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12,393 results for “materiality”
FIGURE 4 in Larval development of the crab Amphithrax hemphilli (Rathbun, 1892) (Decapoda, Brachyura, Mithracidae) described from laboratory-reared material
FIGURE 4. Amphithrax hemphilli (Rathbun, 1892), megalopa stage. (A) maxilliped I; (B) maxilliped II; (C) maxilliped III; (D) pleopods 1–4 and uropod; (E) pereiopods 1–5; (F) dorsal and lateral view of pleon and telson. Scale bars: A–C: 0.1 mm; D–F: 0.2 mm.
FIGURE 1 in Larval development of the crab Amphithrax hemphilli (Rathbun, 1892) (Decapoda, Brachyura, Mithracidae) described from laboratory-reared material
FIGURE 1. Amphithrax hemphilli (Rathbun, 1892), first zoeal stage. (A) Lateral view; (B) dorsal view; (C) antennule; (D) antenna; (E) mandible; (F) maxillule (G) maxilla; (H) maxilliped I; (I) maxilliped II; (J) maxilliped III; (K) pereiopods; (L) dorsal view of pleon and telson. Scale bars: A, B, L: 0.2 mm; C–K: 0.1 mm.
FIGURE 6 in Larval development of the crab Amphithrax hemphilli (Rathbun, 1892) (Decapoda, Brachyura, Mithracidae) described from laboratory-reared material
FIGURE 6. Cladogram of species of Mithrax and allies for the second zoeal stage, with phylogeny constructed from Windsor & Felder (2014) and Assugeni et al. (2017). Characteristics: (1) setae on the anterodorsal region of the carapace; (2) setae on the posterodorsal region of the carapace; (3) setae on the ventral margin of the carapace; (4) aesthetascs on the antennule; (5) setae on the antennule; (6) setae on the coxal endite of the maxillule; (7) setae on the basial endite of the maxillule; (8) setae on the endopod of the maxillule; (9) setae on the coxal endite of the maxilla; (10) setae on the basial endite of the maxilla; (11) setae on the endopod of the maxilla; (12) setae on the scaphognathite of the maxilla; (13) setae on the coxa of the first maxilliped; (14) setae on the basis of the first maxilliped; (15) setae on the endopod of the first maxilliped; (16) setae on the coxa of the second maxilliped; (17) setae on the basis of the second maxilliped, and (18) setae on the endopod of the second maxilliped. Different colors indicate differences among species; equal colors indicate similarity.
FIGURE 2 in Larval development of the crab Amphithrax hemphilli (Rathbun, 1892) (Decapoda, Brachyura, Mithracidae) described from laboratory-reared material
FIGURE 2. Amphithrax hemphilli (Rathbun, 1892), second zoeal stage. (A) Lateral view; (B) antennule; (C) antenna; (D) mandible; (E) maxillule (F) maxilla; (G) maxilliped I; (H) maxilliped II; (I) maxilliped III; (J) pereiopods; (K) dorsal view of pleon and telson. Scale bars: A, J, K: 0.2 mm; B–I: 0.1 mm.
FIGURE 5 in Larval development of the crab Amphithrax hemphilli (Rathbun, 1892) (Decapoda, Brachyura, Mithracidae) described from laboratory-reared material
FIGURE 5. Cladogram of species of Mithrax and allies for the first zoeal stage, with phylogeny constructed from Windsor & Felder (2014) and Assugeni et al. (2017). Characteristics: (1) setae on the anterodorsal region of the carapace; (2) setae on the posterodorsal region of the carapace; (3) setae on the ventral margin of the carapace; (4) aesthetascs on the antennule; (5) setae on the antennule; (6) setae on the coxal endite of the maxillule; (7) setae on the basial endite of the maxillule; (8) setae on the endopod of the maxillule; (9) setae on the coxal endite of the maxilla; (10) setae on the basial endite of the maxilla; (11) setae on the endopod of the maxilla; (12) setae on the scaphognathite of the maxilla; (13) setae on the coxa of the first maxilliped; (14) setae on the basis of the first maxilliped; (15) setae on the endopod of the first maxilliped; (16) setae on the coxa of the second maxilliped; (17) setae on the basis of the second maxilliped, and (18) setae on the endopod of the second maxilliped. Different colors indicate differences among species; equal colors indicate similarity.
Online supporting material: †Estelestes ensis (Mammalia, Metatheria) from the Early Eocene of Baja California, Mexico, as a generalized polydolopimorphian
<p>In Table 1, we provide the ratio between the length of m1-4 and the height of the dentary below m1 in several extinct and extant metatherians from the Americas. We give the taxonomic assignment (Family, Order) for each of the measured species and indicate the source of the figure where the ratio was obtained. In Figure 1, we show details of the anterior portion of the left lower jaw of <em> Bobbschaefferia</em> <em>fluminensis</em> (MNRJ 1350-V, cast of the holotype) in occluso-lateral and occlusal views.</p>
Supplementary material - Label-free multimodal nonlinear optical microscopy reveals hallmarks of bone composition in pathophysiological conditions
<p>The repository features Excel worksheets including all the data used through this work and reported in the manuscript figures and graphs. More precisely, we included the following: </p> <ul> <li>Figure 4. SHG intensity values measured from WT and KO murine spines counterparts, both in parallel and orthogonal light polarization with respect to the craniocaudal axis of the vertebrae.</li> <li>Figure 5A. Quantization of ColIa1 gene expression level after mRNA extraction from WT and Dpp3 KO mice.</li> <li>Figure 5B. Absorbance values at 540 nm after Sirius Red staining of primary osteoblast isolated from WT and Dpp3 KO neonatal calvaria, used to assess and compare the in-vitro collagen production of the two murine models.</li> <li>Figure 7. SRS intensity ratios measured between bone and bone marrow regions of WT and Dpp3 KO models, both at the 2850 cm-1 Raman mode of CH2 stretching in lipids and at the 2920 cm-1 Raman mode of CH3 stretching in proteins.</li> <li>Figure 8. Data of gene expression analysis of selected genes relevant for lipid transport, uptake, and metabolism (i.e., CD 36, Fabp4, Lrp1, Fatp1, PGC1, CPT1, Pex7 and Glut1), in the flushed bone of WT and Dpp3 KO mice.</li> </ul>
The full results (including p-values, tests statistics, and degrees of freedom where appropriate) are available as supplementary material for inspection.
<p>The full results (including <em>p</em>-values, tests statistics, and degrees of freedom where appropriate) are available as supplementary material for inspection.</p>
Supplementary material for "Experimentation in Conceptual Modeling Research: A Systematic Review"
<p>This material containing a list of the bibliographical data of the final sample and the sample of 182 publications before excluding publications outside of our focus supplements the following literature review:</p> <p>Fischer, Markus; Rosenthal, Kristina; Strecker, Stefan, (2019). “Experimentation in Conceptual Modeling Research: A Systematic Review”. Accepted to the Twenty-Fifth Americas Conference on Information Systems, AMCIS 2019, Cancún, México, Aug 15–17, 2019.</p>
Evaluation of Materials for Low Temperature Asphalt Pavement Performance, BBR Field study
<p>Asphalt mixtures were collected from seven construction projects, both of the plant and during laydown. One SGC cylindrical specimen or ‘puck’ of 80 mm thickness was prepared for each type of mixture. By doing so, 14 different SGC pucks were obtained. The pucks were labeled as ‘UT-01-P’ to ‘UT-07-P’ for plant mixtures and ‘UT-01-F’ to ‘UT-07-F’ for mixtures that were obtained during laydown in the field. Because of compacting to a specific height, the air voids of the compacted pucks varied from 3% to 6%.</p> <p>In Lab A, the specimens were tested in the Bending Beam Rheometer (BBR) by following the AASHTO TP 125-16 testing procedure at three different temperatures: -12°C, -18°C, and -24°C. On the other hand, in Lab C, the specimens were tested at only one temperature (PG + 10°C). In average, 12 specimens were tested for each mixture at both of the laboratories.</p>
FIGURE 8 in A new genus for "Neocallichirus" grandis Karasawa & Goda, 1996, a ghost shrimp species (Decapoda: Axiidea: Callianassidae) heretofore known only by fossil materials
FIGURE 8. Sites from which the specimens of Laticallichirus grandis (Karasawa & Goda, 1996) n. comb. were collected. A, Inno River estuary, Numazu, Shizuoka Prefecture; B, tidal flat at Utsuga, Tosa, Kochi Prefecture.
FIGURE 6 in A new genus for "Neocallichirus" grandis Karasawa & Goda, 1996, a ghost shrimp species (Decapoda: Axiidea: Callianassidae) heretofore known only by fossil materials
FIGURE 6. Laticallichirus grandis (Karasawa & Goda, 1996), male (cl 18.2 mm), CBM-ZC 15247, habitus in dorsal and lateral views, showing colouration in life..
FIGURE 5 in A new genus for "Neocallichirus" grandis Karasawa & Goda, 1996, a ghost shrimp species (Decapoda: Axiidea: Callianassidae) heretofore known only by fossil materials
FIGURE 5. Laticallichirus grandis (Karasawa & Goda, 1996) n. comb., female (cl 16.1 mm), CBM-ZC 15249. A, left major cheliped, outer view; B, same, carpus, inner view; C, left pleopod 1, posterior view; D, same, distal article, different view; E, left pleopod 2, posterior view; F, same, details of distal part of endopod, posterior view (setae omitted).
FIGURE 4 in A new genus for "Neocallichirus" grandis Karasawa & Goda, 1996, a ghost shrimp species (Decapoda: Axiidea: Callianassidae) heretofore known only by fossil materials
FIGURE 4. Laticallichirus grandis (Karasawa & Goda, 1996) n. comb.. A, B, D, E, H–J, male (18.2 mm), CBM-ZC 15247; C, F, G, female (cl 16.1 mm), CBM-ZC 15249. A, left maxilliped 3, outer view; B, same, inner view (setae partially omitted); C, left pereopod 2, outer view; D, right pereopod 3, outer view; E, same, carpus to dactylus, inner view (setae omitted); F, right pereopod 4, outer view; G, same, propodus and dactylus, inner view (setae omitted); H, same, details of fixed finger of propodus, outer view; I, left pereopod 5, outer view; J, same, chela, inner view.
FIGURE 2 in A new genus for "Neocallichirus" grandis Karasawa & Goda, 1996, a ghost shrimp species (Decapoda: Axiidea: Callianassidae) heretofore known only by fossil materials
FIGURE 2. Laticallichirus grandis (Karasawa & Goda, 1996) n. comb., male (18.2 mm), CBM-ZC 15247. A, carapace and left thoracic appendages, lateral view; B, anterior part of carapace and cephalic appendages, dorsal view (setae partially omitted); C, left pleopod 1, posterior view; D, left pleopod 2, anterior view; E, same, posterior view (setae omitted); F, distal part of endopod of left pleopod 2, anterior view; G, left pleopod 3, anterior view (setae omitted); H, same, posterior view; I, detail of appendix interna of left pleopod 3.
FIGURE 3 in A new genus for "Neocallichirus" grandis Karasawa & Goda, 1996, a ghost shrimp species (Decapoda: Axiidea: Callianassidae) heretofore known only by fossil materials
FIGURE 3. Laticallichirus grandis (Karasawa & Goda, 1996) n. comb., male (18.2 mm), CBM-ZC 15247. A, left major cheliped, outer view; B, same, merus to chela, inner view (setae partially omitted); C, chela, upper view (setae omitted); D, right minor cheliped, outer view; E, same, merus to chela, inner view (setae partially omitted).
FIGURE 1 in A new genus for "Neocallichirus" grandis Karasawa & Goda, 1996, a ghost shrimp species (Decapoda: Axiidea: Callianassidae) heretofore known only by fossil materials
FIGURE 1. Laticallichirus grandis (Karasawa & Goda, 1996) n. comb., male (18.2 mm), CBM-ZC 15247. A, carapace and cephalic appendages, dorsal view; B, thoracic shield on thoracomere 7 (between coxae of pereopods 4); C, pleomeres 1 and 2, dorsal view; D, pleomeres 3–5; E, pleomere 6 and telson, dorsal view; F, telson, dorsal view.
Supplementary Material for the Paper "Design Recommendations for Self-Monitoring in the Workplace: Studies in Software Development"
<p>Contains the supplementary material for the paper "Design Recommendations for Self-Monitoring in the Workplace: Studies in Software Development" submitted to CSCW'18. All contents are explained in the file README.txt.</p> <p><strong>Abstract:</strong><br> One way to improve the productivity of knowledge workers is to increase their self-awareness about productivity at work through self-monitoring. Yet, little is known about expectations of, the experience with and the impact of self-monitoring in the workplace. To address this gap, we studied software developers, as one community of knowledge workers. We used an iterative, feedback-driven development approach (N=20) and a survey (N=413) to infer design elements for workplace self-monitoring, which we then implemented as a technology probe called WorkAnalytics. We field-tested these design elements during a three-week study with software development professionals (N=43). Based on the results of the field study, we present design recommendations for self-monitoring in the workplace, such as using experience sampling to increase the awareness about work and to create richer insights, the need for a large variety of different metrics to retrospect about work, and that actionable insights, enriched with benchmarking data from co-workers, are likely needed to foster productive behavior change at work.</p> <p><strong>Source Code:</strong></p> <p>The source code of WorkAnalytics can be found on <strong><a href="https://github.com/sealuzh/PersonalAnalytics">GitHub</a></strong> (under the original name PersonalAnalytics). WorkAnalytics was built with Microsoft's Dot.Net framework in C# and can be used on the Windows 7, 8 and 10 operating system.</p>
FIGURE 16 in The type material of Gryllotalpidae Leach, 1815 (Insecta: Orthoptera: Ensifera) deposited in the Orthoptera collection of the Academy of Natural Sciences of Drexel University, Philadelphia (ANSP): an updated checklist
FIGURE 16. Neoscapteriscus vicinus (Scudder, 1869): Syntype Of Scapteriscus agassizii Scudder, 1869 (A) habitus right view, (B) cOmpOund eyes, Ocelli and missing left antenna in frOntal view, (C) habitus left view, (D) left fOre leg and (E) habitus dOrsal view, (F) leg glued On card and labels. Scale bar = 0.5 cm.
FIGURE 15 in The type material of Gryllotalpidae Leach, 1815 (Insecta: Orthoptera: Ensifera) deposited in the Orthoptera collection of the Academy of Natural Sciences of Drexel University, Philadelphia (ANSP): an updated checklist
FIGURE 15. Neoscapteriscus vicinus (Scudder, 1869): Syntype Of Scapteriscus agassizii Scudder, 1869 (A) habitus right lateral view, (B) habitus dOrsal view, (C) habitus left lateral view, (D) cOmpOund eyes, Ocelli and missing antenna in frOntal view, (E) left fOre leg and (F) labels. Scale bar = 0.5 cm.
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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.