• Skip navigation
  • Skip to navigation
  • Skip to the bottom
Simulate organization breadcrumb open Simulate organization breadcrumb close
GRK 1896
Suche öffnen
  • UnivIS
  • Mein Campus
  • StudOn
  • IdM Portal
  • FAU Location Map

GRK 1896

Navigation Navigation close
  • Research
    • Project areas
      • Project area A „Functional Nanostructures and Networks“
        • A1: Structure-property relations of nanowire networks
        • A2: Degradation and corrosion at nanostructures and metal surfaces
        • A3: Growth, stabilization and ripening of nanoparticles in suspensions
        • A4: Growth and characterization of thin single crystalline layers for molecular electronics
        • A5: Degradation and corrosion of metalic nanostructures and nanostructured metals
        • A6: Hybride semiconductors – metal nanowire composites for opto-electronic devices
      • Project area B „Mechanical Properties of Interfaces“
        • B1: Mechanical switching of molecules on surfaces
        • B2: Structural changes in nanoparticles under pressure loading
        • B3: Mechanical properties and fracture behavior of thin layers
        • B4: 3D-deformation behavior of nanoporous metals and nanocomposites
        • B5: 3D-structure-property relations at grain boundaries
        • B6: Influence of topology, interfaces and local chemical compositions on the deformations behavior of nanostructures
      • Postdoc project Z: NanoCT – Developing and establishing of novel in situ approaches
    • Publications
    Portal Research
  • Activities
    • Weekly seminar and events
      • Current schedule
      • Archive
        • 2016
        • 2015
        • 2014
        • 2013
    • International symposium
      • Program
      • Registration
    Portal Activities
  • About us
    • PhD students
    • Supervisors
    • Post-Docs
    • Alumni
    • Contact
    Portal About us
  1. Home
  2. Research
  3. Adhesion and friction of particles on model surfaces

Adhesion and friction of particles on model surfaces

In page navigation: Research
  • Mechanical switching of molecules on surfaces
  • Adhesion and friction of particles on model surfaces
  • Strength and toughness of interfaces at small scales
  • Sliding of incommensurate interfaces in layered compounds
  • Plasticity at interfaces in complex compounds
  • Atomistic simulation of mechanical properties of nanostructures and interfaces
  • Structure-property relations of individual nanowires
  • Growth and stability of anisotropic nanoparticles in liquids
  • Nucleation, growth and degradation of anisotropic nanoparticles
  • Geometric and electronic structure of metal-organic nanowires
  • Electrical properties of nanowires and nanowire networks
  • Local leakage currents in nanoparticulate films

Adhesion and friction of particles on model surfaces

We could not find any entry with the given search term -1.

Structural changes in nanoparticles under pressure loading

(Third Party Funds Group – Sub project)

Overall project: In situ Microscopy with Electrons, X-rays and Scanning Probes
Project leader: Wolfgang Peukert, Mathias Göken
Project members: Stefan Romeis, Patrick Herre, Jan Schwenger, Christian Meltzer
Start date: 1. October 2013
End date: 30. September 2017
Extension Datevv: 30. September 2022
Acronym: GRK1896-B2
Funding source: DFG / Graduiertenkolleg (GRK)

Abstract:

The adhesion and friction of particles is of enormous importance in numerous technological applications. At the same time, the physical processes of ​​contact between particles and substrates, in particular in the lower nm range, are often not completely understood. Contact forces of particles on surfaces and between particles strongly depend on the local contact geometry, in particular the local roughness. These nanostructures in the range

Publications:

  • Josten J., Felfer P.:
    Atom Probe Analysis of Nanoparticles through Pick and Coat Sample Preparation
    In: Microscopy and Microanalysis (2021)
    ISSN: 1431-9276
    DOI: 10.1017/S1431927621000465
    BibTeX: Download

Addition information

Search website




  • Imprint
  • Privacy
  • Accessibility
  • RSS Feed
  • Wikipedia
Up