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Sabine Abb

Researcher at Max Planck Society

Publications -  22
Citations -  602

Sabine Abb is an academic researcher from Max Planck Society. The author has contributed to research in topics: Graphene & Nanorod. The author has an hindex of 12, co-authored 22 publications receiving 414 citations. Previous affiliations of Sabine Abb include Indiana University & University of Tübingen.

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Imaging proteins at the single-molecule level

TL;DR: The method to image and reveal structural details of proteins on a truly single-molecule level is reported, using low-energy electron holography to image individual proteins electrospray deposited on freestanding graphene.
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Two-dimensional honeycomb network through sequence-controlled self-assembly of oligopeptides.

TL;DR: This work demonstrates the sequence-controlled fabrication of molecular nanostructures using peptides as bio-organic building blocks for two-dimensional (2D) self-assembly on surfaces and grants insight at the atomic level that will enable the use of oligo- and polypeptides as large, multi-functional bio- organic building blocks, and opens a new route towards rationally designed, bio-inspired surfaces.
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Imaging single glycans

TL;DR: Direct imaging of single glycan molecules that are isolated by mass-selective, soft-landing electrospray ion beam deposition and low-temperature scanning tunnelling microscopy resolves the structures of glycans at sub-nanometre resolution, revealing the connectivity of glycan chains and the types of linkages.
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Robust Surface Nano-Architecture by Alkali–Carboxylate Ionic Bonding

TL;DR: Excellent stability of a self-assembled ionic network on a metal surface at elevated temperatures is demonstrated and comparable strength of intermolecular ionic bonds and intramolecular covalent bonds has been achieved in this surface system.
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Two-Dimensional Folding of Polypeptides into Molecular Nanostructures at Surfaces

TL;DR: The demonstrated 2D-folding scheme resembles many key properties of its native 3D counterpart and shows that functional, molecular nanostructures on surfaces fabricated by folding could be just as versatile and specific.