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Figure 7 in Parallel evolution in molar outline of murine rodents: the case of the extinct Malpaisomys insularis (Eastern Canary Islands)
Figure 7. Relationship between time interval and morphological evolution regarding size (A, C) and shape (B, D) of the first upper molars. Size distance is estimated as differences in A0, shape distance as the Euclidean distance calculated based on the Fourier coefficients of the first nine harmonics. (A, B) Log-log relationship between evolutionary rates and time interval. (C, D) Relationship between time interval and morphological distance. Lines correspond to a linear regression on the Occitanomys/Stephanomys lineage (black line), the Paraethomys lineage (light grey line), and modern taxa (dark grey line). Dotted lines P <0.05; solid line P <0.001. (A) pair including Malpaisomys; (Δ) corresponds to the distance between a pair of Malpaisomys samples, Costa Calma and CVA4. Locality or sample abbreviations per Table 1.
Figure 5 in Parallel evolution in molar outline of murine rodents: the case of the extinct Malpaisomys insularis (Eastern Canary Islands)
Figure 5. Morphological differentiation within Malpaisomys. Size of the first upper (A) and lower (B) molars. Shape of the first upper (C) and lower (D) molars, estimated by the scores on the first and second canonical axes of the analysis of Malpaisomys. The dotted ellipses indicate the 95% confidence interval for each sample.
Figure 18. Neochlamisus platani. A in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 18. Neochlamisus platani. A, adult habitus, with prothorax distended as a result of preservation. B, case series from egg case (left) to pupal case (right). C–H, scanning electron micrographs. C, egg case, lateral aspect. D, egg stalk. E, egg case surface. F, instar-II case, showing external texture variation between maternal and larval sections. G, instar-I case, forewall removed, internal aspect. H, instar-I case, exterior trichome coat of larval section.
Figure 19. Neochlamisus platani. A in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 19. Neochlamisus platani. A, instar-II case, dorsal aspect. B, instar-III case, lateral aspect. C, instar-IV case, lateral aspect. D, larva, instar IV, lateral aspect. E–J, Scanning electron micrographs. E, instar-III case, forewall removed, internal aspect. F, instar-III case, forewall removed, internal surface with trichome. G, instar-IV case, external surface with stellate trichomes. H, instar-IV case, cross-section of wall showing trichome–faecal matrix. I, pupal case, crosssection of wall. J, Pupal case, cross-section near apex.
Figure 17. Neochlamisus eubati. A, adult habitus. B in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 17. Neochlamisus eubati. A, adult habitus. B, case series from egg case (left) to pupal case (right). C, egg case, lateral aspect. D, instar-I case. E, instar-I case, base opening. F, instar-II case, lateral aspect. G, ventral aspect, with suture. H, instar-III case, ventral aspect. I, instar-III case, dorsal aspect. J, instar-IV case, ventral aspect. K, instar-IV case, lateral aspect.
Figure 16. Neochlamisus cribipennis. A in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 16. Neochlamisus cribipennis. A, larval instar III, live feeding on host plant leaf (photo by CGB). B, pupa attached to host leaf petiole (photo by CGB). C, instar-IV case, ventral suture split open. D, instar-IV case, wall cross-section showing trichome in faecal matrix, scanning electron micrograph.
Figure 15. Neochlamisus cribipennis. A, adult habitus. B in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 15. Neochlamisus cribipennis. A, adult habitus. B, case series from egg case (left) to pupal case (right); instar-III and pupal cases are broken, exposing stage inside. C, egg case, scanning electron micrograph. D, egg case, lateral wall, scanning electron micrograph. E–G, instar-III case. E, lateral aspect. F, ventral aspect. G, base opening.
Figure. 14. Neochlamisus comptoniae. A, adult habitus. B in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure. 14. Neochlamisus comptoniae. A, adult habitus. B, case series from egg case (left) to pupal case (right). C–E, egg case. C, lateral aspect. D, apex with egg stalk. E, roof. F, instar-I case, lateral view. G, instar-I case, ventrolateral view. H, larval instar-II case, opening. I, larval instar III. J, instar-III case, lateral view.
Figure 13. Neochlamisus chamaedaphnes. A in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 13. Neochlamisus chamaedaphnes. A, instar-II case, lateral aspect, with striations that vary in colour. B–D, G, scanning electron micrographs. B, instar-II case, lateral aspect. C, instar-II case, ventral suture split open. D, instar-IV case, lateral aspect. E, pupal case, ventral aspect. F, pupal case, lateral aspect. G, pupal case, boundary between egg case and larva-I sections.
Figure 11. Neochlamisus bimaculatus. A, adult habitus. B in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 11. Neochlamisus bimaculatus. A, adult habitus. B, case series from egg case (left) to pupal case (right). C–E, H–I, scanning electron micrographs. C, egg case, lateral aspect, broken medially. D, egg case, egg stalk. E, egg case, flange. F, instar-II case, lateral aspect. G–I, instar-IV case. G, ventral aspect. H, internal aspect with forewall removed. I, internal aspect, faecal layers of wall.
Figure 8 in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 8. Neochlamisus bebbianae III: Betula host form. A, instar-I case, lateral aspect. B, instar-II case, lateral aspect. C, instar-II case, ventral aspect. D, instar-III case, ventral aspect. E, instar-IV case, lateral aspect. F, pupal case, ventral aspect.
Figure. 1. A, Neochlamisus bebbianae IV in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure. 1. A, Neochlamisus bebbianae IV: Acer (maple) host form coating her faeces on her eggs. B, egg case of Neochlamisus platani. C, third instar of Neochlamisus chamaedaphnes walking with its portable case. D, second instar of Neochlamisus bebbianae, Salix (willow) host form. All photos by CGB.
Figure 4. Neochlamisus bebbianae I in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 4. Neochlamisus bebbianae I: Salix bebbianae (willow) host form. A, instar-I case, lateral aspect. B, instar-I case, ventral aspect. C, instar-II case, dorsal aspect. D, instar-II case, lateral aspect, scanning electron micrograph. E, instar-IV case, lateral aspect. F, instar-IV case, trichomes on external surface. G, instar-IV case, internal surface. H, instar-IV case, wall section showing trichome–faecal matrix.
Figure 3. Neochlamisus bebbianae I in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 3. Neochlamisus bebbianae I: Salix bebbianae (willow) host form. A, case series from egg case (left) to pupal case (right). B, egg case, lateral aspect, scanning electron micrograph. C, egg case, scanning electron micrograph.
Figure 12. Neochlamisus chamaedaphnes. A, adult habitus. B in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 12. Neochlamisus chamaedaphnes. A, adult habitus. B, case series from egg case (left) to pupal case (right). C–G, scanning electron micrographs. C, egg case, lateral aspect. D, egg case surface with trichomes. E, instar-I case, lateral aspect. F, instar-I case, egg section showing faecal plates. G, instar-I case, larval section with faecal rows.
Figure 10. Neochlamisus bebbianae IV in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 10. Neochlamisus bebbianae IV: Acer (maple) host form. A, instar-II case, ventral aspect. B, instar-II case, lateral aspect, orientation of faecal rows, scanning electron micrograph. C, Instar-III case, lateral aspect. D, instar-III case, base opening. E, instar-III case, ventral faecal wedge at base, scanning electron micrograph. F, instar-III case, internal surface, scanning electron micrograph. G, larval instar-IV, lateral aspect. H, Pupal case, lateral aspect.
Figure 7 in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 7. Neochlamisus bebbianae III: Betula (river birch) host form. A, adult habitus. B, case series from egg case (left) to pupal case (right). C–F, egg case, scanning electron micrographs. C, lateral aspect. E–F, external surface.
Figure 9. Neochlamisus bebbianae IV in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 9. Neochlamisus bebbianae IV: Acer (maple) host form. A, adult habitus. B, case series from egg case (left) to pupal case (right). Instar-II case: broken. C, egg case, with twisted egg stalk. D, egg-case roof sealed. E, egg-case roof unsealed by instar-I larva. F, instar-I case, egg stalk intact. G–I, scanning electron micrographs. G, instar-I case, internal aspect. H, instar-I case, cross-section of apex showing faecal matrix. I, instar-I case, cross-section of wall showing dense faecal matrix.
Figure 6. Neochlamisus bebbianae II in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 6. Neochlamisus bebbianae II: Alnus (alder) host form. A, adult habitus with prothorax unnaturally distended while preserved. B, case series from egg case (left) to pupal case (right). C, egg case apex showing egg stalk. D, egg case, sealed roof. E, instar-I case, lateral aspect. F, instar-II case, ventral aspect. G, instar-IV case, lateral aspect. H, pupal case, dorsolateral aspect. I–J, pupal case, surface textures, scanning electron micrographs.
Anesthetic management of a case of pheochromocytoma using bioreactance method with Cheetah-NICOM monitor
<p><strong>Pheochromocytoma is a rare neoplasm originating from the chromaffin cells of the adrenal gland. The number of diagnosed and excised adrenal lesions has steadily increased over the last few decades. Contemporarily, improved monitoring systems and therapeutic advances have reduced mortality associated with this disease. During surgery the anesthesiologist must be ready to face sudden hemodynamic, metabolic and electrolyte fluctuations due to the release of catecholamines. In this Case Report, we describe a particularly complex anesthesiologic management of a large secretory lesion by using Cheetah Non-Invasive Cardiac Output Monitor (Cheetah-NICOM monitor), non-invasive hemodynamic monitoring system. A 72-year-old female patient was subjected to adrenalctomy after a diagnosis of an adrenal mass (5 cm) compatible with pheochromocytoma (highlighted by metanephrine dosage). Patient reports recurrent episodes of hypertensive crisis, sweating and precordial pain and was also affected by Type 2 diabetes mellitus. Adrenal surgery for pheochromocytoma results in a significant increase in heart rate and peripheral vascular resistance, which should therefore be monitored to guide the infusion of medicinal products. Although a preoperative preparation with Alpha and beta blockers was carried out, high doses of short-lived beta-blockers and alphalytic and vasodilator were required during the intervention. This case report shows that Cheetah-NICOM monitor allowed us to manage prompty and optimally the catecholaminergic storm and the volemic filling obtaining a rapid postoperative recovery.</strong></p>
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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)
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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.