Wood compression in four-dimensional in situ tomography
Tero Mäkinen, Alisa Halonen, Juha Koivisto, and Mikko J. Alava
Phys. Rev. Materials 6, L070601 (2022) - Published 21 July, 2022
Kyle T. Kluherz, Sebastian T. Mergelsberg, David E. Sommer, Joo Yeon D. Roh, Sarah A. Saslow, Daniel Biner, Karl W. Krämer, Scott T. Dunham, James J. De Yoreo, and Daniel R. Gamelin
Phys. Rev. Materials 6, 074601 (2022) - Published 22 July, 2022
Lead halide perovskite materials doped with lanthanides can exhibit over 100% luminescence quantum yield due to quantum cutting. Defect states related to these dopants are known to play a role in the quantum cutting mechanism, but the structural changes and charge compensation mechanisms induced by these dopants have not been fully explored. Here, the authors use a combination of advanced x-ray techniques and computational modeling to elucidate the structural impact of ytterbium doping in CsPbCl. The authors find that Yb, exclusively in the +3 oxidation state, replaces Pb in the octahedral site with charge compensated by Pb vacancies, providing clear experimental verification of a hypothesized structure.
Le Wang, Jiali Zhao, Cheng-Tai Kuo, Bethany E. Matthews, Marjolein T. Oostrom, Steven R. Spurgeon, Zhenzhong Yang, Mark E. Bowden, Linda W. Wangoh, Sang-Jun Lee, Jun-Sik Lee, Er-Jia Guo, Jiaou Wang, Scott A. Chambers, and Yingge Du
Phys. Rev. Materials 6, 075006 (2022) - Published 20 July, 2022
The functionality of materials is critically dependent on structures and electronic properties. The valence of transition metal (TM) cations in complex oxides is key and each TM exhibits a fixed range of stable values. For Ni, the formal oxidation state is 2+, but can reach 3+ for certain compositions. By limiting SrNiO film thickness to 1 unit cell in (SrNiO)/(SrTiO) superlattices, the authors demonstrate that the Ni valence exceeds 3+ whereas the Ti valence remains at 4+, and that neither valence changes with . This work demonstrates that the structural environment can be controlled to achieve electronic properties not normally found in bulk materials by means of superlattice formation.
Jianming Sun, Xin Cao, and Haoshen Zhou
Phys. Rev. Materials 6, 070201 (2022) - Published 13 July, 2022
The studies of Ni-rich cathode materials have been the top priority of research because of the high energy density and fair cycling life. However, suffering from severe crack generations and side reactions, the traditional polycrystal (PC) Ni-rich material displayed structural/electrochemical fade during cycling. Compared with PC, single-crystal (SC) Ni-rich materials exhibited excellent structural stability and cycling performance, benefiting from the limited side reaction and gas generation. In this review, the authors not only compared the structural evolution and electrochemical failure mechanisms between PC and SC, but also summarized the synthesis methods and characterization techniques of SC, which provides universal insights into the development of Ni-rich cathode materials.
Tero Mäkinen, Alisa Halonen, Juha Koivisto, and Mikko J. Alava
Phys. Rev. Materials 6, L070601 (2022) - Published 21 July, 2022
Fernando Ajejas, Yanis Sassi, William Legrand, Sophie Collin, Jose Peña Garcia, André Thiaville, Stefania Pizzini, Nicolas Reyren, Vincent Cros, and Albert Fert
Phys. Rev. Materials 6, L071401 (2022) - Published 5 July, 2022
Peter P. Orth, D. Phelan, J. Zhao, H. Zheng, J. F. Mitchell, C. Leighton, and Rafael M. Fernandes
Phys. Rev. Materials 6, L071402 (2022) - Published 5 July, 2022
H. Sakai, P. Opletal, Y. Tokiwa, E. Yamamoto, Y. Tokunaga, S. Kambe, and Y. Haga
Phys. Rev. Materials 6, 073401 (2022) - Published 29 July, 2022
Zhucong Xi, Mingfei Zhang, Louis G. Hector, Jr., Amit Misra, and Liang Qi
Phys. Rev. Materials 6, 073601 (2022) - Published 13 July, 2022
Q. Rizzardi, P. M. Derlet, and R. Maaß
Phys. Rev. Materials 6, 073602 (2022) - Published 20 July, 2022
Z. E. Brubaker, A. Miskowiec, and J. L. Niedziela
Phys. Rev. Materials 6, 073603 (2022) - Published 21 July, 2022
Zhi-Feng Huang
Phys. Rev. Materials 6, 074001 (2022) - Published 5 July, 2022
Ping Zhang, Chen Ma, Shaoxiang Sheng, Huiru Liu, Jisong Gao, Zijia Liu, Peng Cheng, Baojie Feng, Lan Chen, and Kehui Wu
Phys. Rev. Materials 6, 074002 (2022) - Published 5 July, 2022
A. Qamar, P. M. Braun, S. Walia, S. Balendhran, F. Rahman, E. Z. Kurmaev, and A. Moewes
Phys. Rev. Materials 6, 074003 (2022) - Published 6 July, 2022
Mahmoud Zeer, Dongwook Go, Johanna P. Carbone, Tom G. Saunderson, Matthias Redies, Mathias Kläui, Jamal Ghabboun, Wulf Wulfhekel, Stefan Blügel, and Yuriy Mokrousov
Phys. Rev. Materials 6, 074004 (2022) - Published 7 July, 2022
Fuhui Shao, Steffi Y. Woo, Nianjheng Wu, Robert Schneider, Andrew J. Mayne, Steffen Michaelis de Vasconcellos, Ashish Arora, Benjamin J. Carey, Johann A. Preuß, Noémie Bonnet, Mauro Och, Cecilia Mattevi, Kenji Watanabe, Takashi Taniguchi, Zhichuan Niu, Rudolf Bratschitsch, and Luiz H. G. Tizei
Phys. Rev. Materials 6, 074005 (2022) - Published 22 July, 2022
Danylo Radevych, Marija Gajdardziska-Josifovska, Carol J. Hirschmugl, Marvin A. Schofield, and Michael Weinert
Phys. Rev. Materials 6, 074006 (2022) - Published 26 July, 2022
Jaime M. Moya, Shiming Lei, Eleanor M. Clements, Caitlin S. Kengle, Stella Sun, Kevin Allen, Qizhi Li, Y. Y. Peng, Ali A. Husain, Matteo Mitrano, Matthew J. Krogstad, Raymond Osborn, Anand B. Puthirath, Songxue Chi, L. Debeer-Schmitt, J. Gaudet, P. Abbamonte, Jeffrey W. Lynn, and E. Morosan
Phys. Rev. Materials 6, 074201 (2022) - Published 7 July, 2022
Jingping Dong, Chuhan Wang, Xinlei Zhao, Miao Gao, Xun-Wang Yan, Fengjie Ma, and Zhong-Yi Lu
Phys. Rev. Materials 6, 074202 (2022) - Published 18 July, 2022
Xiaohang Zhang, Connie H. Li, Jisoo Moon, Serhiy Leontsev, Michael R. Page, Berend T. Jonker, and Olaf van ‘t Erve
Phys. Rev. Materials 6, 074203 (2022) - Published 20 July, 2022
Laëtitia Baringthon, Thi Huong Dang, Henri Jaffrès, Nicolas Reyren, Jean-Marie George, Martina Morassi, Gilles Patriarche, Aristide Lemaitre, François Bertran, and Patrick Le Fèvre
Phys. Rev. Materials 6, 074204 (2022) - Published 20 July, 2022
Mohammad Shafiei, Farhad Fazileh, François M. Peeters, and Milorad V. Milošević
Phys. Rev. Materials 6, 074205 (2022) - Published 21 July, 2022
Przemyslaw Wojciech Swatek, Xudong Hang, Yihong Fan, Wei Jiang, Hwanhui Yun, Deyuan Lyu, Delin Zhang, Thomas J. Peterson, Protyush Sahu, Onri Jay Benally, Zach Cresswell, Jinming Liu, Rabindra Pahari, Daniel Kukla, Tony Low, K. Andre Mkhoyan, and Jian-Ping Wang
Phys. Rev. Materials 6, 074206 (2022) - Published 29 July, 2022
Banani Biswas, Veronica F. Michel, Øystein S. Fjellvåg, Gesara Bimashofer, Max Döbeli, Michal Jambor, Lukas Keller, Elisabeth Müller, Victor Ukleev, Ekaterina V. Pomjakushina, Deepak Singh, Uwe Stuhr, C. A. F. Vaz, Thomas Lippert, and Christof W. Schneider
Phys. Rev. Materials 6, 074401 (2022) - Published 12 July, 2022
Ananya Renuka Balakrishna
Phys. Rev. Materials 6, 074402 (2022) - Published 13 July, 2022
M. Kobayashi, N. H. D. Khang, T. Takeda, K. Araki, R. Okano, M. Suzuki, K. Kuroda, K. Yaji, K. Sugawara, S. Souma, K. Nakayama, K. Yamauchi, M. Kitamura, K. Horiba, A. Fujimori, T. Sato, S. Shin, M. Tanaka, and P. N. Hai
Phys. Rev. Materials 6, 074403 (2022) - Published 15 July, 2022
L.-A. Michez, M. Petit, V. Heresanu, V. Le Thanh, E. Prestat, F. d'Acapito, Q. Ramasse, F. Boscherini, P. Pochet, and M. Jamet
Phys. Rev. Materials 6, 074404 (2022) - Published 22 July, 2022
Deepak, A. Kumar, A. K. Bera, and S. M. Yusuf
Phys. Rev. Materials 6, 074405 (2022) - Published 22 July, 2022
Ali El Boutaybi, Thomas Maroutian, Ludovic Largeau, Sylvia Matzen, and Philippe Lecoeur
Phys. Rev. Materials 6, 074406 (2022) - Published 25 July, 2022
G. Tuvia, S. W. Sobelman, S. Sandik, B. Kalisky, and Y. Dagan
Phys. Rev. Materials 6, 074408 (2022) - Published 26 July, 2022
Rahul Dagar, Satish Yadav, Monu Kinha, Brijesh Singh Mehra, Rajeev Rawat, Kiran Singh, and D. S. Rana
Phys. Rev. Materials 6, 074409 (2022) - Published 28 July, 2022
Elaheh Ghorbani, Lorenzo Villa, Paul Erhart, Andreas Klein, and Karsten Albe
Phys. Rev. Materials 6, 074410 (2022) - Published 28 July, 2022
Hiroshi Nakajima, Satoshi Hiroi, Hirofumi Tsukasaki, Charlotte Cochard, Florence Porcher, Pierre-Eymeric Janolin, and Shigeo Mori
Phys. Rev. Materials 6, 074411 (2022) - Published 29 July, 2022
Xuanyuan Jiang, Xiao Wang, Pratyush Buragohain, Andy T. Clark, Haidong Lu, Shashi Poddar, Le Yu, Anthony D. DiChiara, Alexei Gruverman, Xuemei Cheng, and Xiaoshan Xu
Phys. Rev. Materials 6, 074412 (2022) - Published 29 July, 2022
Kyle T. Kluherz, Sebastian T. Mergelsberg, David E. Sommer, Joo Yeon D. Roh, Sarah A. Saslow, Daniel Biner, Karl W. Krämer, Scott T. Dunham, James J. De Yoreo, and Daniel R. Gamelin
Phys. Rev. Materials 6, 074601 (2022) - Published 22 July, 2022
Lead halide perovskite materials doped with lanthanides can exhibit over 100% luminescence quantum yield due to quantum cutting. Defect states related to these dopants are known to play a role in the quantum cutting mechanism, but the structural changes and charge compensation mechanisms induced by these dopants have not been fully explored. Here, the authors use a combination of advanced x-ray techniques and computational modeling to elucidate the structural impact of ytterbium doping in CsPbCl. The authors find that Yb, exclusively in the +3 oxidation state, replaces Pb in the octahedral site with charge compensated by Pb vacancies, providing clear experimental verification of a hypothesized structure.
Yang Sun, Feng Zhang, Cai-Zhuang Wang, Kai-Ming Ho, Igor I. Mazin, and Vladimir Antropov
Phys. Rev. Materials 6, 074801 (2022) - Published 5 July, 2022
Yuzki M. Oey, Farnaz Kaboudvand, Brenden R. Ortiz, Ram Seshadri, and Stephen D. Wilson
Phys. Rev. Materials 6, 074802 (2022) - Published 13 July, 2022
Abhishek Pandey, Y. Liu, Saroj L. Samal, Yevhen Kushnirenko, A. Kaminski, D. J. Singh, and D. C. Johnston
Phys. Rev. Materials 6, 075001 (2022) - Published 1 July, 2022
E. Cappelli, A. Hampel, A. Chikina, E. Bonini Guedes, G. Gatti, A. Hunter, J. Issing, N. Biskup, M. Varela, C. E. Dreyer, A. Tamai, A. Georges, F. Y. Bruno, M. Radovic, and F. Baumberger
Phys. Rev. Materials 6, 075002 (2022) - Published 7 July, 2022
N. Lebedev, Y. Huang, A. Rana, D. Jannis, N. Gauquelin, J. Verbeeck, and J. Aarts
Phys. Rev. Materials 6, 075003 (2022) - Published 12 July, 2022
Alberto Carta and Claude Ederer
Phys. Rev. Materials 6, 075004 (2022) - Published 13 July, 2022
Xin Gui and Robert J. Cava
Phys. Rev. Materials 6, 075005 (2022) - Published 15 July, 2022
Le Wang, Jiali Zhao, Cheng-Tai Kuo, Bethany E. Matthews, Marjolein T. Oostrom, Steven R. Spurgeon, Zhenzhong Yang, Mark E. Bowden, Linda W. Wangoh, Sang-Jun Lee, Jun-Sik Lee, Er-Jia Guo, Jiaou Wang, Scott A. Chambers, and Yingge Du
Phys. Rev. Materials 6, 075006 (2022) - Published 20 July, 2022
The functionality of materials is critically dependent on structures and electronic properties. The valence of transition metal (TM) cations in complex oxides is key and each TM exhibits a fixed range of stable values. For Ni, the formal oxidation state is 2+, but can reach 3+ for certain compositions. By limiting SrNiO film thickness to 1 unit cell in (SrNiO)/(SrTiO) superlattices, the authors demonstrate that the Ni valence exceeds 3+ whereas the Ti valence remains at 4+, and that neither valence changes with . This work demonstrates that the structural environment can be controlled to achieve electronic properties not normally found in bulk materials by means of superlattice formation.
Kyle D. Miller and James M. Rondinelli
Phys. Rev. Materials 6, 075007 (2022) - Published 21 July, 2022
Cheng-Long Zhou, Yong Zhang, Zahra Torbatian, Dino Novko, Mauro Antezza, and Hong-Liang Yi
Phys. Rev. Materials 6, 075201 (2022) - Published 26 July, 2022
S. Aria Hosseini, Devin Coleman, Sabah Bux, P. Alex Greaney, and Lorenzo Mangolini
Phys. Rev. Materials 6, 075401 (2022) - Published 6 July, 2022
Alvaro Lopez-Cazalilla, Christian Cupak, Martina Fellinger, Fredric Granberg, Paul S. Szabo, Andreas Mutzke, Kai Nordlund, Friedrich Aumayr, and Raquel González-Arrabal
Phys. Rev. Materials 6, 075402 (2022) - Published 14 July, 2022
Yuan-Chao Hu, Weiwei Jin, Jan Schroers, Mark D. Shattuck, and Corey S. O'Hern
Phys. Rev. Materials 6, 075601 (2022) - Published 5 July, 2022
Jyoti Gupta, V. K. Sharma, H. Srinivasan, Himal Bhatt, S. Kumar, M. Sarter, V. García Sakai, and S. Mitra
Phys. Rev. Materials 6, 075602 (2022) - Published 12 July, 2022
Wolfram G. Nöhring, Adam R. Hinkle, and Lars Pastewka
Phys. Rev. Materials 6, 075603 (2022) - Published 21 July, 2022
Joseph D. Hutchinson, François A. Lavergne, and Roel P. A. Dullens
Phys. Rev. Materials 6, 075604 (2022) - Published 21 July, 2022
Julia E. Medvedeva, Bishal Bhattarai, Ivan A. Zhuravlev, Federico Motti, Piero Torelli, Anita Guarino, Andreas Klein, Emiliano Di Gennaro, and Fabio Miletto Granozio
Phys. Rev. Materials 6, 075605 (2022) - Published 27 July, 2022
Thanh Ngoc Pham, Yuji Hamamoto, Kouji Inagaki, Ikutaro Hamada, and Yoshitada Morikawa
Phys. Rev. Materials 6, 075801 (2022) - Published 25 July, 2022
Steven B. Hancock, David P. Landau, Neda Alsadat Aghamiri, and Yohannes Abate
Phys. Rev. Materials 6, 076001 (2022) - Published 14 July, 2022