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391 results for “Morphometry”
Fig. 8 in Morphometry Of The Digestive Gland Of Terrestrial Mollusks Cornu Aspersum (Gastropoda, Helicidae)
Fig. 8. Muscle bundles in parenchyma of the digestive gland of Cornu aspersum (aldehyde-fuchsin after Gabe-Dyban): straight muscle bundles (1), horseshoe-shaped muscle bundles (2).
Figs 17–18 in Morphometry Of Fore Wing Venation For Identification Of Net-Winged Insects Of The Ukrainian Carpathians, With A Focus On Chrysopa (Neuroptera, Chrysopidae)
Figs 17–18. Fore wings of species of Chrysopidae: 17 — fore wing of Chrysopa formosa (Brauer, 1850); 18 — fore wing of Chrysopa perla (Linnaeus, 1758).
Fig. 3 in Morphometry Of Fore Wing Venation For Identification Of Net-Winged Insects Of The Ukrainian Carpathians, With A Focus On Chrysopa (Neuroptera, Chrysopidae)
Fig. 3. Fore wing venation: 3a — Myrmeleontidae (Distoleon Banks, 1810); 3b — Ascalaphidae (Libelloides Schaffer, 1763); 3c — Osmylidae (Osmylus Latreille, 1802); 3d — Chrysopidae (Chrysopa Leach, 1815); 3e — Sisyridae (Sisyra Burmeister, 1839); 3f — Mantispidae (Mantispа Illiger in Kugelann, 1798); 3g — Coniopterigidae (Conwentzia Enderlein 1905); 3h — Hemerobiidae (Hemerobius Linnaeus, 1758); R — radius, Rs — radial sector, Rt — radial triangular, dc — distal cell between R and Rs, Sc — subcostal vein; trz — tiny inserted veins. arranged between the terminal branches of longitudinal veins.
Figs 4–7 in Morphometry Of Fore Wing Venation For Identification Of Net-Winged Insects Of The Ukrainian Carpathians, With A Focus On Chrysopa (Neuroptera, Chrysopidae)
Figs 4–7. Fore wing venation of Chrysopidae: 4 — Chrysotropia Navás, 1911; 5 — base of fore wing: 5a — Italochrysa Principi. 1946, 5b — Nineta Navas, 1912, 5c — Chrysopa Leach in Brewster, 1815, 5d — Peyerimhoffina Lacroix, 1920; 6 — base of fore wing: 6a —Pseudomallada Tsukaguchi, 1995, 6b— Chrysoperla Steinmann, 1964, 6c — Cunctochrysa Hölzel, 1970; 7 — fragment of fore wing of Chrysopa Leach, 1815 with setae fringe; M — median vein, im — intramedian cell, m2 — 2nd median cell, m3 — 3rd median cell, r1 — 1st radial cell, r2 — 2nd radial cell, r-m — radial-median vein, Rs — radial sector.
Figs 15–16 in Morphometry Of Fore Wing Venation For Identification Of Net-Winged Insects Of The Ukrainian Carpathians, With A Focus On Chrysopa (Neuroptera, Chrysopidae)
Figs 15–16. Fore wings of species of Chrysopidae: 15 — fore wing of Chrysopa nigricostata (Brauer, 1850); 16 — fore wing of Chrysopa abbreviata (Curtis, 1834).
Figs 10–11 in Morphometry Of Fore Wing Venation For Identification Of Net-Winged Insects Of The Ukrainian Carpathians, With A Focus On Chrysopa (Neuroptera, Chrysopidae)
Figs 10–11. Fore wings of species of Chrysopidae: 10 — fore wing of Chrysopa dorsalis (Burmeister, 1839); 11 — fore wing of Chrysopa hummeli Tjeder, 1936.
Fig. 2 in Morphometry Of Fore Wing Venation For Identification Of Net-Winged Insects Of The Ukrainian Carpathians, With A Focus On Chrysopa (Neuroptera, Chrysopidae)
Fig. 2. Comparative diagram of the indices of the ratio of structures of the fore wing for the species of the genus Chrysopa from the Ukrainian Carpathians: Chrysopa from the Ukrainian Carpathians.
Figs 8–9 in Morphometry Of Fore Wing Venation For Identification Of Net-Winged Insects Of The Ukrainian Carpathians, With A Focus On Chrysopa (Neuroptera, Chrysopidae)
Figs 8–9. Fore wings of species of Chrysopidae: 8 — fore wing of Chrysopa walkeri (McLachlan, 1893); 9 — fore wing of Chrysopa pallens (Rambur, 1838).
Fig. 1 in Morphometry Of Fore Wing Venation For Identification Of Net-Winged Insects Of The Ukrainian Carpathians, With A Focus On Chrysopa (Neuroptera, Chrysopidae)
Fig. 1. General scheme for wing venation in Chrysopidae (legend on the FIgure): Psm — pseudomedian vein, Psc — pseudocubitus, ini — intramedian cell, G1 — gradiformes internal, GE — gradiformes exstemal, cv — cross veins of costal sector, pt — pterostigma.
Figs 12–14 in Morphometry Of Fore Wing Venation For Identification Of Net-Winged Insects Of The Ukrainian Carpathians, With A Focus On Chrysopa (Neuroptera, Chrysopidae)
Figs 12–14. Fore wings of species of Chrysopidae: 12 — fore wing of Chrysopa viridana (Schneider, 1845); 13— fore wing of Chrysopa hungarica Klapalek, 1899; 14 — fore wing of Chrysopa phyllochroma (Wesmael, 1841).
Fig. 1 in Different staining techniques evaluation for the study of sperm morphology and morphometry in bats (Mammalia: Chiroptera)
Fig. 1. Sperm morphology and morphometric variables. (a) Part of the spermatozoa, (b) morphometric variables measured in this study: head length (HL), head width (HW), middle piece length (MPL) and tail length (TL).
Fig. 2 in Different staining techniques evaluation for the study of sperm morphology and morphometry in bats (Mammalia: Chiroptera)
Fig. 2. Microscopic images of spermatozoa stained with (a) Toluidine Blue (TB), (b) Giemsa (G), (c) May Grünwald-Giemsa (MG-G), (d) GRAM (Gr), (e) Hematoxylin-Eosin (HE), (f) DAPI, (g) Janus Green and (JG) (h) Basic Fuchsin (BF), b=10 µm.
Figure 1 in Morphometry And Eye Morphology Of Harpalus (Proteonus) Distinguendus (Duftschmid, 1812) And H. (Amblystus) Rufipalpis (Sturm, 1818) (Coleoptera: Carabidae), Two Congeners Inhabiting Abandoned Croplands
Figure 1. Measured traits of Harpalus distinguendus female and male individuals. Trait units in table 1.
Fig. 2 in Morphometry of compound eyes of three Bactrocera (Diptera: Tephritidae) species
Fig. 2. SEM micrographs of the compound eye of 3 Bactrocera species showing the shapes of the ommatidia (square and hexagonal), central region (A, C, E) and dorsal region (B, D, F). Scale bar = 20 µm A, B: B. cucurbitae C, D: B. tau E, F: B. dorsalis.
Fig. 1 in Morphometry of compound eyes of three Bactrocera (Diptera: Tephritidae) species
Fig. 1. Light micrographs of the compound eyes of the 3 Bactrocera species. Scale bar = 100 µm. A: Female B. cucurbitae B: Male B. cucurbitae C: Female B. tau D: Male B. tau E: Female B. dorsalis F: Male B. dorsalis.
Fig. 2 in A Different Perspective on Sex Dimorphism in the Adult Hermann's Tortoise: Geometric Morphometry.
Fig. 2. Dorsal view of landmarks used for the carapace. A, Landmark points used on the photo. B, The differences between females and males are indicated by landmarks (MorphoJ). The round marks represent the female, and extensions from those marks indicate the direction and changes in the male turtles.
Fig. 5. 95 in A Different Perspective on Sex Dimorphism in the Adult Hermann's Tortoise: Geometric Morphometry.
Fig. 5. 95% confidence ellipses for plastron landmarks (used past, Version 2.17c). PC1-PC2 and PC1-PC3. Blue dots are male; red dots are female. Table 1. The length ratios of three interscute sutures in the midline of the Hermann's tortoise plastron
Fig. 4 in A Different Perspective on Sex Dimorphism in the Adult Hermann's Tortoise: Geometric Morphometry.
Fig. 4. Dorsal view of landmarks used for the plastron. A, Landmark points used on the photo. B, The differences between females and males are indicated by landmarks (MorphoJ). The round marks represent the female, and extensions from those marks indicate the direction and changes in the male turtles.
Fig. 3. 95 in A Different Perspective on Sex Dimorphism in the Adult Hermann's Tortoise: Geometric Morphometry.
Fig. 3. 95% confidence ellipses for carapace landmarks (used past, Version 2.17c). PC1-PC2 and PC1-PC3. Blue dots are male; red dots are female.
Figure 4 in Limitations of allometry, morphometry, and fluctuating asymmetry in detecting environmental stress caused by lead soil contamination in aphids under field conditions
Figure 4 Fluctuating asymmetry (mean and error deviation) observed in the antenna and tibia of Brevicoryne brassicae in the presence (Lead (Pb)) and absence (Control) of lead.
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Allen Brain Atlas
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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.