Strain-dependent insulating state and Kondo effect in epitaxial films
Gaurab Rimal, Tanzila Tasnim, Gabriel Calderon Ortiz, George E. Sterbinsky, Jinwoo Hwang, and Ryan B. Comes
Phys. Rev. Materials 8, L071201 (2024) - Published 8 July, 2024
Abril Azócar Guzmán and Rebecca Janisch
Phys. Rev. Materials 8, 073601 (2024) - Published 1 July, 2024
Hydrogen embrittlement severely impacts structural materials such as iron and its alloys. This study aims to understand hydrogen-enhanced decohesion in ferritic steel grain boundaries (GBs). Density functional theory calculations are carried out to investigate the influence of H on the decohesion of the 5(310)[001] and 3(112)[1-10] symmetrical tilt GBs in body-centered cubic (bcc) Fe and Fe+ systems, where = C, Cr, V, or Mn. The findings indicate that higher local concentrations of hydrogen significantly reduce GB cohesive strength, especially at the 5 GB. However, at finite stress, the 3 GB becomes more favorable for hydrogen segregation, suggesting hydrogen redistribution due to stresses in the microstructure can enhance hydrogen resistance.
Ryan P. Collanton and Kevin D. Dorfman
Phys. Rev. Materials 8, 075604 (2024) - Published 16 July, 2024
When two different polymers are blended, they form phase-separated emulsions with weak interfaces. These recycled materials are inferior to the original plastics, posing a fundamental challenge for recycling mixed plastic waste streams. An emerging solution to this problem is the addition of a multiblock copolymer compatibilizer to “stitch together” the interface. Using coarse-grained molecular dynamics simulations, Collanton and Dorfman examined how interfacial toughness is impacted by the number of blocks in the compatibilizer and the copolymer loading, connecting the microstructural features of the interface to its failure mechanism.
Julien Bauland, Gouranga Manna, Thibaut Divoux, and Thomas Gibaud
Phys. Rev. Materials 8, L072601 (2024) - Published 9 July, 2024
In this study, the authors take advantage of the emergence time-resolved mechanical spectroscopy to investigate the formation and aging of enzymatic milk gels, made of soft natural colloids. By coupling rheometric measurements with structural characterizations, they reveal two sequential steps in the aging process. First, the open particulate network rapidly matures into a compact network, increasing gel elasticity and evolving the viscoelastic spectrum. Second, the microstructure “freezes” at a critical time, after which aging proceeds through contact-driven mechanisms. This two-step aging process is crucial for industrial cheese processing and contrasts with the aging of hard particle colloidal gels, where the overall network structure remains constant throughout aging.
Gaurab Rimal, Tanzila Tasnim, Gabriel Calderon Ortiz, George E. Sterbinsky, Jinwoo Hwang, and Ryan B. Comes
Phys. Rev. Materials 8, L071201 (2024) - Published 8 July, 2024
D. Sando, S. Chen, O. Paull, B. Xu, J. J. L. van Rijn, C. Xu, S. Xu, F. Appert, J. Juraszek, L. Bellaiche, V. Nagarajan, and T. Banerjee
Phys. Rev. Materials 8, L071401 (2024) - Published 12 July, 2024
Jona Grümbel, Rüdiger Goldhahn, Martin Feneberg, Yuichi Oshima, Adam Dubroka, and Manfred Ramsteiner
Phys. Rev. Materials 8, L071601 (2024) - Published 17 July, 2024
Spencer Doyle, Lerato Takana, Margaret A. Anderson, Dan Ferenc Segedin, Hesham El-Sherif, Charles M. Brooks, Xiaoping Wang, Padraic Shafer, Alpha T. N'Diaye, Ismail El Baggari, William D. Ratcliff, Andrés Cano, Quintin N. Meier, and Julia A. Mundy
Phys. Rev. Materials 8, L071602 (2024) - Published 18 July, 2024
Oxide molecular beam epitaxy is a powerful synthesis technique capable of creating complex layered structures with elements in high oxidation states. The authros start with the SrCrO Ruddlesden-Popper series. This system contains the magnetic Cr cation which gives rise to electronic correlations that vary as a function of structural dimensionality: SrCrO and SrCrO possess enhanced spin and orbital ordering temperatures compared to the SrCrO end member. In this work, they synthesize films for to , uncovering a metal to insulator transition. They seek the physical origins of the concomitant spin and orbital orderings – both experimentally with x-ray absorption spectroscopy measurements, and theoretically with density functional theory calculations. Their results unveil the basis of these exotic ground states, including additional structural distortions that play a key role in the system and enable the metal-insulator transitions.
Julien Bauland, Gouranga Manna, Thibaut Divoux, and Thomas Gibaud
Phys. Rev. Materials 8, L072601 (2024) - Published 9 July, 2024
In this study, the authors take advantage of the emergence time-resolved mechanical spectroscopy to investigate the formation and aging of enzymatic milk gels, made of soft natural colloids. By coupling rheometric measurements with structural characterizations, they reveal two sequential steps in the aging process. First, the open particulate network rapidly matures into a compact network, increasing gel elasticity and evolving the viscoelastic spectrum. Second, the microstructure “freezes” at a critical time, after which aging proceeds through contact-driven mechanisms. This two-step aging process is crucial for industrial cheese processing and contrasts with the aging of hard particle colloidal gels, where the overall network structure remains constant throughout aging.
Abril Azócar Guzmán and Rebecca Janisch
Phys. Rev. Materials 8, 073601 (2024) - Published 1 July, 2024
Hydrogen embrittlement severely impacts structural materials such as iron and its alloys. This study aims to understand hydrogen-enhanced decohesion in ferritic steel grain boundaries (GBs). Density functional theory calculations are carried out to investigate the influence of H on the decohesion of the 5(310)[001] and 3(112)[1-10] symmetrical tilt GBs in body-centered cubic (bcc) Fe and Fe+ systems, where = C, Cr, V, or Mn. The findings indicate that higher local concentrations of hydrogen significantly reduce GB cohesive strength, especially at the 5 GB. However, at finite stress, the 3 GB becomes more favorable for hydrogen segregation, suggesting hydrogen redistribution due to stresses in the microstructure can enhance hydrogen resistance.
Alexander Gorfer, Rainer Abart, and Christoph Dellago
Phys. Rev. Materials 8, 073602 (2024) - Published 18 July, 2024
Yu-Nuo Zhou, Zeng-Yu Yang, and Lan-Hong Dai
Phys. Rev. Materials 8, 073603 (2024) - Published 19 July, 2024
A. M. Balagurov, I. A. Bobrikov, D. Yu. Chernyshov, A. S. Sohatsky, S. V. Sumnikov, B. Yerzhanov, and I. S. Golovin
Phys. Rev. Materials 8, 073604 (2024) - Published 22 July, 2024
Wenting Xu, Yang Xue, Ye Zhu, Wei Xu, and Zhongqin Yang
Phys. Rev. Materials 8, 074001 (2024) - Published 1 July, 2024
Yiming Wang, Yiqun Xie, Guoli Lin, and Xiang Ye
Phys. Rev. Materials 8, 074002 (2024) - Published 1 July, 2024
Yu-Chen Chang, Yu-Chiao Chan, Bipul Das, Jiao-Fang Syue, Hsiang-Chi Hu, Yann-Wen Lan, and Ting-Hua Lu
Phys. Rev. Materials 8, 074003 (2024) - Published 15 July, 2024
Mirali Jahangirzadeh Varjovi, Engin Durgun, Gianfranco Pacchioni, and Sergio Tosoni
Phys. Rev. Materials 8, 074004 (2024) - Published 15 July, 2024
Kazuki Yamaguchi, Masahito Niibe, Xiaoni Zhang, Toshihide Sumi, Masafumi Horio, Yasunobu Ando, Jun-ichi Yamaura, Eiken Nakamura, Kiyohisa Tanaka, Takahiro Kondo, and Iwao Matsuda
Phys. Rev. Materials 8, 074005 (2024) - Published 15 July, 2024
Feihao Pan, Daye Xu, Songnan Sun, Jiale Huang, Chenglin Shang, Bingxian Shi, Xuejuan Gui, Jianfei Qin, Hongliang Wang, Lijie Hao, Jinchen Wang, Juanjuan Liu, Hongxia Zhang, and Peng Cheng
Phys. Rev. Materials 8, 074006 (2024) - Published 18 July, 2024
Igor Rozhansky and Vladimir Fal'ko
Phys. Rev. Materials 8, 074007 (2024) - Published 23 July, 2024
Mohammad Shafiei, Farhad Fazileh, François M. Peeters, and Milorad V. Milošević
Phys. Rev. Materials 8, 074201 (2024) - Published 25 July, 2024
V. N. Antonov, D. A. Kukusta, and L. V. Bekenov
Phys. Rev. Materials 8, 074401 (2024) - Published 1 July, 2024
Wei Feng, Qunqing Hao, Xiangfei Yang, Qiang Zhang, Jian Wu, Qin Liu, Yun Zhang, Shiyong Tan, Qiuyun Chen, and Xinchun Lai
Phys. Rev. Materials 8, 074402 (2024) - Published 2 July, 2024
R. Hissariya, N. Tripathi, S. K. Mishra, Vivekanand Shukla, and T. Brumme
Phys. Rev. Materials 8, 074403 (2024) - Published 8 July, 2024
R. Namba, K. Imamura, R. Ishioka, K. Ishihara, T. Miyamoto, H. Okamoto, Y. Shimizu, Y. Saito, Y. Agarmani, M. Lang, H. Murayama, Y. Xing, S. Suetsugu, Y. Kasahara, Y. Matsuda, K. Hashimoto, and T. Shibauchi
Phys. Rev. Materials 8, 074404 (2024) - Published 10 July, 2024
Abhisek Bandyopadhyay, S. Lee, D. T. Adroja, M. R. Lees, G. B. G. Stenning, P. Aich, Luca Tortora, C. Meneghini, G. Cibin, Adam Berlie, R. A. Saha, D. Takegami, A. Meléndez-Sans, G. Poelchen, M. Yoshimura, K. D. Tsuei, Z. Hu, Ting-Shan Chan, S. Chattopadhyay, G. S. Thakur, and Kwang-Yong Choi
Phys. Rev. Materials 8, 074405 (2024) - Published 15 July, 2024
J. K. Dai, L. Han, W. Q. He, Y. X. Zhu, H. Bai, W. X. Zhu, S. X. Liang, Y. C. Zhang, Y. Z. Cao, J. W. Liu, F. Pan, and C. Song
Phys. Rev. Materials 8, 074406 (2024) - Published 15 July, 2024
Takahiro C. Fujita, Shunsuke Senzaki, Ling-Fei Zhang, and Masashi Kawasaki
Phys. Rev. Materials 8, 074407 (2024) - Published 16 July, 2024
Di Tian, Ludi Miao, Liang Si, Nathaniel J. Schreiber, Shengchun Shen, Jianbing Zhang, Xinyu Shu, Xiaochao Wang, Hari P. Nair, Jacob P. Ruf, Darrell G. Schlom, Kyle M. Shen, and Pu Yu
Phys. Rev. Materials 8, 074408 (2024) - Published 22 July, 2024
A. R. Will-Cole, Valeria Lauter, Alexander Grutter, Carsten Dubs, David A. Lidsky, Morris Lindner, Timmy Reimann, Nirjhar Bhattacharjee, Tzu-Ming Lu, Peter Sharma, Nichole R. Valdez, Charles J. Pearce, Todd C. Monson, Matthew Matzelle, Arun Bansil, Don Heiman, and Nian X. Sun
Phys. Rev. Materials 8, 074409 (2024) - Published 23 July, 2024
Boqiang Li, Xun Chen, Yuqian Zhao, Zhaohua Ma, Zongtang Wan, and Yuesheng Li
Phys. Rev. Materials 8, 074410 (2024) - Published 23 July, 2024
Giordano Mattoni, Kazumi Fukushima, Shingo Yonezawa, Fumihiko Nakamura, and Yoshiteru Maeno
Phys. Rev. Materials 8, 074411 (2024) - Published 24 July, 2024
Wei Chen, Lichen Ji, Xinyu Zhou, Hongxiu Liu, Fanqi Meng, Zichun Zhang, Yaowu Liu, Xiaopeng Hu, Qinghua Zhang, Youguo Shi, Lin Gu, Xi Chen, Qi-Kun Xue, and Shuai-Hua Ji
Phys. Rev. Materials 8, 074601 (2024) - Published 9 July, 2024
V. Ya. Aleshkin and A. A. Dubinov
Phys. Rev. Materials 8, 074602 (2024) - Published 15 July, 2024
Eric Weikum, Abraham Diaz-Damian, Jonathan Houard, Gérald Da Costa, Fabien Delaroche, Angela Vella, Grzegorz Muzioł, Henryk Turski, and Lorenzo Rigutti
Phys. Rev. Materials 8, 074603 (2024) - Published 18 July, 2024
Jing Huang and Jun Kang
Phys. Rev. Materials 8, 074604 (2024) - Published 24 July, 2024
A. S. Ilin, A. O. Strugova, I. A. Cohn, V. V. Pavlovskiy, S. V. Zaitsev-Zotov, A. V. Sadakov, O. A. Sobolevskiy, L. A. Morgun, V. P. Matrovitskii, and G. V. Rybalchenko
Phys. Rev. Materials 8, 074801 (2024) - Published 9 July, 2024
Frank Lechermann, Steffen Bötzel, and Ilya M. Eremin
Phys. Rev. Materials 8, 074802 (2024) - Published 15 July, 2024
Junjie Wang, Xu Liu, Ling Zhang, Jian-gang Guo, and Tianping Ying
Phys. Rev. Materials 8, 074803 (2024) - Published 16 July, 2024
F. Lyzwa, A. Chan, K. Fürsich, B. Keimer, C. Faugeras, Yu. G. Pashkevich, C. Bernhard, M. Minola, and B. P. P. Mallett
Phys. Rev. Materials 8, 074804 (2024) - Published 22 July, 2024
Jihun Park, Jarryd A. Horn, Dylan J. Kirsch, Rohit K. Pant, Hyeok Yoon, Sungha Baek, Suchismita Sarker, Apurva Mehta, Xiaohang Zhang, Seunghun Lee, Richard Greene, Johnpierre Paglione, and Ichiro Takeuchi
Phys. Rev. Materials 8, 074805 (2024) - Published 25 July, 2024
Shivangi Srivastava, Bishal Das, Vishal Bhardwaj, Aftab Alam, Saroj P. Dash, and Ratnamala Chatterjee
Phys. Rev. Materials 8, 075001 (2024) - Published 15 July, 2024
Anil Kumar Rajapitamahuni, Sreejith Nair, Zhifei Yang, Anusha Kamath Manjeshwar, Seung Gyo Jeong, William Nunn, and Bharat Jalan
Phys. Rev. Materials 8, 075002 (2024) - Published 18 July, 2024
Wilson Román Acevedo, Myriam H. Aguirre, Beatriz Noheda, and Diego Rubi
Phys. Rev. Materials 8, 075003 (2024) - Published 22 July, 2024
Zafer Kandemir, Pino D'Amico, Giacomo Sesti, Claudia Cardoso, Milorad V. Milošević, and Cem Sevik
Phys. Rev. Materials 8, 075201 (2024) - Published 22 July, 2024
Fengyu Miao, Jie Li, Lingzhi Wu, Xin Huang, Zhihong Yang, Yunhui Wang, and Yakui Weng
Phys. Rev. Materials 8, 075401 (2024) - Published 18 July, 2024
Anubhav Wadehra, Rajni Chahal, Shubhojit Banerjee, Alexander Levy, Yifan Zhang, Haoxuan Yan, Daniel Olds, Yu Zhong, Uday Pal, Stephen Lam, and Karl Ludwig
Phys. Rev. Materials 8, 075402 (2024) - Published 22 July, 2024
Susumu Minami, Sota Hogaki, and Takahiro Shimada
Phys. Rev. Materials 8, 075403 (2024) - Published 23 July, 2024
Suman Majumder, Subhajit Paul, and Wolfhard Janke
Phys. Rev. Materials 8, 075601 (2024) - Published 8 July, 2024
Sougata Mandal and Reghu Menon
Phys. Rev. Materials 8, 075602 (2024) - Published 9 July, 2024
Joseph D. Hutchinson and Roel P. A. Dullens
Phys. Rev. Materials 8, 075603 (2024) - Published 11 July, 2024
Ryan P. Collanton and Kevin D. Dorfman
Phys. Rev. Materials 8, 075604 (2024) - Published 16 July, 2024
When two different polymers are blended, they form phase-separated emulsions with weak interfaces. These recycled materials are inferior to the original plastics, posing a fundamental challenge for recycling mixed plastic waste streams. An emerging solution to this problem is the addition of a multiblock copolymer compatibilizer to “stitch together” the interface. Using coarse-grained molecular dynamics simulations, Collanton and Dorfman examined how interfacial toughness is impacted by the number of blocks in the compatibilizer and the copolymer loading, connecting the microstructural features of the interface to its failure mechanism.
Sophie Monnery, Shresht Jain, Chris Johnson, Draga Pihler-Puzović, and Finn Box
Phys. Rev. Materials 8, 075605 (2024) - Published 16 July, 2024
Pierre Kawak, Christopher Akiki, and Douglas R. Tree
Phys. Rev. Materials 8, 075606 (2024) - Published 23 July, 2024
Ali Khosravi, Jin Wang, Andrea Silva, Andrea Vanossi, and Erio Tosatti
Phys. Rev. Materials 8, 076001 (2024) - Published 1 July, 2024
T. Schreitmüller, D. Kumar Saluja, C. E. Mead, M. Ramsteiner, H. W. Jeong, H. Esmaielpour, C. Huang, D. Ruhstorfer, J. J. Finley, L. J. Lauhon, and G. Koblmüller
Phys. Rev. Materials 8, 076002 (2024) - Published 15 July, 2024
Vladimir G. Dubrovskii
Phys. Rev. Materials 8, 076003 (2024) - Published 19 July, 2024
Nashra Pistawala, Luminita Harnagea, Suman Karmakar, Rajeev Rawat, and Surjeet Singh
Phys. Rev. Materials 8, 076201 (2024) - Published 1 July, 2024