The ability to accurately and reproducibly measure the properties and perf- mance characteristics of nanoscale materials, devices, and systems is a critical enabler for progress in fundamental nanoscience, in the design of new nanoma- rials, and ultimately in manufacturing new nanoscale products [1]. This quotation from the US National Nanotechnology Initiative emphasizes the need for measu- ment tools in emerging nanomaterial applications, a eld predicted to generate a multibillion-dollar market within 10 years. One speci c measurement need is for nanomechanical information knowledge on the nanoscale of mechanical prop- ties such as elastic modulus, adhesion, and friction. Accurate information is essential not only to predict the performance of a system before use, but also to evaluate its reliability during or after use. The measurement need is motivated partly by the fact that new applications often involve structures with nanoscale dimensions (e. g. , nanoelectromechanical systems, nanoimprint lithography). Measurements of such structures by necessity must provide nanoscale spatial resolution. Other new structures have larger overall dimensions, but integrate disparate materials on the micro- or nanoscale (e. g. , electronic interconnect, nanocomposites). In such cases, nanoscale information is needed in order to differentiate the properties of the various components. Many methods to measure small-scale mechanical properties have been devised, including ones based on indentation [2 4], on ultrasonics [5,6], and on other phy- cal phenomena [7,8]. Such methods often have drawbacks: they are not suf ciently quantitative, are limited to specialized geometries, and so forth.

First book summarizing the state of the art of this technique Real industrial applications included Includes supplementary material: sn.pub/extras

Autorentext
Harald Fuchs, Jahrgang 1954 und Vater von drei Kindern, lebt in Pforzheim. Er arbeitete viele Jahre selbstständig in der Werbebranche, bis er sich 2004 umorientierte und unter anderem eine Ausbildung als Elektrobiologe absolvierte. 2008 begann er, sein Wissen auf eigenen Vorträgen und Seminaren an die Menschen weiterzugeben. Technologische sowie gesellschaftliche Entwicklungen und Veränderungen stehen dabei stets im Mittelpunkt seiner Betrachtungen.

Zusammenfassung

The volumes XI, XII and XIII examine the physical and technical foundation for recent progress in applied scanning probe techniques. These volumes constitute a timely comprehensive overview of SPM applications. Real industrial applications are included.

Inhalt
Oscillation Control in Dynamic SPM with Quartz Sensors.- Atomic Force Microscope Cantilevers Used as Sensors for Monitoring Microdrop Evaporation.- Mechanical Diode-Based Ultrasonic Atomic Force Microscopies.- Contact Atomic Force Microscopy: A Powerful Tool in Adhesion Science.- Contact Resonance Force Microscopy Techniques for Nanomechanical Measurements.- AFM Nanoindentation Method: Geometrical Effects of the Indenter Tip.- Local Mechanical Properties by Atomic Force Microscopy Nanoindentations.- Thermal Activation Effects in Dynamic Force Spectroscopy and Atomic Friction.