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Search Publications by: Michael J. Fasolka (Fed)

Displaying 126 - 134 of 134

Techniques for Combinatorial and High-Throughput Microscopy, Part 2: Automated Optical Microscopy Platform for Thin Film Research

January 1, 2003

Author(s)

Sangcheol Kim, A Sehgal, Alamgir Karim, Michael J. Fasolka

Techniques for Combinatorial and High-Throughput Microscopy. Part 1: Gradient Specimen Fabrication for Polymer Thin Films Research

January 1, 2003

Author(s)

A Sehgal, Alamgir Karim, Christopher M. Stafford, Michael J. Fasolka

Combinatorial and high-throughput (C&HT) approaches accelerate research by addressing multiple experimental parameters in a parallel highly efficient fashion. As with traditional materials science, microscopy and imaging of morphology are essential for C

Near-Field Optical Imaging of Microphase Separated and Semi-Crystalline Polymer Systems

January 1, 2002

Author(s)

Michael J. Fasolka, Lori S. Goldner, A Urbas, Jeeseong C. Hwang, Kathryn Beers, P DeRege, Evan L. Thomas

Polymer self-assembly presents an attractive means of creating the micro- and nano-patterned spatial arrays required for many opto-electronic and coatings technologies. Two of these ordering processes are microphase separation (MS), exhibited by block

Block Copolymer Thin Films: Physics and Applications

February 15, 2001

Author(s)

Michael J. Fasolka, A M. Mayes

A two-part review of research concerning block copolymer thin films is presented. The first section summarizes experimental and theoretical studies of the fundamental physics of these systems, concentrating upon the forces that govern film morphology. The

Newton's Rings in Near-Field Optics

January 1, 2001

Author(s)

Lori S. Goldner, Jeeseong Hwang, Garnett W. Bryant, Michael J. Fasolka, P Absil, J V. Hryniewicz, F G. Johnson, H Shen, P T. Ho

We show how Newton's rings manifest themselves in near-field scanning optical microscopy and discuss how this effect can be used with topographic imaging to measure correlated roughness of thin films. In conventional optics, transmission through a thin