3,007 research outputs found
Goniozus koreanus Lim, sp. nov.
No full textGoniozus koreanus Lim, sp. nov. (Figs 17–24) Type material. Holotype, Ƥ. KOREA: CN: Mangilsa, Daesan, Daesan, Seosan, N 36 ° 56 ' 29.8 " E 126 ° 26 ' 85.1 ", Alt. 184 m, 20.v. 2006, S.W. Park leg. (SNU). Paratypes. KOREA: Seoul: Ƥ, Cheongyangri, Dongdaemun, MT, 25.vii– 1.viii. 2005, D.P. Lyu leg. (KFRI); Ƥ, ditto, 15–22.viii. 2005, D.P. Lyu leg. (KFRI); Ƥ, Mt. Surak, Sanggye, Nowon, MT, 18.vii– 24.viii. 2007, J. O. Lim leg. (SNU); Ƥ, Seoul National University campus, Daehak, Gwanak, 4.viii. 2008, J. O. Lim leg. (SNU); Ƥ, Mt. Bulam, Gongreung, Nowon, MT, 11–25.v. 2008, S.W. Park leg. (SNU). GG: Ƥ, Yongin, 21.v. 1989, S.B. Han leg. (SNU); Ƥ, Mt. Yeogi, Seodun, Gwonseon, Suwon, 16.iv. 1994, J. Y. Choi leg. (SNU); Ƥ, Mt. Cheonggae, Gwacheon, 22.ix. 2000, H. G. Kang leg. (SNU); Ƥ, Yeongjusa, Annyeong, Taean, Hwaseong, MT, 22–29.viii. 2005, Y.D. Kwon leg. (KFRI); 2 Ƥ, ditto, 5 – 2.ix. 2005, Y.D. Kwon leg. (KFRI); 2 Ƥ, ditto, 12–20.ix. 2005, Y.D. Kwon leg. (KFRI); Ƥ, Sihwado, Namyangju, MT, N 37 ° 40 ' 6 " E 127 ° 18 ' 39 ", Alt. 238 m, 27.v. 2007, S.W. Park leg. (SNU); Ƥ, Gwanak arboretum, Anyang, Manan, Anyang, MT, 26.vi– 4.vii. 2007, J. O. Lim leg. (SNU); Ƥ, ditto, MT, N 37 ° 25 ' 15.6 " E 126 ° 56 ' 44.3 ", Alt. 126 m, 18.iv– 2.v. 2008, J. O. Lim leg. (SNU); Ƥ, Suwon arboretum, Seodun, Gwonseon, Suwon, 1.vi. 2009, J. O. Lim leg. (SNU); Ƥ, Mt. Ungil, Songchon, Choam, Namyangju, MT, N 37 ° 34 ' 43.3 " E 127 ° 18 ' 37.5 ", Alt. 134 m, 18–31.iv. 2009, J. O. Lim leg. (SNU); Ƥ, ditto, MT, 1–26.v. 2009, J. O. Lim leg. (SNU); Ƥ, ditto, MT, 27.v– 10.vi. 2009, J. O. Lim leg. (SNU); Ƥ, Mt. Homyeong, Goseong, Cheongpyeong, Gapyeong, MT, N 37 ° 43 '15.0" E 127 ° 29 ' 18.9 ", Alt. 168 m, 18–31.iv. 2009, J. O. Lim leg. (SNU); 2 Ƥ, ditto, MT, 1–6.v. 2009, J. O. Lim leg. (SNU). GW: Ƥ, Jinae, Dong, Chuncheon, MT, 16–22.viii. 2005, S.J. Jang leg. (KFRI); Ƥ, ditto, MT, 31.vii– 7.viii. 2008, S.J. Jang leg. (KFRI); Ƥ, Jukheon, Gangreung, N 37 ° 46 ' 55 " E 128 ° 51 ' 35 ", Alt. 57 m, 29.v. 2009, S.W. Park leg. (SNU); Ƥ, Chundang, Cheongil, Hoengseong, N 37 ° 36 ' 36 " E 128 ° 8 ' 36 ", Alt. 249 m, 7.vi. 2009, S.W. Park leg. (SNU). CB: Ƥ, Mt. Wolak, Susan, Jecheon, MT, N 36 ° 52 ' 4 " E 128 ° 8 ' 57 ", 1.ix. 2006, J. C. Jeong leg. (SNU); Ƥ, Namdaemun, Hoenam, Boeun, N 36 ° 26 ' 27 " E 127 ° 34 ' 25 ", Alt. 104 m, 24.ix. 2009, S.W. Park leg. (SNU). CN: Ƥ, Donam, Banpo, Gongju, MT, 23–30.viii. 2005, J.H. Han leg. (KFRI); 2 Ƥ, Gahak, Songak, Dangjin, N 36 ° 55 ' 17.5 " E 126 ° 42 ' 33 ", Alt. 34 m, 19.v. 2006, S.W. Park leg. (SNU); Ƥ, Baekja, Susin, Cheonan, 6.vi. 2008, S.W. Park leg. (SNU); 2 Ƥ, Annyeong, Tancheon, Gongju, 24.v. 2009, S.W. Park leg. (SNU); Ƥ, Hwaam, Cheongra, Boryeong, 14.vi. 2009, S.W. Park leg. (SNU); Ƥ, Hanseo Univ., Daegok, Haemi, Seosan, MT, N 36 ° 41 ' 30 " E 126 ° 34 ' 50 ", 11.vi– 8.vii. 2009, J.W. Lee leg. (YNU); Ƥ, Masan, Seocheon, 12.vi. 2010, S.W. Park leg. (SNU). Daejeon: 3 Ƥ, Wolpyeong, Seo, MT, 20.vi– 10.vii. 2008, J.W. Lee leg. (YNU). JB: Ƥ, Majeong, Bug, Jeongeub, MT, 19–26.vii. 2005, J.W. Park leg. (KFRI); Ƥ, ditto, 2–9.viii. 2005, J.W. Park leg. (KFRI); Ƥ, ditto, 30.viii– 6.ix. 2005, J.W. Park leg. (KFRI); Ƥ, Majeong, Bug, Jeongeub, MT, 19.iv– 8.v. 2007, J.W. Park leg. (KFRI); [JN] Ƥ, Pungsan, Dado, Naju, MT, 25.vii– 8.viii. 2005, S.B. Yu leg. (KFRI); Ƥ, ditto, 9–30.ix. 2005, S.B. Yu leg. (KFRI); 2 Ƥ, Pungsan, Dado, Naju, MT, 27.iv– 17.v. 2007, S.B. Yu leg. (KFRI); 2 Ƥ, ditto, 17.v– 7.vi. 2007, S.B. Yu leg. (KFRI); Ƥ, Mt. Naejang, Ssangung, Bukha, Jangseong, MT, N 35 ° 25 ' 31.6 " E 126 ° 51 ' 46.9 ", 13.v. 2007, J.W. Lee leg. (YNU); 2 Ƥ, Pungsan, Dado, Naju, MT, 26.v– 2.vi. 2008, S.B. Yu leg. (KFRI); Ƥ, Mt. Naejang, Sinseong, Bukha, Jangseong, N 35 ° 27 ' 17.9 " E 126 ° 50 ' 38.8 ", Alt. 161 m, 3.vii. 2009, J. O. Lim leg. (SNU). GB: Ƥ, Yeungnam Univ., Dae, Gyeongsan, MT, 30.iv– 7.v. 2007, J.W. Lee leg. (YNU); Ƥ, Namsa, Hyeongok, Kyeongju, MT, 30.vi– 14.vii. 2005, J.T. Mun leg. (KFRI); 2 Ƥ, Namsan, Gakbuk, Cheongdo, MT, N 35 ° 41 ' E 128 ° 35 ', 9–19.viii. 2007, J.W. Lee leg. (YNU); Ƥ, ditto, 15.x– 4.xi. 2007, J.W. Lee leg. (YNU); Ƥ, Yeongnam Univ., Dae, Gyeongsan, MT, 30.iv– 7.v. 2007, J.W. Lee leg. (YNU); Ƥ, ditto, MT, N 35 ° 58 ' E 128 ° 47 ', 12–21.vii. 2007, J.W. Lee leg. (YNU); Ƥ, Namsan, Gakbuk, Cheongdo, N 35 ° 41 ' E 128 ° 35 ' 23 ", 5.x– 2.xi. 2008, J. O. Lim leg. (SNU); Ƥ, Mt. Unmun, Cheongdo, MT, N 35 ° 38 ' 45 " E 128 ° 57 ' 33 ", 23.v. 2008, J.W. Lee leg. (YNU); Ƥ, ditto, MT, N 35 ° 38 ' 19 " E 128 ° 57 ' 40 ", 30.v– 16.vi. 2009, C. J. Kim leg. (YNU); Ƥ, Sangju campus, Gyeongbuk Univ., Gajang, Sangju, MT, 28.v– 4.vi. 2009, S.W. Park leg. (SNU). GN: Ƥ, Dapcheon, Ibanseong, Jinju, MT, 1–9.viii. 2005, B.G. Ahn leg. (KFRI). Busan: Ƥ, Daemadeung, Nakdonghagu, Myeongji, Gangseo, 22.viii. 2006, T. H. Kim leg. (SNU). JJ: Ƥ, Donggye, Jeju, MT, 27.vi– 18.vii. 2007, C. H. Shin leg. (KFRI). Diagnosis. This species is mostly similar to Goniozus japonicus Ashmead, 1904 by having mandible yellow; by fore wing without areolet; by flagellomere 3–5 longer than wide respectively; by propodeal disc with complete transverse carina; by ratio of head and propodeal disc. However, this species can be distinguished from G. japonicus by short antennal segments, by pedicel to flagellomere 2 less than 1.5 × as long as wide, by flagellomere 11 1.5 × as long as wide (long antennal segments, pedicel to flagellomere 2 longer than 2.0 × as long as wide, flagellomere 11 2.0 × as long as wide in G. japonicus); by median and submedian cell of fore wing with relatively denser hairs (very sparse hairs in G. japonicus). Description. FEMALE (holotype). Body length 4.1 mm. LFW 2.5 mm. Color. Head: mandible yellow, antenna yellow, from flagellomeres 6–11 pale castaenous. Mesosoma black; fore wing subhyaline, veins pale castaenous; legs yellow except coxa and femora dark castaenous, tarsal claw dark castaenous. Metasoma black except distal margin of terga 4–7 pale castaenous. Head (Figs 18–20): 1.0 × as long as wide, coriaceous; lateral margin convex, posterior margin straight, postero-lateral corner forming round angle in dorsal view; lateral surface smooth and polished. Mandible with four acute teeth. Clypeus well-developed, frontal angle right; fronto-clypeal median longitudinal carina developed, exceeding antennal socket. First antennal segment in ratio of 2.3: 1.0: 1.0: 1.1: 1.2 in length; from scape to flagellomere 3 and 11 2.0, 1.3, 1.2, 1.2, 1.3 and 1.6 × as long as wide, respectively. Frons and vertex coriaceous with sub-erect hairs and sparse moderate punctures, aparted from each other 2.0–3.0 × as wide as their maximum diameter. WF 1.1 × LE, WF 0.6 × WH. Compound eye 0.37 mm long without hairs. LE 1.8 × OOL, WF 1.7 × WOT. Frontal angle of ocellar triangle obtuse, POL 2.1 × AOL, OOL 0.8 × WOT. Vertex coriaceous without conspicuous long hairs. Mesosoma (Figs 21–23): Pronotum coriaceous, 0.4 × as long as wide with sparse hairs, antero-lateral corner obtuse. Mesoscutum coriaceous; notauli absent; parapsidal furrows thin and anteriorly divergent. Scutellum polish and coriaceous with sparse small punctures; scutellar pit elliptical, oblique and connected by 3.9 × as wide as their maximum diameter. Propodeal disc 0.6 × as long as wide, lateral and transverse carina complete; medial basal triangle smooth and polished, extending mid-length of disc, connected to transverse carina with thin longitudinal carina in areolate surface. Disc areolate-rugose; declivity coriaceous with complete marginal carina; lateral surface coriaceous. Fore wing without closed areolate; median and submedian cell with two rows of hairs; radial vein curved outward at apex with obtuse angle; pterostigma 0.29 mm long; metacarpo absent. Metasoma (Fig. 24): Tergite 1 smooth and polished without fine puncture and microreticulation. Terga 2–4 smooth and micoreticulation on anterior half with some hairs on dorso-lateral surface. Terga 5–7 microreticulate with sparse hairs on distal surface. MALE. Unknown. Distribution. Korea (Busan, CB, CN, Daejeon, GB, GG, GN, GW, JB, JJ, JN, Seoul).Published as part of Lim, Jongok & Lee, Seunghwan, 2012, Review of Goniozus Förster, 1856 (Hymenoptera: Bethylidae) of Korea, with descriptions of two new species, pp. 43-57 in Zootaxa 3414 on pages 49-51, DOI: 10.5281/zenodo.21079
Author inscription in Poems
No full textThis edition includes an author's inscription, "with the regards of J.T. Fields."Fields, James Thomas, 1817-1881
An XML Labeling Scheme based on Bit-Patterns for Eficient Updates in Large XML Documents
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Measuring industry-science links through inventor-author relations: A profiling method
No full textIn this pilot study we examine the performance of text-based profiling in recovering a set of validated inventor-author links. In a first step we match patents and publications solely based on their similarity in content. Next, we compare inventor and author names on the highest ranked matches for the occurrence of name matches. Finally, we compare these candidate matches with the names listed in a validated set of inventor-author names. Our text-based profile methodology performs significantly better than a random matching of patents and publications, suggesting that text-based profiling is a valuable complementary tool to the name searches used in previous studies.innovation; industry-science links; text-based profiling;
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Folio of the Tempe Quadrangle, Arizona
No full textThis GI folio comprises a suite of environmental geology maps for the Tempe Quadrangle of Maricopa County, Arizona. Author order varies from map to map, but always comprises T.L. Pewe, C.S. Wellendorf and J.T. Bales. There are 8 maps in total, all maps are at 1:24,000 map scale.Documents in the AZGS Document Repository collection are made available by the Arizona Geological Survey (AZGS) and the University Libraries at the University of Arizona. For more information about items in this collection, please contact [email protected]
Comment on "the exact seismic response of an ocean and a N-layer configuration" by G.G. Drijkonnigen and J.T. Fokkema. Reply Commentaire sur "reponse sismique exacte d' un ocean et configuration a n-couches" par G.G. Drijkoningen et J.T. Fokkema. Reponse
No full textNanomechanics of confined polymer systems
No full textPolymers anchored to surfaces play an important role in nature and technology, and regulate diverse interfacial phenomena in areas such as tribology and colloidal stability. Polymers grafted to surfaces at high density form elongated “brushes” with characteristic lengths much larger than free coils in solution. These brushes can reduce interfacial friction and wear as well as impart fouling resistance to surfaces. In light of these functionalities it is important to understand the behaviour of surface-grafted polymers at the molecular and nanoscopic level. An emerging area of interest are polymers attached to nanopores. Theoretical studies predict interesting morphologies and dynamics of such confined brushes in and around nanopores, but nanopore environments have been difficult to study experimentally. In this thesis a unique polymer-functionalized nanopore-like experimental system is presented, functionalized with poly(ethylene glycol) (PEG). Atomic force microscopy (AFM) is employed to probe the PEG brushes with nanometre spatial precision and sub-nanonewton force sensitivity, revealing novel dynamics depending on the local grafting position of PEG with respect to the nanopore geometry. Further, AFM is used together with fluorescence microscopy to show how polymer–protein interactions can be used together with the anti-fouling property of PEG to sort specific biomolecules from complex biological fluids to nanoscale targets. This shows a way how to confer biological recognition and specificity to synthetic nanoscale systems which is important for biosensing and bioseparation applications
Reverse engineering of industrially relevant phenotypes in yeast: An integrated approach
No full textReverse engineering is the study of discovering the structure, function and operation of a device or system with the express aim to reconstruct its key functionalities. This principle is applied to many disciplines, from military, through computer engineering, to health, but also in metabolic engineering. In this context, reverse metabolic engineering examines a particular functionality or phenotype of a cell or culture and subsequently aims to reconstruct it, with the aid of targeted genetic modification, in another cell or culture. Even with increasing knowledge on targeted metabolic engineering, microbial production platforms for fuels and chemicals are often obtained by non-targeted approaches, such as mutagenesis or evolutionary engineering. Reverse engineering of the interesting traits of these microbial platforms not only provides the potential to implement and combine them in other hosts, but also allows for the protection of the resulting intellectual property. The major challenge in reverse metabolic engineering is the elucidation of the molecular mechanisms underlying the phenotype of the strains of interest. In this thesis, various techniques were evaluated for their application in reverse metabolic engineering of a diverse range of industrially relevant phenotypes in the yeast Saccharomyces cerevisiae. Simultaneously, the different analytical methods that were used in these studies were evaluated for their individual and combined contributions.BiotechnologyApplied Science
Time-lapse seismic monitoring of subsurface stress dynamics
No full textCivil Engineering and Geoscience
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