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967 results for “cerrado”
On following pages: 489. Coues's Marsh Rice Rat (Oryzomys couesi); 490. White-bellied Marsh Rice Rat (Oryzomys albiventer), 491. Nicaraguan Marsh Rice Rat (Oryzomys dimidiatus); 492. Gorgas's Marsh Rice Rat (Oryzomys gorgasi, 493. Santiago Galapagos Mouse (Nesoryzomys swarthi); 494. Small Fernandina Galapagos Mouse (Nesoryzomys fernandinae); 495. Large Fernandina Galapagos Mouse (Nesoryzomys narboroughi); 496. Galapagos Rice Rat (Aegialomys galapagoensis); 497 Yellowish Rice Rat (Aegialomys xanthaeolus); 498. Baron's Rice Rat (Aegialomys baroni); 499. Ica Rice Rat (Aegialomys ica); 500. Alfaro's Water Rat (Sigmodontomys alfari); 501. Harris's Rice Water Rat (Tanyuromys aphrastus); 502. Black-and-Yellow Rice Rat (Melanomys chrysomelas); 503. Cinnamon-rufous Rice Rat (Melanomys idoneus); 504. Colombian Rice Rat (Melanomys columbianus); 505. Dusky Rice Rat (Melanomys caliginosus); 506. Robust Dark Rice Rat (Melanomys robustulus); 507. Zuniga's Dark Rice Rat (Melanomys zunigae); 508. Intermediate Lesser Grass Mouse (Microakodontomys transitorius); 509. Lagoa Santa Pink-lipped Mouse (Bibimys labiosus); 510. Chacoan Pink-lipped Mouse (Bibimys chacoensis); 511. Torres's Pink-lipped Mouse (Bibimys torresi), 512. Brazilian Swamp Rat (Scapteromys meridionalis); 513. Argentinean Swamp Rat (Scapteromys aquaticus); 514. Uruguay Swamp Rat (Scapteromys tumidus); 515. Cerrado Giant Rat (Gyldenstolpia planaltensis); 516. Fossorial Giant Rat (Gyldenstolpia fronto); 517. Woolly Giant Rat (Kunsia tomentosus); 518. Andean Rat (Lenoxus apicalis); 519. Atlantic Forest Burrowing Mouse (Blarinomys breviceps); 520. Gray-bellied Brucie (Brucepattersonius griserufescens); 521. Short-tailed Brucie (Brucepattersonius soricinus); 522. Ihering's Brucie (Brucepattersonius iheringi). in Cricetidae
On following pages: 489. Coues's Marsh Rice Rat (Oryzomys couesi); 490. White-bellied Marsh Rice Rat (Oryzomys albiventer), 491. Nicaraguan Marsh Rice Rat (Oryzomys dimidiatus); 492. Gorgas's Marsh Rice Rat (Oryzomys gorgasi, 493. Santiago Galapagos Mouse (Nesoryzomys swarthi); 494. Small Fernandina Galapagos Mouse (Nesoryzomys fernandinae); 495. Large Fernandina Galapagos Mouse (Nesoryzomys narboroughi); 496. Galapagos Rice Rat (Aegialomys galapagoensis); 497 Yellowish Rice Rat (Aegialomys xanthaeolus); 498. Baron's Rice Rat (Aegialomys baroni); 499. Ica Rice Rat (Aegialomys ica); 500. Alfaro's Water Rat (Sigmodontomys alfari); 501. Harris's Rice Water Rat (Tanyuromys aphrastus); 502. Black-and-Yellow Rice Rat (Melanomys chrysomelas); 503. Cinnamon-rufous Rice Rat (Melanomys idoneus); 504. Colombian Rice Rat (Melanomys columbianus); 505. Dusky Rice Rat (Melanomys caliginosus); 506. Robust Dark Rice Rat (Melanomys robustulus); 507. Zuniga's Dark Rice Rat (Melanomys zunigae); 508. Intermediate Lesser Grass Mouse (Microakodontomys transitorius); 509. Lagoa Santa Pink-lipped Mouse (Bibimys labiosus); 510. Chacoan Pink-lipped Mouse (Bibimys chacoensis); 511. Torres's Pink-lipped Mouse (Bibimys torresi), 512. Brazilian Swamp Rat (Scapteromys meridionalis); 513. Argentinean Swamp Rat (Scapteromys aquaticus); 514. Uruguay Swamp Rat (Scapteromys tumidus); 515. Cerrado Giant Rat (Gyldenstolpia planaltensis); 516. Fossorial Giant Rat (Gyldenstolpia fronto); 517. Woolly Giant Rat (Kunsia tomentosus); 518. Andean Rat (Lenoxus apicalis); 519. Atlantic Forest Burrowing Mouse (Blarinomys breviceps); 520. Gray-bellied Brucie (Brucepattersonius griserufescens); 521. Short-tailed Brucie (Brucepattersonius soricinus); 522. Ihering's Brucie (Brucepattersonius iheringi).
On following pages: 596. Long-tongued Arboreal Mouse (Rhagomys longilingua); 597. Brazilian Arboreal Mouse (Rhagomys rufescens); 598. Broad-footed Climbing Rat (Rhipidomys latimanus); 599. Lesser Colombian Climbing Rat (Rhipidomys caucensis); 600. Greater Colombian Climbing Rat (Rhipidomys similis); 601. Tawny-bellied Climbing Rat (Rhipidomys fulviventen; 602. Venezuelan Climbing Rat (Rhipidomys venezuelae); 603. Coues''s Climbing Rat (Rhipidomys couesi); 604. Charming Climbing Rat (Rhipidomys venustus); 605. Turimiquire Climbing Rat (Rhipidomys tenuicauda); 606. Wetzel's Climbing Rat (Rhipidomys wetzeli); 607. White-footed Climbing Rat (Rhipidomys leucodactylus); 608. Albuja's Climbing Rat (Rhipidomys albujai); 609. Splendid Climbing Rat (Rhipidomys nitela); 610. McConnell's Tepui Climbing Rat (Rhipidomys macconnelli); 611. Snethlage's Climbing Rat (Rhipidomys emiliae); 612. Cariri Climbing Rat (Rhipidomys carir)); 613. Ipuca Climbing Rat (Rhipidomys ipukensis); 614. Lesser Peruvian Climbing Rat (Rhipidomys modicus); 615. Gardner's Climbing Rat (Rhipidomys gardneri), 616. Yellow-bellied Climbing Rat (Rhipidomys ochrogaster); 617. Cerrado Climbing Rat (Rhipidomys macrurus); 618. Long-tailed Climbing Rat (Rhipidomys mastacalis); 619. Tribe's Climbing Rat (Rhipidomystribe); 620. Sky Climbing Rat (Rhipidomys itoan); 621. Southern Climbing Rat (Rhipidomys austrinus). in Cricetidae
On following pages: 596. Long-tongued Arboreal Mouse (Rhagomys longilingua); 597. Brazilian Arboreal Mouse (Rhagomys rufescens); 598. Broad-footed Climbing Rat (Rhipidomys latimanus); 599. Lesser Colombian Climbing Rat (Rhipidomys caucensis); 600. Greater Colombian Climbing Rat (Rhipidomys similis); 601. Tawny-bellied Climbing Rat (Rhipidomys fulviventen; 602. Venezuelan Climbing Rat (Rhipidomys venezuelae); 603. Coues''s Climbing Rat (Rhipidomys couesi); 604. Charming Climbing Rat (Rhipidomys venustus); 605. Turimiquire Climbing Rat (Rhipidomys tenuicauda); 606. Wetzel's Climbing Rat (Rhipidomys wetzeli); 607. White-footed Climbing Rat (Rhipidomys leucodactylus); 608. Albuja's Climbing Rat (Rhipidomys albujai); 609. Splendid Climbing Rat (Rhipidomys nitela); 610. McConnell's Tepui Climbing Rat (Rhipidomys macconnelli); 611. Snethlage's Climbing Rat (Rhipidomys emiliae); 612. Cariri Climbing Rat (Rhipidomys carir)); 613. Ipuca Climbing Rat (Rhipidomys ipukensis); 614. Lesser Peruvian Climbing Rat (Rhipidomys modicus); 615. Gardner's Climbing Rat (Rhipidomys gardneri), 616. Yellow-bellied Climbing Rat (Rhipidomys ochrogaster); 617. Cerrado Climbing Rat (Rhipidomys macrurus); 618. Long-tailed Climbing Rat (Rhipidomys mastacalis); 619. Tribe's Climbing Rat (Rhipidomystribe); 620. Sky Climbing Rat (Rhipidomys itoan); 621. Southern Climbing Rat (Rhipidomys austrinus).
Respuestas Debate Cerrado
<p>Respuestas del Debate Cerrado surgido en el estudio Delphi.</p>
Figure 8 in Life history patterns of coleopteran pollinators of Annona crassiflora Mart. in the Brazilian Cerrado
Figure 8. Cyclocephala octopunctata visiting flowers of Annona crassiflora in a Cerrado area in the municipality of Chapada dos Guimarães, MT. (a) A male individual found inside the floral chamber during the female phase. Note the darkening gynoecium, characteristic of an advanced female phase. (b) A specimen covered in pollen found in a male-phase flower. (c) Two individuals inside a femalephase flower. Note that their heads are directed towards the base of the inner petals, where basal alimentary lobes are located. (d) One individual feeding on one basal lobe of an inner petal in a female-phase flower.
Figure 1 in Life history patterns of coleopteran pollinators of Annona crassiflora Mart. in the Brazilian Cerrado
Figure 1. Global occurrence map of Annona crassiflora (araticum). Adapted from: Global Biodiversity Information Facility (GBIF 2021).
Figure 5 in Life history patterns of coleopteran pollinators of Annona crassiflora Mart. in the Brazilian Cerrado
Figure 5. Aspects of floral biology of Annona crassiflora in a Cerrado area in the municipality of Chapada dos Guimarães, MT. (a) Number of sampled flowers (n = 74) according to the floral phase. Note the greater number of male flowers collected in the field relative to the female-phase flowers sampled. (b) Floral thermogenesis during one floral cycle. Note that there are two heat production peaks during the night, one at approximately 7.00pm, when the flowers are in the female phase, and another at approximately 11.00pm, when they are in the male phase. During the interim phase, heat production diminishes without ceasing altogether.
Figure 4 in Life history patterns of coleopteran pollinators of Annona crassiflora Mart. in the Brazilian Cerrado
Figure 4. Some steps in the floral cycle of Annona crassiflora in a Cerrado area in the municipality of Chapada dos Guimarães, MT. (a) Interim in the floral cycle. Note that the stigmatic head is detached from the receptacle (arrow). Petals were spread open to show the flower chamber interior. (b) Flower found on the ground in the morning close to anthesis, showing the aspect of the flower during the male phase, with detached stamens filling the floral chamber.
Figure 7 in Life history patterns of coleopteran pollinators of Annona crassiflora Mart. in the Brazilian Cerrado
Figure 7. Pollinators of Annona crassiflora in a Cerrado area in the municipality of Chapada dos Guimarães, MT. (a) Dorsal habitus of Cyclocephala octopunctata (male). (b) Dorsal habitus of Cyclocephala octopunctata (female). (c) Dorsal habitus of Cyclocephala celata (male). (d) Dorsal habitus of Cyclocephala celata (female).
Figure 6 in Life history patterns of coleopteran pollinators of Annona crassiflora Mart. in the Brazilian Cerrado
Figure 6. Quantitative data on the visitation of Annona crassiflora flowers in a Cerrado area in the municipality of Chapada dos Guimarães, MT. (a) Number of coleopteran and non-coleopteran visitors of anthetic flowers. (b) Number of insect flower visitors sorted by order. (c) Number of beetles visiting anthetic flowers, classified at the family level. (d) Number of beetles visiting anthetic flowers classified at the species and morphospecies levels.
Figure 10 in Life history patterns of coleopteran pollinators of Annona crassiflora Mart. in the Brazilian Cerrado
Figure 10. Quantitative data on the visitation of Annona crassiflora flowers by both Cyclocephala species sampled in this study. (a) Number of individuals of Cyclocephala octopunctata (n = 66) classified according to the anthesis phase of the flowers in which they were found. (b) Number of individuals of Cyclocephala celata (n = 16) classified according to the anthesis phase of the flowers in which they were found. (c) Distribution of the number of individuals of C. octopunctata per sampled flower (n = 41 flowers). (d) Distribution of the number of individuals of C. celata per sampled flower (n = 11 flowers).
Figure 11 in Life history patterns of coleopteran pollinators of Annona crassiflora Mart. in the Brazilian Cerrado
Figure 11. Individuals of Cyclocephalini found in post-anthetic flowers of Annona crassiflora in a Cerrado area in the municipality of Chapada dos Guimarães, MT. (a) A specimen of Cyclocephala celata from a flower found on the ground under the tree crown in the morning after anthesis. Note the pollen tetrads adhered to the tibial and tarsal setae of the right mesothoracic leg. (b) Individuals of C. octopunctata collected in the morning after anthesis from a flower still attached to the pedicel.
Figure 9 in Life history patterns of coleopteran pollinators of Annona crassiflora Mart. in the Brazilian Cerrado
Figure 9. Cyclocephala celata visiting flowers of Annona crassiflora in a Cerrado area in the municipality of Chapada dos Guimarães, MT. (a) Here, the elytra (arrow) of one individual of C. celata are visible inside a female-phase flower. (b) Individuals of C. celata covered in pollen exiting a male-phase flower. (c) Two individuals of C. celata covered in pollen inside a recently fallen corolla that was picked from the ground beneath an A. crassiflora tree. Note that their heads are directed towards the base of the petals, where the nutritious basal lobes are located. (d) This individual of C. celata had just escaped from inside a corolla that was found on the ground under an A. crassiflora individual on the day following flower anthesis.
Figure 3 in Life history patterns of coleopteran pollinators of Annona crassiflora Mart. in the Brazilian Cerrado
Figure 3. Some steps in the floral cycle of Annona crassiflora in a Cerrado area in the municipality of Chapada dos Guimarães, MT. (a) Developing flower buds photographed in early August, almost two months before the flowering season of A. crassiflora. (b) Open flower chamber photographed in the morning before the onset of anthesis. (c) Flower entering the female phase, photographed from below during crepuscule. Note the sticky, transparent, glossy substance on the gynoecium (the stigmatic exudate; arrow). Petals were spread open to show internal structures.
Figure 2 in Life history patterns of coleopteran pollinators of Annona crassiflora Mart. in the Brazilian Cerrado
Figure 2. Study area located in the Cerrado of the municipality of Chapada dos Guimarães, MT, with the positions of the 24 individuals of Annona crassiflora analysed in this research (red circles). Source: Google Earth.
Figure 4 in Faunistic analysis of longhorn beetles (Cerambycidae: Coleoptera) in Cerrado and Atlantic Forest areas: biodiversity hotspots of Brazil
Figure 4. Diversity estimates based on Hill's series (1973), for the phytophysiognomies freshwater swamp forests (MDB), cerradão (CER) and semidecidual seasonal forest (FES), present in the Municipal Botanical Garden of Bauru, SP (p <0.05). q = 0: species richness; q = 1: estimate of abundant species; q = 2: estimate of dominant species.
Figure 6 in Faunistic analysis of longhorn beetles (Cerambycidae: Coleoptera) in Cerrado and Atlantic Forest areas: biodiversity hotspots of Brazil
Figure 6. Cumulative richness of Cerambycidae species collected in the phytophysiognomies freshwater swamp forests (MDB), cerradão (CER) and semideciduous seasonal forest (FES). (a) Cumulative richness of MDB; (b) cumulative richness of CER; (c) cumulative richness of FES; (d) total cumulative richness.
Figure 3 in Faunistic analysis of longhorn beetles (Cerambycidae: Coleoptera) in Cerrado and Atlantic Forest areas: biodiversity hotspots of Brazil
Figure 3. Correlation between abundance of Cerambycidae and climatic variables in the Municipal Botanical Garden of Bauru. (a) Correlation between abundance and average temperature; (b) correlation between abundance and accumulated precipitation. Source: UNESP Bauru Meteorological Institute (2021).
Figure 2 in Faunistic analysis of longhorn beetles (Cerambycidae: Coleoptera) in Cerrado and Atlantic Forest areas: biodiversity hotspots of Brazil
Figure 2. Seasonality for Cerambycidae species in the phytophysiognomies freshwater swamp forests (MDB), cerradão (CER) and semidecidual seasonal forest (FES), present in the Municipal Botanical Garden of Bauru, from October 2019 to September 2020.
Figure 1 in Faunistic analysis of longhorn beetles (Cerambycidae: Coleoptera) in Cerrado and Atlantic Forest areas: biodiversity hotspots of Brazil
Figure 1. New records of Cerambycidae species for São Paulo state, Brazil. (a) Eburodacrys elegantula Gounelle, 1909; (b) Compsibidion maronicum (Thomson, 1867); (c) Macroeme sobrina (Gounelle, 1909); (d) Acorethra aureofasciata Gounelle, 1911; (e) Eclipta nigriventris (Melzer, 1934); (f) Eclipta seminigra (Gounelle, 1911); (g) Odontocera albicans (Klug, 1825); (h) Ceralocyna militaris (Gounelle, 1911); (i) Aegoschema migueli Monné and Mermudes, 2007. Scale bar, 5mm.
Figure 5 in Faunistic analysis of longhorn beetles (Cerambycidae: Coleoptera) in Cerrado and Atlantic Forest areas: biodiversity hotspots of Brazil
Figure 5. Cluster similarity analysis for the phytophysiognomies freshwater swamp forests (MDB), cerradão (CER) and semideciduous seasonal forest (FES), present in the Municipal Botanical Garden of Bauru, based on species composition.
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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)
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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.