Fcc Structure

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Sandra Vergara - One of the best experts on this subject based on the ideXlab platform.

  • MicroED Structure of Au 146 (p-MBA) 57 at Subatomic Resolution Reveals a Twinned Fcc Cluster
    Journal of Physical Chemistry Letters, 2017
    Co-Authors: Sandra Vergara, Dylan Lukes, Michael Martynowycz, Ulises Santiago, Germán Plascencia-villa, Simon Weiss, M. Jason De La Cruz, David Black, Marcos Alvarez, Xóchitl López-lozano
    Abstract:

    Solving the atomic Structure of metallic clusters is fundamental to understanding their optical, electronic, and chemical properties. Herein we present the Structure of the largest aqueous gold cluster, Au 146 (p-MBA) 57 (p-MBA: para-mercaptobenzoic acid), solved by electron diffraction (MicroED) to subatomic resolution (0.85 Å) and by X-ray diffraction at atomic resolution (1.3 Å). The 146 gold atoms may be decomposed into two constituent sets consisting of 119 core and 27 peripheral atoms. The core atoms are organized in a twinned Fcc Structure whereas the surface gold atoms follow a C 2 rotational symmetry about an axis bisecting the twinning plane. The protective layer of 57 p-MBAs fully encloses the cluster and comprises bridging, monomeric, and dimeric staple motifs. Au 146 (p-MBA) 57 is the largest cluster observed exhibiting a bulk-like Fcc Structure as well as the smallest gold particle exhibiting a stacking fault.

  • microed Structure of au146 p mba 57 at subatomic resolution reveals a twinned Fcc cluster
    Journal of Physical Chemistry Letters, 2017
    Co-Authors: Sandra Vergara, Michael Martynowycz, Ulises Santiago, Dylan A Lukes, German Plascenciavilla, Simon C Weiss, Jason M De La Cruz, David M Black, Marcos M Alvarez, Xochitl Lopezlozano
    Abstract:

    Solving the atomic Structure of metallic clusters is fundamental to understanding their optical, electronic, and chemical properties. Herein we present the Structure of the largest aqueous gold cluster, Au146(p-MBA)57 (p-MBA: para-mercaptobenzoic acid), solved by electron micro-diffraction (MicroED) to subatomic resolution (0.85 A) and by X-ray diffraction at atomic resolution (1.3 A). The 146 gold atoms may be decomposed into two constituent sets consisting of 119 core and 27 peripheral atoms. The core atoms are organized in a twinned Fcc Structure, whereas the surface gold atoms follow a C2 rotational symmetry about an axis bisecting the twinning plane. The protective layer of 57 p-MBAs fully encloses the cluster and comprises bridging, monomeric, and dimeric staple motifs. Au146(p-MBA)57 is the largest cluster observed exhibiting a bulk-like Fcc Structure as well as the smallest gold particle exhibiting a stacking fault.

  • microed Structure of au146 p mba 57 at subatomic resolution reveals a twinned Fcc cluster
    arXiv: Atomic and Molecular Clusters, 2017
    Co-Authors: Sandra Vergara, Michael Martynowycz, Ulises Santiago, Dylan A Lukes, German Plascenciavilla, Simon C Weiss, Jason M De La Cruz, David M Black, Marcos M Alvarez, Xochitl Lopezlozano
    Abstract:

    Solving the atomic Structure of metallic clusters is fundamental to understanding their optical, electronic, and chemical properties. We report the Structure of Au$_{\text{146}}$(p-MBA)$_{\text{57}}$ at subatomic resolution (0.85 {\AA}) using electron diffraction (MicroED) and atomic resolution by X-ray diffraction. The 146 gold atoms may be decomposed into two constituent sets consisting of 119 core and 27 peripheral atoms. The core atoms are organized in a twinned Fcc Structure whereas the surface gold atoms follow a C$_{2}$ rotational symmetry about an axis bisecting the twinning plane. The protective layer of 57 p-MBAs fully encloses the cluster and comprises bridging, monomeric, and dimeric staple motifs. Au$_{\text{146}}$(p-MBA)$_{\text{57}}$ is the largest cluster observed exhibiting a bulk-like Fcc Structure as well as the smallest gold particle exhibiting a stacking fault.

Xochitl Lopezlozano - One of the best experts on this subject based on the ideXlab platform.

  • microed Structure of au146 p mba 57 at subatomic resolution reveals a twinned Fcc cluster
    Journal of Physical Chemistry Letters, 2017
    Co-Authors: Sandra Vergara, Michael Martynowycz, Ulises Santiago, Dylan A Lukes, German Plascenciavilla, Simon C Weiss, Jason M De La Cruz, David M Black, Marcos M Alvarez, Xochitl Lopezlozano
    Abstract:

    Solving the atomic Structure of metallic clusters is fundamental to understanding their optical, electronic, and chemical properties. Herein we present the Structure of the largest aqueous gold cluster, Au146(p-MBA)57 (p-MBA: para-mercaptobenzoic acid), solved by electron micro-diffraction (MicroED) to subatomic resolution (0.85 A) and by X-ray diffraction at atomic resolution (1.3 A). The 146 gold atoms may be decomposed into two constituent sets consisting of 119 core and 27 peripheral atoms. The core atoms are organized in a twinned Fcc Structure, whereas the surface gold atoms follow a C2 rotational symmetry about an axis bisecting the twinning plane. The protective layer of 57 p-MBAs fully encloses the cluster and comprises bridging, monomeric, and dimeric staple motifs. Au146(p-MBA)57 is the largest cluster observed exhibiting a bulk-like Fcc Structure as well as the smallest gold particle exhibiting a stacking fault.

  • microed Structure of au146 p mba 57 at subatomic resolution reveals a twinned Fcc cluster
    arXiv: Atomic and Molecular Clusters, 2017
    Co-Authors: Sandra Vergara, Michael Martynowycz, Ulises Santiago, Dylan A Lukes, German Plascenciavilla, Simon C Weiss, Jason M De La Cruz, David M Black, Marcos M Alvarez, Xochitl Lopezlozano
    Abstract:

    Solving the atomic Structure of metallic clusters is fundamental to understanding their optical, electronic, and chemical properties. We report the Structure of Au$_{\text{146}}$(p-MBA)$_{\text{57}}$ at subatomic resolution (0.85 {\AA}) using electron diffraction (MicroED) and atomic resolution by X-ray diffraction. The 146 gold atoms may be decomposed into two constituent sets consisting of 119 core and 27 peripheral atoms. The core atoms are organized in a twinned Fcc Structure whereas the surface gold atoms follow a C$_{2}$ rotational symmetry about an axis bisecting the twinning plane. The protective layer of 57 p-MBAs fully encloses the cluster and comprises bridging, monomeric, and dimeric staple motifs. Au$_{\text{146}}$(p-MBA)$_{\text{57}}$ is the largest cluster observed exhibiting a bulk-like Fcc Structure as well as the smallest gold particle exhibiting a stacking fault.

Ulises Santiago - One of the best experts on this subject based on the ideXlab platform.

  • MicroED Structure of Au 146 (p-MBA) 57 at Subatomic Resolution Reveals a Twinned Fcc Cluster
    Journal of Physical Chemistry Letters, 2017
    Co-Authors: Sandra Vergara, Dylan Lukes, Michael Martynowycz, Ulises Santiago, Germán Plascencia-villa, Simon Weiss, M. Jason De La Cruz, David Black, Marcos Alvarez, Xóchitl López-lozano
    Abstract:

    Solving the atomic Structure of metallic clusters is fundamental to understanding their optical, electronic, and chemical properties. Herein we present the Structure of the largest aqueous gold cluster, Au 146 (p-MBA) 57 (p-MBA: para-mercaptobenzoic acid), solved by electron diffraction (MicroED) to subatomic resolution (0.85 Å) and by X-ray diffraction at atomic resolution (1.3 Å). The 146 gold atoms may be decomposed into two constituent sets consisting of 119 core and 27 peripheral atoms. The core atoms are organized in a twinned Fcc Structure whereas the surface gold atoms follow a C 2 rotational symmetry about an axis bisecting the twinning plane. The protective layer of 57 p-MBAs fully encloses the cluster and comprises bridging, monomeric, and dimeric staple motifs. Au 146 (p-MBA) 57 is the largest cluster observed exhibiting a bulk-like Fcc Structure as well as the smallest gold particle exhibiting a stacking fault.

  • microed Structure of au146 p mba 57 at subatomic resolution reveals a twinned Fcc cluster
    Journal of Physical Chemistry Letters, 2017
    Co-Authors: Sandra Vergara, Michael Martynowycz, Ulises Santiago, Dylan A Lukes, German Plascenciavilla, Simon C Weiss, Jason M De La Cruz, David M Black, Marcos M Alvarez, Xochitl Lopezlozano
    Abstract:

    Solving the atomic Structure of metallic clusters is fundamental to understanding their optical, electronic, and chemical properties. Herein we present the Structure of the largest aqueous gold cluster, Au146(p-MBA)57 (p-MBA: para-mercaptobenzoic acid), solved by electron micro-diffraction (MicroED) to subatomic resolution (0.85 A) and by X-ray diffraction at atomic resolution (1.3 A). The 146 gold atoms may be decomposed into two constituent sets consisting of 119 core and 27 peripheral atoms. The core atoms are organized in a twinned Fcc Structure, whereas the surface gold atoms follow a C2 rotational symmetry about an axis bisecting the twinning plane. The protective layer of 57 p-MBAs fully encloses the cluster and comprises bridging, monomeric, and dimeric staple motifs. Au146(p-MBA)57 is the largest cluster observed exhibiting a bulk-like Fcc Structure as well as the smallest gold particle exhibiting a stacking fault.

  • microed Structure of au146 p mba 57 at subatomic resolution reveals a twinned Fcc cluster
    arXiv: Atomic and Molecular Clusters, 2017
    Co-Authors: Sandra Vergara, Michael Martynowycz, Ulises Santiago, Dylan A Lukes, German Plascenciavilla, Simon C Weiss, Jason M De La Cruz, David M Black, Marcos M Alvarez, Xochitl Lopezlozano
    Abstract:

    Solving the atomic Structure of metallic clusters is fundamental to understanding their optical, electronic, and chemical properties. We report the Structure of Au$_{\text{146}}$(p-MBA)$_{\text{57}}$ at subatomic resolution (0.85 {\AA}) using electron diffraction (MicroED) and atomic resolution by X-ray diffraction. The 146 gold atoms may be decomposed into two constituent sets consisting of 119 core and 27 peripheral atoms. The core atoms are organized in a twinned Fcc Structure whereas the surface gold atoms follow a C$_{2}$ rotational symmetry about an axis bisecting the twinning plane. The protective layer of 57 p-MBAs fully encloses the cluster and comprises bridging, monomeric, and dimeric staple motifs. Au$_{\text{146}}$(p-MBA)$_{\text{57}}$ is the largest cluster observed exhibiting a bulk-like Fcc Structure as well as the smallest gold particle exhibiting a stacking fault.

Michael Martynowycz - One of the best experts on this subject based on the ideXlab platform.

  • MicroED Structure of Au 146 (p-MBA) 57 at Subatomic Resolution Reveals a Twinned Fcc Cluster
    Journal of Physical Chemistry Letters, 2017
    Co-Authors: Sandra Vergara, Dylan Lukes, Michael Martynowycz, Ulises Santiago, Germán Plascencia-villa, Simon Weiss, M. Jason De La Cruz, David Black, Marcos Alvarez, Xóchitl López-lozano
    Abstract:

    Solving the atomic Structure of metallic clusters is fundamental to understanding their optical, electronic, and chemical properties. Herein we present the Structure of the largest aqueous gold cluster, Au 146 (p-MBA) 57 (p-MBA: para-mercaptobenzoic acid), solved by electron diffraction (MicroED) to subatomic resolution (0.85 Å) and by X-ray diffraction at atomic resolution (1.3 Å). The 146 gold atoms may be decomposed into two constituent sets consisting of 119 core and 27 peripheral atoms. The core atoms are organized in a twinned Fcc Structure whereas the surface gold atoms follow a C 2 rotational symmetry about an axis bisecting the twinning plane. The protective layer of 57 p-MBAs fully encloses the cluster and comprises bridging, monomeric, and dimeric staple motifs. Au 146 (p-MBA) 57 is the largest cluster observed exhibiting a bulk-like Fcc Structure as well as the smallest gold particle exhibiting a stacking fault.

  • microed Structure of au146 p mba 57 at subatomic resolution reveals a twinned Fcc cluster
    Journal of Physical Chemistry Letters, 2017
    Co-Authors: Sandra Vergara, Michael Martynowycz, Ulises Santiago, Dylan A Lukes, German Plascenciavilla, Simon C Weiss, Jason M De La Cruz, David M Black, Marcos M Alvarez, Xochitl Lopezlozano
    Abstract:

    Solving the atomic Structure of metallic clusters is fundamental to understanding their optical, electronic, and chemical properties. Herein we present the Structure of the largest aqueous gold cluster, Au146(p-MBA)57 (p-MBA: para-mercaptobenzoic acid), solved by electron micro-diffraction (MicroED) to subatomic resolution (0.85 A) and by X-ray diffraction at atomic resolution (1.3 A). The 146 gold atoms may be decomposed into two constituent sets consisting of 119 core and 27 peripheral atoms. The core atoms are organized in a twinned Fcc Structure, whereas the surface gold atoms follow a C2 rotational symmetry about an axis bisecting the twinning plane. The protective layer of 57 p-MBAs fully encloses the cluster and comprises bridging, monomeric, and dimeric staple motifs. Au146(p-MBA)57 is the largest cluster observed exhibiting a bulk-like Fcc Structure as well as the smallest gold particle exhibiting a stacking fault.

  • microed Structure of au146 p mba 57 at subatomic resolution reveals a twinned Fcc cluster
    arXiv: Atomic and Molecular Clusters, 2017
    Co-Authors: Sandra Vergara, Michael Martynowycz, Ulises Santiago, Dylan A Lukes, German Plascenciavilla, Simon C Weiss, Jason M De La Cruz, David M Black, Marcos M Alvarez, Xochitl Lopezlozano
    Abstract:

    Solving the atomic Structure of metallic clusters is fundamental to understanding their optical, electronic, and chemical properties. We report the Structure of Au$_{\text{146}}$(p-MBA)$_{\text{57}}$ at subatomic resolution (0.85 {\AA}) using electron diffraction (MicroED) and atomic resolution by X-ray diffraction. The 146 gold atoms may be decomposed into two constituent sets consisting of 119 core and 27 peripheral atoms. The core atoms are organized in a twinned Fcc Structure whereas the surface gold atoms follow a C$_{2}$ rotational symmetry about an axis bisecting the twinning plane. The protective layer of 57 p-MBAs fully encloses the cluster and comprises bridging, monomeric, and dimeric staple motifs. Au$_{\text{146}}$(p-MBA)$_{\text{57}}$ is the largest cluster observed exhibiting a bulk-like Fcc Structure as well as the smallest gold particle exhibiting a stacking fault.

Xóchitl López-lozano - One of the best experts on this subject based on the ideXlab platform.

  • MicroED Structure of Au 146 (p-MBA) 57 at Subatomic Resolution Reveals a Twinned Fcc Cluster
    Journal of Physical Chemistry Letters, 2017
    Co-Authors: Sandra Vergara, Dylan Lukes, Michael Martynowycz, Ulises Santiago, Germán Plascencia-villa, Simon Weiss, M. Jason De La Cruz, David Black, Marcos Alvarez, Xóchitl López-lozano
    Abstract:

    Solving the atomic Structure of metallic clusters is fundamental to understanding their optical, electronic, and chemical properties. Herein we present the Structure of the largest aqueous gold cluster, Au 146 (p-MBA) 57 (p-MBA: para-mercaptobenzoic acid), solved by electron diffraction (MicroED) to subatomic resolution (0.85 Å) and by X-ray diffraction at atomic resolution (1.3 Å). The 146 gold atoms may be decomposed into two constituent sets consisting of 119 core and 27 peripheral atoms. The core atoms are organized in a twinned Fcc Structure whereas the surface gold atoms follow a C 2 rotational symmetry about an axis bisecting the twinning plane. The protective layer of 57 p-MBAs fully encloses the cluster and comprises bridging, monomeric, and dimeric staple motifs. Au 146 (p-MBA) 57 is the largest cluster observed exhibiting a bulk-like Fcc Structure as well as the smallest gold particle exhibiting a stacking fault.