79,657 research outputs found

    Morishitium rauschi Gupta & Gupta 1979

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    <i>M</i>. <i>rauschi</i> Gupta & Gupta, 1979 <p> <b>Type host.</b> Common snipe, <i>Gallinago</i> <i>gallinago</i> (Linnaeus) (Syn. <i>Capella gallinago</i> Linnaeus) (Charadriiformes: Scolopacidae).</p> <p> <b>Type locality.</b> Kanpur, Uttar Pradesh, India.</p> <p> <b>Remarks.</b> No oral or ventral sucker present—Gupta & Gupta (1979).</p>Published as part of <i>Dronen, Norman O. & Blend, Charles K., 2015, Updated keys to the genera in the subfamilies of Cyclocoelidae Stossich, 1902, including a reconsideration of species assignments, species keys and the proposal of a new genus in Szidatitreminae Dronen, 2007, pp. 1-100 in Zootaxa 4053 (1)</i> on page 75, DOI: 10.11646/zootaxa.4053.1.1, <a href="http://zenodo.org/record/237117">http://zenodo.org/record/237117</a&gt

    Pseudoparamacroderoides Gupta & Agrawal 1968

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    Pseudoparamacroderoides Gupta & Agrawal, 1968 (sensu stricto) (Figs. 22 & 23)Published as part of Karar, Yasser F. M., Blend, Charles K., Dronen, Norman O. & Adel, Asmaa, 2023, Towards resolving the problematic status of the digenean genus Astiotrema Looss 1900: Taxa excluded from Astiotrema (sensu stricto) with special reference to plagiorchioid genera closely related to the restricted concept of Astiotrema, pp. 445-495 in Zootaxa 5284 (3) on page 472, DOI: 10.11646/zootaxa.5284.3.2, http://zenodo.org/record/792950

    Nivelen luu-rustorajapinnan mikrometritason kudosmuutoksien tutkiminen nivelrikon eri vaiheissa

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    AbstractOsteoarthritis (OA) is the most common joint disease that causes disability in the adult population. While the etiology and pathogenesis of OA remain unclear, it is now commonly accepted that the entire joint is affected by OA. The deep zone of hyaline articular cartilage, calcified cartilage, and cortical subchondral bone plate form the osteochondral junction that is specially adapted to transferring loads during weight-bearing and joint motion. Although the OA-related changes in articular cartilage and subchondral trabecular bone have been extensively studied, the changes in the osteochondral junction, especially in the calcified cartilage, remain under explored.Calcified cartilage is a relatively thin tissue layer and has a similar mineral phase to the underlying bone. Hence, it is a major challenge to quantitively study calcified cartilage separately from the whole osteochondral junction, due to the limitations in spatial resolution and the contrast of current microscopic imaging modalities. Therefore, this doctoral dissertation aims to study the biochemical composition, mineral crystal structure, micromechanical and structural properties of calcified cartilage, and the subchondral bone plate in healthy and osteoarthritic knee joints in vitro.Raman microspectroscopy was used to investigate biochemical composition from unfixed and fully hydrated human osteochondral specimens. State-of-the-art micro-focus small-angle X-ray scattering (μSAXS) measurements were performed to map the mineral crystal thickness across the junction. Finally, a bovine patella model was utilized to explore the micromechanical changes in the junction as a function of degeneration and associate these changes with site-specific microstructure.Results show that calcified cartilage had a higher degree of mineralization, with thicker mineral crystals having greater stoichiometric perfection in a proteoglycan-rich matrix than underlying bone. The alterations in the degree of mineralization, type-B carbonate substitutions, mineral crystal thickness, tissue stiffness, and microstructure in both calcified cartilage and subchondral bone plate were observed during OA development. Some of these changes were found to occur at the very early stages of OA. In conclusion, this study shows that both mineralized tissues at the osteochondral junction undergo marked alterations during the evolution of OA, contributing to our current understanding of OA.Original papersOriginal papers are not included in the electronic version of the dissertation.Das Gupta, S., Finnilä, M. A. J., Karhula, S. S., Kauppinen, S., Joukainen, A., Kröger, H., Korhonen, R. K., Thambyah, A., Rieppo, L., & Saarakkala, S. (2020). Raman microspectroscopic analysis of the tissue-specific composition of the human osteochondral junction in osteoarthritis: A pilot study. Acta Biomaterialia, 106, 145–155. https://doi.org/10.1016/j.actbio.2020.02.020Self-archived versionFinnilä, M. A. J., Das Gupta, S., Turunen, M. J., Kestilä, I., Turkiewicz, A., Lutz-Bueno, V., Folkesson, E., Holler, M., Ali, N., Hughes, V., Isaksson, H., Tjörnstrand, J., Önnerfjord, P., Guizar-Sicairos, M., Saarakkala, S., & Englund, M. (2021). Mineral crystal thickness in calcified cartilage and subchondral bone in healthy and osteoarthritic knees. BioRxiv. https://doi.org/10.1101/2021.06.15.448181Das Gupta, S., Finnilä, M. A. J., Rieppo, L., Turunen, M. J., Kestilä, I., Lutz-Bueno, V., Folkesson, E., Ali, N., Hughes, V., Isaksson, H., Tjörnstrand, J., Önnerfjord, P., Turkiewicz, A., Englund, M., & Saarakkala, S. (2021). Mineral composition of calcified cartilage and subchondral bone plate in humans with and without knee osteoarthritis. Manuscript in preparation.Das Gupta, S., Workman, J., Finnilä, M. A. J., Saarakkala, S., & Thambyah, A. (2022). Subchondral bone plate thickness is associated with micromechanical and microstructural changes in the bovine patella osteochondral junction with different levels of cartilage degeneration. Journal of the Mechanical Behavior of Biomedical Materials, 129, 105158. https://doi.org/10.1016/j.jmbbm.2022.105158Self-archived versionTiivistelmäNivelrikko on aikuisväestön yleisin invalidoiva nivelsairaus. Nivelrikon tarkkaa syntytapaa ei edelleenkään tiedetä, mutta nykyisin on yleisesti hyväksytty, että nivelrikko vaikuttaa kaikkiin nivelen kudoksiin. Nivelessä sijaitseva luu-rustorajapinta muodostuu hyaliiniruston pohjakerroksen, kalkkeutuneen ruston ja rustonalaisen luun yhdistelmästä. Luu-rustorajapinnan rooli on välittää mekaanista kuormitusta rustosta luuhun nivelen liikkuessa. Nivelruston ja sen alaisen luun kudosmuutoksia nivelrikon eri vaiheissa on tutkittu laajasti, mutta luu-rustorajapinnan — erityisesti kalkkeutuneen ruston — kudosmuutoksia nivelrikon aikana on tutkittu vain vähän.Kalkkeutunut rusto on ohut kudoskerros, jossa on myös mineraalifaasi samoin kuin alla olevassa luukudoksessa. Tämä tekee kalkkeutuneen ruston kvantitatiivisesta tutkimisesta hankalaa, koska luun ja kalkkeutuneen ruston erottaminen on vaikeaa mikroskooppisten kuvantamismenetelmien rajoittuneen kontrastin ja erotuskyvyn vuoksi. Tässä väitöskirjassa tutkittiin nivelrikkoisen ja terveen kalkkeutuneen ruston biokemiallista koostumusta, mikrorakennetta sekä mikromekaanisia ominaisuuksia.Ihmisestä saatuja tuoreita ja käsittelemättömiä luu-rustonäytteitä tutkittiin aluksi Raman-mikroskopialla, jonka perusteella kartoitettiin niiden biokemiallista koostumusta eri kohdissa kudosta. Mineraalikristalleja analysoitiin pienkulmaröntgensironnan avulla, jolla pystyttiin kartoittamaan kristallien paksuutta koko luu-rustorajapinnan alueelta. Tutkimuksessa käytettiin myös naudan polvilumpiosta otettuja näytteitä, joiden avulla tutkittiin luu-rustorajapinnan mikromekaanisia muutoksia nivelrikon eri kehitysvaiheissa. Lisäksi tutkittiin mikromekaanisten muutoksien ja mikrorakenteen muutoksien välistä yhteyttä toisiinsa.Tulokset osoittavat, että kalkkeutuneessa rustossa on luuhun verrattuna korkeampi mineralisoitumisen aste, paksummat ja stoikiometrisesti täydellisemmät mineraalikristallit, sekä suurempi proteoglykaanipitoisuus. Lisäksi tutkimuksessa havaittiin selkeitä muutoksia mineralisaation määrässä, tyypin B karbonaattisubstituutiossa, mineraalikristallien paksuudessa, kudoksen jäykkyydessä sekä mikrorakenteessa nivelrikon kehittyessä. Osa muutoksista havaittiin hyvin varhaisessa nivelrikon kehitysvaiheessa. Tässä väitöskirjassa saatiin tärkeää uutta tietoa siitä, että luu-rustorajapinnnassa tapahtuu merkittäviä muutoksia nivelrikon kehittyessä. Tämä lisää nykyistä tietämystämme nivelrikon etiologiasta.OsajulkaisutOsajulkaisut eivät sisälly väitöskirjan elektroniseen versioon.Das Gupta, S., Finnilä, M. A. J., Karhula, S. S., Kauppinen, S., Joukainen, A., Kröger, H., Korhonen, R. K., Thambyah, A., Rieppo, L., & Saarakkala, S. (2020). Raman microspectroscopic analysis of the tissue-specific composition of the human osteochondral junction in osteoarthritis: A pilot study. Acta Biomaterialia, 106, 145–155. https://doi.org/10.1016/j.actbio.2020.02.020Rinnakkaistallennettu versioFinnilä, M. A. J., Das Gupta, S., Turunen, M. J., Kestilä, I., Turkiewicz, A., Lutz-Bueno, V., Folkesson, E., Holler, M., Ali, N., Hughes, V., Isaksson, H., Tjörnstrand, J., Önnerfjord, P., Guizar-Sicairos, M., Saarakkala, S., & Englund, M. (2021). Mineral crystal thickness in calcified cartilage and subchondral bone in healthy and osteoarthritic knees. BioRxiv. https://doi.org/10.1101/2021.06.15.448181Das Gupta, S., Finnilä, M. A. J., Rieppo, L., Turunen, M. J., Kestilä, I., Lutz-Bueno, V., Folkesson, E., Ali, N., Hughes, V., Isaksson, H., Tjörnstrand, J., Önnerfjord, P., Turkiewicz, A., Englund, M., & Saarakkala, S. (2021). Mineral composition of calcified cartilage and subchondral bone plate in humans with and without knee osteoarthritis. Manuscript in preparation.Das Gupta, S., Workman, J., Finnilä, M. A. J., Saarakkala, S., & Thambyah, A. (2022). Subchondral bone plate thickness is associated with micromechanical and microstructural changes in the bovine patella osteochondral junction with different levels of cartilage degeneration. Journal of the Mechanical Behavior of Biomedical Materials, 129, 105158. https://doi.org/10.1016/j.jmbbm.2022.105158Rinnakkaistallennettu versioAcademic dissertation to be presented with the assent of the Doctoral Programme Committee of Health and Biosciences of the University of Oulu for public defence in the Markku Larmas auditorium (H1091) in Dentopolis, on 12 August 2022, at 12 noonAbstract Osteoarthritis (OA) is the most common joint disease that causes disability in the adult population. While the etiology and pathogenesis of OA remain unclear, it is now commonly accepted that the entire joint is affected by OA. The deep zone of hyaline articular cartilage, calcified cartilage, and cortical subchondral bone plate form the osteochondral junction that is specially adapted to transferring loads during weight-bearing and joint motion. Although the OA-related changes in articular cartilage and subchondral trabecular bone have been extensively studied, the changes in the osteochondral junction, especially in the calcified cartilage, remain under explored. Calcified cartilage is a relatively thin tissue layer and has a similar mineral phase to the underlying bone. Hence, it is a major challenge to quantitively study calcified cartilage separately from the whole osteochondral junction, due to the limitations in spatial resolution and the contrast of current microscopic imaging modalities. Therefore, this doctoral dissertation aims to study the biochemical composition, mineral crystal structure, micromechanical and structural properties of calcified cartilage, and the subchondral bone plate in healthy and osteoarthritic knee joints in vitro. Raman microspectroscopy was used to investigate biochemical composition from unfixed and fully hydrated human osteochondral specimens. State-of-the-art micro-focus small-angle X-ray scattering (μSAXS) measurements were performed to map the mineral crystal thickness across the junction. Finally, a bovine patella model was utilized to explore the micromechanical changes in the junction as a function of degeneration and associate these changes with site-specific microstructure. Results show that calcified cartilage had a higher degree of mineralization, with thicker mineral crystals having greater stoichiometric perfection in a proteoglycan-rich matrix than underlying bone. The alterations in the degree of mineralization, type-B carbonate substitutions, mineral crystal thickness, tissue stiffness, and microstructure in both calcified cartilage and subchondral bone plate were observed during OA development. Some of these changes were found to occur at the very early stages of OA. In conclusion, this study shows that both mineralized tissues at the osteochondral junction undergo marked alterations during the evolution of OA, contributing to our current understanding of OA.Tiivistelmä Nivelrikko on aikuisväestön yleisin invalidoiva nivelsairaus. Nivelrikon tarkkaa syntytapaa ei edelleenkään tiedetä, mutta nykyisin on yleisesti hyväksytty, että nivelrikko vaikuttaa kaikkiin nivelen kudoksiin. Nivelessä sijaitseva luu-rustorajapinta muodostuu hyaliiniruston pohjakerroksen, kalkkeutuneen ruston ja rustonalaisen luun yhdistelmästä. Luu-rustorajapinnan rooli on välittää mekaanista kuormitusta rustosta luuhun nivelen liikkuessa. Nivelruston ja sen alaisen luun kudosmuutoksia nivelrikon eri vaiheissa on tutkittu laajasti, mutta luu-rustorajapinnan — erityisesti kalkkeutuneen ruston — kudosmuutoksia nivelrikon aikana on tutkittu vain vähän. Kalkkeutunut rusto on ohut kudoskerros, jossa on myös mineraalifaasi samoin kuin alla olevassa luukudoksessa. Tämä tekee kalkkeutuneen ruston kvantitatiivisesta tutkimisesta hankalaa, koska luun ja kalkkeutuneen ruston erottaminen on vaikeaa mikroskooppisten kuvantamismenetelmien rajoittuneen kontrastin ja erotuskyvyn vuoksi. Tässä väitöskirjassa tutkittiin nivelrikkoisen ja terveen kalkkeutuneen ruston biokemiallista koostumusta, mikrorakennetta sekä mikromekaanisia ominaisuuksia. Ihmisestä saatuja tuoreita ja käsittelemättömiä luu-rustonäytteitä tutkittiin aluksi Raman-mikroskopialla, jonka perusteella kartoitettiin niiden biokemiallista koostumusta eri kohdissa kudosta. Mineraalikristalleja analysoitiin pienkulmaröntgensironnan avulla, jolla pystyttiin kartoittamaan kristallien paksuutta koko luu-rustorajapinnan alueelta. Tutkimuksessa käytettiin myös naudan polvilumpiosta otettuja näytteitä, joiden avulla tutkittiin luu-rustorajapinnan mikromekaanisia muutoksia nivelrikon eri kehitysvaiheissa. Lisäksi tutkittiin mikromekaanisten muutoksien ja mikrorakenteen muutoksien välistä yhteyttä toisiinsa. Tulokset osoittavat, että kalkkeutuneessa rustossa on luuhun verrattuna korkeampi mineralisoitumisen aste, paksummat ja stoikiometrisesti täydellisemmät mineraalikristallit, sekä suurempi proteoglykaanipitoisuus. Lisäksi tutkimuksessa havaittiin selkeitä muutoksia mineralisaation määrässä, tyypin B karbonaattisubstituutiossa, mineraalikristallien paksuudessa, kudoksen jäykkyydessä sekä mikrorakenteessa nivelrikon kehittyessä. Osa muutoksista havaittiin hyvin varhaisessa nivelrikon kehitysvaiheessa. Tässä väitöskirjassa saatiin tärkeää uutta tietoa siitä, että luu-rustorajapinnnassa tapahtuu merkittäviä muutoksia nivelrikon kehittyessä. Tämä lisää nykyistä tietämystämme nivelrikon etiologiasta

    FINSLER SPACE SUBJECTED TO A KROPINA CHANGE WITH AN h-VECTOR

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    In this paper, we discuss the Finsler spaces (Mn,L)(M^n,L) and (Mn,L)(M^n,\,^{*}L), where L(x,y)^{*}L(x,y) is obtained from L(x,y)L(x,y) by Kropina change L(x,y)=L2(x,y)bi(x,y)yi^{*}L(x,y)=\frac{L^2(x,y)}{b_i(x,y)\,y^i} and bi(x,y)b^{}_{i}(x,y) is an \textsl{h}-vector in (Mn,L)(M^n,L). We find the necessary and sufficient condition when the Cartan connection coefficients for both spaces (Mn,L)(M^n,L) and (Mn,L)(M^n,\,^{*}L) are the same. We also find the necessary and sufficient condition for Kropina change with an \textsl{h}-vector to be projective

    Measurement of the ratio of branching fractions B(B0→K∗0γ )/B(B0s→φγ ) and the directCP asymmetry inB 0→K∗0γ

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    The ratio of branching fractions of the radiative B decays B0→K⁎0γ and B0s→ϕγ has been measured using an integrated luminosity of 1.0 fb−1 of pp collision data collected by the LHCb experiment at a centre-of-mass energy of s√=7TeV. The value obtained is B(B0→K⁎0γ)B(B0s→ϕγ)=1.23±0.06(stat.)±0.04(syst.)±0.10(fs/fd), where the first uncertainty is statistical, the second is the experimental systematic uncertainty and the third is associated with the ratio of fragmentation fractions fs/fd. Using the world average value for B(B0→K⁎0γ), the branching fraction B(B0s→ϕγ) is measured to be (3.5±0.4)×10−5. The direct CP asymmetry in B0→K⁎0γ decays has also been measured with the same data and found to be ACP(B0→K⁎0γ)=(0.8±1.7(stat.)±0.9(syst.))%. Both measurements are the most precise to date and are in agreement with the previous experimental results and theoretical expectations

    Microplitis murkyi Gupta

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    Microplitis murkyi Gupta Microplitis murkyi Gupta 2013; 433–435. Holotype NBAII. Female. Body length 2.8 mm. Head: Head setose; 1.1 × as wide as long and not broadening behind eye in dorsal view; vertex and upper temple densely punctate; face and eyes densely setose; eyes 1.8 × as long as wide; eye 2.7 × as long as malar space; height of clypeus: inter tentorial distance: tentorio ocular distance 3.5: 9: 3.5; antennae longer than the body; first flagellomere 1 × as long as second flagellomere; first and second flagellomere 3.2, 3.4 × as long as wide; terminal flagellomere acute, 2.3 × as long as wide. Mesosoma: Mesosoma 1.7 × as long as high; mesoscutum setose and rugose-punctate; notauli not visible clearly and without median furrow; scutellar lunules divided by six carinae; scutellum shagreened with micropunctures basally; propodeum coarsely reticulate-rugose with distinct, percurrent medial longitudinal carina surrounded reticulations, reticulations much clearer medially; transverse carinae distinct; mesopleuron medially smooth, shining, without setae; anterior, posterior and lateral sides finely punctate, densely setose; hind coxa not reaching beyond T 1; hind tibial spur 0.36 × as long as basitarsus. Wings: Areolet large, approximately triangular; first discal cell 1.3 × as wide as high; 1 -CU 1: 2 -CU 1: m-cu 4.5: 15: 9.5; hind wing margin of vannal lobe convex and hairy. Metasoma: T 1 1.85 × as long as its maximum width, strongly reticulate-rugose with median longitudinal furrow in the basal half; T 1 widest pre-apically and slightly narrowed at apex, evenly rugulose except for base and apical swelling smooth; T 2 nearly trapezoid, smooth, with median field with slanting lateral margins; medial length of T 3 1.2 × as long as T 2; T 3 and rest smooth, shiny, sparsely setose; ovipositor slightly exserted, not visible in dorsal view. Colour: Head, antennae (including scape and pedicel), mesosoma and coxae black, tegulae yellow orange, hind legs with femur yellow orange, fore and mid legs mostly yellow orange, fore and mid tibia yellow orange with black infuscation, trochanters yellow orange, femur yellow orange (black at apical and basal tip), tibia pilose with dirty yellow orange colouration, black infuscation at apical 1 / 3 and in sub basal region; hind tibial spurs pale yellow and equally long, wings infuscate, venation brown, pterostigma and veins uniformly dark brown, pterostigma with faint basal pale area, T 1 of metasoma black and laterotergites brown, lateral sides of T 2 brown. Male: Similar to female. Distribution. India (Karnataka). Host. Unknown. Discussion. This species is close to M. demolitor in having the T 1 parallel sided, scutellum micropunctured, terminal flagellomere acute and scutellar lunules narrow. It differs from M. demolitor in the following characters: T 1 without medial longitudinal groove (in M. demolitor T 1 with medial longitudinal groove), propodeum reticulate-rugose (in M. demolitor propodeum coarsely rugose), antennae black (in M. demolitor antennal segments 1–4 yellowish brown, F 5 and F 6 dark brown, remaining segments black), T 1 coarsely rugose except apically (in M. demolitor T 1 basally rugose with longitudinal striation, smooth apically). Comments. We could not examine the type specimens.Published as part of Ranjith, A. P., Rajesh, K. M. & Nasser, M., 2015, Taxonomic studies on Oriental Microplitis Foerster (Hymenoptera: Braconidae, Microgastrinae) with description of two new species from South India, pp. 369-415 in Zootaxa 3963 (3) on pages 402-403, DOI: 10.11646/zootaxa.3963.3.4, http://zenodo.org/record/23526

    Engineering materials : research, applications and advances / author, K.M. Gupta.

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    "A CRC title."Includes bibliographical references and index.596 p.

    Klabonosa indica Gupta & Yeshwanth & Sureshan 2018

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    Klabonosa indica Gupta, SureshaN & YeshwaNth sp. N. (Figs 1−5) Description. FEMALE (Fig. 1). [Measurements based on the holotype and paratypes.] Body length 1.58 mm (holotype) with average body length 1.6 mm (1.54−1.68) (see Table 1 for measurements). Colour. Head and mesosoma (Figs 2A‒C, F) mostly with bluish metallic sheen except greenish on frons. Antenna with scape light yellow, pedicel and anelli yellowish-brown; flagellum and clava brown. Gaster (Fig. 2E) black with metallic green shine on T1; yellowish-brown coloration at base and on the lateral sides of entire gaster. Legs with basal half of coxa concolourous with mesosoma, apical half yellow testaceous (Fig. 2E), remainder of legs yellowish with tips of tarsi brown. Tegula yellowish. Wings hyaline with veins and pilosity brown (Fig. 2D). Head. Head distinctly reticulate (Figs 2A, B); ocellar triangle coarsely reticulate (Fig. 2B). Antenna inserted above middle of face (Fig. 2A); flagellum (Fig. 2C) with linear sensilla arranged in four irregular rows on F1, three irregular rows on remaining funicular segments; first anellus wider than second. Scrobal area reticulate. Clypeal area (Fig. 2A) finely reticulate, lower margin bilobed with a deep median incision. Left and right mandible similar with lower tooth long, second tooth short and truncate upper tooth (Fig. 3). Head in frontal view 1.07 (1.03−1.15)× wider than high, in dorsal view 1.51 (1.47−1.53)× wider than long; eye height 2.74× malar space; in lateral view malar space 0.36 (0.4−0.33)× eye height. Antenna with length of pedicel flagellum 1.92× head width in frontal view; scape reaching anterior ocellus, 0.65× eye height; pedicel 0.58 as long as F1; F1‒F6 longer than wide (ratio of length: width of each segment = 13.7: 10.9: 10.6: 11.3: 10.0: 9.8); clava length: width = 18: 3, 1.01× as long as two preceding segments combined. POL: OOL: OD (11.95: 5.70: 4.95); POL 2.12´OOL. Mesosoma. Mesosoma (Fig. 2F) 1.34−1.54× as long as wide and 0.99−1.15× as long as metasoma; slightly convex and reticulate except propodeum finely reticulate (Fig. 2F). Pronotal collar carinate anteriorly (Fig. 2B). Axilla reticulate; frenum faintly indicated by fine reticulation (Fig. 2F). Propodeum (Fig. 2F) width 3.31−3.65× length; without median carina and with fine plicae, median area raised; spiracles oval with irregular margins, near the hind margin of metanotum. Mesoscutum width 2.04× length; scutellum length subequal to width. Fore wing (Fig. 2D) length 2.25× width, subhyaline; MV 0.85× PMV, PMV 1.96× STV, CC 1.52´MV; costal cell dorsally and ventrally with setae; basal fold with line of 7‒9 setae; speculum almost absent, narrow, closed below. Metasoma (Fig. 2E). Gaster smooth and shiny, collapsing dorsally, 0.69−0.73× as long as head and mesosoma combined, acute apically; petiole smooth, twice as wide as long; T1 largest, less than half length of gaster, hind margin slightly incised medially; hypopygium reaching 0.84× length of gaster (without petiole). Ovipositor protruding slightly. MALE. Body length 1.68 mm (Figs 4, 5A −D). Similar to female except for metasoma. Antenna (Figs 5B, D), densely hairy with linear sensilla arranged in multiple rows, and with globose pedicel. POL: OOL: OD = 13.2: 5.0: 5.0; POL 2.64× OOL. Fore wing 2.21× as long as wide; basal cell closed below and with 8 setae on basal fold (Fig. 5C); MV 0.89 PMV, PMV 1.88× STV, CC 1.48× MV. Gaster more slender and compressed than for female; with side of first tergite and anterior part of second tergite yellowish-brown. Type material. Holotype f# (UAS-B), INDIA, Karnataka, Bengaluru, UAS-B (GKVK campus), 12°58’N, 77°35’E, 937 m altitude, 08.x.2017, ex Endochus sp. (Hemiptera: Reduviidae) on the host plant Artocarpus heterophyllus Lam. (Moraceae), coll. H. M. Yeshwanth, registration number - UASB01827065. Paratypes: 3f#, 1m # (NBAIR) [same data as holotype], registration number - NBAIR/Ptero/Klab/81017B −E; 2f#, (UAS-B (GKVK campus)) [same data as holotype], codes- UASB01827066, UASB01827067; 2f#, (ZSI (Kozhikode)) [same data as holotype], registration number ZSI/WGRC/IR/INV/10346). Etymology. The species name is derived from the country name from where it was collected. Biology. Reared from eggs of an assassin bug Endochus sp. (Hemiptera: Reduviidae) (Fig. 6) on the host plant Artocarpus heterophyllus Lam. (Moraceae). The unparasitized eggs are also shown (Fig. 7). The host egg mass contained 30 eggs, from which 29 females and 1 male of K. indica emerged. Remarks. The new species is most similar to K. ferox in general morphology especially in the shape of head with tentorial pits less distinct in the form of smaller pits (cf. Fig. 2A and Bouček 1976, fig. 28). They are also similar in having large ocelli, similar antennae which are situated high on the face, fore wing with basal cell closed below by cubital hairline, and similar body sculpture. However, K. indica differs from K. ferox in general colour of body which is more metallic blue rather dark green, POL 2.1× diameter of lateral ocellus, which is little more than its own diameter from the eye margin, mesosoma 1.34−1.54× as long as broad, fore wing with a very slender speculum (Fig. 2D), MV 0.85× PMV, PMV 1.96× STV and body length 1.6 mm (in K. ferox body dark green, POL nearly twice diameter of lateral ocellus, which is less than half its diameter from eye margin, mesosoma about twice as long broad, fore wing with speculum broad and MV longer than PMV (Bouček 1976, cf. fig. 31), STV 0.42× MV, and body length 2 mm). Females of K. austini, K. cabra and K. watshami not only differ somewhat in head shape but also in having deep and distinct tentorial pits. In K. cabra these are united in a continuous groove quite close to the oral margin (Bouček 1988, fig. 755), whereas in K. austini (Bouček 1988, fig. 754) and in K. watshami (Bouček 1976, fig. 30) they are in the form of short, divergent grooves. The antennae are also inserted much closer to the middle of the head in these last two species than for K. indica. Similarity in head shape between females (Fig. 2A) and males (Fig. 5A) of K. indica suggest that males of the other three species will be similar to conspecific females and thus also readily differentiated from K. indica males.Published as part of Gupta, Ankita, Yeshwanth, H. M. & Sureshan, P. M., 2018, A new species of Klabonosa Bouček (Hymenoptera: Pteromalidae) reared from eggs of Endochus sp. (Hemiptera: Reduviidae) from India, pp. 593-600 in Zootaxa 4413 (3) on pages 594-599, DOI: 10.11646/zootaxa.4413.3.13, http://zenodo.org/record/122787
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