Search

Your search keyword '"Lenoir B"' showing total 600 results
Start Over Author "Lenoir B"
600 results on '"Lenoir B"'

2. Transport anomalies across the quantum limit in semimetallic Bi$_{0.96}$Sb$_{0.04}$

Author

Banerjee, A., Fauque, B., Izawa, K., Miyake, A., Sheikin, I., Flouquet, J., Lenoir, B., and Behnia, K.

Subjects
Condensed Matter - Strongly Correlated Electrons, Condensed Matter - Materials Science
Abstract

We report on a study of electronic transport in semi-metallic Bi$_{0.96}$Sb$_{0.04}$. At zero field, the system is a very dilute Fermi liquid displaying a T$^{2}$ resistivity with an enhanced prefactor. Quantum oscillations in resistivity as well as in Hall, Nernst and Seebeck responses of the system are detectable and their period quantifies the shrinking of the Fermi surface with antimony doping. For a field along the trigonal axis, the quantum limit was found to occur at a field as low as 3T. An ultraquantum anomaly at twice this field was detected in both charge transport and Nernst response. Its origin appears to lie beyond the one-particle picture and linked to unidentified many-body effects., Comment: 5 pages inculding 4 figures

Published
2008
Full Text
View/download PDF

6. OSS (Outer Solar System): a fundamental and planetary physics mission to Neptune, Triton and the Kuiper Belt

Author

Christophe, B, Spilker, LJ, Anderson, JD, André, N, Asmar, SW, Aurnou, J, Banfield, D, Barucci, A, Bertolami, O, Bingham, R, Brown, P, Cecconi, B, Courty, J-M, Dittus, H, Fletcher, LN, Foulon, B, Francisco, F, Gil, PJS, Glassmeier, KH, Grundy, W, Hansen, C, Helbert, J, Helled, R, Hussmann, H, Lamine, B, Lämmerzahl, C, Lamy, L, Lehoucq, R, Lenoir, B, Levy, A, Orton, G, Páramos, J, Poncy, J, Postberg, F, Progrebenko, SV, Reh, KR, Reynaud, S, Robert, C, Samain, E, Saur, J, Sayanagi, KM, Schmitz, N, Selig, H, Sohl, F, Spilker, TR, Srama, R, Stephan, K, Touboul, P, and Wolf, P

Subjects
Fundamental physics, Deep space gravity, Neptune, Triton, Kuiper Belt object, gr-qc, astro-ph.EP, physics.ins-det, Astronomical and Space Sciences, Astronomy & Astrophysics
Abstract

The present OSS (Outer Solar System) mission continues a long and bright tradition by associating the communities of fundamental physics and planetary sciences in a single mission with ambitious goals in both domains. OSS is an M-class mission to explore the Neptune system almost half a century after the flyby of the Voyager 2 spacecraft. Several discoveries were made by Voyager 2, including the Great Dark Spot (which has now disappeared) and Triton's geysers. Voyager 2 revealed the dynamics of Neptune's atmosphere and found four rings and evidence of ring arcs above Neptune. Benefiting from a greatly improved instrumentation, a mission as OSS would result in a striking advance in the study of the farthest planet of the solar system. Furthermore, OSS would provide a unique opportunity to visit a selected Kuiper Belt object subsequent to the passage of the Neptunian system. OSS would help consolidate the hypothesis of the origin of Triton as a Kuiper Belt object captured by Neptune, and to improve our knowledge on the formation of the solar system. The OSS probe would carry instruments allowing precise tracking of the spacecraft during the cruise. It would facilitate the best possible tests of the laws of gravity in deep space. These objectives are important for fundamental physics, as they test General Relativity, our current theoretical description of gravitation, but also for cosmology, astrophysics and planetary science, as General Relativity is used as a tool in all these domains. In particular, the models of solar system formation uses General Relativity to describe the crucial role of gravity. OSS is proposed as an international cooperation between ESA and NASA, giving the capability for ESA to launch an M-class mission towards the farthest planet of the solar system, and to a Kuiper Belt object. The proposed mission profile would allow to deliver a 500 kg class spacecraft. The design of the probe is mainly constrained by the deep space gravity test in order to minimize the perturbation of the accelerometer measurement. © 2012 Springer Science+Business Media B.V.

Published
2012

10. Roadmap on energy harvesting materials

Author

Pecunia, V. (Vincenzo), Silva, S. R. (S Ravi P), Phillips, J. D. (Jamie D), Artegiani, E. (Elisa), Romeo, A. (Alessandro), Shim, H. (Hongjae), Park, J. (Jongsung), Kim, J. H. (Jin Hyeok), Yun, J. S. (Jae Sung), Welch, G. C. (Gregory C), Larson, B. W. (Bryon W), Creran, M. (Myles), Laventure, A. (Audrey), Sasitharan, K. (Kezia), Flores-Diaz, N. (Natalie), Freitag, M. (Marina), Xu, J. (Jie), Brown, T. M. (Thomas M), Li, B. (Benxuan), Wang, Y. (Yiwen), Li, Z. (Zhe), Hou, B. (Bo), Hamadani, B. H. (Behrang H), Defay, E. (Emmanuel), Kovacova, V. (Veronika), Glinsek, S. (Sebastjan), Kar-Narayan, S. (Sohini), Bai, Y. (Yang), Kim, D. B. (Da Bin), Cho, Y. S. (Yong Soo), Žukauskaitė, A. (Agnė), Barth, S. (Stephan), Fan, F. R. (Feng Ru), Wu, W. (Wenzhuo), Costa, P. (Pedro), del Campo, J. (Javier), Lanceros-Mendez, S. (Senentxu), Khanbareh, H. (Hamideh), Wang, Z. L. (Zhong Lin), Pu, X. (Xiong), Pan, C. (Caofeng), Zhang, R. (Renyun), Xu, J. (Jing), Zhao, X. (Xun), Zhou, Y. (Yihao), Chen, G. (Guorui), Tat, T. (Trinny), Ock, I. W. (Il Woo), Chen, J. (Jun), Graham, S. A. (Sontyana Adonijah), Yu, J. S. (Jae Su), Huang, L.-Z. (Ling-Zhi), Li, D.-D. (Dan-Dan), Ma, M.-G. (Ming-Guo), Luo, J. (Jikui), Jiang, F. (Feng), Lee, P. S. (Pooi See), Dudem, B. (Bhaskar), Vivekananthan, V. (Venkateswaran), Kanatzidis, M. G. (Mercouri G), Xie, H. (Hongyao), Shi, X.-L. (Xiao-Lei), Chen, Z.-G. (Zhi-Gang), Riss, A. (Alexander), Parzer, M. (Michael), Garmroudi, F. (Fabian), Bauer, E. (Ernst), Zavanelli, D. (Duncan), Brod, M. K. (Madison K), Al Malki, M. (Muath), Snyder, G. J. (G Jeffrey), Kovnir, K. (Kirill), Kauzlarich, S. M. (Susan M), Uher, C. (Ctirad), Lan, J. (Jinle), Lin, Y.-H. (Yuan-Hua), Fonseca, L. (Luis), Morata, A. (Alex), Martin-Gonzalez, M. (Marisol), Pennelli, G. (Giovanni), Berthebaud, D. (David), Mori, T. (Takao), Quinn, R. J. (Robert J), Bos, J. G. (Jan-Willem G), Candolfi, C. (Christophe), Gougeon, P. (Patrick), Gall, P. (Philippe), Lenoir, B. (Bertrand), Venkateshvaran, D. (Deepak), Kaestner, B. (Bernd), Zhao, Y. (Yunshan), Zhang, G. (Gang), Nonoguchi, Y. (Yoshiyuki), Schroeder, B. C. (Bob C), Bilotti, E. (Emiliano), Menon, A. K. (Akanksha K), Urban, J. J. (Jeffrey J), Fenwick, O. (Oliver), Asker, C. (Ceyla), Talin, A. A. (A Alec), Anthopoulos, T. D. (Thomas D), Losi, T. (Tommaso), Viola, F. (Fabrizio), Caironi, M. (Mario), Georgiadou, D. G. (Dimitra G), Ding, L. (Li), Peng, L.-M. (Lian-Mao), Wang, Z. (Zhenxing), Wei, M.-D. (Muh-Dey), Negra, R. (Renato), Lemme, M. C. (Max C), Wagih, M. (Mahmoud), Beeby, S. (Steve), Ibn-Mohammed, T. (Taofeeq), Mustapha, K. B. (K B), Joshi, A. P. (A P), Pecunia, V. (Vincenzo), Silva, S. R. (S Ravi P), Phillips, J. D. (Jamie D), Artegiani, E. (Elisa), Romeo, A. (Alessandro), Shim, H. (Hongjae), Park, J. (Jongsung), Kim, J. H. (Jin Hyeok), Yun, J. S. (Jae Sung), Welch, G. C. (Gregory C), Larson, B. W. (Bryon W), Creran, M. (Myles), Laventure, A. (Audrey), Sasitharan, K. (Kezia), Flores-Diaz, N. (Natalie), Freitag, M. (Marina), Xu, J. (Jie), Brown, T. M. (Thomas M), Li, B. (Benxuan), Wang, Y. (Yiwen), Li, Z. (Zhe), Hou, B. (Bo), Hamadani, B. H. (Behrang H), Defay, E. (Emmanuel), Kovacova, V. (Veronika), Glinsek, S. (Sebastjan), Kar-Narayan, S. (Sohini), Bai, Y. (Yang), Kim, D. B. (Da Bin), Cho, Y. S. (Yong Soo), Žukauskaitė, A. (Agnė), Barth, S. (Stephan), Fan, F. R. (Feng Ru), Wu, W. (Wenzhuo), Costa, P. (Pedro), del Campo, J. (Javier), Lanceros-Mendez, S. (Senentxu), Khanbareh, H. (Hamideh), Wang, Z. L. (Zhong Lin), Pu, X. (Xiong), Pan, C. (Caofeng), Zhang, R. (Renyun), Xu, J. (Jing), Zhao, X. (Xun), Zhou, Y. (Yihao), Chen, G. (Guorui), Tat, T. (Trinny), Ock, I. W. (Il Woo), Chen, J. (Jun), Graham, S. A. (Sontyana Adonijah), Yu, J. S. (Jae Su), Huang, L.-Z. (Ling-Zhi), Li, D.-D. (Dan-Dan), Ma, M.-G. (Ming-Guo), Luo, J. (Jikui), Jiang, F. (Feng), Lee, P. S. (Pooi See), Dudem, B. (Bhaskar), Vivekananthan, V. (Venkateswaran), Kanatzidis, M. G. (Mercouri G), Xie, H. (Hongyao), Shi, X.-L. (Xiao-Lei), Chen, Z.-G. (Zhi-Gang), Riss, A. (Alexander), Parzer, M. (Michael), Garmroudi, F. (Fabian), Bauer, E. (Ernst), Zavanelli, D. (Duncan), Brod, M. K. (Madison K), Al Malki, M. (Muath), Snyder, G. J. (G Jeffrey), Kovnir, K. (Kirill), Kauzlarich, S. M. (Susan M), Uher, C. (Ctirad), Lan, J. (Jinle), Lin, Y.-H. (Yuan-Hua), Fonseca, L. (Luis), Morata, A. (Alex), Martin-Gonzalez, M. (Marisol), Pennelli, G. (Giovanni), Berthebaud, D. (David), Mori, T. (Takao), Quinn, R. J. (Robert J), Bos, J. G. (Jan-Willem G), Candolfi, C. (Christophe), Gougeon, P. (Patrick), Gall, P. (Philippe), Lenoir, B. (Bertrand), Venkateshvaran, D. (Deepak), Kaestner, B. (Bernd), Zhao, Y. (Yunshan), Zhang, G. (Gang), Nonoguchi, Y. (Yoshiyuki), Schroeder, B. C. (Bob C), Bilotti, E. (Emiliano), Menon, A. K. (Akanksha K), Urban, J. J. (Jeffrey J), Fenwick, O. (Oliver), Asker, C. (Ceyla), Talin, A. A. (A Alec), Anthopoulos, T. D. (Thomas D), Losi, T. (Tommaso), Viola, F. (Fabrizio), Caironi, M. (Mario), Georgiadou, D. G. (Dimitra G), Ding, L. (Li), Peng, L.-M. (Lian-Mao), Wang, Z. (Zhenxing), Wei, M.-D. (Muh-Dey), Negra, R. (Renato), Lemme, M. C. (Max C), Wagih, M. (Mahmoud), Beeby, S. (Steve), Ibn-Mohammed, T. (Taofeeq), Mustapha, K. B. (K B), and Joshi, A. P. (A P)

Abstract

Ambient energy harvesting has great potential to contribute to sustainable development and address growing environmental challenges. Converting waste energy from energy-intensive processes and systems (e.g. combustion engines and furnaces) is crucial to reducing their environmental impact and achieving net-zero emissions. Compact energy harvesters will also be key to powering the exponentially growing smart devices ecosystem that is part of the Internet of Things, thus enabling futuristic applications that can improve our quality of life (e.g. smart homes, smart cities, smart manufacturing, and smart healthcare). To achieve these goals, innovative materials are needed to efficiently convert ambient energy into electricity through various physical mechanisms, such as the photovoltaic effect, thermoelectricity, piezoelectricity, triboelectricity, and radiofrequency wireless power transfer. By bringing together the perspectives of experts in various types of energy harvesting materials, this Roadmap provides extensive insights into recent advances and present challenges in the field. Additionally, the Roadmap analyses the key performance metrics of these technologies in relation to their ultimate energy conversion limits. Building on these insights, the Roadmap outlines promising directions for future research to fully harness the potential of energy harvesting materials for green energy anytime, anywhere.

Published
2023

34. Anharmonicity and Effect of the Nanostructuring on the Lattice Dynamics of CrSi2

Author

Moll, A., primary, Viennois, R., additional, Boehm, M., additional, Koza, M. M., additional, Sidis, Y., additional, Rouquette, J., additional, Laborde, S., additional, Debray, J., additional, Menaert, B., additional, Castellan, J.-P., additional, Candolfi, C., additional, Lenoir, B., additional, Hermet, P., additional, and Beaudhuin, M., additional

Published
2021
Full Text
View/download PDF

Catalog

Books, media, physical & digital resources
See catalog results