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2,293 results for “Atlantic forests”
Figure 8–13 in What do we know about the harvestmen (Arachnida: Opiliones) from Paraná State, Brazil? A diversity hotspot in the southern Atlantic Forest
Figure 8–13. Key contributors (8, 10, 12) to the knowledge of the Opiliones from Paraná and species associated to them (9, 11, 13): (8) Carl-Friedrich Roewer unknown date (from Kraus 1963); (9) Geraeocormobius armatus, from Roewer 1913, BHL public domain; (10) Helia Eller Monteiro Soares in 1992 (Photo courtesy by Ricardo Pinto-da-Rocha) and Benedicto Abílio Monteiro Soares ca. 1950 (Photo courtesy José Robert Pujol Luz); (11) Neopachylus imaguirei, from Soares & Soares 1947b, BHL CC BY-NC-SA 4.0; (12) Gerdt Hatschbach in occasion of his 89th birthday in 2012 (Photo by Irene Roiko/SMCS); (13) Promitobates hatschbachi (Photo by APP, specimen from Piraquara, Paraná, 2020).
Figures 6–7 in What do we know about the harvestmen (Arachnida: Opiliones) from Paraná State, Brazil? A diversity hotspot in the southern Atlantic Forest
Figures 6–7. Heatmaps of 15th classes with density of literature records of species of Opiliones from Paraná State, Brazil: (6) geohash density map with the equal count (quartile); (7) graduated density map with continuous mode.
Figure 1 in Necromys lasiurus (Cricetidae: Sigmodontinae) from open areas of the Atlantic Forest of Rio de Janeiro: Population structure and implications for the monitoring of hantaviruses
Figure 1. Distribution of Necromys lasiurus sample groups by ecoregion. The points are color-coded by ecoregion and sample group. Insert map shows the Brazilian biomes.
Figure 1 in New record of the rare Atlantic Forest rodent Phyllomys lundi (Mammalia: Rodentia)
Figure 1. Collecting localities of P. lundi including the type locality (circle) and new locality of occurrence (square). Gray area corresponds to Atlantic Forest.
Figure 2 in New record of the rare Atlantic Forest rodent Phyllomys lundi (Mammalia: Rodentia)
Figure 2. Dorsal, ventral and lateral views of skull and skin of P. lundi female MZNB 271. Scale bars: 1 cm.
Figure 1 in Ants (Hymenoptera: Formicidae) of the Parque Estadual São Camilo, an isolated Atlantic Forest remnant in western Paraná, Brazil
Figure 1. Map showing the collection points indicated by yellow circles at Parque Estadual São Camilo, Palotina, Paraná state, Southern Brazil. The photos show the main environments explored, and the green filled polygons depict the vegetation cover of the park. Photos: N. Ladino, 8–11/12/2020.
Figure 2 in Are recaptures of banded birds efficient at detecting altitudinal migrations in the Atlantic Forest?
Figure 2. Frequency of altitudinal movements by season (Rainy and Dry) and displacement direction (lower and higher).
Figure 1 in Are recaptures of banded birds efficient at detecting altitudinal migrations in the Atlantic Forest?
Figure 1. Geographic location of the Curucutu region. Altitudinal schematic of Núcleo Curucutu, showing the study locations A. Cota 30; B. Cota 200; C. Cota 400 and D. Cota 700, highlighted by the white rectangle. Model adapted from Malagoli (2013).
Figure 2 in Three names, one species: junior synonyms for the Atlantic Forest emerald dragonfly Navicordulia atlantica (Odonata: Corduliidae s.s.)
Figure 2 Males (a, c–f) and females (b, g–j) of Navicordulia atlantica: (a–b) wings; (c–d) prothorax in dorsolateral view; (e–f) secondary genitalia in lateral view; (g–h) S8–10 in lateral (g), and dorsolateral (h) views; (i) allotype from Paraná State (ABMM); (j) holotype from Santa Catarina State (ABMM). (a–h) specimens from Ilha do Cardoso State Park, São Paulo State (DZUP); (i–j) adapted from Machado and Costa (1995, figs. 29–30).
Figure 4 in Three names, one species: junior synonyms for the Atlantic Forest emerald dragonfly Navicordulia atlantica (Odonata: Corduliidae s.s.)
Figure 4 Caudal appendages of males of Navicordulia atlantica in dorsal (a, d), lateral (b, e), and ventral view (c, f). All from Ilha do Cardoso State Park, São Paulo State (DZUP).
Fig. 1 in Diurnal flight periodicity of a Neotropical ant assemblage (Hymenoptera, Formicidae) in the Atlantic Forest
Fig. 1. The relationship between hour and flight activity of a Neotropical ant assemblage given sampling effort (four Malaise traps), based on hourly sampling summary from five days. The solid lines were obtained by the locally weighted smoother (function loess in R).
Fig. 2 in Diurnal flight periodicity of a Neotropical ant assemblage (Hymenoptera, Formicidae) in the Atlantic Forest
Fig. 2. The relationship between hour and flight activity of a Neotropical ant assemblage through a 24 h time scale.The solid lines were obtained by the locally weighted smoother (function loess in R).
Fig. 5 in Diurnal flight periodicity of a Neotropical ant assemblage (Hymenoptera, Formicidae) in the Atlantic Forest
Fig. 5. Phenologies of flight activity for all species represented by eight or more specimens in total. Species are sorted on the vertical axis according to the pondered average of hour of flight, producing the observed diagonalization from early morning on top to nocturnal on the bottom. Frequencies are normalized from 0.0 to 1.0.
Figs. 25–48 in Insect galls of a protected remnant of the Atlantic Forest tableland from Rio de Janeiro State (Brazil)
Figs. 25–48. Insect galls of Guaxindiba. 25 and 26. Acacia sp., 25: fusiform stem gall; 26: globose bud gall; 27–32. Albizia sp., 27: globose bud gall; 28: fusiform bud gall; 29: circular leaf gall; 30: vein swelling; 31: marginal leaf roll; 32: globose leaf gall; 33. Bauhinia sp., cylindrical leaf gall; 34–36. Chloroleucon acacioides, 34: conical gall on folioles; 35: conical petiole gall; 36: globose bud gall; 37. Copaifera sp., cylindrical leaf gall; 38 and 39. Inga laurina, 38: globose leaf gall; 39: vein swelling; 40–45. Machaerium sp., 40: circular leaf gall; 41: fusiform stem gall; 42: marginal leaf roll; 43: circular leaf gall; 44: conical leaf gall; 45: globose bud gall; 46. Ormosia sp., vein swelling; 47. Pterodon sp., globose stem gall; 48. Senegalia sp., globose bud gall.
Figs. 73–96 in Insect galls of a protected remnant of the Atlantic Forest tableland from Rio de Janeiro State (Brazil)
Figs. 73–96. Insect galls of Guaxindiba. 73. Trichilia sp. 5, globose leaf gall; 74. Trichilia sp. 6, vein swelling; 75. Trichilia sp. 7, fusiform stem gall; 76. Ficus sp. 1, circular leaf gall; 77. Ficus sp. 2, globose leaf gall.; 78. Ficus sp. 2, conical leaf gall; 79–80. Eugenia bunchosiifolia, 79: marginal leaf roll; 80: conical leaf gall; 81–82. Eugenia sp. 1, 81: conical leaf gall; 82: cylindrical leaf gall; 83. Eugenia sp. 2, cylindrical leaf gall; 84. Eugenia sp. 3, globose leaf gall; 85. Eugenia sp. 4, discoid leaf gall; 86. Marlierea sp., gobose leaf gall; 87–90. Myrcia sp., 87: globose leaf gall; 88: ovoid leaf gall; 89: fusiform stem gall; 90: fusiform bud gall; 91. Myrciaria floribunda, marginal leaf roll; 92. Guapira sp., globose bud gall; 93–94. Olacaceae not determined, 93: tendril swelling; 94: globose leaf gall; 95. Pera glabrata, conical leaf gall; 96. Phyllanthus sp., circular leaf gall.
Figs. 49–72 in Insect galls of a protected remnant of the Atlantic Forest tableland from Rio de Janeiro State (Brazil)
Figs. 49–72. Insect galls of Guaxindiba.49 and 50. Senna sp., 49:marginal leaf roll; 50: globose leaf gall; 51. Zollernia ilicifolia, circular leaf gall; 52–57. Tontelea sp. 1, 52: conical leaf gall; 53: globose stem gall; 54: discoid leaf gall; 55: globose leaf gall; 56: fusiform stem gall; 57: marginal leaf roll; 58. Tontelea sp. 2, circular leaf gall; 59. Hypericaceae sp., conical leaf gall; 60–62. Byrsonima sericea, 60: globose stem gall; 61: circular leaf gall; 62: fower bud gall; 63: Mascagnia sp., globose leaf gall; 64–65. Stigmaphyllon lalandianum, 64: conical leaf gall; 65. globose leaf gall; 66. Sidastrum micranthum, globose leaf gall; 67. Trichilia elegans, fusiform stem gall; 68. Trichilia rubra, cylindrical leaf gall; 69. Trichilia sp. 1, marginal leaf roll; 70. Trichilia sp. 2, vein swelling; 71. Trichilia sp. 3, fusiform stem gall; 72. Trichilia sp. 4, cylindrical leaf gall.
Fig. 4 in Spatial variation of dung beetle assemblages associated with forest structure in remnants of southern Brazilian Atlantic Forest
Fig. 4. Redundancy analysis ordination for dung beetle abundance (a) and biomass (b) constrained by environmental variables. Triplot with explanatory variables, species and samples: sp. 1: Bdelyrus braziliensis; sp. 2: Canthidium aff. trinodosum; sp. 3: Canthon luctuosus; sp. 4: Canthon rutilans cyanescens; sp. 5: Canthonella aff. instriata; sp. 6: Coprophanaeus dardanus; sp. 7: Coprophanaeus saphirinus; sp. 8: Deltochilum brasiliense; sp. 9: Deltochilum furcatum; sp. 10: Deltochilum morbillosum; sp. 11: Deltochilum multicolor; sp. 12: Deltochilum rubripenne; sp. 13: Dichotomius sericeus; sp. 14: Dichotomius quadrinodosus; sp. 15: Dichotomius sp.; sp. 16: Eurysternus cyanescens; sp. 17: Eurysternus parallelus; sp. 18: Paracanthon aff. rosinae; sp. 19: Phanaeus splendidulus; sp. 20: Uroxys sp. 1; sp. 21: Uroxys sp. 2; A: basal area of first tree; B: height of first tree; C: top diameter of first tree; D: distance to first tree; E: basal area of first shrub; F: height of first shrub; G: top diameter of first shrub; H: distance to first shrub; I: land slope; J:altitude; K: leaf litter cover; L:green cover; M: exposed soil; N: height of leaf litter; O: canopy cover; 1–25: ANH sampling points; 26–50: ITA sampling points; 51–75: PER sampling points; 76–100: RAT sampling points.
Figs. 121–125 in Insect galls of a protected remnant of the Atlantic Forest tableland from Rio de Janeiro State (Brazil)
Figs. 121–125. Insect galls of Guaxindiba. 121 and 122. Pouteria sp. 2, 121: globose stem gall; 122: globose bud gall; 123. Smilax krukovii, conical leaf gall; 124. Lantana camara, fusiform stem gall; 125. Lantana sp., cylindrical leaf gall.
Figs. 97–120 in Insect galls of a protected remnant of the Atlantic Forest tableland from Rio de Janeiro State (Brazil)
Figs. 97–120. Insect galls of Guaxindiba. 97. Phyllanthus sp., globose leaf gall; 98. Psychotria sp., fusiform stem gall; 99–100. Metrodorea sp., 99. circular leaf gall; 100. vein swelling; 101–103. Neoraputia alba, 101: globose leaf gall; 102: fusiform leaf gall at petiole basis; 103: vein swelling; 104. Casearia sp. 1, cylindrical leaf gall; 105. Casearia sp. 2, leaf roll; 106. Casearia sp. 3, globose bud gall; 107–108. Matayba juglandifolia, 107: conical leaf gall; 108: globose leaf gall; 109–110. Paullinia racemosa, 109: midvein swelling; 110: circular leaf gall; 111–117. Serjania sp., 111: vein swelling; 112: fusiform bud gall; 113: circular leaf gall; 114: cylindrical leaf gall; 115: tendril swelling; 116: midvein swelling; 117: globose leaf gall; 118–119. Manilkara subsericea, 118: circular leaf gall; 119: globose stem gall; 120. Pouteria sp. 1, circular leaf gall.
Fig. 3 in Spatial variation of dung beetle assemblages associated with forest structure in remnants of southern Brazilian Atlantic Forest
Fig. 3. Multivariate Regression Tree (MRT) analysis of the dung beetle abundance (a) and biomass with environmental variables as predictor variables. Environmental variables: A, basal area of trees; I, land slope; J, altitude; N, height of leaf litter; O, canopy cover. Species names are abbreviated and can be found in legend of Fig. 4 and in Appendix C. Bar charts at the terminal leaves of the regression tree represent species abundance means. The order of bars in each bar chart are the same and follows the sequence of names showed at left.
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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.