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FIGURE 3 in Forty years later: a new Andean stream treefrog of the genus Hyloscirtus (Anura: Hylidae) from Ecuador, with comments on arm hypertrophy in the H. larinopygion group
FIGURE 3. Dorsal and ventral view of the holotype of Hyloscirtus arcanus sp. nov. (KU 202730; adult male, SVL 64.9 mm).
Fig. 16 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 16 Morphology and anatomy of vibracularia in Discoporella terminata. A, B Stereomicroscope; C–E histological sectioning, light microscopy. A, B Part of living colony showing frontal colony surface with autozooids and vibracularia with setae in various positions. C–E Sagittal sections showing muscular elements and shape of the
Fig. 15 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 15 Morphology and anatomy of adventitious avicularia and vibracularia in Caberea ellisi. A, B, Stereomicroscope; C, D CLSM, nucleus staining by HOECHST and antibodies to 5-HT and phalloidin staining; E, F, insets CLSM, phalloidin staining. A Part of living colony showing frontal colony surface with autozooids and avicularia (shown by arrows). B Part of living colony showing basal colony surface with vibracularia and their uplifted setae. C Muscles and vestigial polypide of avicularium (disto-lateral view). D Muscular elements
Fig. 12 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 12 Morphology and anatomy of adventitious pedunculate avicularia in Dendrobeania fruticosa. A, B Stereomicroscope; C–E histological sectioning, light microscopy; F–H CLSM, phalloidin staining. A Part of living colony showing autozooids with ovicells and avicularia of two size categories (shown by arrows). B Close-up of avicularium with raised mandible and exposed papilla of vestigial polypide. C Frontal section of avicularium below mandible (arrow points to communication pore between peduncle and avicularian cystid plugged by pore-cell complex). D, E Sagittal sections of avicularia with raised mandible (note the papilla of vestigial polypide and
Fig. 11 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 11 Morphology and anatomy of adventitious avicularia in Tegella armifera. A Stereomicroscope; B, D histological sectioning, light microscopy; C, E CLSM, phalloidin staining. A Part of living colony showing autozooids with ovicells and associated avicularia (shown by arrows); B Sagittal section of avicularium (note the tendon running along the upper vestibular wall and reaching sclerite). C, E Muscular elements of avicularium (lateral views) (note longi-
Fig. 8 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 8 Morphology and anatomy of adventitious avicularia in Arctonula arctica. A Stereomicroscope; B, D histological sectioning, light microscopy; C, E CLSM, phalloidin staining. A Part of living colony showing autozooids and paired lateral avicularia (some shown by arrows). B, D Sagittal sections of avicularium with closed mandible (mandibular sclerite and small invagination of palate are visible on both images, pivotal crossbar shown by arrow). C, E Muscular
Fig. 5 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 5 Details of autozooidal musculature (CLSM, phalloidin staining). A, B Dendrobeania fruticosa; C Aquiloniella scabra; D Rhamphostomella ovata. A Lateral view of autozooid showing parietal muscles and part of polypide. B Semi-protruded lophophore with tentacle sheath folded around its basal part and showing its longitudinal muscles (mouth area shown by arrow). C Apertural and parietal musculature of autozooid. D Partial view of retracted polypide showing
Fig. 4 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 4 Details of autozooidal musculature (CLSM, phalloidin staining). A Terminoflustra membranaceotruncata; B, D Arctonula arctica; C Tegella armifera. A Autozooids with semiretracted (left) and retracted polypide. B Autozooid with expanded lophophore (in A and B, mouth area shown by arrow). C Muscles of apertural area. D Lower part of the tentacle sheath showing its numerous longitudinal
Fig. 7 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 7 Morphology and anatomy of interzooidal avicularia in Terminoflustra membranaceotruncata. A Stereomicroscope; B light microscope; С inset, D histological sectioning, light microscopy; E, F CLSM, phalloidin staining. A Part of living colony showing autozooids and two avicularia with raised mandibles. B Upper close-up of mandible showing sclerite, large opening in the mandible lower wall and adductor tendons beneath. C Longitudinal section of avicularium with raised mandible; inset, vestigial polypide consisting of upper reduced tentacle surrounded by tentacle sheath with opening, and lower ganglion. D Longitudinal section of avicularium with closed mandible. E, F Muscular elements of avicularium (seen from above)
Fig. 3 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 3 Close-ups of colony fragments with expanded tentacle crowns (stereomicroscope). A Aquiloniella scabra; B Terminoflustra membranaceotruncata; C Arctonula arctica; D Tegella armifera
Fig. 10 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 10 Morphology and anatomy of adventitious avicularia in Smittoidea propinqua. A Stereomicroscope; B histological sectioning, light microscopy; C, inset, D CLSM, phalloidin staining. A Part of living colony showing autozooids with ovicells (empty and with embryos) and suboral avicularia (some shown by arrows); B Tangential section of avicularium (proximal corner of mandible is seen in
Fig. 2 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 2 Partial view of living colonies of the studied species (stereomicroscope). A Bicellariella ciliata (erect arborescent); B Aquiloniella scabra (erect arborescent); C Caberea ellisii (erect arborescent); D Discoporella terminata (free-living)
Fig. 6 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 6 Details of autozooidal and avicularian musculature (CLSM, phalloidin staining). A, B Tegella armifera; C Arctonula arctica. A Autozooid with retracted polypide. B Zooidal operculum with distal periopesial avicularium (note the size difference between striated avicularian adductors and smooth opercular muscles). C Autozooid with semiretracted lophophore and lateral adventitious avicularia
Fig. 14 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 14 Morphology and anatomy of adventitious avicularia and vibracularia in Aquiloniella scabra. A, B Stereomicroscope; C, D histological sectioning, light microscopy; E–G, insets CLSM, phalloidin staining. A Part of living colony showing frontal colony surface with autozooids and avicularia (shown by arrows). B Part of living colony showing basal colony surface with vibracularia (arrows) and their setae (arrowheads). C Diagonal section of avicularium with raised mandible (note widely opened tentacle sheath of vestigial polypide and ciliated rudimentary tentacle). D Cross-section of vibracularium. E–F Muscular elements of avicularium (disto-lateral and distal
Fig. 1 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 1 Partial view of living colonies of the studied species (stereomicroscope). A Terminoflustra membranaceotruncata (erect lobate); B Arctonula arctica (encrusting); C Rhamphostomella ovata (encrust-
Fig. 9 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 9 Morphology and anatomy of adventitious avicularia in Rhamphostomella ovata. A Stereomicroscope; B histological sectioning, light microscopy; C, inset CLSM, phalloidin staining; D CLSM, nucleus staining by HOECHST. A Part of living colony showing autozooids with ovicells (empty and with embryos) and suboral avicularia (some shown by arrows). B Tangential section of avicularium (note reduced tentacle of the vestigial polypide surrounded by
Fig. 13 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 13 Morphology and anatomy of adventitious pedunculate avicularia in Bicellariella ciliata. A Stereomicroscope; B light microscope; C, E, F, inset CLSM, phalloidin staining; D histological sectioning, light microscopy. A Part of living colony showing autozooids with ovicells and avicularia (shown by arrows). B Close-up of raised mandible showing adductor tendons. C, E, F Muscular elements of avicularium (lateral views) (note that one of two distal abductors attached
Fig. 17 in Reduction, rearrangement, fusion, and hypertrophy: evolution of the muscular system in polymorphic zooids of cheilostome Bryozoa
Fig. 17 Schemes of cheilostome autozooid (A), interzooidal avicularium of Terminoflustra membranaceotruncata (B), and adventitious sessile avicularia of Arctonula arctica (C) and Smittoidea propinqua (D). All with uplifted operculum/mandible. Thin muscle fibers radiating from diaphragm shown in B. Longitudinal muscles are visible in tentacle sheath of vestigial polypide in B–D. Abbreviations: db, duplicature bands, dm, diaphragm, f, funiculus, fm, frontal membrane, lw, lower mandibular wall, mab, abductor, mad, adductor, md,
Supplementary files:TSH Promotes Right Ventricle Energy Metabolism Remodeling and Hypertrophy
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FIGURES 15–18. Neopilionid spiracles. 15. Ballarra longipalpus, showing spines derived from hypertrophied surrounding ornamentation. 16 in Revision of the genus Megalopsalis (Arachnida: Opiliones: Phalangioidea) in Australia and New Zealand and implications for phalangioid classification 2773
FIGURES 15–18. Neopilionid spiracles. 15. Ballarra longipalpus, showing spines derived from hypertrophied surrounding ornamentation. 16. Australiscutum hunti, with no anterior ornamentation and hypertrophied posterior ornamentation. 17. Monoscutum titirangiense, with multiple spine rows over covering plate. 18. Same, close-up of individual spines.
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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