Bridging length and time scales by AFM-based nanotribology : applications to nanostructured ceramics and polymer surfaces

E. Tocha

Research output: ThesisPhD Thesis - Research UT, graduation UT

43 Downloads (Pure)

Abstract

The aim of the work described in this Thesis was to develop the necessary platform for quantitative nanotribology by atomic force microscopy at relevant length and time scales and thereby to contribute to bridge the gap between complementary nano- and microtribology. The primary focus was centered on the development of a nanotribology platform that included reliable quantification procedures for friction force measurements and the extension of the range of scanning velocities to 2 mm/s with full environmental control, as well as on the investigation of relevant tribological phenomena on the nanometer scale. The effects of nanostructure, environment and velocity on friction were revealed for different types of samples, ranging from ceramics to polymers, that are important for various types of applications, e.g. advanced coatings.
Original languageUndefined
Awarding Institution
  • University of Twente
Supervisors/Advisors
  • Vancso, Gyula J., Supervisor
  • Schönherr, Holger, Supervisor
Award date27 Apr 2006
Place of PublicationEnschede
Publisher
Print ISBNs9789036523455
Publication statusPublished - 27 Apr 2006

Keywords

  • IR-55986

Cite this

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title = "Bridging length and time scales by AFM-based nanotribology : applications to nanostructured ceramics and polymer surfaces",
abstract = "The aim of the work described in this Thesis was to develop the necessary platform for quantitative nanotribology by atomic force microscopy at relevant length and time scales and thereby to contribute to bridge the gap between complementary nano- and microtribology. The primary focus was centered on the development of a nanotribology platform that included reliable quantification procedures for friction force measurements and the extension of the range of scanning velocities to 2 mm/s with full environmental control, as well as on the investigation of relevant tribological phenomena on the nanometer scale. The effects of nanostructure, environment and velocity on friction were revealed for different types of samples, ranging from ceramics to polymers, that are important for various types of applications, e.g. advanced coatings.",
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day = "27",
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Bridging length and time scales by AFM-based nanotribology : applications to nanostructured ceramics and polymer surfaces. / Tocha, E.

Enschede : University of Twente, 2006. 194 p.

Research output: ThesisPhD Thesis - Research UT, graduation UT

TY - THES

T1 - Bridging length and time scales by AFM-based nanotribology : applications to nanostructured ceramics and polymer surfaces

AU - Tocha, E.

PY - 2006/4/27

Y1 - 2006/4/27

N2 - The aim of the work described in this Thesis was to develop the necessary platform for quantitative nanotribology by atomic force microscopy at relevant length and time scales and thereby to contribute to bridge the gap between complementary nano- and microtribology. The primary focus was centered on the development of a nanotribology platform that included reliable quantification procedures for friction force measurements and the extension of the range of scanning velocities to 2 mm/s with full environmental control, as well as on the investigation of relevant tribological phenomena on the nanometer scale. The effects of nanostructure, environment and velocity on friction were revealed for different types of samples, ranging from ceramics to polymers, that are important for various types of applications, e.g. advanced coatings.

AB - The aim of the work described in this Thesis was to develop the necessary platform for quantitative nanotribology by atomic force microscopy at relevant length and time scales and thereby to contribute to bridge the gap between complementary nano- and microtribology. The primary focus was centered on the development of a nanotribology platform that included reliable quantification procedures for friction force measurements and the extension of the range of scanning velocities to 2 mm/s with full environmental control, as well as on the investigation of relevant tribological phenomena on the nanometer scale. The effects of nanostructure, environment and velocity on friction were revealed for different types of samples, ranging from ceramics to polymers, that are important for various types of applications, e.g. advanced coatings.

KW - IR-55986

M3 - PhD Thesis - Research UT, graduation UT

SN - 9789036523455

PB - University of Twente

CY - Enschede

ER -