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249 results for “pocket”
Figure 6 in Coleoptera (Histeridae, Leiodidae and Scarabaeidae) inhabiting the burrows of Baird's pocket gopher (Rodentia: Geomyidae: Geomys breviceps) in Arkansas
Figure 6. Collection locations for Onthophilus kirni. Note: Gray shading represents Geomys spp. distribution. Circles represent published pocket gopher records. Stars represent new Arkansas records.
Figure 8 in Coleoptera (Histeridae, Leiodidae and Scarabaeidae) inhabiting the burrows of Baird's pocket gopher (Rodentia: Geomyidae: Geomys breviceps) in Arkansas
Figure 8. Collection locations for Catops geomysi. Note: Gray shading represents Geomys spp. distribution. Circles represent published pocket gopher records. Stars represent new Arkansas records.
Figure 3 in Coleoptera (Histeridae, Leiodidae and Scarabaeidae) inhabiting the burrows of Baird's pocket gopher (Rodentia: Geomyidae: Geomys breviceps) in Arkansas
Figure 3. Collection locations for Atholus minutus. Note: Gray shading represents Geomys spp. distribution. Circles represent published pocket gopher records. Stars represent new Arkansas records.
Figure 14 in Coleoptera (Histeridae, Leiodidae and Scarabaeidae) inhabiting the burrows of Baird's pocket gopher (Rodentia: Geomyidae: Geomys breviceps) in Arkansas
Figure 14. Collection locations for Dellacasiellus kirni. Note: Gray shading represents Geomys spp. distribution. Circles represent published pocket gopher records. Stars represent new Arkansas records.
Figure 13 in Coleoptera (Histeridae, Leiodidae and Scarabaeidae) inhabiting the burrows of Baird's pocket gopher (Rodentia: Geomyidae: Geomys breviceps) in Arkansas
Figure 13. Collection locations for Dellacasiellus concavus. Note: Gray shading represents Geomys spp. distribution. Circles represent published pocket gopher records. Stars represent new Arkansas records.
Figure 7 in Coleoptera (Histeridae, Leiodidae and Scarabaeidae) inhabiting the burrows of Baird's pocket gopher (Rodentia: Geomyidae: Geomys breviceps) in Arkansas
Figure 7. Collection locations for Spilodiscus gloveri. Note: Gray shading represents Geomys spp. distribution. Circles represent published pocket gopher records. Stars represent new Arkansas records.
Figure 17 in Coleoptera (Histeridae, Leiodidae and Scarabaeidae) inhabiting the burrows of Baird's pocket gopher (Rodentia: Geomyidae: Geomys breviceps) in Arkansas
Figure 17. Collection locations for Scabrostomus sepultus. Note: Gray shading represents Geomys spp. distribution. Circles represent published pocket gopher records. Stars represent new Arkansas records.
Figure 16 in Coleoptera (Histeridae, Leiodidae and Scarabaeidae) inhabiting the burrows of Baird's pocket gopher (Rodentia: Geomyidae: Geomys breviceps) in Arkansas
Figure 16. Collection locations for Geomyphilus insolitus. Note: Gray shading represents Geomys spp. distribution. Circles represent published pocket gopher records. Stars represent new Arkansas records.
Figure 5 in Coleoptera (Histeridae, Leiodidae and Scarabaeidae) inhabiting the burrows of Baird's pocket gopher (Rodentia: Geomyidae: Geomys breviceps) in Arkansas
Figure 5. Collection locations for Geomysaprinus rugosifrons. Note: Gray shading represents Geomys spp. distribution. Circles represent published pocket gopher records. Stars represent new Arkansas records.
Figure 1 in Coleoptera (Histeridae, Leiodidae and Scarabaeidae) inhabiting the burrows of Baird's pocket gopher (Rodentia: Geomyidae: Geomys breviceps) in Arkansas
Figure 1. Arkansas county map denoting counties where pocket gopher beetle inquilines were collected. Note: Stars indicate counties where collections were made and do not necessarily denote the exact locale. Counties either containing single or multiple collection sites are only referenced with a single star per county.
Figure 4 in Coleoptera (Histeridae, Leiodidae and Scarabaeidae) inhabiting the burrows of Baird's pocket gopher (Rodentia: Geomyidae: Geomys breviceps) in Arkansas
Figure 4. Collection locations for Geomysaprinus goffi. Note: Gray shading represents Geomys spp. distribution. Circles represent published pocket gopher records. Stars represent new Arkansas records.
Figure 11 in Coleoptera (Histeridae, Leiodidae and Scarabaeidae) inhabiting the burrows of Baird's pocket gopher (Rodentia: Geomyidae: Geomys breviceps) in Arkansas
Figure 11. Collection locations for Cryptoscatomaseter haldemani. Note: Gray shading represents Geomys spp. distribution. Circles represent published pocket gopher records. Stars represent new Arkansas records.
FIG. 4 in Two new pocket mice (Mammalia, Rodentia, Heteromyidae) from the Miocene of Nebraska and New Mexico and the early evolution of the subfamily Perognathinae
FIG. 4. — Cranium and upper molars of Mioperognathus willari n. sp. (FAM 129674) (holotype): A-C, photographs (left) and line diagrams of the cranium; A, dorsal view; B, ventral view; C, right lateral view (zygomatic arch removed); D, right M1(broken)-M3 (stereo pair; anterior toward top). Abbreviations: bu, buccinator foramen; fm, foramen magnum; fo, foramen ovale; in, incisive foramen; ju, jugular foramen; mbf, fissure medial to bulla; msc, masticatory foramen; op, optic foramen; pom, posterior maxillary foramen; ppl, posterior palatine foramen; spl, sphenopalatine foramen; spt, spheopterygoid canal; spv, sphenofrontal vacuity; rp, rostral perforation (including infraorbital foramen); st, stapedial foramen; sty, stylomastoid foramen; t, temporal foramen; uaf, unossified area between alisphenoid and frontal bones; uml, unossified area between maxillary and lacrimal bones; vf, venous foramen. Scale bars: A-C, 1 cm, D, 1 mm.
FIG. 3 in Two new pocket mice (Mammalia, Rodentia, Heteromyidae) from the Miocene of Nebraska and New Mexico and the early evolution of the subfamily Perognathinae
FIG. 3. — Postcranial elements and mandible of Eochaetodipus asulcatus n. sp. (UNSM 130000): A, ulna (distal end missing); B, tibiofibula (proximal end and fibula broken); C, humerus (proximal end missing); D, calcanium; E, lateral view of right mandible. Scale bar: 5 mm.
FIG. 1 in Two new pocket mice (Mammalia, Rodentia, Heteromyidae) from the Miocene of Nebraska and New Mexico and the early evolution of the subfamily Perognathinae
FIG. 1. — Photographs (left) and line diagrams (right) of the skull of Eochaetodipus asulcatus n. sp. based on the holotype UNSM 130000: A, dorsal view; B, lateral view (zygomatic arch removed); C, ventral view. Dashed lines indicate outlines of broken or covered areas; patterned area indicates missing bones. Abbreviations: bu, buccinator foramen; eth, ethmoid foramen; fo, foramen ovale; foa, accessory foramen ovale; fr, nutritive foramen in frontal; in, incisive foramen; mbf, fissure medial to bulla; msc, masticatory foramen; spv, sphenofrontal vacuity; pom, posterior maxillary foramen; ppl, posterior palatine foramen; t, temporal foramen; rp, rostral perforation (including infraorbital foramen); vf, venous foramen. Scale bar: 1 cm.
FIG. 5 in Two new pocket mice (Mammalia, Rodentia, Heteromyidae) from the Miocene of Nebraska and New Mexico and the early evolution of the subfamily Perognathinae
FIG. 5. — Phylogenies of selected heteromyid taxa: A, Cladogram of relationships of heteromyids. Explanation of nodes: 1, Heteromyidae; buccinator and masticatory foramen (fused) separated from accessory foramen ovale; rostral perforation associated with infraorbital foramen. 2, More gracile skeleton; incisive foramen less than 15% length of upper diastema. 3, Heteromyinae; bony flange above orbit; loss of stapedial foramen; mesodonty; central basin on lower premolar; deeper parapterygoid fossa; loss of posterior border of accessory foramen ovale. 4, beginnings of bullar and mastoid inflation; buccinator and masticatory foramina separated; interparietal oval. 5, presence of unossified area on medial orbital wall; loss of accessory foramen ovale; premaxillary-maxillary suture on palate crosses incisive foramina at their posterior end; greater inflation of bulla and mastoid. 6, central union of lophs on p4; deeper parapterygoid fossa; loss of temporal foramen; bony flange above orbit; even greater inflation of mastoid and bulla. 7, Dipodomyinae; bulla enormously inflated; limb proportions for ricochetal locomotion; incisive foramina greatly enlarged; cheek teeth mesodont to hypsodont. B, Single most parsimonious tree based on PAUP analysis. Total length = 27 steps. Consistency index = 0.8889. Homoplasy index = 0.1111. Retention index = 0.7500. Multiple derived states for characters 2, 14, and 18 are ordered. See Table 3 for list of character states.
Arctic PASSION Online Seminar on "Lake Ice Information in Your Pocket"
<p><strong>Arctic PASSION Online Seminar on "Lake Ice Information in Your Pocket"</strong></p> <p><strong>10 November 1 PM GMT</strong></p> <p>Get to know the Lake Ice Service tool for your pocket, listen to the current status of its development as well as our future steps towards the expanded service. The Lake Ice Service collects lake ice information from multiple sources and visualizes the information in an easily accessible and understandable format website map tool. These information are generated by satellite data, governmental in situ networks as well as Community-Based Monitoring. Among other things, lake ice information is important for our understanding of ice-related changes and climate change. Lake ice is sensitive to intra-annual temperature fluctuations and long-term temperature trends. Beside the climate change aspect, lake ice data are important for transport, arctic livelihood, and safety issues. The information will be useful for citizens and local communities as well as for scientific purposes. The development of the Lake Ice Service is part of the Arctic PASSION project and will be further extended and co-designed in cooperation with users. </p> <p> </p> <p><strong>Speakers:</strong></p> <p>Kirsikka Heinilä (Senior research scientist at the Finnish Environment Institute/Arctic PASSION)</p> <p>Timo Pyhälahti (Senior expert at the Finnish Environment Institute/Arctic PASSION)</p> <p>Moderation: Lisa Grosfeld (Project Manager at the Alfred Wegener Institute/Arctic PASSION), Oda Mulelid (GRID-Arendal/Arctic PASSION)</p> <p> </p> <p><strong>Webinar recording: </strong><a href="https://youtu.be/_g097u4MsD8">https://youtu.be/_g097u4MsD8</a></p> <p> </p> <p><strong>Related links:</strong></p> <p>Check the current version of TARKKA + here: <a href="https://testbed.ymparisto.fi/eo-tarkka/">https://testbed.ymparisto.fi/eo-tarkka/</a>. If you want to get in touch with the lake ice service developers, please contact: kirsikka.heinila(at)syke.fi or timo.pyhalahti(at)syke.fi.</p> <p> </p> <p>This seminar was part of the Arctic PASSION Online Seminar and Dialogue Series. This series is a tool to communicate project topics, share ideas, plans and results, and initiate an inclusive and proactive dialogue with people from different groups, backgrounds and career levels. It is targeted to Arctic and Indigenous Youth, Early Career Scientists and other interested audiences.</p> <p>© Flyer design by Lisa Grosfeld (APECS/AWI) and photo by Copernicus/SYKE</p>
Data from: De novo reference genome of a Geomyid rodent, Botta’s pocket gopher (Thomomys bottae)
Open the record for dataset details and reuse information.
Pocket gopher mound litter decomposition data for Saddle and East of Tvan, 1993 - 1995.
This research was designed to examine the interaction of effects of gopher disturbance and aspect on litter decomposition on alpine tundra. Kobresia myosuroides foliage collected from Niwot Ridge was dried and placed into 10x20 cm litter bags. About 2 g of plant material were placed in the litter bags. One-hundred and sixty (160) litter bags were constructed of polyester mesh with a mesh size of 2mm^2. Forty (40) litter bags were placed inside of gopher mounds, at the interface between the mounded (gopher excavated) soil and the original soil surface (top of the O horizon), located on a slope with a southern aspect. An additional 40 litter bags were placed on the soil surface near these gopher mounds. The remaining 80 bags were similarly paired on gopher mounds and undisturbed soils on a slope with a northern aspect. All litter bags were placed in the field on 1 July 1993, and an initial harvest was done on the same date in order to assess the effect of handling and transport to the field. The second harvest was undertaken on 11 September 1993, at which time 31 bags were harvested. Retrieved litter bags were dried at 80 degrees Celsius for approximately 24 hr. The litter was removed from the litter bags and weighed. Litter weight loss was calculated to estimate decomposition rates. The remaining harvests are were in autumn 1993, spring 1994, and autumn 1994.
Winchester Pocket Knife
**MESH PARAMETERS** **Object Description:** Digitized single-blade, folding pocket knife; Real-life approximate dimensions 4.38"x.86"x1.06" **Watertight:** Yes <br> **TEXTURE PARAMETERS** **Count:** 1 **Size:** 8,192 x 8,192 **Delighting:** No Source: Objaverse 1.0 / Sketchfab
ScienceDex guides
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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.