Submicron Porous Materials, Softcover reprint of the original 1st ed. 2017

This book covers the latest research on porous materials at the submicron scale and inspires readers to better understand the porosity of materials, as well as to develop innovative new materials. A comprehensive range of materials are covered, including carbon-based and organic-based porous materials, porous anodic alumina, silica, and titania-based sol-gel materials. The fabrication, characterization, and applications of these materials are all explored, with applications ranging from sensors, thermoelectrics, catalysis, energy storage, to photovoltaics. Also of practical use for readers are chapters that describe the basics of porous silicon fabrication and its use in optical sensing and drug delivery applications; how thermal transport is affected in porous materials; how to model diffusion in porous materials; and a unique chapter on an innovative spectroscopic technique used to characterize materials' porosity. This is an ideal book for graduate students, researchers, and professionals who work with porous materials.

Structured and Surface-Modified Carbon Xerogel Electrodes for Capacitive Deionization.- Carbon Gels and Their Applications: A Review of Patents.- Robust Mesoporous Polymers Derived from Cross-linked Block Polymer Precursors.- Melt-stretching Polyolefin Microporous Membrane.- AAO Templates with Different Patterns and Channel Shapes.- Porous Thin Film from Sol-Gel.- Synthesis Strategies and Emerging Catalytic Applications of Siliceous Materials with Hierarchically Ordered Porosity.- Porous Silicon: From Optical Sensor to Drug Delivery System.- Modeling Thermal Transport in Nanoporous Semiconductors.- Scale transition for Mass Transport in Porous Structures.- Positron Beam-Based Ortho-Positronium Porosimetry.

Broadens readers’ understanding of the state-of-the-art research in porous materials at the mesoscale Covers many diverse applications of porous materials Demonstrates the several technologies that require the fabrication of submicron-sized features and the control over chemo-physical processes at the mesoscale Includes supplementary material: sn.pub/extras