6,139 research outputs found

    On the local Langlands correspondence for non-tempered representations

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    Let G be a reductive p-adic group. We study how a local Langlands correspondence for irreducible tempered G-representations can be extended to a local Langlands correspondence for all irreducible smooth representations of G. We prove that, under a natural condition involving compatibility with unramified twists, this is possible in a canonical way. To this end we introduce analytic R-groups associated to non-tempered essentially square-integrable representations of Levi subgroups of G. We establish the basic properties of these new R-groups, which generalize Knapp–Stein R-groups

    Thysanophrys rarita Knapp, 2013, sp. nov.

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    Thysanophrys rarita sp. nov. Proposed common name: Somali flathead (Figs. 3–5) Holotype: USNM 316125 (127 mm SL). Western Indian Ocean, Somalia, R/V Beinta Cr. 19, Sta. 22, 07 ° 59 ' 24 "N 049° 59 ' 54 " E, bottom trawl, 22 m, 13 Feb. 1987, GJS field no. 127, Greg Small. Diagnosis. A species tentatively placed in Thysanophrys with 6 preocular spines; 11 dorsal- and anal-fin rays; about 25 small spines on suborbital ridge; about 5 small preorbital spines; DSC with 10 scale rows; anterior 14 LL scales bearing small spines, and iris lappet with crenate edge. Description. D 1 spines I, VIII, D 2 rays 11; A rays 11; P fin rays 21; pelvic fin rays I, 4 + 1; pored LL scales 54, anterior 11 scales bearing small spines; DSC with 10 scale rows; GR 1 + 5 = 6; branched C rays 10; vertebrae 27. LL scale pores with two openings to exterior (Fig. 5). GR on first arch 1 + 5 = 6. SNL going 3.5 in HL. Color in alcohol. Body with 5 or 6 dark bands dorsally, coming far down sides; a series of small dark spots on lower side below D 1 fin. Broad dark band on rear ½ of D 1 fin; D 2 and A fins clear. P and pelvic fins with dark blotches; C fin with dark basi-caudal blotch and faint dark band on rear half that encloses several small, darker blotches. Etymology. Known only from the holotype collected off Somalia.Published as part of Knapp, Leslie W., 2013, Descriptions of four new species of Thysanophrys (Scorpaeniformes: Platycephalidae) from the Western Indian Ocean, pp. 127-136 in Zootaxa 3608 (2) on pages 130-131, DOI: 10.11646/zootaxa.3608.2.3, http://zenodo.org/record/22371

    A new species of Amanahyphes Salles & Molineri, 2006 (Ephemeroptera: Leptohyphidae) from Bahia, Brazil

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    Molineri, Carlos, Lima, Lucas R. C., Knapp, William D., Docio, Loyana (2015): A new species of Amanahyphes Salles & Molineri, 2006 (Ephemeroptera: Leptohyphidae) from Bahia, Brazil. Zootaxa 3956 (2): 288-294, DOI: 10.11646/zootaxa.3956.2.

    Thysanophrys randalli Knapp, 2013, sp. nov.

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    Thysanophrys randalli sp. nov. Proposed common name: Snub-snouted flathead (Figs. 1–2) Platycephalus sp. Wass, 1984: 11. Holotype. USNM 341987 (91 mm SL), Western Indian Ocean, Mauritius, west coast, 20 ° 16 'S 57 ° 22 'E, Flic en Flacq, 4–10 m, 5 May 1995, P. Heemstra et al. Paratypes. USNM 344829 (79 mm SL), same data as holotype; SAIAB 62743 (2, 55 & 60 mm SL), same data as holotype; USNM 362767 (99 mm SL) Amirante Islands, St. Joseph Islands, SW of Resource Island, Sta. F 110, off small boat entrance to lagoon, 15–28 m, rotenone, 16 Mar. 1964, R. Rosenblatt et al.; ANSP 177879 (2, 50 & 77 mm SL), same data as USNM 362767. Non - type material: SAIAB 8296 (67 mm SL), Ibo Island, Mozambique, 18 Aug. 1951; J.L.B. & M.M. Smith BPBM 14242 (1, 90), Line Islands, Kiritimati (Christmas) Island, SW end of Cook Islet at lagoon entrance, rotenone, 0–2 m, 24 Mar. 1971, P. Helfrich et al.; BPBM 28075 (1, 68 mm SL), Line Islands., Tabuaeran (Fanning) Island, 1 mile SE of entrance to English Harbor, rotenone, 36.5 m, 4 Apr. 1971, J.E. Randall et al.; USNM 344832 (3, 81–94 mm SL), American Samoa, Tutuila Island, rotenone, 1974 – 76, R. Wass; BPBM 18722 (1, 85 mm SL), same data as USNM 344832; USNM 358133 (1, 89 m SL), Solomon Islands, Santa Cruz Island, reef just inside West Point, 10 ° 12 ' 51 "S 166 °04' 34 "E, 10–35 m, 19 Sept. 1998, J.T. Williams et al.; USNM 362770 (1, 58 mm SL), Solomon Island, Santa Cruz Islands, Nendö Island, E side of Graciosa Bay at Riley Point, 10 ° 44 'S 165 ° 49 ' 30 "E, 5–28 m, 25 Sept. 1998, J.T. Williams et al.; USNM 362769 (1, 59 mm SL), Solomon Islands, Stewart Island, W side of Matuiloto Island, 08° 23 ' 30 "S 162 ° 51 ' 48 "E, rotenone, 0–13 m, 3 Oct. 1998, J.T. Williams et al.; USNM 358143 (1, 47 mm SL) Vanuatu, Banks Ids., Mota Lava Island, Milli Bay, 13 ° 40 ' 19 "S, 167 ° 39 ' 08"E, rotenone, 75–96 ', 19 May 1997, J.T. Williams et al.; AMS I. 18051 -072 (3, 37–45 mm SL), Gilbert Islands, Abaiang Atoll, outer reef off Bolton Point, rotenone, 25–35 ', 10 Nov. 1973, D. Hoese et al.; AMS I. 18052 -078 (2, 54 & 60 mm SL), Abaiang Atoll, off Bolton Point, 50 yards inshore from previous listing, 11 Nov. 1973, 1– 6 ', D. Hoese et al. Diagnosis. A small species of Thysanophrys resembling T. chiltonae but differing in nasal spine structure, a shorter snout, and an iris lappet with a crenate edge (instead of short branches as in T. chiltonae and T. springeri). The maximum size of T. randalli is about 99 mm SL (cf. about 200 mm for T. chiltonae). Description. D 1 spines I, VIII, D 2 rays 11; A 12; P rays 20 (20–21); pored LL scales 53 (52–54), anterior 3 (2–3) bearing small spines; DSC with 7 (6–7) scale rows; GR 1 + 6 (1 + 5–6); branched C rays 10; vertebrae 27. Villiform teeth in bands on jaws, small canines at symphysis, on palatines and in two separate patches on vomer. LL scale pores with two openings to exterior (Fig. 2). Orbital diameter 1.1–1.4 in SNL (Fig. 11); SNL 3.5 (3.0–3.6) in HL. Color in alcohol. Body dark brownish above with faint bands crossing back, a series of small irregular blotches on lower side. D 1 fin with small dark spots on rays and larger dark blotch along margin of first 4 rays; D 2 fin with small dark spots on rays and a faint dark blotch at rear margin; A fin mostly clear, with a few dark spots on posterior rays; P and pelvic fins with a few dark spots; C fin with a faint dark basicaudal blotch and a faint dark bar on rear half that includes numerous small dark spots. Distribution. Although type material is restricted to the Mascarene Islands in the Western Indian Ocean, the non-type specimens of Thysanophrys listed above from the Pacific Ocean are tentatively identified as T. randalli. Etymology. Named for John E. Randall, who collected many of the flatheads that were included in this study.Published as part of Knapp, Leslie W., 2013, Descriptions of four new species of Thysanophrys (Scorpaeniformes: Platycephalidae) from the Western Indian Ocean, pp. 127-136 in Zootaxa 3608 (2) on pages 128-130, DOI: 10.11646/zootaxa.3608.2.3, http://zenodo.org/record/22371

    Effect and Improvement Areas for Port State Control Inspections to Decrease the Probability of Casualty

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    This report is the fourth part of a PhD project called "The Econometrics of Maritime Safety – Recommendations to Enhance Safety at Sea" and is based on 183,000 port state control inspections and 11,700 casualties from various data sources. Its overall objective is to provide recommendations to improve safety at sea. The fourth part looks into measuring the effect of inspections on the probability of casualty on either seriousness or casualty first event to show the differences across the regimes. It further gives a link of casualties that were found during inspections with either the seriousness of casualties and casualty first events which reveals three areas of improvement possibilities to potentially decrease the probability of a casualty – the ISM code, machinery and equipment and ship and cargo operations.maritime safety;correspondence analysis;binary logistic regression;probability of casualty;improvement;Port State Control Effectiveness;casualty first events;detention;port state control deficiences;target factor

    Thysanophrys tricaudata Knapp, 2013, sp. nov.

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    <i>Thysanophrys tricaudata,</i> sp. nov. <p>Proposed common name: Sri Lankan flathead (Figs. 8–9)</p> <p> <b>Holotype:</b> USNM 268919 (86 mm SL). Sri Lanka, Hikkaduwa, about ½ mile offshore, N of rest house, SCUBA at circa 15 m depth, 13 Feb.,1970, C. C. Koenig, CCK 69-102.</p> <p> <b>Paratypes:</b> USNM 268917 (1, 117 mm). Sri Lanka, Hikkaduwa, offshore about 1 ½ miles S of Coral Gardens, 18–21 m, 12 Feb.,1970, C. C. Koenig, CCK 69-101; USNM 268918 (1, 130 mm). Sri Lanka, Weligama, about 200 yds. offshore and E of rest house, 1–3 m, 14 Feb. 1970, C. C. Koenig, CCK-105.</p> <p> <b>Comparative material:</b> USNM 98864 (1, 111 mm). Holotype of <i>Cymbacephalus armatus,</i> Philippines, 5°35’40”N 120°47’ 30”E, Sirun (Sirum) I., R/V Albatross, 12’ beam trawl, 31 m, 16 Feb. 1908.</p> <p> <b>Diagnosis.</b> A species of <i>Thysanophrys</i> lacking papillae on the upper eye, with 4–5 DSC scales D fin I,VII, A 11, a single preocular and preorbital spines and a short snout with SNL going in HL 3.7–4.0 times. C fin with 3 dark bars and a dark saddle crossing back under the entire D1 fin.</p> <p> <b>Description.</b> D1 spines I, VII, D2 rays 11; A fin rays 12; P fin rays 19 (19–20); LL pored scales 51 (52); anterior one bearing a small spine; GR 1 + 4 = 5 (1 + 4 = 5, 1+5 = 6); C branched rays 9; supraorbital ridge with ~ 9 (9–13) spines; vertebrae 27. Villiform teeth in bands on jaws. LL scale pores with 2 openings to exterior (Fig 9).</p> <p> <b>Color in alcohol.</b> A broad dark band over back below entire D1 fin; D1 with a broad marginal dark band; D2 mostly clear, a few spots on rays; A with spots on rays near margin; P with several vertical dark bars; pelvic fin with a broad dark band near middle; and C with a broad basicaudal dark band, a dark marginal band and a narrower submarginal band.</p> <p> <b>Remarks.</b> Although <i>T. tricaudata</i> and <i>T. armata</i> (Fowler, 1938) have many similarities, they differ in D2 ray count (11 in the former, 12 in the latter). In comparing color pattern between the two species (Figs. 8 & 10) major differences in C fin pattern and in dark barring crossing the back are evident.</p>Published as part of <i>Knapp, Leslie W., 2013, Descriptions of four new species of Thysanophrys (Scorpaeniformes: Platycephalidae) from the Western Indian Ocean, pp. 127-136 in Zootaxa 3608 (2)</i> on page 133, DOI: 10.11646/zootaxa.3608.2.3, <a href="http://zenodo.org/record/223718">http://zenodo.org/record/223718</a&gt

    Client Socio-Demographic and Service Receipt Inventory--European Version: development of an instrument for international research. EPSILON Study 5. European Psychiatric Services: Inputs Linked to Outcome Domains and Needs.

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    BACKGROUND: Cross-cultural comparison of mental health service utilisation and costs is complicated by the heterogeneity of service systems. For data to be locally meaningful yet internationally comparable, a carefully constructed approach to its collection is required. AIMS: To develop a research method and instrument for the collection of data on the service utilisation and related characteristics of people with mental disorders, as the basis for calculating the costs of care. METHOD: Various approaches to the collection of service use data and key stages of instrument development were identified in order to select the most appropriate methods. RESULTS: Based on previous work, and following translation and cross-cultural validation, an instrument was developed: the Client Socio-Demographic and Service Receipt Inventory--European Version (CSSRI-EU). This was subsequently administered to 404 people with schizophrenia across five countries. CONCLUSION: The CSSRI-EU provides a standardised yet adaptable method for collating service receipt and associated data alongside assessment of patient outcomes

    Isolation of 10 cyclosporine metabolites from human bile

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    Ten metabolites of cyclosporine were isolated from the ethyl ether extract of bile from four liver transplant patients receiving cyclosporine. Two of the metabolites were unique and previously unidentified. Liquid-liquid partitioning into diethyl ether with subsequent defatting with n-hexane was used for the initial extraction form bile. Separation of the individual metabolites (A-J) was performed using a Sephadex LH-20 column and a gradient high performance liquid chromatographic method. The molecular weights of the isolated metabolites were determined by fast atom bombardment/mass spectrometry. Gas chromatography with mass spectrometic amino acid analysis was also used to identify the amino acid composition and the hydroxylation position of metabolites A, B, C, D, and G. Proton nuclear magnetic resonance spectra were utilized to disinguish the chemical shifts of N-CH3 singlets and NH doublets of metabolites A, B, C, and D. Metabolites A, E, F, H, I, and J were reported previously in human urine and animal bile. Metabolites C and D are dihydroxylated compounds which cannot be clearly described as previously isolated compounds. Metabolites B and G are novel metabolites with a mass fragment which corresponded to a loss of 131 Da from the protonated molecular ion (MH+) in the fast atom bombardment/mass spectrometry, suggesting that the double bond in amino acid 1 has been modified. Metabolites B and G were primarily isolated from the bile of one of the liver transplant patients which contained abnormally high concentrations of these two metabolites. The method described is an efficient procedure for isolating milligram quantities of the major metabolites with greater than 95% purity

    New insights into hepatitis C

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    Hepatitis C infection is characterised by three key features, which are the consequence of a complex interaction between genetic determinants of immune and other host factors and viral characteristics: 1. A high rate of viral persistence after acute infection resulting from a combination of weak T cell responsiveness and specific viral mechanisms of immune escape. 2. Marked interindividual variability in end-organ damage (fibrosis and cirrhosis), probably due to host genetic polymorphisms in genes governing the immune response and fibrosis pathways in addition to viral pathogenicity factors. 3. Significant resistance to antiviral therapies. Viral mechanisms of antiviral resistance parallel those of viral persistence, and include the intriguing possibility that hepatitis C may infect immunologically privileged sites such as the central nervous system.</p
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