Volume 7, Issue 11 November 2023 | | Advertisement | Tutorial Phase-Boundary Mapping to Engineer Defects in Thermoelectric Materials Leah Borgsmiller, Duncan Zavanelli, and G. Jeffrey Snyder PRX Energy 1, 022001 (2022) – Published 15 September 2022 | |
| | Oxygen-Redox Activity in Non-Lithium-Excess Tungsten-Doped LiNiO2 Cathode A.S. Menon, B.J. Johnston, S.G. Booth, L. Zhang, K. Kress, B.E. Murdock, G. Paez Fajardo, N.N. Anthonisamy, N. Tapia-Ruiz, S. Agrestini, M. Garcia-Fernandez, K. Zhou, P.K. Thakur, T.L. Lee, A.J. Nedoma, S.A. Cussen, and L.F.J. Piper PRX Energy 2, 013005 (2023) – Published 13 March 2023 | | | Sign up to receive PRX Energy monthly alerts | | | | Advertisement The APS Committee on the Status of Women in Physics (CSWP) is now accepting proposals from undergraduate and graduate students who are interested in creating new WiP groups or enhancing existing ones. The deadline for proposals is January 26, 2024. Learn more. | | | | | Not an APS member? Join today to start connecting with a community of more than 50,000 physicists. | | | | Featured in Physics Lukas Riedel, Jürgen Markmann, Jörg Weissmüller, and Shan Shi Phys. Rev. Materials 7, 116001 (2023) – Published 15 November 2023 | Researchers can fabricate gold foams that feature small and large pores with specific sizes. | | | | | | Editors' Suggestion Tyler J. Slade, Aashish Sapkota, John M. Wilde, Qiang Zhang, Lin-Lin Wang, Saul H. Lapidus, Juan Schmidt, Thomas Heitmann, Sergey L. Bud'ko, and Paul C. Canfield Phys. Rev. Materials 7, 114203 (2023) – Published 29 November 2023 | The AMnPn2 (A = Alkali earth, Pn = Sb, Bi) materials are widely explored as candidate magnetic topological semimetals. Replacing A with a rare-earth atom (R) produces a comparably underinvestigated family, RMnxPn2, in which charge balance favors Mn vacancies (x 1). Here, the authors map out the compositional dependence of the magnetic properties of LaMnxSb2 as a function of the Mn vacancy concentration. They grow single crystals with x = 0.74-0.97 and find that LaMnxSb2 has an exceptionally rich magnetic phase diagram, with six different antiferromagnetic phases and two different crystal structures, depending on T and x. The highly tunable nature of LaMnxSb2 suggests this material may be a good model system for understanding the effects of disorder on magnetic intermetallic compounds. | | | | | | Sangwoo Lee, Juhong Ahn, Liwen Chen, and Patryk Wąsik Phys. Rev. Materials 7, 110301 (2023) – Published 16 November 2023 | Close-packed structures of spherical particles describe the ordered lattices of many systems, such as oranges stacked on grocery stands, densely packed colloids, and solid elements. However, stabilizing a target close-packed structure of a material system has been a puzzling problem. This research update overviews the early and recent progress on the close-packed structures in block copolymer materials and attempts to identify the unrealized role of polymer chains as a structure director in polytypic crystal systems. The polymer chains stabilize polytypes with larger local interstitial space groups, allowing higher conformational entropy of the chains. | | | | | | Crystal growth, crystallization, and kinetics | Letter Cong Ma and Wang Gao Phys. Rev. Materials 7, L110401 (2023) – Published 22 November 2023 | | | Magnetic, ferroelectric, and multiferroic materials | Letter Junyeon Kim, Jun Uzuhashi, Masafumi Horio, Tomoaki Senoo, Dongwook Go, Daegeun Jo, Toshihide Sumi, Tetsuya Wada, Iwao Matsuda, Tadakatsu Ohkubo, Seiji Mitani, Hyun-Woo Lee, and YoshiChika Otani Phys. Rev. Materials 7, L111401 (2023) – Published 22 November 2023 | | | Letter Xiaochen Jin, Shunda Chen, Christopher Lemkan, and Tianshu Li Phys. Rev. Materials 7, L111601 (2023) – Published 13 November 2023 | | | Superconducting materials | Letter M. M. Piva, L. O. Kutelak, R. Borth, Y. Liu, C. Petrovic, R. D. dos Reis, and M. Nicklas Phys. Rev. Materials 7, L111801 (2023) – Published 16 November 2023 | | | Structural and mechanical properties | Zeng-Yu Yang and Lan-Hong Dai Phys. Rev. Materials 7, 113601 (2023) – Published 3 November 2023 | | | Yimei Fang, Yang Sun, Renhai Wang, Feng Zheng, Feng Zhang, Shunqing Wu, Cai-Zhuang Wang, Renata M. Wentzcovitch, and Kai-Ming Ho Phys. Rev. Materials 7, 113602 (2023) – Published 6 November 2023 | | | Martina Ruffino and Anthony T. Paxton Phys. Rev. Materials 7, 113603 (2023) – Published 9 November 2023 | | | Xiaoqing Li Phys. Rev. Materials 7, 113604 (2023) – Published 13 November 2023 | | | Subham Mridha, Abhik Choudhury, and Karthikeyan Subramanian Phys. Rev. Materials 7, 113605 (2023) – Published 14 November 2023 | | | Christoph Dösinger, Max Hodapp, Oleg Peil, Alexander Reichmann, Vsevolod Razumovskiy, Daniel Scheiber, and Lorenz Romaner Phys. Rev. Materials 7, 113606 (2023) – Published 15 November 2023 | | | Vidur Tuli, Patrick Burr, Antoine Claisse, and Claudio Cazorla Phys. Rev. Materials 7, 113607 (2023) – Published 16 November 2023 | | | P. Avraam, D. McGonegle, P. G. Heighway, C. E. Wehrenberg, E. Floyd, A. J. Comley, J. M. Foster, S. D. Rothman, J. Turner, S. Case, and J. S. Wark Phys. Rev. Materials 7, 113608 (2023) – Published 27 November 2023 | | | Development of new methods for materials | Eslam Ibrahim, Yury Lysogorskiy, Matous Mrovec, and Ralf Drautz Phys. Rev. Materials 7, 113801 (2023) – Published 17 November 2023 | | | Two-dimensional materials | Xueao Li, Fan Zhang, Xuefei Wang, Weiwei Gao, and Jijun Zhao Phys. Rev. Materials 7, 114001 (2023) – Published 3 November 2023 | | | Z. Hawkhead, T. J. Hicken, N. P. Bentley, B. M. Huddart, S. J. Clark, and T. Lancaster Phys. Rev. Materials 7, 114002 (2023) – Published 6 November 2023 | | | Sajjan Sheoran, Manjari Jain, Ruman Moulik, and Saswata Bhattacharya Phys. Rev. Materials 7, 114003 (2023) – Published 13 November 2023 | | | Topological and Dirac materials | Ryota Itaya, Yuichiro Toichi, Ryuya Nakanishi, Narunori Ebara, Yoshitaka Nakata, Kentaro Kasai, Kenta Kuroda, Masashi Arita, Isamu Yamamoto, Keisuke Fukutani, and Kazuyuki Sakamoto Phys. Rev. Materials 7, 114201 (2023) – Published 1 November 2023 | | | Samira Sadat Nourizadeh, Aminollah Vaez, and Daryoosh Vashaee Phys. Rev. Materials 7, 114202 (2023) – Published 27 November 2023 | | | Editors' Suggestion Tyler J. Slade, Aashish Sapkota, John M. Wilde, Qiang Zhang, Lin-Lin Wang, Saul H. Lapidus, Juan Schmidt, Thomas Heitmann, Sergey L. Bud'ko, and Paul C. Canfield Phys. Rev. Materials 7, 114203 (2023) – Published 29 November 2023 | The AMnPn2 (A = Alkali earth, Pn = Sb, Bi) materials are widely explored as candidate magnetic topological semimetals. Replacing A with a rare-earth atom (R) produces a comparably underinvestigated family, RMnxPn2, in which charge balance favors Mn vacancies (x 1). Here, the authors map out the compositional dependence of the magnetic properties of LaMnxSb2 as a function of the Mn vacancy concentration. They grow single crystals with x = 0.74-0.97 and find that LaMnxSb2 has an exceptionally rich magnetic phase diagram, with six different antiferromagnetic phases and two different crystal structures, depending on T and x. The highly tunable nature of LaMnxSb2 suggests this material may be a good model system for understanding the effects of disorder on magnetic intermetallic compounds. | | | | | | Magnetic, ferroelectric, and multiferroic materials | Thomas E. Hooper, Tsz Kin Chan, and Derek C. Sinclair Phys. Rev. Materials 7, 114401 (2023) – Published 2 November 2023 | | | Amelia E. Hall, Pascal Manuel, Dmitry D. Khalyavin, Fabio Orlandi, Daniel A. Mayoh, Lieh-Jeng Chang, Yu-Sheng Chen, David G. C. Jonas, Martin R. Lees, and Geetha Balakrishnan Phys. Rev. Materials 7, 114402 (2023) – Published 3 November 2023 | | | Heda Zhang, Andrew F. May, Hu Miao, Brian C. Sales, David G. Mandrus, Stephen E. Nagler, Michael A. McGuire, and Jiaqiang Yan Phys. Rev. Materials 7, 114403 (2023) – Published 13 November 2023 | | | Utkarsh Singh, Johan Klarbring, Igor A. Abrikosov, and Sergei I. Simak Phys. Rev. Materials 7, 114404 (2023) – Published 16 November 2023 | | | Yufan Shen, Mitsutaka Haruta, I-Ching Lin, Lingling Xie, Daisuke Kan, and Yuichi Shimakawa Phys. Rev. Materials 7, 114405 (2023) – Published 16 November 2023 | | | Xin Wang, Yehui Zhang, Shiji Xu, Xiang Ming Chen, Laurent Bellaiche, and Bin Xu Phys. Rev. Materials 7, 114406 (2023) – Published 16 November 2023 | | | Vida Jurečič, Lovro Fulanović, Jurij Koruza, Vid Bobnar, and Nikola Novak Phys. Rev. Materials 7, 114407 (2023) – Published 16 November 2023 | | | Kelly M. Powderly, Qiang Zhang, Kasey P. Devlin, Xin Gui, Danrui Ni, Weiwei Xie, and R. J. Cava Phys. Rev. Materials 7, 114408 (2023) – Published 20 November 2023 | | | Amit Chauhan, Arijit Mandal, and B. R. K. Nanda Phys. Rev. Materials 7, 114409 (2023) – Published 22 November 2023 | | | Timothy J. Bastow, Anita J. Hill, Katherine M. Nairn, and Mark E. Smith Phys. Rev. Materials 7, 114410 (2023) – Published 27 November 2023 | | | Superconducting materials | Ching-Chen Yeh, Thi-Hien Do, Pin-Chi Liao, Chia-Hung Hsu, Yi-Hsin Tu, Hsin Lin, T.-R. Chang, Siang-Chi Wang, Yu-Yao Gao, Yu-Hsun Wu, Chu-Chun Wu, Yu An Lai, Ivar Martin, Sheng-Di Lin, Christos Panagopoulos, and Chi-Te Liang Phys. Rev. Materials 7, 114801 (2023) – Published 3 November 2023 | | | Yu-Lin Han, Hao-Dong Liu, Na Jiao, Meng-Meng Zheng, Hong-Yan Lu, Bao-Tian Wang, and Ping Zhang Phys. Rev. Materials 7, 114802 (2023) – Published 3 November 2023 | | | Armin Sahinovic, Benjamin Geisler, and Rossitza Pentcheva Phys. Rev. Materials 7, 114803 (2023) – Published 6 November 2023 | | | Yang Sun, Kai-Ming Ho, and Vladimir Antropov Phys. Rev. Materials 7, 114804 (2023) – Published 8 November 2023 | | | Da-Bao Zha, Peng Jiang, Hong-Mei Huang, and Yan-Ling Li Phys. Rev. Materials 7, 114805 (2023) – Published 20 November 2023 | | | Other electronic materials | Niraj Bhatt, Pravin Karna, Sandip Thakur, and Ashutosh Giri Phys. Rev. Materials 7, 115001 (2023) – Published 8 November 2023 | | | Aishwarya Mantravadi, Volodymyr Gvozdetskyi, Arka Sarkar, Yaroslav Mudryk, and Julia V. Zaikina Phys. Rev. Materials 7, 115002 (2023) – Published 15 November 2023 | | | Metamaterials, optical, photonic, and plasmonic materials | Zhanhang Du and Jun Mei Phys. Rev. Materials 7, 115201 (2023) – Published 3 November 2023 | | | Materials for energy harvesting, storage, and generation | Shelby R. Turner, Stéphane Pailhès, Leila Ben-Mahfoud, Marc de Boissieu, Frédéric Bourdarot, Helmut Schober, Yvan Sidis, John-Paul Castellan, Andrea Piovano, Alexandre Ivanov, and Valentina M. Giordano Phys. Rev. Materials 7, 115401 (2023) – Published 7 November 2023 | | | Fumiaki Kuroda, Satoshi Hagiwara, and Minoru Otani Phys. Rev. Materials 7, 115402 (2023) – Published 13 November 2023 | | | Soft, molecular, and amorphous materials | Debashish Mukherji, Shubham Agarwal, Tiago Espinosa de Oliveira, Céline Ruscher, and Jörg Rottler Phys. Rev. Materials 7, 115601 (2023) – Published 6 November 2023 | | | Giuseppe Porpora, Andrea Gabriele, Raffaele Pastore, and Francesco Greco Phys. Rev. Materials 7, 115602 (2023) – Published 13 November 2023 | | | Iana Sudreau, Marion Servel, Eric Freyssingeas, François Liénard, Szilvia Karpati, Stéphane Parola, Xavier Jaurand, Pierre-Yves Dugas, Lauren Matthews, Thomas Gibaud, Thibaut Divoux, and Sébastien Manneville Phys. Rev. Materials 7, 115603 (2023) – Published 14 November 2023 | | | Meng-Zhe Chen, Chi-Huan Tung, Chun-Yu Chen, and Hsin-Lung Chen Phys. Rev. Materials 7, 115604 (2023) – Published 15 November 2023 | Unlocking the Frank-Kasper phase in block copolymers represents a significant breakthrough, shedding light on the fundamental principles governing versatile particle arrangements across various size scales. Nevertheless, achieving this intricate phase is a challenging task that demands precise control of factors such as molecular weight, molecular architecture, and conformational asymmetry. Furthermore, the compositional window for this intricate packing is quite narrow. This study contributes a facile method for expanding the window of Frank-Kasper σ phase. By introducing a minute quantity of metal salt into the core of the micelle, the compositional and thermal windows of the Frank-Kasper phase is broadened significantly due to the collective effects of core enlargement and shift of the spherical phase boundary to higher core volume fraction. | | | | | | Materials for catalysis and electrochemistry | Muhammed Fasil Puthiyaparambath and Raghu Chatanathodi Phys. Rev. Materials 7, 115801 (2023) – Published 8 November 2023 | | | Ting Cui, Ting Lin, Qiao Jin, Shengru Chen, Haitao Hong, Qinghua Zhang, Yiyan Fan, Dongke Rong, Jiaou Wang, Can Wang, Lin Gu, Kuijuan Jin, Le Wang, and Er-Jia Guo Phys. Rev. Materials 7, 115802 (2023) – Published 14 November 2023 | | | Jun Haruyama, Toshiki Sugimoto, and Osamu Sugino Phys. Rev. Materials 7, 115803 (2023) – Published 29 November 2023 | | | Featured in Physics Lukas Riedel, Jürgen Markmann, Jörg Weissmüller, and Shan Shi Phys. Rev. Materials 7, 116001 (2023) – Published 15 November 2023 | Researchers can fabricate gold foams that feature small and large pores with specific sizes. | | | | | | | |
No comments:
Post a Comment