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3,136 results for “Terrestrialization”
Point clouds and QSM for 598 individually scanned tree branches to support "Terrestrial laser scanning to reconstruct branch architecture from harvested branches"
<p>A collection of 598 harvested branches scanned in high resolution using terrestrial LiDAR. Branches were collected from GEM forest plots in Malaysia, Australia and Brazil.</p> <p>Branch nomenclature is <em>PLOT</em>-<em>TREE</em>-B<em>N</em><S or SH> where <em>PLOT </em>codes can be found in the manuscript, <em>N</em> refers to the sample number of branch harvested from a tree, and S and SH refer to sun or shade branch respectivetly.</p> <p>For each branch there are 3 files: </p> <ul> <li>Unfiltered point clouds (raw_pc) are clipped from the original data only and have had no post processing applied</li> <li>Filtered point clouds (filtered_pc) have been filtered according to the steps in the manuscript</li> <li>QSMs were produced using <em>treegraph </em>(<a href="https://doi.org/10.5281/zenodo.5226212">https://doi.org/10.5281/zenodo.5226212</a>)</li> </ul> <p>Polygon File Format (.ply) files can be viewed in software such as CloudCompare.</p> <p>Full details of methods can be found in: Wilkes, P., Shenkin, A., Disney, M., Malhi, Y., Bentley, L. P., & Vicari, M. B. (2021). Terrestrial laser scanning to reconstruct branch architecture from harvested branches. <em>Methods in Ecology and Evolution</em>, 12, 2487–2500. <a href="https://doi.org/10.1111/2041-210X.13709">https://doi.org/10.1111/2041-210X.13709</a></p>
Fig. 6 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 6. Verteilung der wichtigsten physiologischen Pflanzengruppen in den Vegetationsgebieten der Erde [Division of the important physiological plant groups in the vegetation of the earth] (Engler 1882, p. 387).
Fig. 9 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 9. Takhtajan's floristic kingdoms and regions of the earth (Takhtajan 1978, separate map). Red solid and dashed lines indicate the boundaries of kingdoms; green solid and dashed lines indicate the boundaries of the regions.
Fig. 3 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 3. Zoogeographic regions recognised by Wallace (1876a, 1876b) in The Geographical Distribution of Animals.
Fig. 13 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 13. Map of the terrestrial zoogeographic realms and regions of the world (Holt et al. 2013a, fig. 1).
Fig. 2 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 2. Tabula mundi geographico zoologica sistens quadrupedes hucusque notos sedibus suis adscriptos, second edition (Zimmermann 1783). The revised map in the 1783 German edition contains the newly discovered Sandwich Islands (Hawai'i) and the Seychelles, which were absent in the original 1777 edition (Ebach 2015, p. 31; source: National Library of Australia).
Fig. 5 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 5. Outline map of the world, showing the six regions of the geographical distribution of mammals (Sclater and Sclater 1899, map opposite p. 16).
Fig. 1 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 1. Representation of the distribution of mammals according to their zones and provinces by Wagner (1844). The southern boundary of the northern polar province is indicated by a line of a different colour, drawn somewhat further south than the equatorial border of the Arctic fox ([Vulpes] lagopus), although not so far in some places as the reindeer may descend there on their summer migrations. The southern polar province is not included in this map, because it is only in the process of discovery and, according to all previous experience, it does not harbour land mammals (Wagner 1846b, p. 241; Table 1).
Fig. 14 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 14. World biogeographical regionalisation, with indication of the regions and transition zones. (1) Nearctic region; (2) Palearctic region; (3) Neotropical region; (4) Ethiopian region; (5) Oriental region; (6) Andean region; (7) Australian region; (8) Antarctic region; (9) Mexican transition zone; (10) Chinese transition zone; (11) Saharo-Arabian transition zone; (12) South American transition zone; (13) Indo-Malayan transition zone.
Fig. 12 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 12. The six major biogeographical divisions of Kreft and Jetz (2010) are highlighted in the dendrogram with large coloured rectangles: Australian (orange); Neotropical (red); African (brown); Oriental (yellow); Palaearctic (blue); Nearctic (green). The first 30 groups in the dendrogram (small rectangles) and in the map are displayed in different colours. Additionally, the first 60 groups are indicated with black boundaries in the map (Kreft and Jetz 2010, fig 9).
Fig. 7 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 7. Biogeographische Gliederung der Kontinente [Biogeographic Classification of the Continents] (Arldt 1907, map 1). Shaded areas indicate regions; hatched lines indicate the boundaries of kingdoms; bold lines the boundaries of regions; and thin lines the boundaries of subregions.
Fig. 11 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 11. Biogeographic regionalisation of Rapoport (1968) recognising the Holarctic, Holotropical and Holantarctic belts.
Fig. 10 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 10. Simplified diagram of the main conventional zoogeographical subdivisions (Poynton 1959, fig. 1). The Palaearctic and Nearctic are treated as subregions within a larger Holarctic region.
Fig. 4 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature
Fig. 4. Zoogeographical areas illustrating the Distributions of Birds by R. Bowlder Sharpe (1893). The classification is loyal to Wallace (1876a, 1876b) because it clearly distinguishes the Nearctic from the Palaearctic.
Global mixing and transport of solar wind and magnetospheric ions in the nonlinear Kelvin-Helmholtz region across the terrestrial dayside magnetopause
<p>Data of figs 1-6 of the manuscript "Global mixing and transport of solar wind and magnetospheric ions in the nonlinear Kelvin-Helmholtz region across the terrestrial dayside magnetopause".</p>
Figure 9 in Redescription of the terrestrial isopod Armadillo mayeti Simon, 1885 and its comparison with Armadillo officinalis Duméril, 1816 from Tunisian populations
Figure 9. Male Armadillo officinalis. (A) Telson with uropods, dorsal view. (B) Uropod exopodite insertion, dorsal view. (C) Pleopod 2. (D) Pleopod 1.
Figure 5 in Redescription of the terrestrial isopod Armadillo mayeti Simon, 1885 and its comparison with Armadillo officinalis Duméril, 1816 from Tunisian populations
Figure 5. Male Armadillo mayeti. (A) Pereopod 1. (B) Pereopod 7. (C) Exopodite pleopod 1. (D) Endopodite pleopod 1. (E) Pleopod 2.
Figure 6 in Redescription of the terrestrial isopod Armadillo mayeti Simon, 1885 and its comparison with Armadillo officinalis Duméril, 1816 from Tunisian populations
Figure 6. Male Armadillo mayeti. (A) Stridulation apparatus on propodus 5. (B) Enlarged scale. (C) Scale-setae on tergite I enlarged scale.
Figure 2 in Redescription of the terrestrial isopod Armadillo mayeti Simon, 1885 and its comparison with Armadillo officinalis Duméril, 1816 from Tunisian populations
Figure 2. Male Armadillo mayeti. (A) Cephalon and tergite I dorsal view with numerous setae. (B) Pereonite I and II with lateral groove. (C) Pleotelson ventral view (pereopods 7 removed) with bilobed caudal process, pereopods 6, pleopods 1 and 2, uropods, telson apex.
Figure 4 in Redescription of the terrestrial isopod Armadillo mayeti Simon, 1885 and its comparison with Armadillo officinalis Duméril, 1816 from Tunisian populations
Figure 4. Male Armadillo mayeti. (A) Right mandible. (B) Left mandible. (C) Maxilliped. (D) Maxillula. (E) Maxilla.
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