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5,879 results for “Curculionidae”
Figs 10-22 in Cossonine weevils in Dominican amber (Coleoptera: Curculionidae)
Figs 10-22: Three species of Caulophilus, Caulophilus falini nov.sp. (holotype, USNM 505815), C. swensoni nov.sp. (holotype, USNM 502877, and paratype, USNM 502666), and C. bennetti nov.sp. (holotype, USNM 505352). (10) lateral aspect of head of C. falini; (11) protibia, profemur, protarsus, and pro-pretarsus of C. falini; (12) ventral aspect of prothorax of C. falini depicting position of procoxae; (13) lateral aspect of head of paratype of C. swensoni; (14) dorsal, slightly oblique aspect of head of holotype of C. swensoni; (15) antenna of holotype of C. swensoni; (16) protibia, profemur, protarsus, and pro-pretarsus of paratype of C. swensoni; (17) ventral aspect of prothorax of holotype of C. swensoni depicting position of procoxae; (18) lateral aspect of head of C. bennetti; (19) dorso-frontal aspect of head of C. bennetti; (20) antenna of C. bennetti; (21) protibia, profemur, protarsus, and pro-pretarsus of paratype of C. bennetti; (22) ventral aspect of prothorax of C. bennetti depicting position of procoxae. All drawn as preserved.
Figs 23-28 in Cossonine weevils in Dominican amber (Coleoptera: Curculionidae)
Figs 23-28: Photomicrographs of Dominican amber cossonine weevils. (23) holotype of Caulophilus swensoni nov.sp. (USNM 502877); (24) paratype of C. swensoni (USNM 502666); (25) holotype of Proeces longirostrum nov.sp. (USNM 502728); (26) holotype of Stenotrupis breviscapus nov.sp. (USNM 505344); (27) holotype of Cossonus hinojosai nov.sp. (USNM 505580), dorsal aspect; (28) holotype of C. hinojosai, lateral aspect.
Figs 5-9 in Cossonine weevils in Dominican amber (Coleoptera: Curculionidae)
Figs 5-9: Micromimus orcus nov.sp. (5) lateral aspect of head of holotype (USNM 505348); (6) slightly oblique frontal aspect of head of holotype; (7) protibia, profemur, protarsus, and propretarsus of holotype (same scale as for 5 and 6); (8) lateral aspect of head of paratype (USNM 505324); (9) protibia, profemur, protarsus, and pro-pretarsus of paratype. All drawn as preserved.
Figs 1-4 in Cossonine weevils in Dominican amber (Coleoptera: Curculionidae)
Figs 1-4: Photomicrographs of Dominican amber cossonine weevils. (1) holotype of Micromimus orcus nov.sp. (USNM 505348); (2) paratype of M. orcus (USNM 5053243); (3) holotype of Caulophilus ashei DAVIS & ENGEL 2006a (AMNH DR-10-809); (4) holotype of C. falini nov.sp. (USNM 505815).
Figs 39-48 in Cossonine weevils in Dominican amber (Coleoptera: Curculionidae)
Figs 39-48: Two species of Cossonini, Stenotrupis breviscapus nov.sp. (holotype and paratype) and Cossonus hinojosai nov.sp. (holotype). (39) lateral aspect of head and anterior pronotum of S. breviscapus (USNM 504857); (40) dorsal, oblique aspect of head of S. breviscapus (USNM 504857); (41) antenna of S. breviscapus (USNM 504857); (42) protibia, profemur, protarsus, and pro-pretarsus of S. breviscapus (USNM 505344); (43) ventral aspect of prothorax showing position of procoxae of S. breviscapus (USNM 504857); (44) lateral aspect of head and pronotum of C. hinojosai (USNM 505580); (45) dorsal, slightly oblique aspect of head and pronotum of C. hinojosai; (46) antenna of C. hinojosai; (47) protibia, profemur, protarsus, and pro-pretarsus of C. hinojosai; (48) ventro-lateral oblique aspect of prosternum showing position of procoxae of C. hinojosai. All drawn as preserved.
Figs 29-38 in Cossonine weevils in Dominican amber (Coleoptera: Curculionidae)
Figs 29-38: Two species of Dryotribini, Dryotribus amplioculus nov.sp. (holotype, USNM 505329) and Paralicus abnormis nov.sp. (holotype, USNM 505350), and one of Proecini, Proeces longirostrum nov.sp. (holotype, USNM 502728). (29) dorsal oblique aspect of head and anterior pronotum of D. amplioculus; (30) protibia, profemur, protarsus, and pro-pretarsus of D. amplioculus; (31) ventrolateral oblique view of prothorax of D. amplioculus depicting position of procoxae; (32) lateral aspect of head of P. abnormis; (33) dorsal aspect of head of P. abnormis; (34) protibia, profemur, protarsus, and pro-pretarsus of P. abnormis; (35) ventral aspect of prothorax of P. abnormis depicting position of procoxae; (36) Lateral aspect of head of P. longirostrum; (37) protibia, profemur, protarsus, and pro-pretarsus of P. longirostrum; (38) dorsal oblique aspect of head of P. longirostrum. All drawn as preserved.
Fig. 27–32 in Latvian Molytinae (Coleoptera, Curculionidae): Research History, Fauna And Bionomy
Fig. 27–32. Pronotum, dorsal view: 27 – Pissodes piceae, 28 – P. pini, 29 – P. castaneus, 30 – P. harcyniae, 31 – P. validirostris, 32 – P. piniphilus.
Fig. 9–17 in Latvian Molytinae (Coleoptera, Curculionidae): Research History, Fauna And Bionomy
Fig. 9–17. Molytinae, habitus, dorsal view: 9 – Pissodes piceae (after Borowiec 2007), 10 – P. pini, 11 – P. castaneus, 12 – P. harcyniae, 13 – Anoplus roboris, 14 – Anoplus plantaris, 15 – Trachodes hispidus, 16 – Pissodes piniphilus, 17 – P. validirostris.
Fig. 18–26 in Latvian Molytinae (Coleoptera, Curculionidae): Research History, Fauna And Bionomy
Fig. 18–26. Molytinae: 18 - Hylobius transversovittatus, rostrum and antennae, 19 – Pissodes harcyniae, rostrum and antennae, 20 – Anoplus sp., protarsus, 21 – Hylobius sp., protarsus, 22 – Hylobius abietis, apex of rostrum, dorsal view, 23 – Lepyrus palustris, apex of rostrum, dorsal view, 24 – Hylobius transversovittatus, antenna, 25 – Hylobius pinastri, antenna, 26 – Hylobius abietis, antenna.
Fig. 1–8 in Latvian Molytinae (Coleoptera, Curculionidae): Research History, Fauna And Bionomy
Fig. 1–8. Molytinae, habitus, dorsal view: 1 – Liparus glabrirostris, 2 – L. coronatus, 3 – Hylobius abietis, 4 – H. excavatus, 5 – H. pinastri, 6 – Lepyrus palustris, 7 – L. capucinus, 8 – Hylobius transversovittatus.
Figure 7 E in Structure of the mouthparts and alimentary canal of Eusomus ovulum Germar, 1824 (Coleoptera: Curculionidae)
Figure 7 E. ovulum, adult: (A) General view of colon (SM), (B) Malpighian tubules (Mt) encapsulating the wall of the colon (Cl), (C) The histological section of colon showing intima (In), epithelium (Ep), Malpighian tubules (Mt), muscles (Ml) and lumen (Lu) (H&E) (LM), (D) The cross section of the colon (SEM), (E) The histological section of rectum (Rc) showing intima (In), epithelium (Ep), rectal pad (Rp), Malpighian tubules (Mt), muscles (Ml) and lumen (Lu) is filled with fecal matter (H&E) (LM), (F) Lumen (Lu), epithelium (Ep) and intima (In) in the rectum wall (SEM), (G, H) The connection of rectum (Rc) with anus (An) (H&E) (LM) (SEM). H & E-hematoxylin and eosine, LM-Light microscopy, SEM-Scanning electron microscopy, SM-stereo microscope.
Figure 2 in Structure of the mouthparts and alimentary canal of Eusomus ovulum Germar, 1824 (Coleoptera: Curculionidae)
Figure 2 (A, B) General structure of the alimentary canal of adult E. ovulum (SM, SEM), (C, D) General view of regions of the foregut (SM) (E) Illustration of muscle bundles (Mb) near the pharynx and esophagus (SEM), (F) High magnification of individual muscles (SEM). (Am) anterior midgut, (Cl) colon, (Cr) crop, (Es) esophagus, (Hd) head capsule, (İl) ileum, (Mt) Malpighian tubules, (Pm) posterior midgut, (Pv) proventriculus, (Rc) rectum. SEM-Scanning electron microscopy, SM-stereo microscope.
Figure 5 E in Structure of the mouthparts and alimentary canal of Eusomus ovulum Germar, 1824 (Coleoptera: Curculionidae)
Figure 5 E. ovulum, adult: (A) Over view of the posterior midgut (Pm) (SM), (B) Histological section of the posterior midgut and gastric caeca (LM) (H & E), (C, D) Microvilli extend into lumen from the apical surfaces of epithelial cells in posterior midgut (SEM). (E, F) Morphological view of the gastric caeca (Gc) (SEM). (Ep) epithelium, (Lu) lumen, (Mt) Malpighian tubules, (Mv) microvilli, (Nu) nucleus, (Sg) secretory granules, (Tr) tracheae. H & E-hematoxylin and eosine, LM-Light microscopy, SEM-Scanning electron microscopy, SM-stereo microscope.
Fig. 3 in Morphometric and molecular differences among Calvertius tuberosus (Coleoptera: Curculionidae) populations associated with Andean and coastal populations of Araucaria araucana in the La Araucanía Region, Chile
Fig. 3. Neighbor-joining dendrogram of morphometrics measurements; 1. Villa Las Araucarias, 2. Nahuelbuta, 3. Malalcahuello.
Figure 5 in First Record of the Coffee Berry Borer, Hypothenemus hampei (Ferrari, 1867), on the Hawaiian Island of Lanai (Coleoptera: Curculionidae: Scolytinae)
Figure 5. Map indicating the approximate locations (black stars) of the four CBB sampling sites on the island of Lanai. Inset: Position of Lanai (in black) within the Hawaiian Islands archipelago.
Figure 3 in First Record of the Coffee Berry Borer, Hypothenemus hampei (Ferrari, 1867), on the Hawaiian Island of Lanai (Coleoptera: Curculionidae: Scolytinae)
Figure 3. Lindgren funnel trap deployed in dryland forest at The Nature Conservancy Kanepuu Preserve, July 2020. Photograph by C.P.D.T. Gillett.
Figure 1 in First Record of the Coffee Berry Borer, Hypothenemus hampei (Ferrari, 1867), on the Hawaiian Island of Lanai (Coleoptera: Curculionidae: Scolytinae)
Figure 1. Dorsal and lateral views of an adult female specimen of Hypothenemus hampei (Ferrari, 1867), the coffee berry borer, from Munro Trail, Lanai. Length of specimen: 1.6 mm. Photograph by C.P.D.T. Gillett.
Figure 2 in First Record of the Coffee Berry Borer, Hypothenemus hampei (Ferrari, 1867), on the Hawaiian Island of Lanai (Coleoptera: Curculionidae: Scolytinae)
Figure 2. Lindgren funnel trap deployed on the native plant Freycinetia arborea in mesic / "cloud" forest alongside Munro Trail on Lanaihale, Lanai, July 2020. Photograph by C.P.D.T. Gillett.
Figure 1 in A Damage-Limiting Method for Extracting Bark and Ambrosia Beetles (Coleoptera: Curculionidae: Scolytinae) from Their Tunnels in Host Plants of Conservation Concern
Figure 1. Use of sticky cockroach traps to extract the Hawaiian endemic bark beetle Xyleborus mauiensis Perkins, 1900, from a Hawaiian endemic olapa (Cheirodendron trigynum) tree on the island of Lanai. a: Section of sticky trap ready for action; note the glue pushed to one side of the strip to form a globule; b: Beetle stuck to the glue and extracted from the wood.
Figure 3 in A Second Adventive Species of Pinhole-borer on the Islands of Oahu and Hawaii (Coleoptera: Curculionidae: Platypodinae)
Figure 3. Locations where Euplatypus parallelus has been collected on the island of Oahu. (A) The forested hillside on Palikea Trail, in the Waianae mountains. (B) Lindgren-funnel trap in place at the collecting locality. (C) View of the forested Manoa valley hillsides surrounding the university campus. (D) Gilmore Hall at the University of Hawaii at Manoa campus, Honolulu. Photographs by C.P.D.T. Gillett.
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
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.