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FIGURE 3 in First record of the rare stenopodidean shrimp Odontozona spongicola (Alcock & Anderson, 1899) (Decapoda: Stenopodidea: Stenopodidae) from Indonesia
FIGURE 3. Odontozona spongicola (Alcock & Anderson, 1899), Indonesia, SJADES stn CP23, female cl 4.17 mm (MZB). A, epistome and labrum, ventral view.; B, left mandible, dorsal view.; C, left mandible, ventral view.; D, left maxillule, ventral view.; E, left maxilla, ventral view.; F, left first maxilliped., ventral view.; G, left second maxilliped, ventral view.; H, left third maxilliped, lateral view. Scale bars: 1mm.
FIGURE 2 in First record of the rare stenopodidean shrimp Odontozona spongicola (Alcock & Anderson, 1899) (Decapoda: Stenopodidea: Stenopodidae) from Indonesia
FIGURE 2. Odontozona spongicola (Alcock & Anderson, 1899), Indonesia, SJADES stn CP23, female cl 4.17 mm (MZB). A, right carapace, lateral view.; B, carapace, dorsal view.; C, left abdominal somites, lateral view.; D, telson and uropods, dorsal view.; E, left first pleopod, lateral view.; F, left second pleopod, lateral view. Scale bars: 1mm.
FIGURE 1 in First record of the rare stenopodidean shrimp Odontozona spongicola (Alcock & Anderson, 1899) (Decapoda: Stenopodidea: Stenopodidae) from Indonesia
FIGURE 1. Odontozona spongicola (Alcock & Anderson, 1899). A, Indonesia, SJADES stn CP23, female cl 4.17 mm (MZB); B, Pratas, DONGSHA 2014, stn CP4127, female cl 7.82 mm (NTOU M01910).
Data from: Understory diversity and composition after planting of teak and mahogany in Yogyakarta, Indonesia
<p>Forest rehabilitation is when a desired tree species is planted in degraded forests or lands. Rehabilitation by planting a single tree species is a common way to restore exploited forests to maintain ecological processes. We compared woody and herbaceous understory vegetation between forests rehabilitated by mahogany (N = 12) or teak (N = 12) planted from 1941 until 2003 in Yogyakarta, Indonesia. Understory vegetation of these areas were compared with that of three native forests. Species richness, species diversity, density of plants and proportion of native plants did not differ between the rehabilitated areas and the native forest. Recently rehabilitated areas were different from the native forests while 41-74 years after rehabilitation, characteristics of understory vegetation approached those of native forest. We described species composition using ordination, and found it to differ between areas rehabilitated with teak and with mahogany and, particularly, between the rehabilitated areas and the native forests. Time since rehabilitation and tree species planted were important for the species composition of understory vegetation. We conclude that the selection of species for rehabilitation and letting rehabilitated areas mature are important for understory development and species diversity.</p>
Data from: Wood and non wood forest products of Central Java, Indonesia
We investigated herb and woody species at rehabilitated forests planted by mahogany and teak, and original, not rehabilitated forests in Yogyakarta, Indonesia. Plant species were classified into five use categories: medicine, food, fodder, ornament and construction. We registered 142 species belonging to 54 families known as useful species with at least one, often more, use categories. The number of useful species was highest for medicine use (107 species). There was a dominance of exotic herb species used for food and annual herbs used for fodder. The number of useful herbs and exotic woody species was highest in teak stands. The number of woody species used for medicine, food and construction were higher than those for ornament and fodder. All herb species decreased with time, except annual native, that increased. Around 50% of the useful species occurred only once in one site, and some species showed a distribution restricted to one type of stands. Overall, our results seem to show that rehabilitated stands are doing well with regard to useful herb and woody species. We suggest strategies for plant and ecosystem conservation, especially for rare native plant species and species with restricted distribution.
Isolation and identification of Streptococcus suis from sick pigs in Bali, Indonesia
<p><b>Objective </b></p> <p><i>Streptococcus suis</i> (<i>S. suis</i>) is a causative agent for various syndromes in pigs. It can be transmitted to humans with typical symptoms of meningitis and death. Although human infections have been confirmed at Bali Referral Hospital, Indonesia, since 2014, the bacteria have not been isolated from pigs. Here, we provide confirmation of the presence of the bacteria in sick pigs in the province.</p> <p><b>Results</b></p> <p><i>S. suis</i> was confirmed in 8 of 30 cases. <a name="_Hlk21025505">The final confirmation was made using PCR and sequencing of the glutamate dehydrogenase (GDH) and recombination/repair protein (recN) gene fragments. Upon PCR serotyping, two were confirmed to be serotype 2 or 1/2</a>. Prominent histopathological lesions of confirmed cases were meningitis, endocarditis, pericarditis, bronchopneumonia, enteritis and glomerulonephritis. The dominant inflammatory cells were neutrophils and macrophages. Further research is needed to understand the risk factors for human infection. Community awareness on the risk of contracting <i>S. suis</i> and vaccine development are needed to prevent human infections.</p>
Subducted lithospheric boundary tomographically imaged beneath arc-continent collision in Eastern Indonesia
<p>We use travel-times from a temporary seismic deployment of 30 broadband seismometers and a national catalog of arrival times to construct a finite frequency teleseismic P-wave tomographic model of the upper mantle beneath astern Indonesia, where subduction of the Indo-Australian plate beneath the Banda Arc transitions to arc-continent collision. The change in tectonics is due to a change from oceanic to continental lithosphere in the lower plate as inferred from geologic mapping and geophysical, geochemical, and geodetic measurements. At this inferred transition, we seismically image the subducted continent-ocean boundary at upper mantle depths that links volcanism on Flores to amagmatic orogenesis on Timor. Our tomographic images reveal a relatively high velocity feature within the upper mantle, which we interpret as the subducted Indo-Australian slab. The slab appears continuous yet deformed as a result of the change in buoyancy due to the composition of the incoming continental lithosphere. Accordingly, there is a difference in dip angle between the oceanic and continental sections of the slab albeit not a gap or discontinuity. We suggest the slab has deformed without tearing to accommodate structural and kinematic changes across the continent-ocean boundary as the two sections of the slab diverge. These results suggest that deformation in tectonic collisions can be localized along a continent-ocean boundary, even at depth. We propose that future slab tearing may develop where we observe slab deformation in our study region and that a similar process may take place in collisions generally.</p>
FIGURES 17. Telobella kemiri n in Telobella kemiri, a new species of Lobellini (Collembola: Neanuridae) from Lombok island (Indonesia)
FIGURES 17. Telobella kemiri n. sp. 1 Labrum in ventrodistal view; 2 Mandible; 3 Labrum in dorsal view; 4 Labium; 5 Dorsointernal tubercle of abd. V; 6 Tubercles De, DL and L of abd. IV showing the additional integument swelling; 7 Chaetotaxy and tubercles in dorsal view
FIGURE 2 in A new solar powered species of the genus Phyllodesmium Ehrenberg, 1831 (Mollusca: Nudibranchia: Aeolidoidea) from Indonesia with analysis of its photosynthetic activity and notes on biology
FIGURE 2: Phyllodesmium jakobsenae, morphology: A: General outline of organs in situ. B: Digestive tract (oral glands omitted). C: Right jaw seen from the interior side. D: Distal genital system. E: Schematic cross section of apical part of ceras. The upper side represents the part which is exposed to light, when resting on the food coral. F: Central nervous system. Abbreviations: a anus, am ampulla, au auricle, bg buccal ganglion, ca capsule gland, cplg cerebropleural ganglion, dgl digestive gland, e eye, i intestine, mu mucous gland, og oral glands, ot oral tentacles, pg pedal ganglion, ph pharynx, pr prostate, rec receptaculum seminis, rh rhinophore, rhg rhinophoral ganglion, sy syrinx, ve ventricle.
FIGURE 3 in A new species of Ergasilus von Nordmann, 1832 (Copepoda: Cyclopoida) from the gills of a dasyatid ray, Himantura oxyrhyncha (Sauvage, 1878) from West Kalimantan, Indonesia
FIGURE 3. Ergasilus kimi sp. nov. (paratype adult female). A, leg 1, anterior; B, leg 2, anterior; C, leg 3, anterior; D, leg 4, anterior. Scale bar = 50 µm.
FIGURE 2 in A new species of Ergasilus von Nordmann, 1832 (Copepoda: Cyclopoida) from the gills of a dasyatid ray, Himantura oxyrhyncha (Sauvage, 1878) from West Kalimantan, Indonesia
FIGURE 2. Ergasilus kimi sp. nov. (paratype adult female). A, antennule, ventral; B, antenna, lateral, with insets showing detail of sensillae on first and second endopodal segments; C, labrum, ventral; D, mandible, ventral in situ; E, maxillule, ventral in situ; F, maxilla, ventral in situ. Scale bars: A, C, F = 50 µm, B = 100 µm, D–E = 25 µm.
FIGURE 1 in A new species of Ergasilus von Nordmann, 1832 (Copepoda: Cyclopoida) from the gills of a dasyatid ray, Himantura oxyrhyncha (Sauvage, 1878) from West Kalimantan, Indonesia
FIGURE 1. Ergasilus kimi sp. nov. (paratype adult female). A, habitus, dorsal; B, genital double-somite, free abdominal somites and caudal rami, ventral; C, rostrum, ventral; D, intercoxal sclerites of legs 1 to 3 and associated interpodal plates, ventral; E. left fifth leg, lateral. Scale bars: A = 200 µm, B–E = 50 µm.
FIGURES 1–8 in A taxonomic revision of the kalshoveni species-group of the genus Nemophora Hoffmannsegg (Lepidoptera, Adelidae), with descriptions of six new species from Indonesia and Papua New Guinea
FIGURES 1–8. Adults of Nemophora kalshoveni species-group. 1, N. kalshoveni Diakonoff, 1951, male, from Cisaura; 2, N. humerella sp. nov., male, holotype, from Sangir Island; 3, N. agassizi sp. nov., female, holotype, from Wabag; 4, N. dohertyi sp. nov., male, holotype, from Fakfak; 5, N. bistrigata sp. nov., male, holotype, from Jayapura; 6, N. toxopeusi sp. nov., female, holotype, from Irian Jaya; 7, N. stenopterella sp. nov., female, holotype, from Irian Jaya; 8, labels of the holotype of N. kalshoveni Diakonoff. Scale: 2 mm.
FIGURES 18-37 in A taxonomic revision of the kalshoveni species-group of the genus Nemophora Hoffmannsegg (Lepidoptera, Adelidae), with descriptions of six new species from Indonesia and Papua New Guinea
FIGURES 18-37. Male genitalia of Nemophora kalshoveni species-group. 18–22, N. kalshoveni Diakonoff; 23–27, N. humerella sp. nov.; 28–32, N. dohertyi sp. nov.; 33–37, N. bistrigata sp. nov. 18, 23, 28, 33: genital complex, ventral view (right valva not shown); 19, 24, 29, 34: genital complex, lateral view; 20, 25, 30, 35: juxta; 21, 26, 31, 36: phallus, ventral view; 22, 27, 32, 37: phallus, lateral view. Scale: 0.5 mm.
FIGURES 38–41 in A taxonomic revision of the kalshoveni species-group of the genus Nemophora Hoffmannsegg (Lepidoptera, Adelidae), with descriptions of six new species from Indonesia and Papua New Guinea
FIGURES 38–41. Male genitalia of Nemophora kalshoveni species-group. 38–39, N. kalshoveni Diakonoff, gen. prep. 29460 (NHM); 40–41, N. dohertyi sp. nov., holotype, gen. prep. 29459 (NHM); 38, 40: genital complex, ventral view; 39: phallus, ventral view; 41: phallus, lateral view. Scale: 0.5 mm.
FIGURES 10–17 in A taxonomic revision of the kalshoveni species-group of the genus Nemophora Hoffmannsegg (Lepidoptera, Adelidae), with descriptions of six new species from Indonesia and Papua New Guinea
FIGURES 10–17. Forewing pattern and venation of Nemophora kalshoveni species-group. 10, N. kalshoveni Diakonoff; 11, N. humerella sp. nov.; 12, N. agassizi sp. nov.; 13, N. dohertyi sp. nov.; 14, 16, N. bistrigata sp. nov.; 15, N. toxopeusi sp. nov.; 17 N. stenopterella sp. nov. Scale: 2 mm.
FIGURES 22–23 in Heteropoda dagmarae sp. nov. from Laos—a close relative of Heteropoda javana (Simon 1880) from Indonesia (Arachnida: Araneae: Sparassidae)
FIGURES 22–23. Heteropoda dagmarae sp. nov. 22 Ψ paratype (PJ 2190), 23 % paratype (PJ 2193), both from Muang Sing, Laos. 22 Ventral view showing black sternum, coxae, labium and median band of opisthosoma. 23 Dorsal habitus showing bright patch and long hairs on posterior opisthosoma and the more distinct colouration in comparison with female. Photos: P. Jäger.
FIGURES 20–21 in Heteropoda dagmarae sp. nov. from Laos—a close relative of Heteropoda javana (Simon 1880) from Indonesia (Arachnida: Araneae: Sparassidae)
FIGURES 20–21. Heteropoda dagmarae sp. nov., Ψ paratype (PJ 2190) from Muang Sing, Laos. 20 Habitus with characteristic leg position, dorsal view; 21 Frontal view showing the black distal half of chelicerae and palps. Photos: P. Jäger.
FIGURES 11–19 in Heteropoda dagmarae sp. nov. from Laos—a close relative of Heteropoda javana (Simon 1880) from Indonesia (Arachnida: Araneae: Sparassidae)
FIGURES 11–19. Heteropoda dagmarae sp. nov., Ψ paratypes (11–14 PJ 2179, 15 PJ 2187, 16–19 PJ 2188). 11, 15–16 epigyne, ventral view; 12–13 vulva, (12, 17 dorsal view, 13 frontal view, 18 laterofrontal view); 14, 19 schematic course of internal duct system (14 frontal view, 19 laterofrontal view).
FIGURES 1–10 in Heteropoda dagmarae sp. nov. from Laos—a close relative of Heteropoda javana (Simon 1880) from Indonesia (Arachnida: Araneae: Sparassidae)
FIGURES 1–10. Heteropoda dagmarae sp. nov. (1–6 ɗ holotype, 7 ɗ paratype PJ 2178, 8–9 Ψ paratype PJ 2179, 10 Ψ paratype 2188). 1 left palp, prolateral view; 2 left palp, ventral view; 3 left palp, retrolateral view; 4 left palp, tibia, dorsal view; 5, 8 eye arrangement, dorsal view; 6, 9 chelicerae, ventral view; 7 retrolateral tibial apophysis showing variation, ventral view; 10 palpal claw, retrolateral view.
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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.