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612 results for “Croatia”
FIG. 2. — Conohyus olujici n in A contribution to the evolutionary biology of Conohyus olujici n. sp. (Mammalia, Suidae, Tetraconodontinae) from the early Miocene of Lučane, Croatia
FIG. 2. — Conohyus olujici n. sp., holotype (HPM-GP 10767), male right mandible fragment with canine, broken p2 and complete p3-m3; A, labial view; B, lingual view; C, occlusal view. Scale bars: 4 cm.
Fig. 62. A, B. Disporella hispida, yellow variety. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 62. A, B. Disporella hispida, yellow variety. A. Ancestrula and early autozooids (AMNH 1048; 0.1 mm). B. Young colony (AMNH 1049; 0.5 mm). C–I. Patinella radiata. C. Fertile colony (AMNH 1050; 0.5 mm). D. Short ooeciostome with circular ooeciopore (AMNH 1050; 0.1 mm). E. Radiating fascicles of autozooids separated by alveoli, and growing edge of colony (AMNH 1051; 0.1 mm). F. Stellateheaded spines within autozooids (AMNH 1051; 0.02 mm). G. Broken ancestrula (AMNH 1052; 0.1 mm). H. Ancestrula and first autozooids of young colony (specimen destroyed; 0.05 mm). I. Ancestrula and first zooids of young colony in early stages of reflection of basal lamina back over ancestrula, establishing radial growth (AMNH 1048; 0.2 mm).
Fig. 59. A, B in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 59. A, B. Crisia fistulosa (AMNH 1038). A. Branch segment (0.5 mm). B. Peristome with annular constrictions (0.1 mm). C–F. Crisia ramosa.C. Portion of fertile branch segment (AMNH 1039; 0.5 mm). D. Kenozooids at colony base (AMNH 1040; 0.5 mm). E. Pseudopores of brood chamber (AMNH 1039; 0.02 mm). F. Brood chamber with distal ooeciostome flared to large circular ooeciostome (AMNH 1039; 0.1 mm). G–J. Crisia recurva. G. Fertile branch segment (AMNH 1041; 0.5 mm). H. Entire colony attached to Cellaria branch (AMNH 1042; 0.5 mm). I. Brood chamber with terminal ooeciostome and broken ooeciopore (lectotype, UIIZ 315; 0.062 mm). J. Base of attachment with radiating kenozooids (AMNH 1042; 0.1 mm).
Fig. 61. Disporella hispida. A, B. Yellow colonies with 9 tentacles. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 61. Disporella hispida. A, B. Yellow colonies with 9 tentacles. A. Ontogenetic increase in tentacle and exposed introvert length: Filled circles plot maximum tentacle length within lophophores (Y = 106.231 + 0.250X), open circles plot minimum tentacle lengths (Y = 106.340 + 0.159X), and diamonds plot exposed introvert length (Y = ‾27.526 + 0.090X). B. Ontogenetic increase in lophophore diameter (Y = 189.359 + 0.110X). C, D. White colonies with 10 tentacles. C. Ontogenetic increase in tentacle and exposed introvert length: Filled circles plot maximum tentacle length within lophophores (Y = 156.909 + 0.514X), open circles plot minimum tentacle lengths (Y = 172.051 + 0.226X), and diamonds plot exposed introvert length (Y = ‾35.225 + 0.166X). D. Ontogenetic increase in lophophore diameter (Y = 192.398 + 0.330X).
Fig. 58. Frondipora verrucosa. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 58. Frondipora verrucosa. A. Increase in maximum tentacle length toward edge of fascicles (Y = 1076.626X‾0.123). B. Increase in maximum lophophore diameter toward edge of fascicles (Y = 585.039X‾0.048.
Fig. 57. Diplosolen obelium. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 57. Diplosolen obelium. A. Ontogenetic increase in maximum tentacle length (Y = 213.782 + 0.135X); open circles plot maximum tentacle lengths of anomalous lophophores adjoining excurrent chimney where colony folded sharply over edge of shell substratum; longest tentacles located on sides of lophophores adjacent to chimney. B. Ontogenetic increase in lophophore diameter (Y = 300.205 + 0.118X); open circles represent the two anomalous lophophores described for A. Regression lines exclude the lophophores adjoining substratum defined excurrent chimney.
Fig. 54. Plagioecia patina. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 54. Plagioecia patina. A. Ontogenetic increase in tentacle and introvert length: filled circles plot maximum tentacle length within lophophores (Y = 198.490 + 0.975X) and open circles plot lengths of exposed portions of introverts (Y = 2.685 + 0.440X). B. Ontogenetic increase in maximum lophophore diameter (Y = 268.652 + 0.630X).
Fig. 56. A–D. Diplosolen obelium. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 56. A–D. Diplosolen obelium. A. General aspect (AMNH 1034; 0.5 mm). B. Brood chamber with ooeciostome (near center) intermediate in size between larger autozooidal peristomes and smaller nanozooid peristomes (AMNH 1034; 0.1 mm). C. Lateral view of growing edge of colony (AMNH 1034; 0.5 mm). D. Ancestrula and early autozooids followed by alternating autozooids and nanozooids (AMNH 1035; 0.5 mm). E–G. Frondipora verrucosa. E. General aspect of frontal surface (AMNH 1036; 0.5 mm). F. Reverse surface of branch (AMNH 1037; 0.5 mm). G. Brood chamber (AMNH 1036; 0.2 mm).
Fig. 60. A–J. Disporella hispida. A–D. Yellow variety. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 60. A–J. Disporella hispida. A–D. Yellow variety. A. General aspect (AMNH 1043; 0.5 mm). B. Autozooids (orifices at top) largely buried below alveoli (AMNH 1044; 0.2 mm). C. Spines within autozooid closed by inset diaphragm (AMNH 1043; 0.02 mm). D. Growing edge of colony, with minimal orificial spines (AMNH 1043; 0.1 mm). E–J. white variety. E. Colony with incompletely formed central brood chamber (AMNH 1046; 0.5 mm). F. Spinose orifice of autozooid, and alveoli (AMNH 1046; 0.1 mm). G. Spines within autozooid (AMNH 1047; 0.01 mm). H. Growing edge of colony with spinose autozooidal orifices (AMNH 1048; 0.1 mm). I. Fertile colony with completely formed brood chamber and ooeciostome (AMNH 1047; 0.5 mm). J. Ooeciostome (AMNH 1047; 0.05 mm).
Fig. 55. A–E in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 55. A–E. Plagioecia sarniensis (AMNH 1033). A. General aspect (0.5 mm). B. Brood chamber (0.2 mm). C. Broken ooeciopore atop short ooeciostome (0.1 mm). D. Pseudopore (0.01 mm). E. Broken autozooidal peristomes transformed into secondary nanozooids by funnel terminal diaphragm (0.1 mm). F–H. Eurystrotos compacta (AMNH 931). F. General aspect (0.5 mm). G. Brood chamber (center) surrounded by peristomes of autozooids (0.2 mm). H. Distal end of ancestrula (small oblique tube, bottom center) and early autozooids (0.2 mm).
Fig. 53. A–F. Plagioecia patina. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 53. A–F. Plagioecia patina. A. Colony with budded daughter colony (AMNH 947; 0.5 mm). B. Lateral view of colony with budded daughter colony (AMNH 947; 0.5 mm). C. Brood chamber (top) near colony margin (AMNH 1030; 0.5 mm). D. Brood chamber and (top center) distal ooeciostome with circular ooeciopore (AMNH 1030; 0.1 mm). E. Marginal zone of functional autozooids (right) and (left) nonfunctional autozooids with broken peristomes and terminal diaphragms (AMNH 1031; 0.2 mm). F. Pseudopores (AMNH 1032; 0.01 mm).
Fig. 52. A–D. Entalophoroecia deflexa. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 52. A–D. Entalophoroecia deflexa. A. General aspect (AMNH 1027; 1 mm). B. Ooeciostome (center) (AMNH 1027; 0.1 mm). C. Pseudopores (AMNH 1027; 0.02 mm). D. Ancestrula (bottom center and early autozooids on Cellaria branch (AMNH 1028; 0.5 mm). E–G. Entalophoroecia robusta (AMNH 1029). E. General aspect (0.5 mm). F. Branch tip (0.5 mm). G. Pseudopores, more abundant on branch surface (left) than on (right) peristome (0.05 mm).
Fig. 51. A–D. Annectocyma arcuata. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 51. A–D. Annectocyma arcuata. A. General aspect (AMNH 1021; 0.5 mm). B. Brood chamber (AMNH 1022; 0.5 mm). C. Autozooidal interior with small spines (AMNH 1023; 0.05 mm). D. Autozooidal peristome and orifice (bottom) and (center) ooeciostome with oval ooeciopore (AMNH 1022; 0.1 mm). E, F. Annectocyma cf. A. major (AMNH 1024). E. General aspect (0.5 mm). F. Incompletely formed brood chamber at branch tip (0.2 mm). G–I. Annectocyma sp. G. Colony origin with divergent branches and (bottom) lateral branch (AMNH 1025; 0.5 mm). H. Oblique view of colony origin (center) and (left) lateral branch with incipient brood chamber (AMNH 1026; 0.5 mm). I. Ancestrula and early autozooids (AMNH 1025; 0.1 mm).
Fig. 49. A–H. Exidmonea triforis. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 49. A–H. Exidmonea triforis. A. General aspect (lectotype, UIIZ 321; 2 mm). B. Gonozooid (lectotype, UIIZ 321; 0.5 mm). C. Recurved ooeciostome and terminal ooeciopore (lectotype, UIIZ 321; 0.05 mm). D. Reverse surface of colony (AMNH 1018; 0.5 mm). E. Pseudopores and growth lines on reverse surface (AMNH 1018; 0.1 mm). F. Colony with two gonozooids at branch bifurcations (AMNH 1019; 0.5 mm). G. Reverse surface of broken colony base with kenozooids (AMNH 1018; 0.2 mm). H. Transverse break near colony base with kenozooids (above) and (below) autozooids (AMNH 1018; 0.02 mm). I, J. Exidmonea coerula (AMNH 1020). I. Frontal surface (0.5 mm). J. Reverse surface (0.5 mm).
Fig. 50 in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 50. Exidmonea triforis. Relationship between maximum tentacle length and maximum lophophore diameters within autozooids. Autozooids in row closest to branch axis indicated by crosses, and those progressively farther from axis and closer to lateral margin of branch indicated successively by pluses, asterisks, triangles, and open circles. Relationship between tentacle length and lophophore diameter (marked by regression line) is Y = 0.008X1.810, and is generated by change in lophophore shape from broadly flared, almost discoidal, at branch margin to more narrowly conical nearer branch axis, where lophophores are campylonemidian.
Fig. 48. Tubulipora liliacea. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 48. Tubulipora liliacea. A. Ontogenetic increase in tentacle length: Filled circles plot maximum tentacle length within lophophores (Y = 277.244 + 0.445X) and open circles plot minimum tentacle lengths (Y = 266.548 + 0.235X). B. Ontogenetic increase in lophophore diameter: Filled circles plot maximum lophophore diameters (Y = 306.178 + 0.285X) and open circles plot minimum diameters (Y = 269.182 + 0.314X).
Fig. 46. Schizotheca serratimargo. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 46. Schizotheca serratimargo. A. Tentacle length and height of introvert with respect to distance from edge of branch. B. Lophophore asymmetry plotted as ratio of maximum tentacle length to minimum tentacle length with respect to distance from edge of branch.
Fig. 47. A–D. Tubulipora liliacea. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 47. A–D. Tubulipora liliacea. A. General aspect (AMNH 1014; 0.5 mm). B. Position of ooeciostome (center) (AMNH 1015; 0.2 mm). C. Ooeciopore (AMNH 1014; 0.1 mm). D. Ancestrula and early autozooids (AMNH 1016; 0.2 mm). E, F. Tubulipora plumosa (AMNH 1017). E. General aspect (0.5 mm). F. Damaged ooeciostome (center) and (right) fascicle of autozooids (0.01 mm).
Fig. 45. A–H. Schizotheca serratimargo. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 45. A–H. Schizotheca serratimargo. A. Ontogenetically young zooids at branch tip (AMNH 1011; 0.5 mm). B. Ontogenetically mature maternal zooids with ovicells (AMNH 1012; 0.5 mm). C. Ontogenetically young maternal zooid with incipient ovicell (AMNH 1011; 0.1 mm). D. Branch margin with vicarious avicularia along edge (AMNH 1013; 0.5 mm). E. Completely formed ovicells of maternal zooids (AMNH 1012; 0.1 mm). F. Ontogenetically old autozooids with adventitious avicularia (AMNH 1011; 0.1 mm). G, Vicarious avicularium (AMNH 1011; 0.1 mm). H. Autozooidal orifice (AMNH 1012; 0.05 mm).
Fig. 44. A–D. Rhynchozoon revelatus. A in Northern Adriatic Bryozoa From The Vicinity Of Rovinj, Croatia
Fig. 44. A–D. Rhynchozoon revelatus. A. General aspect (holotype, AMNH 1005; 0.5 mm). B. Autozooids and (bottom right) maternal zooid with ovicell (holotype, AMNH 1005; 0.1 mm). C. Autozooidal orifice (holotype, AMNH 1005; 0.05 mm). D. Ancestrula (center) and early autozooids (paratype, AMNH 1056). E–H. Schizotheca fissa. E. Entire, untreated colony (AMNH 942; 0.5 mm). F. Maternal zooid with normal ovicell (AMNH 1009; 0.1 mm). G. Oblique view from distal end of maternal zooid with ovicell bearing distal adventitious avicularium (AMNH 1010; 0.1 mm). H. Ontogenetically young, untreated autozooids (AMNH 942; 0.1 mm).
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Allen Brain Atlas
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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
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