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Fig. 4 in New ambrosia beetles (Coleoptera: Curculionidae: Platypodinae) from Miocene Mexican and Dominican ambers and their paleobiogeographical implications
Fig. 4 Diverse illustrations of two species of Cenocephalus from Miocene amber from Simojovel de Allende, Chiapas, Mexico; a C. succinicaptus, Mx-275, dorsal illustration of the elytral declivity; b detailed camera lucida drawing of the elytral declivity; c C. hurdi, Mx-347, lateral habitus
Fig. 1 in New ambrosia beetles (Coleoptera: Curculionidae: Platypodinae) from Miocene Mexican and Dominican ambers and their paleobiogeographical implications
Fig. 1 Miocene amber mines; a La Toca, Cordillera Septentrional, northern Dominican Republic; b Simojovel de Allende, Chiapas, Mexico; arrows indicate pitheads
Fig. 3 T in New ambrosia beetles (Coleoptera: Curculionidae: Platypodinae) from Miocene Mexican and Dominican ambers and their paleobiogeographical implications
Fig. 3 T. simojooelensis sp. nov. from Miocene amber from Simojovel de Allende, Chiapas, Mexico; holotype Mx-238, female, illustration and camera lucida drawing of the dorsal habitus
Fig. 2 C in New ambrosia beetles (Coleoptera: Curculionidae: Platypodinae) from Miocene Mexican and Dominican ambers and their paleobiogeographical implications
Fig. 2 C. tenuis sp. nov. from Miocene amber from Simojovel de Allende, Chiapas, Mexico; a holotype Mx-379, female, illustration and camera lucida drawing of the dorsal habitus; b holotype, detailed camera lucida drawing of the elytral declivity; c allotype Mx-354, male, detailed illustration of the head and the antennae; d paratype Mx-213, detailed illustration of the elytral declivity
Fig. 5 in Shell bone histology of solemydid turtles (stem Testudines): palaeoecological implications
Fig. 5 Thin-sections of Solemydidae aff. Naomichelys sp. Images in a-c and f-h in normal transmitted, d, e and i in crosspolarised, and right side in g in cross-polarized light using lambda compensator. a Peripheral (TMP 90.60.07). b Limb ossicle (FM PR 273). c Shell fragment (TMP 90.60.07). d Close-up of external cortex and ornamentation in peripheral (TMP 90.60.07). e Close-up of external cortex and ornamentation in shell fragment (TMP 90.60.07). f Close-up of cancellous bone of shell fragment (TMP 90.60.07). g Close-up of cancellous bone and internal cortex of shell fragment (TMP 90.60.07). h, i Close-up of cortical bone of limb ossicle (FM PR 273). Abbreviations: CB cancellous bone; ECO external cortex; ICO internal cortex; ISF interwoven structural fibres; LB lamellar bone; lsFB longitudinally sectioned fibre bundles; OP ornamentation pattern; PFB parallel-fibred bone; trFB transversally sectioned fibre bundles
Fig. 2 Sectioned solemydid specimens and resulting binary images used for compactness analysis with Bone Profiler. a in Shell bone histology of solemydid turtles (stem Testudines): palaeoecological implications
Fig. 2 Sectioned solemydid specimens and resulting binary images used for compactness analysis with Bone Profiler. a Solemys vermiculata, costal fragment (MCNA-15047). b Solemys vermiculata, shell fragment (MCNA-15046). c Solemys sp., costal fragment (UPUAM-14001)
Fig. 1 in Shell bone histology of solemydid turtles (stem Testudines): palaeoecological implications
Fig. 1 Selected solemydid taxa used in the present study. a Solemys vermiculata, costal fragment (MCNA-15047). b Solemys sp., costal fragment (UPUAM-14001). c, d Solemydidae aff. Naomichelys sp., peripheral (TMP 90.60.07). e Solemydidae aff. Helochelydra sp., peripheral (MNCN 59503). f Solemydidae aff. Helochelydra, plastral fragment (MNCN 59503). g Plastremys lata, costal fragment (NHMUK R 2251)
Replication package for: What Drives Demand for State-Run Lotteries? Evidence and Welfare Implications
<p>Replication package:</p> <p>Lockwood, Benjamin B., Hunt Allcott, Dmitry Taubinsky, and Afras Y. Sial. 2024. "What Drives Demand for State-Run Lotteries? Evidence and Welfare Implications." Review of Economic Studies. </p> <p>This package contains all replication scripts and non-confidential data sets necessary to reproduce results in the paper. </p>
Fig. 3 in Head morphology of Osmylus fulvicephalus (Osmylidae, Neuroptera) and its phylogenetic implications
Fig. 3 Osmylus fulvicephalus, head, three-dimensional reconstructions. a Frontal view, including right half of head capsule. b Lateral view of brain, tracheae and selected muscles. c Anterolateral view of brain, tentorium and selected muscles. d Anterolateral (nearly lateral) view of brain and selected muscles. Labels: ata =anterior tentorial arm, dcer= deuterocerebrum, dta=dorsal tentorial arm, fcon= frontal connective, fg=ganglion frontale, nan=antennal nerve (right antennal nerve obliterated in specimen used for microtome sectioning), ncon= nervus connectivus, noc=ocellar nerve (median ocellar nerve obliterated in specimen used for microtome sectioning), nrec = nervus
Fig. 4 in Head morphology of Osmylus fulvicephalus (Osmylidae, Neuroptera) and its phylogenetic implications
Fig. 4 Osmylus fulvicephalus, three-dimensional reconstructions. a Tentorium. b Left mandible. c Mandibles in situ. Labels: ata = anterior tentorial arm, dta= dorsal tentorial arm, pta=posterior tentorial arm, tb= tentorial bridge, 11= M. craniomandibularis internus, 12=M. craniomandibularis externus
Fig. 7 in Head morphology of Osmylus fulvicephalus (Osmylidae, Neuroptera) and its phylogenetic implications
Fig. 7 Osmylus fulvicephalus, labium, ventral view. Labels: mt = mentum, pg = palpiger, pl = palpus labialis, pmt = prementum, sa = sensory area, smt =submentum
Fig. 10 in Head morphology of Osmylus fulvicephalus (Osmylidae, Neuroptera) and its phylogenetic implications
Fig. 10 Strict consensus tree of 26 minimum-length trees (185 steps, CI 0.6). Bremer support values shown encircled above branches, bootstrap values below branches
Fig. 9 in Head morphology of Osmylus fulvicephalus (Osmylidae, Neuroptera) and its phylogenetic implications
Fig. 9 Osmylus fulvicephalus, head, cross sections. a Level of subosephageal ganglion. b Level of posterior labium. c Level of cervix. Labels: oes= oesophagus, ph=pharynx, soeg=suboesophageal ganglion, tb=tentorial bridge, tr= tracheae, 11= M. craniomandibularis internus, 12= M. craniomandibularis externus, 17= M. tentoriocardinalis, 18=M. tentoriostipitalis, 20=M. stipitolacinialis, 28=M. submentopraementalis, 29 = M. tentoriopraementalis inferior, 42 =M. tentoriohypopharyngalis, 51= M. verticopharyngalis
Fig. 2 in Head morphology of Osmylus fulvicephalus (Osmylidae, Neuroptera) and its phylogenetic implications
Fig. 2 Osmylus fulvicephalus, head, SEM images. a Ventral view. b Mouthparts, ventral view; upper arrow points to appendage of galea, lower arrow to sensory area on labial palp. c Dorsal view. d Lateral view. Labels: ca = cardo, cl = clypeus, cpe= compound eye, dlf = dorsolateral longitudinal furrow, ga =galea, lbr= labrum, loccl =lateral
Fig. 8 in Unraveling unique island colonization events in Elachistocleis frogs: phylogeography, cryptic divergence, and taxonomical implications
Fig. 8 Map showing localities for Elachistocleis nigrogularis (red dots) and E. surinamensis (black dots) sequenced for this study and included in the phylogenetic analyses. Venezuelan specimens not sequenced in this
Fig. 7 a in Unraveling unique island colonization events in Elachistocleis frogs: phylogeography, cryptic divergence, and taxonomical implications
Fig. 7 a An Elachistocleis nigrogularis in amplexus. b Elachistocleis surinamensis in amplexus. Photography JCM
Fig. 1 in Unraveling unique island colonization events in Elachistocleis frogs: phylogeography, cryptic divergence, and taxonomical implications
Fig. 1 Map of known species of Elachistocleis and their approximate ranges. Specimens sequenced in GenBank with no species identification are also included in the map. Note that E. ovalis is not included in the map. Species areas are made by joining presence of locality points and are therefore an estimation of likely or possible distribution ranges
Fig. 6 A in Unraveling unique island colonization events in Elachistocleis frogs: phylogeography, cryptic divergence, and taxonomical implications
Fig. 6 A comparison of Elachistocleis nigrogularis (1 and 2) and E. surinamensis (3 and 4). 1a and 1b are dorsal and ventral views of the female E. nigrogularis holotype, UWIZM 2016.22.56. 2a and 2b show UWIZM 2016.22.55, the male collected with the holotype. 4a and 4b are dorsal and ventral views of the E. surinamensis neotype UWIZM 2016.22.58. 3a and 3b are dorsal and ventral views of the male she was collected with. Photography ALB
Fig. 4 in Unraveling unique island colonization events in Elachistocleis frogs: phylogeography, cryptic divergence, and taxonomical implications
Fig. 4 Results of the discrimination analysis. The DA results suggested Trinidad and Venezuela Elachistocleis with similar coloration and pattern phenotypes are not always the same species. The DA compared morphometrics from the island and mainland populations. The Venezuelan populations labeled sp. 1 are similar in appearance to E. nigrogularis and sp. 2. are similar in appearance to E. surinamensis
Fig. 5 Calls. a in Unraveling unique island colonization events in Elachistocleis frogs: phylogeography, cryptic divergence, and taxonomical implications
Fig. 5 Calls. a Elachistocleis nigrogularis without Orthoptera calls at 7000 Hz (bandpass filter: 6800–7200 Hz). b Elachistocleis sp. (undescribed species) after removing the calls of the other amphibians to be able to count pulses. The beginning of the call is clearly visible despite a second individual calling on the background and two harmonics are visible for this call from this individual. Pictures of frogs by the spectrograms are actual male individuals recorded calling
ScienceDex guides
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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.