loading page

Electron Transport through Hydrogen Bonded Single-Molecule Junctions
  • +1
  • Jiu-Hong Fang,
  • Zhi-Hao Zhao,
  • Ang-Xuan Li,
  • Lin Wang
Jiu-Hong Fang
China University of Geosciences Beijing
Author Profile
Zhi-Hao Zhao
Northwestern Polytechnical University
Author Profile
Ang-Xuan Li
China University of Geosciences Beijing
Author Profile
Lin Wang
China University of Geosciences Beijing

Corresponding Author:[email protected]

Author Profile

Abstract

Hydrogen bonding is a vital driving force for organizing the hierarchy molecular structure, especially in biologic field. Due to its directionality, selectivity and moderate strength, hydrogen bonding has been extensively introduced into the molecular recognition, sensing and electronic devices. Electric meas-urements at single-molecule level facilitate the investigation of hydrogen bonds and provide a comprehensive understanding of the electron transport properties governed by the hydrogen bonding, which is essential for the development of self-assembled electronic systems. This review provides a de-tailed overview of recent advancements in constructing single-molecule junctions utilizing intramolecular and intermolecular hydrogen bonding. We first introduce the methods utilized for characterizing the electric and dynamic properties of non-covalent interactions. Next, we discuss the mechanisms of electron transport, relevant influencing factors, and typical applications utilizing electrical signals based on single-molecule junctions. Finally, we propose our perspective on the existing challenges and prospective opportunities in utilizing hydrogen bonding for electronic device applications.
27 Jun 20231st Revision Received
29 Jun 2023Submission Checks Completed
29 Jun 2023Assigned to Editor
29 Jun 2023Review(s) Completed, Editorial Evaluation Pending
29 Jun 2023Reviewer(s) Assigned
07 Jul 2023Editorial Decision: Accept