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Q2 dependence of nuclear transparency for exclusive rho0 production.

Physical review letters

Airapetian A, Akopov N, Akopov Z, Amarian M, Ammosov VV, Andrus A, Aschenauer EC, Augustyniak W, Avakian R, Avetissian A, Avetissian E, Bailey P, Baturin V, Baumgarten C, Beckmann M, Belostotski S, Bernreuther S, Bianchi N, Blok HP, Böttcher H, Borissov A, Bouwhuis M, Brack J, Brüll A, Brunn I, Capitani GP, Chiang HC, Ciullo G, Contalbrigo M, Court GR, Dalpiaz PF, De Leo R, De Nardo L, De Sanctis E, Devitsin E, Di Nezza P, Düren M, Ehrenfried M, Elalaoui-Moulay A, Elbakian G, Ellinghaus F, Elschenbroich U, Ely J, Fabbri R, Fantoni A, Fechtchenko A, Felawka L, Fox B, Franz J, Frullani S, Gärber Y, Gapienko G, Gapienko V, Garibaldi F, Garutti E, Gaskell D, Gavrilov G, Gharibyan V, Graw G, Grebeniouk O, Greeniaus LG, Haeberli W, Hafidi K, Hartig M, Hasch D, Heesbeen D, Henoch M, Hertenberger R, Hesselink WH, Hillenbrand A, Holler Y, Hommez B, Iarygin G, Izotov A, Jackson HE, Jgoun A, Kaiser R, Kinney E, Kisselev A, Königsmann K, Kolster H, Kopytin M, Korotkov V, Kozlov V, Krauss B, Krivokhijine VG, Lagamba L, Lapikás L, Laziev A, Lenisa P, Liebing P, Lindemann T, Lorenzon W, Makins NC, Marukyan H, Masoli F, Menden F, Mexner V, Meyners N, Mikloukho O, Miller CA, Miyachi Y, Muccifora V, Nagaitsev A, Nappi E, Naryshkin Y, Nass A, Negodaeva K, Nowak WD, Oganessyan K, Ohsuga H, Orlandi G, Podiatchev S, Potashov S, Potterveld DH, Raithel M, Reggiani D, Reimer P, Reischl A, Reolon AR, Rith K, Rosner G, Rostomyan A, Ryckbosch D, Sanjiev I, Savin I, Scarlett C, Schäfer A, Schill C, Schnell G, Schüler KP, Schwind A, Seibert J, Seitz B, Shanidze R, Shibata TA, Shutov V, Simani MC, Sinram K, Stancari M, Statera M, Steffens E, Steijger JJ, Stewart J, Stösslein U, Tanaka H, Taroian S, Tchuiko B, Terkulov A, Tessarin S, Thomas E, Tkabladze A, Trzcinski A, Tytgat M, Urciuoli GM, Van Der Nat P, Van Der Steenhoven G, Van De Vyver R, Vetterli MC, Vikhrov V, Vincter MG, Visser J, Vogt M, Volmer J, Weiskopf C, Wendland J, Wilbert J, Wise T, Yen S, Yoneyama S, Zihlmann B, Zohrabian H, Zupranski P.
PMID: 12633347
Phys Rev Lett. 2003 Feb 07;90(5):052501. doi: 10.1103/PhysRevLett.90.052501. Epub 2003 Feb 06.

Exclusive coherent and incoherent electroproduction of the rho(0) meson from 1H and 14N targets has been studied at the HERMES experiment as a function of coherence length (l(c)), corresponding to the lifetime of hadronic fluctuations of the virtual photon,...

Cite
Airapetian A, Akopov N, Akopov Z, et al. Q2 dependence of nuclear transparency for exclusive rho0 production. Phys Rev Lett. 2003;90(5):052501doi: 10.1103/PhysRevLett.90.052501.
Airapetian, A., Akopov, N., Akopov, Z., Amarian, M., Ammosov, V. V., Andrus, A., Aschenauer, E. C., Augustyniak, W., Avakian, R., Avetissian, A., Avetissian, E., Bailey, P., Baturin, V., Baumgarten, C., Beckmann, M., Belostotski, S., Bernreuther, S., Bianchi, N., Blok, H. P., Böttcher, H., Borissov, A., Bouwhuis, M., Brack, J., Brüll, A., Brunn, I., Capitani, G. P., Chiang, H. C., Ciullo, G., Contalbrigo, M., Court, G. R., Dalpiaz, P. F., De Leo, R., De Nardo, L., De Sanctis, E., Devitsin, E., Di Nezza, P., Düren, M., Ehrenfried, M., Elalaoui-Moulay, A., Elbakian, G., Ellinghaus, F., Elschenbroich, U., Ely, J., Fabbri, R., Fantoni, A., Fechtchenko, A., Felawka, L., Fox, B., Franz, J., Frullani, S., Gärber, Y., Gapienko, G., Gapienko, V., Garibaldi, F., Garutti, E., Gaskell, D., Gavrilov, G., Gharibyan, V., Graw, G., Grebeniouk, O., Greeniaus, L. G., Haeberli, W., Hafidi, K., Hartig, M., Hasch, D., Heesbeen, D., Henoch, M., Hertenberger, R., Hesselink, W. H., Hillenbrand, A., Holler, Y., Hommez, B., Iarygin, G., Izotov, A., Jackson, H. E., Jgoun, A., Kaiser, R., Kinney, E., Kisselev, A., Königsmann, K., Kolster, H., Kopytin, M., Korotkov, V., Kozlov, V., Krauss, B., Krivokhijine, V. G., Lagamba, L., Lapikás, L., Laziev, A., Lenisa, P., Liebing, P., Lindemann, T., Lorenzon, W., Makins, N. C., Marukyan, H., Masoli, F., Menden, F., Mexner, V., Meyners, N., Mikloukho, O., Miller, C. A., Miyachi, Y., Muccifora, V., Nagaitsev, A., Nappi, E., Naryshkin, Y., Nass, A., Negodaeva, K., Nowak, W. D., Oganessyan, K., Ohsuga, H., Orlandi, G., Podiatchev, S., Potashov, S., Potterveld, D. H., Raithel, M., Reggiani, D., Reimer, P., Reischl, A., Reolon, A. R., Rith, K., Rosner, G., Rostomyan, A., Ryckbosch, D., Sanjiev, I., Savin, I., Scarlett, C., Schäfer, A., Schill, C., Schnell, G., Schüler, K. P., Schwind, A., Seibert, J., Seitz, B., Shanidze, R., Shibata, T. A., Shutov, V., Simani, M. C., Sinram, K., Stancari, M., Statera, M., Steffens, E., Steijger, J. J., Stewart, J., Stösslein, U., Tanaka, H., Taroian, S., Tchuiko, B., Terkulov, A., Tessarin, S., Thomas, E., Tkabladze, A., Trzcinski, A., Tytgat, M., Urciuoli, G. M., Van Der Nat, P., Van Der Steenhoven, G., Van De Vyver, R., Vetterli, M. C., Vikhrov, V., Vincter, M. G., Visser, J., Vogt, M., Volmer, J., Weiskopf, C., Wendland, J., Wilbert, J., Wise, T., Yen, S., Yoneyama, S., Zihlmann, B., Zohrabian, H., Zupranski, P. (2003). Q2 dependence of nuclear transparency for exclusive rho0 production. Physical review letters, 90(5), 052501. https://doi.org/10.1103/PhysRevLett.90.052501
Airapetian, A, et al. "Q2 dependence of nuclear transparency for exclusive rho0 production." Physical review letters vol. 90,5 (2003): 052501. doi: https://doi.org/10.1103/PhysRevLett.90.052501
Airapetian A, Akopov N, Akopov Z, Amarian M, Ammosov VV, Andrus A, Aschenauer EC, Augustyniak W, Avakian R, Avetissian A, Avetissian E, Bailey P, Baturin V, Baumgarten C, Beckmann M, Belostotski S, Bernreuther S, Bianchi N, Blok HP, Böttcher H, Borissov A, Bouwhuis M, Brack J, Brüll A, Brunn I, Capitani GP, Chiang HC, Ciullo G, Contalbrigo M, Court GR, Dalpiaz PF, De Leo R, De Nardo L, De Sanctis E, Devitsin E, Di Nezza P, Düren M, Ehrenfried M, Elalaoui-Moulay A, Elbakian G, Ellinghaus F, Elschenbroich U, Ely J, Fabbri R, Fantoni A, Fechtchenko A, Felawka L, Fox B, Franz J, Frullani S, Gärber Y, Gapienko G, Gapienko V, Garibaldi F, Garutti E, Gaskell D, Gavrilov G, Gharibyan V, Graw G, Grebeniouk O, Greeniaus LG, Haeberli W, Hafidi K, Hartig M, Hasch D, Heesbeen D, Henoch M, Hertenberger R, Hesselink WH, Hillenbrand A, Holler Y, Hommez B, Iarygin G, Izotov A, Jackson HE, Jgoun A, Kaiser R, Kinney E, Kisselev A, Königsmann K, Kolster H, Kopytin M, Korotkov V, Kozlov V, Krauss B, Krivokhijine VG, Lagamba L, Lapikás L, Laziev A, Lenisa P, Liebing P, Lindemann T, Lorenzon W, Makins NC, Marukyan H, Masoli F, Menden F, Mexner V, Meyners N, Mikloukho O, Miller CA, Miyachi Y, Muccifora V, Nagaitsev A, Nappi E, Naryshkin Y, Nass A, Negodaeva K, Nowak WD, Oganessyan K, Ohsuga H, Orlandi G, Podiatchev S, Potashov S, Potterveld DH, Raithel M, Reggiani D, Reimer P, Reischl A, Reolon AR, Rith K, Rosner G, Rostomyan A, Ryckbosch D, Sanjiev I, Savin I, Scarlett C, Schäfer A, Schill C, Schnell G, Schüler KP, Schwind A, Seibert J, Seitz B, Shanidze R, Shibata TA, Shutov V, Simani MC, Sinram K, Stancari M, Statera M, Steffens E, Steijger JJ, Stewart J, Stösslein U, Tanaka H, Taroian S, Tchuiko B, Terkulov A, Tessarin S, Thomas E, Tkabladze A, Trzcinski A, Tytgat M, Urciuoli GM, Van Der Nat P, Van Der Steenhoven G, Van De Vyver R, Vetterli MC, Vikhrov V, Vincter MG, Visser J, Vogt M, Volmer J, Weiskopf C, Wendland J, Wilbert J, Wise T, Yen S, Yoneyama S, Zihlmann B, Zohrabian H, Zupranski P. Q2 dependence of nuclear transparency for exclusive rho0 production. Phys Rev Lett. 2003 Feb 07;90(5):052501. doi: 10.1103/PhysRevLett.90.052501. Epub 2003 Feb 06. PMID: 12633347.
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Evidence for quark-hadron duality in the proton spin asymmetry A1.

Physical review letters

Airapetian A, Akopov N, Akopov Z, Amarian M, Ammosov VV, Aschenauer EC, Avakian H, Avakian R, Avetissian A, Avetissian E, Bailey P, Baturin V, Baumgarten C, Beckmann M, Belostotski S, Bernreuther S, Bianchi N, Blok HP, Böttcher H, Borissov A, Bouhali O, Bouwhuis M, Brack J, Brauksiepe S, Brüll A, Brunn I, Bulten HJ, Capitani GP, Cisbani E, Ciullo G, Court GR, Dalpiaz PF, De Leo R, De Nardo L, De Sanctis E, Devitsin E, de Witt Huberts PK, Di Nezza P, Düren M, Ehrenfried M, Elbakian G, Ellinghaus F, Elschenbroich U, Ely J, Fabbri R, Fantoni A, Fechtchenko A, Felawka L, Filippone BW, Fischer H, Fox B, Franz J, Frullani S, Gärber Y, Gapienko V, Garibaldi F, Garutti E, Gavrilov G, Gharibyan V, Graw G, Grebeniouk O, Green PW, Greeniaus LG, Gute A, Haeberli W, Hafidi K, Hartig M, Hasch D, Heesbeen D, Heinsius FH, Henoch M, Hertenberger R, Hesselink WH, Hofman G, Holler Y, Holt RJ, Hommez B, Iarygin G, Izotov A, Jackson HE, Jgoun A, Jung P, Kaiser R, Kinney E, Kisselev A, Kitching P, Königsmann K, Kolster H, Kopytin M, Korotkov V, Kotik E, Kozlov V, Krauss B, Krivokhijine VG, Kyle G, Lagamba L, Laziev A, Lenisa P, Liebing P, Lindemann T, Lorenzon W, Maas A, Makins NC, Marukyan H, Masoli F, Menden F, Mexner V, Meyners N, Mikloukho O, Miller CA, Muccifora V, Nagaitsev A, Nappi E, Naryshkin Y, Nass A, Negodaeva K, Nowak WD, Oganessyan K, Orlandi G, Podiatchev S, Potashov S, Potterveld DH, Raithel M, Rappoport V, Reggiani D, Reimer P, Reischl A, Reolon AR, Rith K, Rostomyan A, Ryckbosch D, Sakemi Y, Sanjiev I, Sato F, Savin I, Scarlett C, Schäfer A, Schill C, Schmidt F, Schnell G, Schüler KP, Schwind A, Seibert J, Seitz B, Shanidze R, Shibata TA, Shutov V, Simani MC, Sinram K, Stancari M, Steffens E, Steijger JJ, Stewart J, Stösslein U, Suetsugu K, Taroian S, Terkulov A, Tessarin S, Thomas E, Tipton B, Tytgat M, Urciuoli GM, van den Brand JF, van der Steenhoven G, van de Vyver R, Vetterli MC, Vikhrov V, Vincter MG, Visser J, Volmer J, Weiskopf C, Wendland J, Wilbert J, Wise T, Yen S, Yoneyama S, Zihlmann B, Zohrabian H.
PMID: 12689215
Phys Rev Lett. 2003 Mar 07;90(9):092002. doi: 10.1103/PhysRevLett.90.092002. Epub 2003 Mar 04.

Spin-dependent lepton-nucleon scattering data have been used to investigate the validity of the concept of quark-hadron duality for the spin asymmetry A1. Longitudinally polarized positrons were scattered off a longitudinally polarized hydrogen target for values of Q2 between 1.2...

Cite
Airapetian A, Akopov N, Akopov Z, et al. Evidence for quark-hadron duality in the proton spin asymmetry A1. Phys Rev Lett. 2003;90(9):092002doi: 10.1103/PhysRevLett.90.092002.
Airapetian, A., Akopov, N., Akopov, Z., Amarian, M., Ammosov, V. V., Aschenauer, E. C., Avakian, H., Avakian, R., Avetissian, A., Avetissian, E., Bailey, P., Baturin, V., Baumgarten, C., Beckmann, M., Belostotski, S., Bernreuther, S., Bianchi, N., Blok, H. P., Böttcher, H., Borissov, A., Bouhali, O., Bouwhuis, M., Brack, J., Brauksiepe, S., Brüll, A., Brunn, I., Bulten, H. J., Capitani, G. P., Cisbani, E., Ciullo, G., Court, G. R., Dalpiaz, P. F., De Leo, R., De Nardo, L., De Sanctis, E., Devitsin, E., de Witt Huberts, P. K., Di Nezza, P., Düren, M., Ehrenfried, M., Elbakian, G., Ellinghaus, F., Elschenbroich, U., Ely, J., Fabbri, R., Fantoni, A., Fechtchenko, A., Felawka, L., Filippone, B. W., Fischer, H., Fox, B., Franz, J., Frullani, S., Gärber, Y., Gapienko, V., Garibaldi, F., Garutti, E., Gavrilov, G., Gharibyan, V., Graw, G., Grebeniouk, O., Green, P. W., Greeniaus, L. G., Gute, A., Haeberli, W., Hafidi, K., Hartig, M., Hasch, D., Heesbeen, D., Heinsius, F. H., Henoch, M., Hertenberger, R., Hesselink, W. H., Hofman, G., Holler, Y., Holt, R. J., Hommez, B., Iarygin, G., Izotov, A., Jackson, H. E., Jgoun, A., Jung, P., Kaiser, R., Kinney, E., Kisselev, A., Kitching, P., Königsmann, K., Kolster, H., Kopytin, M., Korotkov, V., Kotik, E., Kozlov, V., Krauss, B., Krivokhijine, V. G., Kyle, G., Lagamba, L., Laziev, A., Lenisa, P., Liebing, P., Lindemann, T., Lorenzon, W., Maas, A., Makins, N. C., Marukyan, H., Masoli, F., Menden, F., Mexner, V., Meyners, N., Mikloukho, O., Miller, C. A., Muccifora, V., Nagaitsev, A., Nappi, E., Naryshkin, Y., Nass, A., Negodaeva, K., Nowak, W. D., Oganessyan, K., Orlandi, G., Podiatchev, S., Potashov, S., Potterveld, D. H., Raithel, M., Rappoport, V., Reggiani, D., Reimer, P., Reischl, A., Reolon, A. R., Rith, K., Rostomyan, A., Ryckbosch, D., Sakemi, Y., Sanjiev, I., Sato, F., Savin, I., Scarlett, C., Schäfer, A., Schill, C., Schmidt, F., Schnell, G., Schüler, K. P., Schwind, A., Seibert, J., Seitz, B., Shanidze, R., Shibata, T. A., Shutov, V., Simani, M. C., Sinram, K., Stancari, M., Steffens, E., Steijger, J. J., Stewart, J., Stösslein, U., Suetsugu, K., Taroian, S., Terkulov, A., Tessarin, S., Thomas, E., Tipton, B., Tytgat, M., Urciuoli, G. M., van den Brand, J. F., van der Steenhoven, G., van de Vyver, R., Vetterli, M. C., Vikhrov, V., Vincter, M. G., Visser, J., Volmer, J., Weiskopf, C., Wendland, J., Wilbert, J., Wise, T., Yen, S., Yoneyama, S., Zihlmann, B., Zohrabian, H. (2003). Evidence for quark-hadron duality in the proton spin asymmetry A1. Physical review letters, 90(9), 092002. https://doi.org/10.1103/PhysRevLett.90.092002
Airapetian, A, et al. "Evidence for quark-hadron duality in the proton spin asymmetry A1." Physical review letters vol. 90,9 (2003): 092002. doi: https://doi.org/10.1103/PhysRevLett.90.092002
Airapetian A, Akopov N, Akopov Z, Amarian M, Ammosov VV, Aschenauer EC, Avakian H, Avakian R, Avetissian A, Avetissian E, Bailey P, Baturin V, Baumgarten C, Beckmann M, Belostotski S, Bernreuther S, Bianchi N, Blok HP, Böttcher H, Borissov A, Bouhali O, Bouwhuis M, Brack J, Brauksiepe S, Brüll A, Brunn I, Bulten HJ, Capitani GP, Cisbani E, Ciullo G, Court GR, Dalpiaz PF, De Leo R, De Nardo L, De Sanctis E, Devitsin E, de Witt Huberts PK, Di Nezza P, Düren M, Ehrenfried M, Elbakian G, Ellinghaus F, Elschenbroich U, Ely J, Fabbri R, Fantoni A, Fechtchenko A, Felawka L, Filippone BW, Fischer H, Fox B, Franz J, Frullani S, Gärber Y, Gapienko V, Garibaldi F, Garutti E, Gavrilov G, Gharibyan V, Graw G, Grebeniouk O, Green PW, Greeniaus LG, Gute A, Haeberli W, Hafidi K, Hartig M, Hasch D, Heesbeen D, Heinsius FH, Henoch M, Hertenberger R, Hesselink WH, Hofman G, Holler Y, Holt RJ, Hommez B, Iarygin G, Izotov A, Jackson HE, Jgoun A, Jung P, Kaiser R, Kinney E, Kisselev A, Kitching P, Königsmann K, Kolster H, Kopytin M, Korotkov V, Kotik E, Kozlov V, Krauss B, Krivokhijine VG, Kyle G, Lagamba L, Laziev A, Lenisa P, Liebing P, Lindemann T, Lorenzon W, Maas A, Makins NC, Marukyan H, Masoli F, Menden F, Mexner V, Meyners N, Mikloukho O, Miller CA, Muccifora V, Nagaitsev A, Nappi E, Naryshkin Y, Nass A, Negodaeva K, Nowak WD, Oganessyan K, Orlandi G, Podiatchev S, Potashov S, Potterveld DH, Raithel M, Rappoport V, Reggiani D, Reimer P, Reischl A, Reolon AR, Rith K, Rostomyan A, Ryckbosch D, Sakemi Y, Sanjiev I, Sato F, Savin I, Scarlett C, Schäfer A, Schill C, Schmidt F, Schnell G, Schüler KP, Schwind A, Seibert J, Seitz B, Shanidze R, Shibata TA, Shutov V, Simani MC, Sinram K, Stancari M, Steffens E, Steijger JJ, Stewart J, Stösslein U, Suetsugu K, Taroian S, Terkulov A, Tessarin S, Thomas E, Tipton B, Tytgat M, Urciuoli GM, van den Brand JF, van der Steenhoven G, van de Vyver R, Vetterli MC, Vikhrov V, Vincter MG, Visser J, Volmer J, Weiskopf C, Wendland J, Wilbert J, Wise T, Yen S, Yoneyama S, Zihlmann B, Zohrabian H. Evidence for quark-hadron duality in the proton spin asymmetry A1. Phys Rev Lett. 2003 Mar 07;90(9):092002. doi: 10.1103/PhysRevLett.90.092002. Epub 2003 Mar 04. PMID: 12689215.
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Bound states of two gluinos at the Fermilab Tevatron and CERN LHC.

Physical review. D, Particles and fields

Chikovani E, Kartvelishvili V, Shanidze R, Shaw G.
PMID: 10019947
Phys Rev D Part Fields. 1996 Jun;53(11):6653-6657. doi: 10.1103/physrevd.53.6653.

No abstract available.

Cite
Chikovani E, Kartvelishvili V, Shanidze R, et al. Bound states of two gluinos at the Fermilab Tevatron and CERN LHC. Phys Rev D Part Fields. 1996;53(11):6653-6657doi: 10.1103/physrevd.53.6653.
Chikovani, E., Kartvelishvili, V., Shanidze, R., & Shaw, G. (1996). Bound states of two gluinos at the Fermilab Tevatron and CERN LHC. Physical review. D, Particles and fields, 53(11), 6653-6657. https://doi.org/10.1103/physrevd.53.6653
Chikovani, et al. "Bound states of two gluinos at the Fermilab Tevatron and CERN LHC." Physical review. D, Particles and fields vol. 53,11 (1996): 6653-6657. doi: https://doi.org/10.1103/physrevd.53.6653
Chikovani E, Kartvelishvili V, Shanidze R, Shaw G. Bound states of two gluinos at the Fermilab Tevatron and CERN LHC. Phys Rev D Part Fields. 1996 Jun;53(11):6653-6657. doi: 10.1103/physrevd.53.6653. PMID: 10019947.
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Interplay of Atomic Interactions in the Intermetallic Semiconductor Be.

Angewandte Chemie (International ed. in English)

Amon A, Svanidze E, Ormeci A, König M, Kasinathan D, Takegami D, Prots Y, Liao YF, Tsuei KD, Tjeng LH, Leithe-Jasper A, Grin Y.
PMID: 31483920
Angew Chem Int Ed Engl. 2019 Oct 28;58(44):15928-15933. doi: 10.1002/anie.201909782. Epub 2019 Sep 24.

Semiconducting substances form one of the most important families of functional materials. However, semiconductors containing only metals are very rare. The chemical mechanisms behind their ground-state properties are only partially understood. Our investigations have rather unexpectedly revealed the semiconducting...

Cite
Amon A, Svanidze E, Ormeci A, et al. Interplay of Atomic Interactions in the Intermetallic Semiconductor Be. Angew Chem Int Ed Engl. 2019;58(44):15928-15933doi: 10.1002/anie.201909782.
Amon, A., Svanidze, E., Ormeci, A., König, M., Kasinathan, D., Takegami, D., Prots, Y., Liao, Y. F., Tsuei, K. D., Tjeng, L. H., Leithe-Jasper, A., & Grin, Y. (2019). Interplay of Atomic Interactions in the Intermetallic Semiconductor Be. Angewandte Chemie (International ed. in English), 58(44), 15928-15933. https://doi.org/10.1002/anie.201909782
Amon, Alfred, et al. "Interplay of Atomic Interactions in the Intermetallic Semiconductor Be." Angewandte Chemie (International ed. in English) vol. 58,44 (2019): 15928-15933. doi: https://doi.org/10.1002/anie.201909782
Amon A, Svanidze E, Ormeci A, König M, Kasinathan D, Takegami D, Prots Y, Liao YF, Tsuei KD, Tjeng LH, Leithe-Jasper A, Grin Y. Interplay of Atomic Interactions in the Intermetallic Semiconductor Be. Angew Chem Int Ed Engl. 2019 Oct 28;58(44):15928-15933. doi: 10.1002/anie.201909782. Epub 2019 Sep 24. PMID: 31483920; PMCID: PMC7754163.
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Protein biosensor based on Schottky barrier nanowire field effect transistor.

Talanta

Smolyarova TE, Shanidze LV, Lukyanenko AV, Baron FA, Krasitskaya VV, Kichkailo AS, Tarasov AS, Volkov N.
PMID: 34856478
Talanta. 2021 Nov 24;239:123092. doi: 10.1016/j.talanta.2021.123092. Epub 2021 Nov 24.

A top-down nanofabrication approach involving molecular beam epitaxy and electron beam lithography was used to obtain silicon nanowire-based back gate field-effect transistors with Schottky contacts on silicon-on-insulator (SOI) wafers. The resulting device is applied in biomolecular detection based on...

Cite
Smolyarova TE, Shanidze LV, Lukyanenko AV, et al. Protein biosensor based on Schottky barrier nanowire field effect transistor. Talanta. 2021;239:123092doi: 10.1016/j.talanta.2021.123092.
Smolyarova, T. E., Shanidze, L. V., Lukyanenko, A. V., Baron, F. A., Krasitskaya, V. V., Kichkailo, A. S., Tarasov, A. S., & Volkov, N. (2021). Protein biosensor based on Schottky barrier nanowire field effect transistor. Talanta, 239123092. https://doi.org/10.1016/j.talanta.2021.123092
Smolyarova, Tatyana E, et al. "Protein biosensor based on Schottky barrier nanowire field effect transistor." Talanta vol. 239 (2021): 123092. doi: https://doi.org/10.1016/j.talanta.2021.123092
Smolyarova TE, Shanidze LV, Lukyanenko AV, Baron FA, Krasitskaya VV, Kichkailo AS, Tarasov AS, Volkov N. Protein biosensor based on Schottky barrier nanowire field effect transistor. Talanta. 2021 Nov 24;239:123092. doi: 10.1016/j.talanta.2021.123092. Epub 2021 Nov 24. PMID: 34856478.
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Asymmetric Interfaces in Epitaxial Off-Stoichiometric Fe.

Nanomaterials (Basel, Switzerland)

Tarasov AS, Tarasov IA, Yakovlev IA, Rautskii MV, Bondarev IA, Lukyanenko AV, Platunov MS, Volochaev MN, Efimov DD, Goikhman AY, Belyaev BA, Baron FA, Shanidze LV, Farle M, Varnakov SN, Ovchinnikov SG, Volkov NV.
PMID: 35010081
Nanomaterials (Basel). 2021 Dec 31;12(1). doi: 10.3390/nano12010131.

Three-layer iron-rich Fe

Cite
Tarasov AS, Tarasov IA, Yakovlev IA, et al. Asymmetric Interfaces in Epitaxial Off-Stoichiometric Fe. Nanomaterials (Basel). 2021;12(1)doi: 10.3390/nano12010131.
Tarasov, A. S., Tarasov, I. A., Yakovlev, I. A., Rautskii, M. V., Bondarev, I. A., Lukyanenko, A. V., Platunov, M. S., Volochaev, M. N., Efimov, D. D., Goikhman, A. Y., Belyaev, B. A., Baron, F. A., Shanidze, L. V., Farle, M., Varnakov, S. N., Ovchinnikov, S. G., & Volkov, N. V. (2021). Asymmetric Interfaces in Epitaxial Off-Stoichiometric Fe. Nanomaterials (Basel, Switzerland), 12(1), . https://doi.org/10.3390/nano12010131
Tarasov, Anton S, et al. "Asymmetric Interfaces in Epitaxial Off-Stoichiometric Fe." Nanomaterials (Basel, Switzerland) vol. 12,1 (2021). doi: https://doi.org/10.3390/nano12010131
Tarasov AS, Tarasov IA, Yakovlev IA, Rautskii MV, Bondarev IA, Lukyanenko AV, Platunov MS, Volochaev MN, Efimov DD, Goikhman AY, Belyaev BA, Baron FA, Shanidze LV, Farle M, Varnakov SN, Ovchinnikov SG, Volkov NV. Asymmetric Interfaces in Epitaxial Off-Stoichiometric Fe. Nanomaterials (Basel). 2021 Dec 31;12(1). doi: 10.3390/nano12010131. PMID: 35010081; PMCID: PMC8747018.
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Protein biosensor based on Schottky barrier nanowire field effect transistor.

Talanta

Smolyarova TE, Shanidze LV, Lukyanenko AV, Baron FA, Krasitskaya VV, Kichkailo AS, Tarasov AS, Volkov N.
PMID: 34856478
Talanta. 2021 Nov 24;239:123092. doi: 10.1016/j.talanta.2021.123092. Epub 2021 Nov 24.

A top-down nanofabrication approach involving molecular beam epitaxy and electron beam lithography was used to obtain silicon nanowire-based back gate field-effect transistors with Schottky contacts on silicon-on-insulator (SOI) wafers. The resulting device is applied in biomolecular detection based on...

Cite
Smolyarova TE, Shanidze LV, Lukyanenko AV, et al. Protein biosensor based on Schottky barrier nanowire field effect transistor. Talanta. 2021;239:123092doi: 10.1016/j.talanta.2021.123092.
Smolyarova, T. E., Shanidze, L. V., Lukyanenko, A. V., Baron, F. A., Krasitskaya, V. V., Kichkailo, A. S., Tarasov, A. S., & Volkov, N. (2021). Protein biosensor based on Schottky barrier nanowire field effect transistor. Talanta, 239123092. https://doi.org/10.1016/j.talanta.2021.123092
Smolyarova, Tatyana E, et al. "Protein biosensor based on Schottky barrier nanowire field effect transistor." Talanta vol. 239 (2021): 123092. doi: https://doi.org/10.1016/j.talanta.2021.123092
Smolyarova TE, Shanidze LV, Lukyanenko AV, Baron FA, Krasitskaya VV, Kichkailo AS, Tarasov AS, Volkov N. Protein biosensor based on Schottky barrier nanowire field effect transistor. Talanta. 2021 Nov 24;239:123092. doi: 10.1016/j.talanta.2021.123092. Epub 2021 Nov 24. PMID: 34856478.
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A downscaling approach to compare COVID-19 count data from databases aggregated at different spatial scales.

Journal of the Royal Statistical Society. Series A, (Statistics in Society)

Python A, Bender A, Blangiardo M, Illian JB, Lin Y, Liu B, Lucas TCD, Tan S, Wen Y, Svanidze D, Yin J.
PMID: 34908651
J R Stat Soc Ser A Stat Soc. 2021 Sep 15; doi: 10.1111/rssa.12738. Epub 2021 Sep 15.

As the COVID-19 pandemic continues to threaten various regions around the world, obtaining accurate and reliable COVID-19 data is crucial for governments and local communities aiming at rigorously assessing the extent and magnitude of the virus spread and deploying...

Cite
Python A, Bender A, Blangiardo M, et al. A downscaling approach to compare COVID-19 count data from databases aggregated at different spatial scales. J R Stat Soc Ser A Stat Soc. 2021;doi: 10.1111/rssa.12738.
Python, A., Bender, A., Blangiardo, M., Illian, J. B., Lin, Y., Liu, B., Lucas, T. C. D., Tan, S., Wen, Y., Svanidze, D., & Yin, J. (2021). A downscaling approach to compare COVID-19 count data from databases aggregated at different spatial scales. Journal of the Royal Statistical Society. Series A, (Statistics in Society), . https://doi.org/10.1111/rssa.12738
Python, Andre, et al. "A downscaling approach to compare COVID-19 count data from databases aggregated at different spatial scales." Journal of the Royal Statistical Society. Series A, (Statistics in Society) vol. (2021). doi: https://doi.org/10.1111/rssa.12738
Python A, Bender A, Blangiardo M, Illian JB, Lin Y, Liu B, Lucas TCD, Tan S, Wen Y, Svanidze D, Yin J. A downscaling approach to compare COVID-19 count data from databases aggregated at different spatial scales. J R Stat Soc Ser A Stat Soc. 2021 Sep 15; doi: 10.1111/rssa.12738. Epub 2021 Sep 15. PMID: 34908651; PMCID: PMC8662135.
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Protein biosensor based on Schottky barrier nanowire field effect transistor.

Talanta

Smolyarova TE, Shanidze LV, Lukyanenko AV, Baron FA, Krasitskaya VV, Kichkailo AS, Tarasov AS, Volkov N.
PMID: 34856478
Talanta. 2021 Nov 24;239:123092. doi: 10.1016/j.talanta.2021.123092. Epub 2021 Nov 24.

A top-down nanofabrication approach involving molecular beam epitaxy and electron beam lithography was used to obtain silicon nanowire-based back gate field-effect transistors with Schottky contacts on silicon-on-insulator (SOI) wafers. The resulting device is applied in biomolecular detection based on...

Cite
Smolyarova TE, Shanidze LV, Lukyanenko AV, et al. Protein biosensor based on Schottky barrier nanowire field effect transistor. Talanta. 2021;239:123092doi: 10.1016/j.talanta.2021.123092.
Smolyarova, T. E., Shanidze, L. V., Lukyanenko, A. V., Baron, F. A., Krasitskaya, V. V., Kichkailo, A. S., Tarasov, A. S., & Volkov, N. (2021). Protein biosensor based on Schottky barrier nanowire field effect transistor. Talanta, 239123092. https://doi.org/10.1016/j.talanta.2021.123092
Smolyarova, Tatyana E, et al. "Protein biosensor based on Schottky barrier nanowire field effect transistor." Talanta vol. 239 (2021): 123092. doi: https://doi.org/10.1016/j.talanta.2021.123092
Smolyarova TE, Shanidze LV, Lukyanenko AV, Baron FA, Krasitskaya VV, Kichkailo AS, Tarasov AS, Volkov N. Protein biosensor based on Schottky barrier nanowire field effect transistor. Talanta. 2021 Nov 24;239:123092. doi: 10.1016/j.talanta.2021.123092. Epub 2021 Nov 24. PMID: 34856478.
Copy Download .nbib Format: NLM
Protein biosensor based on Schottky barrier nanowire field effect transistor.

Talanta

Smolyarova TE, Shanidze LV, Lukyanenko AV, Baron FA, Krasitskaya VV, Kichkailo AS, Tarasov AS, Volkov N.
PMID: 34856478
Talanta. 2022 Mar 01;239:123092. doi: 10.1016/j.talanta.2021.123092. Epub 2021 Nov 24.

A top-down nanofabrication approach involving molecular beam epitaxy and electron beam lithography was used to obtain silicon nanowire-based back gate field-effect transistors with Schottky contacts on silicon-on-insulator (SOI) wafers. The resulting device is applied in biomolecular detection based on...

Cite
Smolyarova TE, Shanidze LV, Lukyanenko AV, et al. Protein biosensor based on Schottky barrier nanowire field effect transistor. Talanta. 2021;239:123092doi: 10.1016/j.talanta.2021.123092.
Smolyarova, T. E., Shanidze, L. V., Lukyanenko, A. V., Baron, F. A., Krasitskaya, V. V., Kichkailo, A. S., Tarasov, A. S., & Volkov, N. (2022). Protein biosensor based on Schottky barrier nanowire field effect transistor. Talanta, 239123092. https://doi.org/10.1016/j.talanta.2021.123092
Smolyarova, Tatyana E, et al. "Protein biosensor based on Schottky barrier nanowire field effect transistor." Talanta vol. 239 (2022): 123092. doi: https://doi.org/10.1016/j.talanta.2021.123092
Smolyarova TE, Shanidze LV, Lukyanenko AV, Baron FA, Krasitskaya VV, Kichkailo AS, Tarasov AS, Volkov N. Protein biosensor based on Schottky barrier nanowire field effect transistor. Talanta. 2022 Mar 01;239:123092. doi: 10.1016/j.talanta.2021.123092. Epub 2021 Nov 24. PMID: 34856478.
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An itinerant antiferromagnetic metal without magnetic constituents.

Nature communications

Svanidze E, Wang JK, Besara T, Liu L, Huang Q, Siegrist T, Frandsen B, Lynn JW, Nevidomskyy AH, Gamża MB, Aronson MC, Uemura YJ, Morosan E.
PMID: 26166042
Nat Commun. 2015 Jul 13;6:7701. doi: 10.1038/ncomms8701.

The origin of magnetism in metals has been traditionally discussed in two diametrically opposite limits: itinerant and local moments. Surprisingly, there are very few known examples of materials that are close to the itinerant limit, and their properties are...

Cite
Svanidze E, Wang JK, Besara T, et al. An itinerant antiferromagnetic metal without magnetic constituents. Nat Commun. 2015;6:7701doi: 10.1038/ncomms8701.
Svanidze, E., Wang, J. K., Besara, T., Liu, L., Huang, Q., Siegrist, T., Frandsen, B., Lynn, J. W., Nevidomskyy, A. H., Gamża, M. B., Aronson, M. C., Uemura, Y. J., & Morosan, E. (2015). An itinerant antiferromagnetic metal without magnetic constituents. Nature communications, 67701. https://doi.org/10.1038/ncomms8701
Svanidze, E, et al. "An itinerant antiferromagnetic metal without magnetic constituents." Nature communications vol. 6 (2015): 7701. doi: https://doi.org/10.1038/ncomms8701
Svanidze E, Wang JK, Besara T, Liu L, Huang Q, Siegrist T, Frandsen B, Lynn JW, Nevidomskyy AH, Gamża MB, Aronson MC, Uemura YJ, Morosan E. An itinerant antiferromagnetic metal without magnetic constituents. Nat Commun. 2015 Jul 13;6:7701. doi: 10.1038/ncomms8701. PMID: 26166042; PMCID: PMC4510670.
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Micro-Scale Device-An Alternative Route for Studying the Intrinsic Properties of Solid-State Materials: The Case of Semiconducting TaGeIr.

Angewandte Chemie (International ed. in English)

Antonyshyn I, Wagner FR, Bobnar M, Sichevych O, Burkhardt U, Schmidt M, König M, Poeppelmeier K, Mackenzie AP, Svanidze E, Grin Y.
PMID: 32202036
Angew Chem Int Ed Engl. 2020 Jun 26;59(27):11136-11141. doi: 10.1002/anie.202002693. Epub 2020 Apr 30.

An efficient application of a material is only possible if we know its physical and chemical properties, which is frequently obstructed by the presence of micro- or macroscopic inclusions of secondary phases. While sometimes a sophisticated synthesis route can...

Cite
Antonyshyn I, Wagner FR, Bobnar M, et al. Micro-Scale Device-An Alternative Route for Studying the Intrinsic Properties of Solid-State Materials: The Case of Semiconducting TaGeIr. Angew Chem Int Ed Engl. 2020;59(27):11136-11141doi: 10.1002/anie.202002693.
Antonyshyn, I., Wagner, F. R., Bobnar, M., Sichevych, O., Burkhardt, U., Schmidt, M., König, M., Poeppelmeier, K., Mackenzie, A. P., Svanidze, E., & Grin, Y. (2020). Micro-Scale Device-An Alternative Route for Studying the Intrinsic Properties of Solid-State Materials: The Case of Semiconducting TaGeIr. Angewandte Chemie (International ed. in English), 59(27), 11136-11141. https://doi.org/10.1002/anie.202002693
Antonyshyn, I, et al. "Micro-Scale Device-An Alternative Route for Studying the Intrinsic Properties of Solid-State Materials: The Case of Semiconducting TaGeIr." Angewandte Chemie (International ed. in English) vol. 59,27 (2020): 11136-11141. doi: https://doi.org/10.1002/anie.202002693
Antonyshyn I, Wagner FR, Bobnar M, Sichevych O, Burkhardt U, Schmidt M, König M, Poeppelmeier K, Mackenzie AP, Svanidze E, Grin Y. Micro-Scale Device-An Alternative Route for Studying the Intrinsic Properties of Solid-State Materials: The Case of Semiconducting TaGeIr. Angew Chem Int Ed Engl. 2020 Jun 26;59(27):11136-11141. doi: 10.1002/anie.202002693. Epub 2020 Apr 30. PMID: 32202036; PMCID: PMC7318276.
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