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FIGURE 3. Davisella spondias n in Eriophyoid mites (Acari: Prostigmata: Eriophyoidea) from fruit trees in Northeastern Brazil—a new genus, three new species and a redescription
FIGURE 3. Davisella spondias n. sp. – CGM. Coxigenital region, male; D. dorsal habitus, female; AD. Antero-dorsal female; em. empodium, leg I, female; LM. lateral habitus, female; LO. lateral opisthosoma view of anterior section of mite; L1. leg I, female; L2. leg II, female; V. ventral habitus, female.
FIGURE 7 in Eriophyoid mites (Acari: Prostigmata: Eriophyoidea) from fruit trees in Northeastern Brazil—a new genus, three new species and a redescription
FIGURE 7. Aculus pitangae – CGM. Coxigenital region, male; D. dorsal habitus, female; em. empodium, leg I, female; GF. genitalia, female; LM. lateral habitus, female; L1. leg I, female; L2. leg II, female; V. ventral habitus, female.
FIGURE 2. Solivagus alpha n. gen., n in Eriophyoid mites (Acari: Prostigmata: Eriophyoidea) from fruit trees in Northeastern Brazil—a new genus, three new species and a redescription
FIGURE 2. Solivagus alpha n. gen., n. sp. A. dorsal habitus, female; B. ventral habitus, female; C. lateral habitus, female; D. prodorsal shield; E. epigynum; F. leg I and leg II, female.
FIGURE 1. Solivagus alpha n. gen., n in Eriophyoid mites (Acari: Prostigmata: Eriophyoidea) from fruit trees in Northeastern Brazil—a new genus, three new species and a redescription
FIGURE 1. Solivagus alpha n. gen., n. sp. – CGM. Coxigenital region, male; D. dorsal habitus, female; em. empodium, leg I, female; GF. genitalia, female; LM. lateral habitus, female; LO. lateral opisthosoma view of anterior section of mite; L1. leg I, female; L2. leg II, female; V. ventral habitus, female.
FIGURE 5. Dichopelmus ibapitanga n in Eriophyoid mites (Acari: Prostigmata: Eriophyoidea) from fruit trees in Northeastern Brazil—a new genus, three new species and a redescription
FIGURE 5. Dichopelmus ibapitanga n. sp. – CGM. Coxigenital region, male; D. dorsal habitus, female; em. empodium, leg I, female; LM. lateral habitus, female; LO. lateral opisthosoma view of anterior section of mite; L1. leg I, female; L2. leg II, female; V. ventral habitus, female.
3D Point Clouds of Trees and Apple Fruit Annotated with Thermal Data
<p>The data set captures four measurements during fruit growth: 06/28/2022 (15:00), 07/12/2022 (15:00), 09/01/2022 (15:00), 09/06/2022 (13:00)</p> <p>Additionally, diurnal courses are provided for three days: </p> <table> <tbody> <tr> <td> <p>Date</p> </td> <td> <p>Time</p> </td> </tr> <tr> <td> <p>09/21</p> </td> <td> <p>07:00, 08:00, 10:00, 12:00, 13:00, 18:00</p> </td> </tr> <tr> <td> <p>09/22</p> </td> <td> <p>07:00, 08:00, 10:00, 12:00, 13:00, 18:00</p> </td> </tr> <tr> <td> <p>10/05</p> </td> <td> <p>06:30, 07:00, 09:00, 10:00, 11:00, 16:00</p> </td> </tr> </tbody> </table> <p> </p> <p>The data set was measured in Blocks (A-D) of trees (T) on apple (A) fruit and is stored as compressed zip files, capturing raw, preprocessed, and manually recorded reference (ground truth) data.</p> <p>1. zip files entitled Raw_YYYY_MM_DD_Block[A-C]-[R, L] for seasonal data and Raw_YYYY_MM_DD_BlockD-[R, L]_Hour__:__ for diel data</p> <p>- raw data of LiDAR 3D point clouds - txt files</p> <p>- raw image data by thermal camera - txt files</p> <p>2. zip files entitled YYYY_MM_DD or DailyAcquisitions:</p> <p>- preprocessed (merged) sensor data of temperature-annotated 3D point clouds of canopies - csv files</p> <p>- preprocessed data, capturing manually segmented point clouds of temperature-annotated fruit - txt files</p> <p>3. Microsoft Excel files entitled References and Weather data:</p> <p>- raw data, representing reference data of fruit - xlsx file</p> <p>- raw data of weather conditions - xlsx file</p>
On following pages: 190. Hairy Fruit-eating Bat (Artibeus hirsutus); 191. Fringed Fruit-eating Bat (Artibeus fimbriatus); 192. Ecuadorian Fruit-eating Bat (Artibeus aequatorialis); 193. Jamaican Fruit-eating Bat (Artibeus jamaicensis); 194. Dark Fruit-eating Bat (Artibeus obscurus); 195. Schwartz's Fruit-eating Bat (Artibeus schwartz); 196. Great Fruit-eating Bat (Artibeus lituratus); 197. Large Fruit-eating Bat (Artibeus amplus); 198. Flat-faced Fruit-eating Bat (Artibeus planirostris); 199. Rosenberg's Fruit-eating Bat (Artibeus rosenbergi); 200. Thomas's Fruit-eating Bat (Artibeus watson); 201. Toltec Fruit-eating Bat (Artibeus toltecus); 202. Pygmy Fruit-eating Bat (Artibeus phaeotis); 203. Gervais's Fruit-eating Bat (Artibeus cinereus); 204. Andersen's Fruit-eating Bat (Artibeus anderseni); 205. Little Fruit-eating Bat (Artibeusravus); 206. Aztec Fruit-eating Bat (Artibeus aztecus); 207. Bogota Fruit-eating Bat (Artibeus bogotensis); 208. Silvery Fruit-eating Bat (Artibeus glaucus); 209. Dwarf Fruit-eating Bat (Artibeus gnomus); 210. Jamaican Fig-eating Bat (Ariteus flavescens); 211. Tree Bat (Ardops nicholls); 212. Red Fruit Bat (Stenoderma rufum); 213. Wrinkle-faced Bat (Centurio senex): 214. Ipanema Broad-nosed Bat (Pygoderma bilabiatum); 215. Visored Bat (Sphaeronycteris toxophyllum); 216. Little White-shouldered Bat (Ametrida centurio); 217. Cuban Fig-eating Bat (Phyllops falcatus). in Phyllostomidae
On following pages: 190. Hairy Fruit-eating Bat (Artibeus hirsutus); 191. Fringed Fruit-eating Bat (Artibeus fimbriatus); 192. Ecuadorian Fruit-eating Bat (Artibeus aequatorialis); 193. Jamaican Fruit-eating Bat (Artibeus jamaicensis); 194. Dark Fruit-eating Bat (Artibeus obscurus); 195. Schwartz's Fruit-eating Bat (Artibeus schwartz); 196. Great Fruit-eating Bat (Artibeus lituratus); 197. Large Fruit-eating Bat (Artibeus amplus); 198. Flat-faced Fruit-eating Bat (Artibeus planirostris); 199. Rosenberg's Fruit-eating Bat (Artibeus rosenbergi); 200. Thomas's Fruit-eating Bat (Artibeus watson); 201. Toltec Fruit-eating Bat (Artibeus toltecus); 202. Pygmy Fruit-eating Bat (Artibeus phaeotis); 203. Gervais's Fruit-eating Bat (Artibeus cinereus); 204. Andersen's Fruit-eating Bat (Artibeus anderseni); 205. Little Fruit-eating Bat (Artibeusravus); 206. Aztec Fruit-eating Bat (Artibeus aztecus); 207. Bogota Fruit-eating Bat (Artibeus bogotensis); 208. Silvery Fruit-eating Bat (Artibeus glaucus); 209. Dwarf Fruit-eating Bat (Artibeus gnomus); 210. Jamaican Fig-eating Bat (Ariteus flavescens); 211. Tree Bat (Ardops nicholls); 212. Red Fruit Bat (Stenoderma rufum); 213. Wrinkle-faced Bat (Centurio senex): 214. Ipanema Broad-nosed Bat (Pygoderma bilabiatum); 215. Visored Bat (Sphaeronycteris toxophyllum); 216. Little White-shouldered Bat (Ametrida centurio); 217. Cuban Fig-eating Bat (Phyllops falcatus).
Supplementary material 1 from: Pacheco da Silva VC, Kaydan MB, Germain J-F, Malausa T, Botton M (2016) Three new species of mealybug (Hemiptera, Coccomorpha, Pseudococcidae) on persimmon fruit trees (Diospyros kaki) in southern Brazil. ZooKeys 584: 61-82. https://doi.org/10.3897/zookeys.584.8065
COI DNA sequences obtained for Anisococcus granarae Pacheco da Silva & Kaydan, sp. n. and Ferrisia kaki Kaydan & Pacheco da Silva, sp. n. : Explanation note: This supplementary file contais the senquences of a fragment from the mitochondrial region of Cytochrome Oxidase Subunit I of two new species of mealybugs found on persimmon trees in Southern Brazil, Anisococcus granarae Pacheco da Silva & Kaydan, sp. n. and Ferrisia kaki Kaydan & Pacheco da Silva, sp. n.
Forest fragmentation effects on mutualistic interactions: Frugivorous birds and fruiting trees
<p>While many effects of forest fragmentation are reasonably well understood, knowledge of interspecific interactions in fragmented ecosystems is much more limited, particularly for high-diversity tropical forests. Using nearly 40 years of data from the Biological Dynamics of Forest Fragments Project in Central Amazonia, we assessed whether forest fragment area and time since isolation impact mutualistic interactions between frugivorous birds and their food resources. We used structural equation modeling to analyze the complex pathways between four main variables determining these interactions: fruiting tree abundance, frugivorous bird abundance, forest fragment area, and time since fragment isolation. Our results confirm that fragment area alters the abundance of some tree resources, with successional plant families increasing in abundance with decreasing fragment size. However, these changes do not drive alterations in the abundance of frugivorous birds. We also tested if bird species with a greater relative diet breadth are less vulnerable to forest fragmentation and found that specialist frugivores are more vulnerable to forest fragmentation immediately after isolation but are not differentially impacted within the long term. Collectively, our results demonstrate the need to further evaluate human-driven habitat change across multiple timescales to fully understand its impacts on complex species interactions.</p>
FIGURE 1. Cupania moralesii. A. Flowering branch. B. Staminate flower. C. Pistillate flower. D. Petals. E. Pistillate flowers gynoecium. F. Staminate flowers gynoecium. G. Stamens. H. Infrutescence. I. Undehisced fruit. J. Dehisced fruit. K. Arillate seed. L in Cupania moralesii (Sapindaceae), a new endemic tree species from the premontane forest of Costa Rica
FIGURE 1. Cupania moralesii. A. Flowering branch. B. Staminate flower. C. Pistillate flower. D. Petals. E. Pistillate flowers gynoecium. F. Staminate flowers gynoecium. G. Stamens. H. Infrutescence. I. Undehisced fruit. J. Dehisced fruit. K. Arillate seed. L. Seed. Drawn by P. Juárez, inflorescence and flowers based on photos of type specimen P. Juárez, J.E. Jiménez & J.M. Chaves 1235 (CR, USJ, MO), and infrutescence, fruits and seeds based on J.E. Jiménez, J.M. Chaves & A. Campos 2564 (CR, USJ, MO).
FIGURE 3. Boswellia occulta, from isotype A. Fruits, 4 in Boswellia occulta (Burseraceae), a new species of frankincense tree from Somalia (Somaliland)
FIGURE 3. Boswellia occulta, from isotype A. Fruits, 4-locular with style intact (left) and 5-locular (right); B. Pyrenes, ventral (left) and dorsal (right) views. Scales 2 mm (A), 1 mm (B). Photographs: Henrik Sundberg.
Data from: Ex situ conservation of underutilised fruit tree species: establishment of a core collection for Ficus carica L. using microsatellite markers (SSRs)
Ex situ germ plasm collections of woody crops are necessary to ensure the optimal use of plant genetic resources. The fig tree (Ficus carica L.) germ plasm bank, consisting of 229 accessions, is located in Centro de Investigación 'La Orden'. Despite great progress in conservation, ex situ collections face size and organization problems. Core collections obtained from structured samples of bigger collections are a useful tool to improve germ plasm management. In this work, we used simple sequence repeat (SSR) markers to establish a core collection in this underutilised Mediterranean fruit tree species. Four approaches have been carried out (random sampling, maximization, simulated annealing and stepwise clustering) to determine the best method to develop a core collection in this woody plant. The genetic diversity obtained with each subset was compared with that of the complete collection. It was found that the most efficient way to achieve the maximum diversity was the maximization strategy, which, with 30 accessions, recovers all the SSR alleles and does not show significant differences in allele frequency distribution in any of the loci or in the variability parameters (H O, H E) between the whole and core collections. Thus, this core collection, a representative of most fig diversity conserved in the germ plasm bank, could be used as a basis for plant material exchange among researchers and breeders.
FIGURE 3. Carapa wohllebenii. A, C. Branches with leaves and fruits. B in Carapa wohllebenii (Meliaceae), a new tree species from montane forests in the Democratic Republic of Congo, Rwanda, and Burundi
FIGURE 3. Carapa wohllebenii. A, C. Branches with leaves and fruits. B. Leaf. Photographs: E. Fischer. A. Rwanda, Uwinka, 24 September 2015. B. C. Butare, 3 January 2016. Scale bar: A. 10 cm; B, C. 5 cm.
FIGURE 5. Carapa wohllebenii. A. Shoots with leaves. B. Shoots with young leaves. C. Fruit. D in Carapa wohllebenii (Meliaceae), a new tree species from montane forests in the Democratic Republic of Congo, Rwanda, and Burundi
FIGURE 5. Carapa wohllebenii. A. Shoots with leaves. B. Shoots with young leaves. C. Fruit. D. Fruit opened showing seeds. Photographs: E. Fischer, Rwanda, Nyungwe National Park. A. Gisakura, 18 September 2016. B. Uwinka, 17 March 2017. C. Uwinka, 24 September 2015. D. Kamiranzovu, 11 September 2005. Scale bars: A–B. 10 cm; C–D. 5 cm.
FIGURE 2. Sideroxylon cochranei. A. Fruiting branch. B. Floriferous branch. C in Sideroxylon cochranei (Sapotoideae, Sapotaceae): a new cloud forest tree species from the Sierra de Manantlán and Cuale in western México
FIGURE 2. Sideroxylon cochranei. A. Fruiting branch. B. Floriferous branch. C. The entire flower (left) and gynoecium showing the open corolla and staminodes (right). D. Fruit. E. Seed. Illustration by Enrique V. Sánchez R.
Data from 'From mallees to mountain ash, specific leaf area is coordinated with eucalypt tree stature, resprouting, stem construction, and fruit size'
<p>Median trait data and accompanying description of included traits and units for the analysis in the manuscript 'From mallees to mountain ash, specific leaf area is coordinated with eucalypt tree stature, resprouting, stem construction, and fruit size' authored by Antoinette M. Portelli, Saras M. Windecker, Laura J. Pollock, Will. C. Neal, William K. Morris, Rohan Khot and Peter A. Vesk. Funding for this project provided by Eucalypt Australia and the Victorian Government Department of Environment, Land, Water and Planning.</p>
Data from: Intraspecific variation in seed dispersal of a Neotropical tree and its relationship to fruit and tree traits
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Data from: Fruit traits of pioneer trees structure seed dispersal across distances on tropical deforested landscapes: implications for restoration
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Data from: Ex situ conservation of underutilised fruit tree species: establishment of a core collection for Ficus carica L. using microsatellite markers (SSRs)
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Fleshy-fruited invasive shrubs indirectly increase native tree seed dispersal
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Allen Brain Atlas
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