106,098 research outputs found
Control and Filtering for Discrete Linear Repetitive Processes with H infty and ell 2--ell infty Performance
Repetitive processes are characterized by a series of sweeps, termed passes, through a set of dynamics defined over a finite duration known as the pass length. On each pass an output, termed the pass profile, is produced which acts as a forcing function on, and hence contributes to, the dynamics of the next pass profile. This can lead to oscillations which increase in amplitude in the pass to pass direction and cannot be controlled by standard control laws. Here we give new results on the design of physically based control laws for the sub-class of so-called discrete linear repetitive processes which arise in applications areas such as iterative learning control. The main contribution is to show how control law design can be undertaken within the framework of a general robust filtering problem with guaranteed levels of performance. In particular, we develop algorithms for the design of an H? and dynamic output feedback controller and filter which guarantees that the resulting controlled (filtering error) process, respectively, is stable along the pass and has prescribed disturbance attenuation performance as measured by and – norms
Participation of c-FLIP in NLRP3 and AIM2 inflammasome activation
Cellular FLICE-inhibitory protein (c-FLIP) is an inhibitor of caspase-8 and is required for macrophage survival. Recent studies have revealed a selective role of caspase-8 in noncanonical IL-1 beta production that is independent of caspase-1 or inflammasome. Here we demonstrated that c-FLIPL is an unexpected contributor to canonical inflammasome activation for the generation of caspase-1 and active IL-1 beta. Hemizygotic deletion of c-FLIP impaired ATP-and monosodium uric acid (MSU)-induced IL-1 beta production in macrophages primed through Toll-like receptors (TLRs). Decreased IL-1 beta expression was attributed to a reduced activation of caspase-1 in c-FLIP hemizygotic cells. In contrast, the production of TNF-alpha was not affected by downregulation in c-FLIP. c-FLIPL interacted with NLRP3 or procaspase-1. c-FLIP is required for the full NLRP3 inflammasome assembly and NLRP3 mitochondrial localization, and c-FLIP is associated with NLRP3 inflammasome. c-FLIP downregulation also reduced AIM2 inflammasome activation. In contrast, c-FLIP inhibited SMAC mimetic-, FasL-, or Dectin-1-induced IL-1 beta generation that is caspase-8-mediated. Our results demonstrate a prominent role of c-FLIPL in the optimal activation of the NLRP3 and AIM2 inflammasomes, and suggest that c-FLIP could be a valid target for treatment of inflammatory diseases caused by over-activation of inflammasomes
Cidariplura maraho Wu & Owada 2013
Cidariplura maraho Wu & Owada, 2013 (Figs 15, 16, 33, 42, 52) Cidariplura maraho Wu & Owada, in Wu et al., 2013: 151, figs 14–16, 41, 42, 62, 73, 82. Type material. Holotype, ♂, Taiwan, Nantou County, Meifeng, 2,100 m, 29. VI. 2012, TFRI147244 S. Wu & W. C. Chang leg. (TFRI) (Fig. 15). Paratypes (9♂ 4♀): the same collecting locality as that of holotype, 1♂, 18. VII. 1990, TFRI00010165, Y. C. Chang leg.; the same locality, 3♂, 20. VII. 2011, TFRI00128724 ♂, S. Wu & W. C. Chang leg. (TFRI); Hualien, Ci’en, 1,950 m, 2♂, 28. VI. 2011, S. Wu & W. C. Chang leg.; the same locality, 1♂, 18. VII. 2011, S. Wu & W. C. Chang leg. (TFRI); Pilu-Shenmu, 2,000 m, 1♀, 16.VII. 2012, M. Owada & L. C. Shih leg. (ESRI); Nantou, Biluxi, 1♂, 12. VII. 2011, C. M. Fu leg.; Turnyuan, 1♀, 23. VI. 2007, 1,950 m, C. M. Fu leg. (NMNS); Taichung, Wuling, 1,850 m, 1♀, 10–12. VIII. 1990, M. Owada leg. (NSMT); Hualien, Tsu’en, 1,990 m, 1♂, 26. VI. 1989, M. Owada leg. (NSMT); Nantou, Hotso [Lushan Spa], 1♀, 26–29. VI. 1973, M. Owada leg. (NSMT). Additional material examined (2♂ 2♀). Hualien, Tsu’en, 2,000 m, 1♀, 13. VII. 2015, NSMT3284 ♀, M. Owada & L. Shih leg. (NSMT); Nantou, Sunlinksea, 1,700 m, 1♂, 25. VI. 2017, NSMT3283 ♂, M. Owada & L. Shih leg. (NSMT); Kaohsiung, Tianchi-2, 2,280 m, 1♂ 1♀, 6. VII. 2015, M. Owada & C.-M. Fu leg. (NSMT). Diagnosis. The species is easily distinguished from other species in C. gladiata complex due to the paler ground coloration of the wings and the more contrasting forewing medial region, the less curved transversal lines on both wings, and the medial part of the corpus bursae, which is incised with longitudinal wrinkles. Distribution and phenology. Endemic to Taiwan. The adults occur from June to August.Published as part of Wu, Shipher, Owada, Mamoru & Wang, Min, 2019, Review of Cidariplura Butler, 1879 (Lepidoptera, Erebidae, Herminiinae). Part 1: the Cidariplura gladiata species complex, pp. 489-502 in Zootaxa 4668 (4) on page 496, DOI: 10.11646/zootaxa.4668.4.3, http://zenodo.org/record/344986
Nocardioides intraradicalis sp. nov., isolated from the roots of Psammosilene tunicoides W. C. Wu et C. Y. Wu
A Gram-stain-positive, non-spore-forming and non-motile strain designated YIM DR1091Twas isolated from the roots of Psammosilene tunicoides W. C. Wu et C. Y. Wu collected from Gejiu, Yunnan, China. The taxonomic position of strain YIM DR1091 was investigated by polyphasic approaches. Phylogenetic analyses based on 16S rRNA gene sequences indicated that strain YIM DR1091Tis a member of the genus Nocardioides. Strain YIM DR1091Twas closely related to Nocardioides pyridinolyticus OS4T, Nocardioides caricicola YC6903T, Nocardioides hankookensis DS-30Tand Nocardioides aquiterrae GW-9Tand had a pairwise 16S rRNA gene sequence similarities of 97.6, 97.5, 97.2 and 97.2%, respectively. DNA:DNA relatedness values between strain YIM DR1091Tand related type strains JCM 10369T, JCM 17686T, JCM 15302Tand JCM 11813Twere found to be 44.9±1.7, 50.2±1.3, 46.8±0.9 and 43.0±0.2% respectively. The respiratory menaquinone for strain YIM DR1091Twas MK-8 (H4) while the major fatty acids (>5%) were iso-C16:0, C17:1ω8c,C17:0, iso-C15:0and iso-C14:0. The polar lipids were diphosphatidylglycerol, phosphatidylglycerol and three unidentified phospholipids. Whole-cell hydrolysates contained mannose, ribose, glucose and galactose, along withLL-diaminopimelic acid as the diagnostic diamino acid in the peptidoglycan. The DNA G+C content was 74.6 mol%. Phenotypic, phylogenetic and chemotaxonomic data indicated that strain YIM DR1091Trepresents a novel species of the genus Nocardioides, for which the name Nocardioides intraradicalis sp. nov. is proposed. The type strain is YIM DR1091T(=JCM 30632T=CGMCC4.7251T).open
Theoretical Electronic Structure and Properties of Alternating Fluorene-Acceptor Conjugated Copolymers and Their Model Compounds
Cidariplura shanmeii Wu & Owada 2013
Cidariplura shanmeii Wu & Owada, 2013 (Figs 17, 18, 28, 43, 53) Cidariplura gladiata ab. ochreimacula Strand, 1919: 149, aberration, unavailable infrasubspecific name. Cidariplura gladiata: Wang, 1994: 397; Wang, 2001: 12, nec Butler, 1879. Cidariplura shanmeii Wu & Owada, in Wu et al., 2013: 148, figs 3, 4, 7, 8, part. Type material. Holotype, ♂, Taiwan, Chiayi Co., Shanmei, 800 m, 8. VII. 2011, TFRI128721, S. Wu & W. C. Chang leg. (TFRI) (Fig. 17). Paratypes (8♂ 5♀): Taiwan, the same collecting locality as that of the holotype, 1♂, 5. VIII. 2011, W. C. Chang & S. Wu leg.; the same locality, 1♂, 2. XI. 2011, W. C. Chang & S. Wu leg.; Nantou, Lianhuachi, 600 m, 1♂, 21. V. 2009, C. C. Kuo leg.; the same locality, 1♂, 10. V. 2010, TFRI151527, C. C. Kuo leg.; the same locality, 3♂, 23. VII. 2009, C. C. Kuo leg.; the same locality, 1♂, 12. VII. 2010, C. C. Kuo leg.; 1♂, 10. VIII. 2010, C. C. Kuo leg.; Pingtung, Shouka, 1♀, 450 m, 27. X. 2011, Y. C. Lin leg.; the same locality, 2♀, 22. III. 2012, Y. C. Lin leg.; the same locality, 1♂, 19. VII. 2012, Y. C. Lin leg.; the same locality, 2♀, 15. VIII. 2012, Y. C. Lin leg.; Hualien, Guanfu, 1 ♂, 180 m, 9. VIII. 2010, leg. Y. C. Lin leg.; the same locality, 1♂, 13. IX. 2010, Y. C. Lin leg. (TFRI). Additional material examined. Taiwan. Ilan, Fushan Botanical Garden, 700 m, 1♂, 12, 15–16. VI. 2015, NSMT3305 ♂, M. Owada & S. Wu leg.; the same locality, 2♂ 1♀, 12. V. 2019, NSMT3474 ♂, NSMT3475 ♀, M. Owada & S. Wu leg. (NSMT); Nantou, Lienhuachih [=Lianhuachi], 700 m, 2♂, 17–18. VII. 2012, NSMT3297 ♂ (NSMT), NSMT3300 ♂ (ESRI), M. Owada & L. Shih leg., Huisun Linchang, 770 m, 2♂, 21–22. VI. 2017, NSMT3306 ♂ (NSMT), NSMT3307 ♂ (ESRI), M. Owada & L. Shih leg., Aowanda, 1,000 m, 1♂, 9. V. 2013, NSMT3281 ♂ (NSMT), M. Owada, L. Shih & Y. Chen leg. Notes. Wu et al. (2013) described C. shanmeii with the illustration of the holotype of C. shanmeii, however the illustrated structures in Wu et al. (2013: figs 37, 38, male; 64, female; 69, labial palpus; 80, male foreleg), actually belong to the new species, C. hbun sp. nov., described below. Diagnosis. Externally C. shanmeii and C. hbun are difficult to be separated, but the former species can be distinguished from the latter by the narrowed white forewing discocellular spot, rather than a wider and more yellowish-white spot; the costal process of the valva is digitiform rather than stouter and curved downwards; the distinctively shorter distal portion of valva rather than nearly equal in length as costal process; the digitiform, straight costal process rather than curved ventrally and tapering; the saccular process is extremely small and curved rather than robust and rod-like pointing parallelly with distal portion of valva; the ductus bursae is extremely narrowed compared to the moderate width of other species in the complex. Re-description. Due to the existence of specimens belonging to both C. shanmeii and C. hbun sp. nov. in the paratype series of C. shanmeii (sensu Wu & Owada, in Wu et al., 2013), we re-describe C. shanmeii herein to clarify the identity of that species. Measurements. Forewing length 12–14 mm in males (n= 17); 12–14 mm in females (n= 5). Eye round; antenna ciliate, male with a pair of long bristles on each segment, length of bristle 2 X diameter of shaft in median region. Head, all segments of thorax as well as femur, tibia and 1st tarsal segment chocolate brown. Male labial palpus (Fig. 28) modified as follows: 1st segment very long, upcurved along frons, surpassing vertex, smoothly covered with ordinary scales; 2nd segment bent at a right angle from the 1st, slender, slightly curved, 0. 5 X shorter than 1st, reaching the anterior part of thorax, internally with specialized ochreous scales which are elongated and enlarged at their apices; 3rd segment long, 3 X longer than 2nd, basal part of labial palpus as wide as medial part, internally with long ochreous scales slender and almost twice as long as those in the 2 nd segment. Labial palpus in female: 3 rd shorter than 2 nd, slender, tapering towards apex. Legs: male foretibia with apical spine. Forewing broad, slightly excurved, apex nearly forming right angle; ground coloration chocolate brown; antemedial and postmedial line slender, light ochreous, the former oblique, wave-like, the latter smoothly excurved outward at discal cell part; discocellular spot white, slender and lunate-shaped; submarginal line slender, ochreous, wave-like; outer margin ochreous; marginal scales chocolate brown. Hindwing chocolate brown; medial line ochreous with one ochreous spot situating at outside of tornal area; outer margin ochreous; marginal scales chocolate brown. Abdomen brown, 8th segment unmodified. Male genitalia (Fig. 43)—Uncus broad, stout, apex hook-like. Tegumen and vinculum long, equal in length; saccus V-shaped, medial part elongated anteriorly. Valva trifurcate, costal process, straight and digitiform, distal portion of valva broad, saccular process short, curved and digitiform. Juxta plate-like, transtilla indistinct. Aedeagus stout, straight, 1. 25 X longer than valva; vesica densly scobinate without cornutus. Female genitalia (Fig. 53)—Papillae anales membranous with short hair-like setae; both pairs of apophyses slender, moderate length; ductus bursae as long as corpus bursae, with a pair of slender lateral sclerites. Corpus bursae elliptical, basal half part surrounded by dense internal spinose patch; ductus seminalis arising from lateral base of corpus bursae, broadened and coiled basally. Distribution and phenology. Endemic to Taiwan. The adults occasionally occur from March to November.Published as part of Wu, Shipher, Owada, Mamoru & Wang, Min, 2019, Review of Cidariplura Butler, 1879 (Lepidoptera, Erebidae, Herminiinae). Part 1: the Cidariplura gladiata species complex, pp. 489-502 in Zootaxa 4668 (4) on pages 497-498, DOI: 10.11646/zootaxa.4668.4.3, http://zenodo.org/record/344986
Can one assess the pi character of a C-C bond with the help of the NMR spin-spin coupling constants?
Measured one-bond spin-spin coupling constants (SSCC) (1)J(CC) can be used to describe the nature of the C-C bond, provided one is able to separate the various coupling mechanisms leading to (1)J(CC). The Fermi-contact (FC) term probes the first order density at the positions of the coupling nuclei, whereas the noncontact terms (the paramagnetic spin orbit (PSO) and the spin-dipole (SD) terms) probe the pi character of the C-C bond (the diamagnetic spin orbit (DSO) term can mostly be neglected). A model is tested, in which the value of the FC(CC) term is estimated with the help of measured SSCCs (1)J(CH). The difference between the measured J(CC) and the estimated FC(CC) values, Delta(CC) = PSO(CC) + SD(CC) + DSO(CC), provides a semiquantitative measure of the pi character of a C-C multiple bond. The applicability and limitations of this approach are discussed by partitioning the four Ramsey terms of the SSCC (1)J(CC) into one- and two-orbital contributions. The FC, PSO, and SD terms of (1)J(CC) are explained and analyzed with regard to their relationship to other C-C bond properties. It is shown that empirical relationships between measured SSCCs and the s character of a bond need reconsideration
Morphological Transformation and Photophysical Properties of Rod-Coil Poly[2,7-(9,9-dihexylfluorene)]-block-poly(acrylic acid) in Solution
Frisilia anningensis Wu 1997
16. Frisilia anningensis Wu, 1997 Acta Zootaxonomica Sinica, 22 (1): 87, Fig. 2. TL: China, Yünnan. [IZAS, China]. Diagnosis. The species is similar to F. s u l c a t a Meyrick, which was described from N. India, and it is characterized by the male genitalia with a small spine on the ventral margin of the valva, and extremely emarginated on the caudal margin of the juxta. The female is as yet unknown. Adult (Fig. 17, holotype). Wingspan, 19.0 mm. Male genitalia (Figs. 48, 48 a). See Wu (1997 a: Fig. 2). Material examined. 1 ♂ (holotype), Prov. Yunnan, 16 VIII 1982, gen. prep. no. IZAS-W 89178. Distribution. China.Published as part of Park, Kyu-Tek, Wu, Chunseng, Kun, Andras & Sohn, And Jae-Cheon, 2008, A taxonomic review of the genus Frisilia Walker (Lepidoptera: Lecithoceridae), with description of two new species, pp. 1-24 in Zootaxa 1696 on page 10, DOI: 10.5281/zenodo.18072
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