singlecrystal inverse pole figure software

Chiral metal surfaces for enantioselective processes. Colloids and Surfaces B: Biointerfaces 2020, 195, 111268. Recognition at chiral interfaces: From molecules to cells. Yingyi Ma, Lei Shi, Hongyan Yue, Xin Gao.Preparation of single-crystal metal substrates for the growth of high-quality two-dimensional materials. Yanglizhi Li, Luzhao Sun, Haiyang Liu, Yuechen Wang, Zhongfan Liu.Directing electrochemical asymmetric synthesis at heterogeneous interfaces: Past, present, and challenges. Dong Il Park, Sangmin Jung, Hyo Jae Yoon, Kyoungsuk Jin.Journal of the American Chemical Society 2019, 141 Synthesis, Characterization, and Electrochemical Applications of Chiral Imprinted Mesoporous Ni Surfaces. Sunpet Assavapanumat, Marisa Ketkaew, Alexander Kuhn, Chularat Wattanakit.A Most Enantioselective Chiral Surface: Tartaric Acid on All Surfaces Vicinal to Cu(110). Burcu Karagoz, Matthew Payne, Aaron Reinicker, Petro Kondratyuk, Andrew J.The Journal of Physical Chemistry C 2020, 124 Epitaxial Electrodeposition of Cu(111) onto an l-Cysteine Self-Assembled Monolayer on Au(111) and Epitaxial Lift-Off of Single-Crystal-like Cu Foils for Flexible Electronics. Epitaxial Electrodeposition of BiI3 and Topotactic Conversion to Highly Ordered Solar Light-Absorbing Perovskite (CH3NH3)3Bi2I9. Large Scale Chirality Transduction with Functional Molecular Materials. Serena Arnaboldi, Bhavana Gupta, Tiziana Benincori, Giorgia Bonetti, Roberto Cirilli, Alexander Kuhn.An Account of Chiral Metal Surfaces and Their Enantiospecific Chemistry. The Journal of Physical Chemistry C 2022, 126 Fabrication and Characterization of High-Quality Epitaxial Nanocolumnar Niobium Films with Abrupt Interfaces on YSZ(001). Ramana, Nanthakishore Makeswaran, Vishal Zade, Debabrata Das, Susheng Tan, Shuozhi Xu, Irene J. Synthesis of Chiral Au Nanocrystals with Precise Homochiral Facets for Enantioselective Surface Chemistry. Fengxia Wu, Yu Tian, Xiaoxi Luan, Xiali Lv, Fenghua Li, Guobao Xu, Wenxin Niu.This article is cited by 19 publications. The Ag/Au/Si(643) surface showed a preference for the electrochemical oxidation of d-glucose, whereas the Ag/Au/Si(6̅4̅3̅) surface showed preference for the oxidation of l-glucose. Hence, the method provides a pathway for producing chiral surfaces of a wide range of materials, and it obviates the need to work with expensive single crystals. Other metal films including Pt, Ni, Cu, and Ag that are electrodeposited onto the Au films exhibit strong in-plane and out-of-plane order. The (8 14 17) orientation has a similar kinked surface to the (643) surface, but it has staggered kinks. In addition to the (643) orientation, the (8 14 17) orientation of Au is produced on the Si(643) wafers. Au(643) is deposited onto one side of the wafer, and its enantiomer Au(6̅4̅3̅) is deposited on the other side of the wafer. Here, we show the symmetry requirements for surface chirality, and we demonstrate that chiral surfaces can be produced by electrochemically depositing epitaxial films of Au onto commercially available Si(643) wafers. Chiral surfaces offer the possibility of serving as heterogeneous catalysts for chiral synthesis or providing a platform for chiral separation or crystallization. The (643) and (6̅4̅3̅) surfaces are non-superimposable mirror images of each other. An example is the (643) surface of face-centered-cubic metals such as Au. Surfaces of achiral materials exhibit two-dimensional chirality if they lack mirror symmetry.

Singlecrystal inverse pole figure software