variables (Table 4) are indicated next to each axis. See Table 1 for group codes and Material and methods for variable abbreviations.
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