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390 results for “maritime”
Maritime Transportation - Deep-Sea Shipping Instances
<p>Each instance has a filename "deep_n_i.dat", in which deep indicates that the trips are international (deep sea shipping), n is the number of ports (including the depot), and i is the index of the instance in the same group.</p> <p>Line 1 - [# of customer, vehicle/vessel capacity, speed lower limit, speed upper limit]<br> Line 2 - demand at each port<br> Line 3 - lower time window bound for each port<br> Line 4 - upper time window bound for each port<br> Line 5 - service time at each port<br> From line 6 - distance matrix</p>
The Enhanced Teleconnection of Maritime Continent Deforestation on North Pacific Climate During La Niña Conditions
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Table. Effects of sea animal colonization on the coupling between dynamics and activity of soil ammonia-oxidizing bacteria and archaea in maritime Antarctica.
<p> In this study, we chose active seal colony tundra soils (STS), penguin colony soil (PTS) and its adjacent penguin-lacking tundra soils (PLS), tundra marsh soils (MS), and background tundra soils (BS), to investigate the effects of sea animal colonization on the abundance, activity and diversity of AOA and AOB in maritime Antarctica. </p>
Inducibility of plant secondary metabolites predicts genetic variation in resistance against a key insect herbivore in maritime pine
<p>SNP dataset in maritime pine (<em>Pinus pinaster</em>) together with the population structure (<em>Q</em>) and kinship (<em>K</em>) matrices.</p>
FIGURE 2A–H. Glomus rugosae. A in Glomus rugosae, a new arbuscular mycorrhizal species in Glomeraceae (phylum Glomeromycota) from maritime sand dunes of Poland and an ash pond of Czech Republic
FIGURE 2A–H. Glomus rugosae. A. Cluster with sporogenous hyphae (h), spores (sp), and a spore subtending hypha (sh). B–F. Spore wall layers (swl) 1–4. F, G. Subtending hyphal wall layers (shwl) 1–4 continuous with spore wall layers (swl) 1–4. H. Arbuscule (a), intraradical hyphae (ih), and vesicle (v) in Plantago lanceolata root stained in 0.1% Trypan blue. A, B, G, H. Spores and mycorrhizal structures in PVLG. C–F. Spores in PVLG+Melzer's reagent. A–H. Differential interference microscopy. Scale bars: A = 20 μm, B–H = 10 μm.
FIGURES 16–20 in Three new Craticula species (Bacillariophyta) from the Maritime Antarctic Region
FIGURES 16–20. Craticula obaesa. SEM pictures taken from the holotype population (sample CLW60) from Clearwater Mesa, James Ross Island. 16. Detail view of the central area. Note the difference in shape of the central areolae and the expanded, hooked proximal raphe endings. 17. External detail of a valve apex with the typical longitudinal lines formed by the frets separating the areolae. 18. Internal detail of the central area with focus on the central nodule and the differences in areola structure near the central area. 19. Internal detail of the areolae occlusions. 20. Heribaudii stage. Scale bar represents 10 μm, except for Fig. 19 where scale bar = 1 μm.
FIGURES 10–15 in Three new Craticula species (Bacillariophyta) from the Maritime Antarctic Region
FIGURES 10–15. Craticula obaesa. LM pictures taken from the holotype population (sample CLW60) from Clearwater Mesa, James Ross Island. 15. LM view of a heribaudi stage. Scale bar represents 10 μm.
FIGURES 1–9 in Three new Craticula species (Bacillariophyta) from the Maritime Antarctic Region
FIGURES 1–9. Craticula australis. LM & SEM pictures taken from the holotype population (sample D02) from Lachman Lake I, James Ross Island. 1–7. Light microscopy observations. 8. Internal view of the central area with focus on the proximal raphe endings and the perforated areola occlusions. 9. Internal view of an entire valve showing the raphe and the variable distance between the striae. Scale bar represents 10 μm except for Fig. 8 where scale bar = 1 μm.
FIGURES 21–35 in Three new Craticula species (Bacillariophyta) from the Maritime Antarctic Region
FIGURES 21–35. Craticula petradeblockiana. LM & SEM pictures taken from the holotype population (sample Vo4) from Water-Supply Creek, James Ross Island. 21–31. Light microscopy observations. 32. External view on an entire valve showing the raphe and the variation in stria distance in the central area compared to the rest of the valve. 33. External detail of the perforated areola occlusions in the areolar canal. 34. Internal view of an entire valve showing the raphe. 35. Internal detail of the central area. 36. Internal detail of a valve apex showing the small helictoglossa. 37. Internal detail of the areolae showing the position of the hymenes. Scale bar represents 10 μm except for Figs 33, 36 & 37 where scale bar = 1 μm and Fig. 35 where scale bar = 5 μm.
FIGURES 136–156 in Ten new Bacillariophyta species from James Ross Island and the South Shetland Islands (Maritime Antarctic Region)
FIGURES 136–156. Sellaphora antarctica sp. nov. LM and part of the SEM pictures taken from the holotype population (sample BYM051) from Livingston Island (South Shetland Islands). 136–153. LM views of 18 valves from the type population. Figs 152–153 represent girdle view. 154. SEM of an entire valve, external view (picture taken from James Ross Island, sample JRI-004). 155. SEM of the valve exterior, showing the mantle and girdle. 156. SEM of an entire valve, internal view (picture taken from James Ross Island, sample JRI-11). Arrow indicates the shallow depression present at each apex. Scale bar represents 10 μm except for fig. 154 where scale bar = 5 μm and figs 155 and 156 where scale bar = 2 μm.
FIGURES 59–80 in Ten new Bacillariophyta species from James Ross Island and the South Shetland Islands (Maritime Antarctic Region)
FIGURES 59–80. Mayamaea tytgatiana sp. nov. LM & SEM pictures taken from the holotype population (sample D37) from Deception Island (South Shetland Islands). 59–76. LM views of 18 valves from the type population. Fig. 76 shows the girdle view. 77. SEM of an entire valve, external view. 78. SEM detail of the valve externally, showing the enlarged central raphe endings and rounded areolae with external hymenes. 79. SEM view of the valve mantle with the slit-like areolae (arrows) and the hooked, elongated distal raphe endings. 80. SEM of an entire valve, internal view. Scale bar represents 10 μm except for fig. 78 where scale bar = 1 μm and fig. 79 where scale bar = 2 μm.
FIGURES 35–45 in Ten new Bacillariophyta species from James Ross Island and the South Shetland Islands (Maritime Antarctic Region)
FIGURES 35–45. Cosmioneis regigeorgiensis sp. nov. LM & SEM pictures taken from the holotype population (sample KGI9) from King George Island, South Shetland Islands. 35–42. LM views of 8 valves from the type population. Fig. 35 shows the girdle view. 43. SEM view of the mantle and girdle bands. 44. SEM of an entire valve, external view. 45. SEM of an entire valve, internal view. Scale bar represents 10 μm.
FIGURES 119–135 in Ten new Bacillariophyta species from James Ross Island and the South Shetland Islands (Maritime Antarctic Region)
FIGURES 119–135. Pinnularia pinseeliana sp. nov. LM & SEM pictures taken from the holotype population (sample CC2) from Deception Island (South Shetland Islands).119–131. LM views of 13 valves from the type population. Fig. 119 shows the girdle view. 132. SEM of an entire valve, external view. 133. SEM detail of the valve externally, showing the alveoli of the striae. 134. SEM of entire valve, internal view. 135. SEM detail of the valve interior. Arrows showing the elevated siliceous outgrowths on the virgae. Scale bar represents 10 μm except for figs 133 and 135 where scale bar = 1 μm.
FIGURES 92–118 in Ten new Bacillariophyta species from James Ross Island and the South Shetland Islands (Maritime Antarctic Region)
FIGURES 92–118. Navicula romanedwardii sp. nov. and Navicula seibigiana s.s. LM & SEM pictures of Navicula romanedwardii taken from the holotype population (sample D18) from James Ross Island and two other populations on James Ross Island and South Shetland Islands (indicated below). LM pictures of Navicula seibigiana taken from the type slide (Praep. Hintz 160, Eu-CH 15 in Coll. LangeBertalot). 92–98. Navicula romanedwardii, LM views of 7 valves from the type population. Fig. 92 shows the girdle view in LM. 99–103. Navicula seibigiana s.s., LM views of 5 valves from the type population. 104–114. Navicula romanedwardii, LM views of 11 valves from a Deception Island population (sample D37). 115. Navicula romanedwardii, SEM of an entire valve, external view. Arrows show the slits at the apices. 116. Navicula romanedwardii, SEM detail of the central area and central raphe endings. 117. Navicula romanedwardii, SEM of an entire valve, internal view (picture taken from James Ross Island, sample JRI015). 118. Navicula romanedwardii, SEM detail of the central part of the valve internally, showing the continuous raphe (picture taken from James Ross Island, sample JRI015). Scale bar represents 10 μm except for figs 116 and 118 where scale bar = 1 μm.
FIGURES 178–182 in Ten new Bacillariophyta species from James Ross Island and the South Shetland Islands (Maritime Antarctic Region)
FIGURES 178–182. Caloneis bacillum, LM, type (slide IV-18-A8, Van Heurck Collection at the Botanic Garden Meise, Belgium). Scale bar represents 10 μm.
FIGURES 18–34 in Ten new Bacillariophyta species from James Ross Island and the South Shetland Islands (Maritime Antarctic Region)
FIGURES 18–34. Chamaepinnularia elliptica sp. nov. Most LM and part of the SEM pictures taken from the holotype population (sample JRI-D02) from James Ross Island. 18–27. Light microscopy observations. 28–30. LM views of valves from South Shetland Islands. 31. SEM of an entire valve, external view (picture taken from Livingston Island, sample BY040). 32. SEM of an entire valve, external view. 33. SEM of an entire valve, internal view (picture taken from Livingston Island, sample BY040). 34. SEM of an entire valve, internal view. Scale bar represents 10 μm except for fig. 34 where scale bar = 1 μm.
FIGURES 157–177 in Ten new Bacillariophyta species from James Ross Island and the South Shetland Islands (Maritime Antarctic Region)
FIGURES 157–177. Sellaphora gracillima sp. nov. LM and most of the SEM pictures taken from the holotype population (sample BY049) from Livingston Island (South Shetland Islands).157–174. LM views of 18 valves from the type population. 175. SEM of an entire valve, external view. 176. SEM of an entire valve, internal view. 177. SEM of an entire valve, showing the valve mantle and girdle (picture taken from Livingston Island, sample BY051). Scale bar represents 10 μm except for figs 175–177 where scale bar = 5 μm.
FIGURES 81–91 in Ten new Bacillariophyta species from James Ross Island and the South Shetland Islands (Maritime Antarctic Region)
FIGURES 81–91. Muelleria pimpireviana sp. nov. LM & SEM pictures taken from the holotype population (sample NI26) from Nelson Island (South Shetland Islands). 81–89. LM views of 9 valves from the type population. 90. SEM of the valve exterior. 91. SEM detail of the apex, showing the bifurcated distal raphe endings. Scale bar represents 10 μm except for fig. 91 where scale bar = 2 μm.
FIGURES 1–17 in Ten new Bacillariophyta species from James Ross Island and the South Shetland Islands (Maritime Antarctic Region)
FIGURES 1–17. Caloneis australis sp. nov. LM and most SEM pictures taken from the holotype population (sample BY062) from Livingston Island (South Shetland Islands). 1–12. Light microscopy observations. Fig. 1 shows an intial valve, and Fig. 12 shows the girdle view. 13. SEM of an entire valve, externally. 14. SEM detail of the valve showing the central area and the lunate markings. 15. SEM detail of the valve face and mantle showing the striae; arrows indicate the slits on the mantle. 16. SEM of an entire valve, internal view (picture taken from James Ross Island, sample JRI032). 17. SEM detail of the mantle and girdle, showing the single row of pores on the valvocopula; arrows indicate the rounded plaques (picture taken from James Ross Island, sample JRI015). Scale bar represents 10 μm except for figs 14, 15 and 17 where scale bar = 1 μm.
FIGURES 11–21 in Three new Hantzschia species (Bacillariophyta) from the Maritime Antarctic Region
FIGURES 11–21. Hantzschia zidarovae. LM and SEM observations of the type population (Livingston Island, Byers Peninsula, sample LIV-BY16A). Figs 11–17. Light micrographs showing a reduction in valve length. Fig. 18. External view of an entire valve showing the thickened ventral hyaline border and the very deep grooves with the striae. Fig. 19. External detail of the central area with the deflected, interrupted, proximal raphe endings and the deep striae grooves. Fig. 20. Internal detail of the central area showing the external, interrupted proximal raphe endings. Note the groove under the raphe endings. Fig. 21. Internal view of an entire valve showing the irregularly placed fibulae. Scale bar represents 10 μm except for figs 19 & 20 where scale bar = 1 μm.
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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.