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23 results for “Stan”
SMDemoBioref: Data from the University of Florida Stan Mayfield Demonstration Biorefinery
<p>This dataset includes previously unpublished information collected during the operation of the University of Florida Stan Mayfield Demonstration Biorefinery.</p> <p><strong>Terms of Use:</strong> These data are provided as is, without any warranties of any kind. A bibliographic citation should be included in the References section of publications and other media to acknowledge the authors of this dataset. Proper citations include the authors, title, publisher, and Digital Object Identifier (DOI) and will allow the products to be discovered and re-used by others.</p>
Stanly Stemmed (312a46)
**Stanly Stemmed spear point** Location: Doerschuk site (31Mg22), Montgomery County, North Carolina. Period: Middle Archaic (6000-5000 BC). Material: metavolcanic rock. Dimensions: length, 47.3 mm; width, 45.2 mm; thickness, 10.1 mm. Notes: Catalog no. 312a46, North Carolina Archaeological Collection, Research Laboratories of Archaeology, University of North Carolina at Chapel Hill. Illustrated in *The Formative Cultures of the Carolina Piedmont*, by Joffre L. Coe, Transactions of the American Philosophical Society vol. 54, pt. 5, 1964, Figure 31. Model by Abigail Gancz. Source: Objaverse 1.0 / Sketchfab
Stanly Stemmed (312a43)
**Stanly Stemmed spear point** Location: Doerschuk site (31Mg22), Montgomery County, North Carolina. Period: Middle Archaic (6000-5000 BC). Material: metavolcanic rock. Dimensions: length, 51.1 mm; width, 20.5 mm; thickness, 10.7 mm. Notes: Catalog no. 312a43, North Carolina Archaeological Collection, Research Laboratories of Archaeology, University of North Carolina at Chapel Hill. Illustrated in *The Formative Cultures of the Carolina Piedmont*, by Joffre L. Coe, Transactions of the American Philosophical Society vol. 54, pt. 5, 1964, Figure 31. Model by Abigail Gancz. Source: Objaverse 1.0 / Sketchfab
Stanly Stemmed (312a183-1)
**Stanly Stemmed spear point** Location: Doerschuk site (31Mg22), Montgomery County, North Carolina. Period: Middle Archaic (6000-5000 BC). Material: metavolcanic rock. Dimensions: length, 69.9 mm; width, 36.4 mm; thickness, 9.5 mm. Notes: Catalog no. 312a183-1, North Carolina Archaeological Collection, Research Laboratories of Archaeology, University of North Carolina at Chapel Hill. Illustrated in *The Formative Cultures of the Carolina Piedmont*, by Joffre L. Coe, Transactions of the American Philosophical Society vol. 54, pt. 5, 1964, Figure 31. Model by Abigail Gancz. Source: Objaverse 1.0 / Sketchfab
Stanly Stemmed (312a288)
**Stanly Stemmed spear point** Location: Doerschuk site (31Mg22), Montgomery County, North Carolina. Period: Middle Archaic (6000-5000 BC). Material: metavolcanic rock. Dimensions: length, 56.7 mm; width, 36.2 mm; thickness, 9.9 mm. Notes: Catalog no. 312a288, North Carolina Archaeological Collection, Research Laboratories of Archaeology, University of North Carolina at Chapel Hill. Illustrated in *The Formative Cultures of the Carolina Piedmont*, by Joffre L. Coe, Transactions of the American Philosophical Society vol. 54, pt. 5, 1964, Figure 31. Model by Abigail Gancz. Source: Objaverse 1.0 / Sketchfab
In Search of Caribbeanness: Explorations of the Skin Ego in David Boxer and Stan Musquer's Works
<p>In this conference paper, Frédéric LEFRANÇOIS, Doctor of Literature, discusses the concept of the skin-ego. The human epidermis, the outer surface of the soul, has become the seat of conflict between Europe, Africa and Asia. To develop the concept, he sets out to answer a question: "Is the skin-self a protective or alienating envelope? "His answer is based on the work of David BOXER and Stan MUSQUER. In his view, the skin-self is an agent of inclusion or exclusion, depending on the socio-cultural or ethnic context in which an individual finds himself.</p>
Stanly Stemmed (312a96)
**Stanly Stemmed spear point** Location: Doerschuk site (31Mg22), Montgomery County, North Carolina. Period: Middle Archaic (6000-5000 BC). Material: metavolcanic rock. Dimensions: length, 52.1 mm; width, 37.3 mm; thickness, 8.8 mm. Notes: Catalog no. 312a96, North Carolina Archaeological Collection, Research Laboratories of Archaeology, University of North Carolina at Chapel Hill. Illustrated in *The Formative Cultures of the Carolina Piedmont*, by Joffre L. Coe, Transactions of the American Philosophical Society vol. 54, pt. 5, 1964, Figure 31. Model by Abigail Gancz. Source: Objaverse 1.0 / Sketchfab
Stan code from: Simulation modeling reveals the evolutionary role of landscape shape and species dispersal on genetic variation within a metapopulation
Different shapes of landscape boundaries can affect the habitat networks within them and consequently the spatial genetic-patterns of a metapopulation. In this study, we used a mechanistic framework to evaluate the effects of landscape shape, through watershed elongation, on genetic divergence among populations at the metapopulation scale. Empirical genetic data from four, sympatric stream-macroinvertebrates having aerial adults were collected from streams in Japan to determine the roles of species-specific dispersal strategies on metapopulation genetics. Simulation results indicated that watershed elongation allows the formation of river networks with fewer branches and larger topographic constraints. This results in decreased interpopulation connectivity but a lower level of spatial isolation of distal populations (e.g., those found in headwaters) occurring in the landscapes examined. Distal populations had higher genetic divergence when their downstream-biased dispersal (relative to upstream- and/or overland-biased dispersal) was high. This underscores the importance of distal populations influencing genetic divergence at the metapopulation scale for species having downstream-biased dispersal. In turn, lower genetic divergence was observed under watershed elongation when the genetic isolation of distal populations was decreased in such species. This strong association between landscape shape and evolutionary processes highlights the importance of natural, spatial architecture in assessing the effectiveness of conservation and management strategies.
FIGURE 2. A‒D. Rhabdotalebra albinoi n in A new species of Rhabdotalebra Young (Hemiptera: Cicadellidae: Typhlocybinae) associated with the guaran-guaran (Bignoniaceae: Tecoma stans L.) in Argentina
FIGURE 2. A‒D. Rhabdotalebra albinoi n.sp. Female: A‒D. A, sternite VII; B, genital capsule, lateral view; C, large valve, small valve; D, third valve. Scale bar= (Figs. A‒D: 0.2mm; B: 0.25mm).
FIGURE 1. A‒G. Rhabdotalebra albinoi n in A new species of Rhabdotalebra Young (Hemiptera: Cicadellidae: Typhlocybinae) associated with the guaran-guaran (Bignoniaceae: Tecoma stans L.) in Argentina
FIGURE 1. A‒G. Rhabdotalebra albinoi n.sp. A, dorsal habitus; B, forewing. Male: C‒G. C, sternal apodeme (1S, 2S); D, genital capsule; E, pygofer, lateral view and anal tube; F, subgenital plate, style, connective; G, aedeagus, lateral view. Scale bar= (Figs. A‒B: 3mm; C‒G: 0.2mm; F: 0.1mm).
FIGURE 3. A in A new species of Rhabdotalebra Young (Hemiptera: Cicadellidae: Typhlocybinae) associated with the guaran-guaran (Bignoniaceae: Tecoma stans L.) in Argentina
FIGURE 3. A. Damage by Rhabdotalebra albinoi n.sp. (Circle indicating the damage in the form of rings and horseshoes on leaves of "Guarán-Guarán"). Scale bar=1mm.
Figs 1–2 in New Species Of The Genus Meoneura Rondani, 1856 (Diptera, Carnidae) From Kazakh- Stan
Figs 1–2. Meoneura spp., male genitalia, lateral view. 1 – M. merzi sp. n.; 2 – M. neotiophila Collin.
Subspecies and Distribution. R.l.leschenaultiiDesmarest,1820—Paki-stan,India,Nepal,Bhutan,Bangladesh,Myanmar,Thailand,Laos,Vietnam,Cam-bodia,SChina,andcoastalIs,includingHainanI. R.l.seminudus].E.Gray,1870—SriLanka. R. l. shortridgei Thomas & Wroughton, 1909 — Sumatra (including Simeulue I), Java, Bali, and Lombok Is. in Pteropodidae
Subspecies and Distribution. R.l.leschenaultiiDesmarest,1820—Paki-stan,India,Nepal,Bhutan,Bangladesh,Myanmar,Thailand,Laos,Vietnam,Cam-bodia,SChina,andcoastalIs,includingHainanI. R.l.seminudus].E.Gray,1870—SriLanka. R. l. shortridgei Thomas & Wroughton, 1909 — Sumatra (including Simeulue I), Java, Bali, and Lombok Is.
Stan code from: Branching networks can have opposing influences on genetic variation in riverine metapopulations
Aim: Fractal networks, represented by branching complexity in rivers, are ubiquitous in nature. In rivers, the number of either distal (e.g., in headwater streams) or confluent (e.g., in mainstems) locations can be increased along with their branching complexity. Distal- or confluent-spatial locations can result in fewer or greater corridor linkages that can alter genetic divergence at the metapopulation scale. These mechanisms underlying the resulting genetic structuring remain poorly understood at the metapopulation scale, particularly in terms of the roles of species-specific dispersal traits. The objective of this study is to mechanistically understand how branching complexity can simultaneously influence genetic divergence in opposite directions. Location: Northeastern Japan Methods: To evaluate the integrated influences of network complexity and species dispersal on genetic divergence among populations at the catchment scale, we modelled metapopulation genetic dynamics under a Bayesian inference framework by adapting empirical genetic data from four macroinvertebrate species. Simulations were then performed using empirical and virtual species-characteristics on virtual river networks. Results: Our simulation experiments showed that both greater landscape connectivity (resulting from shorter watercourse distance) and greater isolation of distal locations occurred in the more-branched river networks. These two spatial features have negative and positive influences on genetic divergence, with their relative importance varying among different species and dispersal characteristics. Specifically, genetic divergence at the metapopulation scale increased for species having higher downstream-biased dispersal but decreased for species having higher upstream-biased dispersal. Distal populations (e.g., in headwaters) have higher genetic independence when downstream-biased asymmetry is higher. Main conclusions: We found a strong association between species dispersal and evolutionary processes such as gene flow and genetic drift. This association mediates the pervasive influences of branching complexity on genetic-divergence in the metapopulation. It also highlights the importance of considering species dispersal-patterns when developing management strategies in the face of rapid environmental-change scenarios.
Study to Improve OS in 18 to 60 Year-old Patients, Comparing Daunorubicin Versus High Dose Idarubicin Induction Regimens, High Dose Versus Intermediate Dose Cytarabine Consolidation Regimens, and Stan
ClinicalTrials.gov study NCT02416388. IPD Sharing: Not stated. Countries: 1. Publications: 1.
The Oslo Stan vs Lactate Observational Study
ClinicalTrials.gov study NCT04779294. IPD Sharing: NO. Countries: 1. Publications: 3.
Stan code from: Simulation modeling reveals the evolutionary role of landscape shape and species dispersal on genetic variation within a metapopulation
Open the record for dataset details and reuse information.
Stan code from: Branching networks can have opposing influences on genetic variation in riverine metapopulations
Open the record for dataset details and reuse information.
Figure 1.11. Stan BHI 3033 in One Hundred Years of Tyrannosaurus rex: The Skeletons
Figure 1.11. Stan BHI 3033, during excavation (A); disarticulated skull with Terry Wentz (B); on display at Black Hills Institute, with Brenda Larson (C). Photos: (A, B) Ed Gerken; (C) Larry Shaffer.
Effect of Oral Administration of a Herbarium Mixture (Guazuma Ulmifolia and Tecoma Stans) on Metabolic Profile in Type 2 Diabetic Patients
ClinicalTrials.gov study NCT03313856. IPD Sharing: NO. Countries: 0. Publications: 14.
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