1,445 research outputs found
Healing Architecture: Engagement, Nature, Community
My thesis focused on exploring death as a part of life rather than looking at death as a separate entity. I reframed a Cancer Center that engaged life as part of a community with nature rather than a hospice center that embraced death. In today’s society, healthcare institutions are very isolated and disconnected from the public like gated communities. Most people I know do not like to go to hospitals if they can prevent it. I felt there needed to be a place where people with cancer could go that offered some respite from the conventional healthcare institutions. A place that put the interests of the patient first, a place where patients could get the practical, emotional and social support they needed. I envisioned a creative architectural design that focused on three concepts of engagement, nature and community that would transform healthcare settings into healing environments that improved patient outcomes and staff effectiveness
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The depth of the convective boundary layer and implications for a Walker-like circulation on Mars
Radio science observations indicate that the depth of the martian convective boundary layer varies strongly with surface height, although the surface temperature does not. We show that this effect is reproduced in martian limited area models and in global climate models. The implications for the global circulation when convective boundary layer depth varies with location are considered
Concanavalin A-Binding Enzymes of Crotalus scutulatus scutulatus Venom
Crotalus scutulatus scutulatus crude venom was separated into two fractions by Concanavalin A Sepharose 4B affinity chromatography. The proteins binding to Con A exhibited phosphomonoesterase (orthophosphoric monoester phosphohydrolase EC 3.1.3.2), phosphodiesterase, 5\u27-nucleotidase (5\u27-ribonucleotide phosphohydrolase EC 3.1.3.5), phospholipase A(phosphatidate 2-acylhydrolase EC 3.1.1 .4), hyaluronidase (hyaluronate glycanohydrolase EC 3.2.1 d), N-benzoyl-L-arginine ethyl esterase, p-toluenesulfonyl-L-arginine methyl esterase, L-amino acid oxidase (L-amino acid: 02 oxidoreductase [deaminating] EC 1.4.3.2), and caseinolytic activities. Thrombin-like and NAD nucleosidase (5\u27-ribonucleotide phosphohydrolase EC 3.1.3.5) activities were not observed. The crude venom and the fraction containing the glycoproteins which bound to Con A were fractionated by DEAE Sephadex A-50 ion exchange chromatography. Each of these samples yielded fractions having caseinolytic activities
Concanavalin A-Nonbinding Enzymes of Crotalus scutulatus scutulatus Venom
Crotalus scutulatus scutulatus crude venom was separated into two fractions by Concanavalin A Sepharose 4B affinity chromatography. The Concanavalin A-nonbinding fraction (F-l) exhibited phosphomonoesterase (orthophosphoric monoester phosphohydrolase EC 3.1 .3.2), phosphodiesterase, 5 \u27-nucleotidase (5 \u27-ribonucleotide phosphohydrolase EC 3.1.3.5), phospholipase A (phosphatidate 2-acylhydrolase EC 3.1.1.4), hyaluronidase (hyaluronate glycanohydrolase EC 3.2.1.d), N-benzoyl-Larginine ethyl esterase, p-toluenesulfonyl-L-arginine methyl esterase, L-amino acid oxidase (L-amino acid: O2 oxidoreductase [deaminating] EC 1.4.3.2), and caseinolytic activities. Thrombin-like and NAD nucleosidase (5 \u27-ribonudeotide phosphohydrolase EC 3.1.3.5) activities were not observed. DEAE Sephadex A-50 ion exchange chromatography by two stage elution of F-l yielded several fractions having proteinase activities. Proteinase activity was observed in the latter fractions of the first elution and in the fractions of the second elution
Radio scintillations observed during atmospheric occultations of Voyager: Internal gravity waves at Titan and magnetic field orientations at Jupiter and Saturn
The refractive index of planetary atmospheres at microwave frequencies is discussed. Physical models proposed for the refractive irregularities in the ionosphere and neutral atmosphere serve to characterize the atmospheric scattering structures, and are used subsequently to compute theoretical scintillation spectra for comparison with the Voyager occultation measurements. A technique for systematically analyzing and interpreting the signal fluctuations observed during planetary occultations is presented and applied to process the dual-wavelength data from the Voyager radio occultations by Jupiter, Saturn, and Titan. Results concerning the plasma irregularities in the upper ionospheres of Jupiter and Saturn are reported. The measured orientation of the irregularities is used to infer the magnetic field direction at several locations in the ionospheres of these two planets; the occultation measurements conflict with the predictions of Jovian magnetic field models, but generally confirm current models of Saturn's field. Wave parameters, including the vertical fluxes of energy and momentum, are estimated, and the source of the internal gravity waves discovered in Titan's upper atmosphere is considered
Collecting Texts in Endangered Languages: The Chickasaw Narrative Bootcamp
While data collection early in the Americanist tradition included texts as part of the Boasian triad, later developments in the generative tradition moved away from narratives. With a resurgence of attention to texts in both linguistic theory and language documentation, the literature on methodologies is growing (i.e., Chelliah 2001, Chafe 1980, Burton & Matthewson 2015). We outline our approach to collecting Chickasaw texts in what we call a ‘narrative bootcamp.’ Chickasaw is a severely threatened language and no longer in common daily use. Facilitating narrative collection with elder fluent speakers is an important goal, as is the cultivation of second language speakers and the training of linguists and tribal language professionals. Our bootcamps meet these goals. Moreover, we show many positive outcomes to this approach, including a positive sense of language use and ‘fun’ voiced by the elders, the corpus expansion that occurs by collecting and processing narratives onsite in the workshop, and field methods training for novices. Importantly, we find the sparking of personal recollections facilitates the collection of heretofore unrecorded narrative genres in Chickasaw. This approach offers an especially fruitful way to build and expand a text corpus for small communities of highly endangered languages.National Foreign Language Resource Cente
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Martian meso/micro-scale winds and surface energy budget
Regional, diurnal and seasonal variations of surface
temperature are particularly large on Mars. This is mostly due to the Martian surface remaining close to radiative equilibrium. Contrary to most terrestrial locations, contributions of sensible heat flux (i.e. conduction/convection exchanges between atmosphere and surface) to the surface energy budget [hereinafter SEB] are negligible on Mars owing to lowatmospheric density and heat capacity (e.g. Figure 2 in Savijärvi and Kauhanen, 2008). This radiative control of surface temperature is a key characteristic of the Martian environment and has crucial consequences on the the Martian geology, meteorology, exobiology, etc.
In order to identify the impact of this Martian peculiarity to near-surface regional-to-local atmospheric circulations,
we employ our recently-built Martian limited-area meteorological model (Spiga and Forget, 2009). We use horizontal resolutions adapted to the dynamical phenomena we aim to resolve: from several tens of kilometers to compute regional winds (mesoscale simulations) to several tens of meters to compute atmospheric boundary-layer winds (microscale or turbulent-resolving simulations, also called Large-Eddy Simulations, LES)
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Variations in Martian convective boundary layer depth: observations and modelling studies
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Chikashsha alhihaat Chikashshanompa\u27 anompoli katihma: Chickasaws are still speaking Chikashshanompa\u27
Holisso mako̲ anompa toklo\u27 ishtiiholissochitok, Chikashshanompa\u27 micha Naahollimanompa\u27. Hopaakikaash Chikashsha mó̲ma\u27at i̲yaakni\u27 sipokni\u27 áyya\u27shattook. 1837aash Naahollo i̲naalhpisa\u27at pomokloshi\u27 wihat kanallichittook. Pomokloshaat Hattak Api\u27ma\u27 I̲yaakni\u27 onat tahattook. Pomanompa\u27at impállaminattookookya kaniya\u27ookya iláyya\u27shakmat Chikashsha ilittimanompohó̲li katihma. Chikashsha alhihaat ittimanompoli aaissa ki\u27yokittook. Chikashsha sipóngni\u27at imanompa\u27 imaabahánchi bíyyi\u27kanattook. Mako\u27no imaabahánchi katihma. Pomanompa\u27at ikshoka\u27chi imahoobookya ki\u27yokittook. Anompa\u27at tibi\u27 kolofa\u27 chohmittook. Ittonchololit ishtayattook. 2007aash po̲minko\u27 Bill Anoatubbyat Chickasaw Language Revitalization Program ikbittook. Sipóngni\u27, anompa\u27 shaali\u27 cho\u27maat ibaatoksalit ishtayattook. Chikashsha alhihaat Chikashshanompa\u27 anompoli katihma. Pomanompaat bílli\u27yacha bílli\u27ya. This Chronicle, written in both Chikashshanompa\u27 (Chickasaw language) and English, reflects on the efforts of Chikashsha okla (Chickasaw people) to reclaim and revitalize Chikashshanompa\u27. Over time and for a variety of reasons—including Removal, English-only schooling, intermarriage with non-Chikashsha, and economic depression—many people stopped speaking Chikashshanompa\u27. Still, those who cared deeply for the language tended to it, making it possible for future generations to learn and to speak Chikashshanompa\u27. Because of the Chikashshanompa\u27 revitalization and reclamation work, undertaken by many, Chikashsha alhihaat Chikashshanompa\u27 anompoli katihma—Chickasaws are still speaking Chickasaw
Chikashsha alhihaat Chikashshanompa' anompoli katihma: Chickasaws are still speaking Chikashshanompa'
Holisso mako̲ anompa toklo' ishtiiholissochitok, Chikashshanompa' micha Naahollimanompa'. Hopaakikaash Chikashsha mó̲ma'at i̲yaakni' sipokni' áyya'shattook. 1837aash Naahollo i̲naalhpisa'at pomokloshi' wihat kanallichittook. Pomokloshaat Hattak Api'ma' I̲yaakni' onat tahattook. Pomanompa'at impállaminattookookya kaniya'ookya iláyya'shakmat Chikashsha ilittimanompohó̲li katihma. Chikashsha alhihaat ittimanompoli aaissa ki'yokittook. Chikashsha sipóngni'at imanompa' imaabahánchi bíyyi'kanattook. Mako'no imaabahánchi katihma. Pomanompa'at ikshoka'chi imahoobookya ki'yokittook. Anompa'at tibi' kolofa' chohmittook. Ittonchololit ishtayattook. 2007aash po̲minko' Bill Anoatubbyat Chickasaw Language Revitalization Program ikbittook. Sipóngni', anompa' shaali' cho'maat ibaatoksalit ishtayattook. Chikashsha alhihaat Chikashshanompa' anompoli katihma. Pomanompaat bílli'yacha bílli'ya. This Chronicle, written in both Chikashshanompa' (Chickasaw language) and English, reflects on the efforts of Chikashsha okla (Chickasaw people) to reclaim and revitalize Chikashshanompa'. Over time and for a variety of reasons—including Removal, English-only schooling, intermarriage with non-Chikashsha, and economic depression—many people stopped speaking Chikashshanompa'. Still, those who cared deeply for the language tended to it, making it possible for future generations to learn and to speak Chikashshanompa'. Because of the Chikashshanompa' revitalization and reclamation work, undertaken by many, Chikashsha alhihaat Chikashshanompa' anompoli katihma—Chickasaws are still speaking Chickasaw.Ye
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