Jenny Stanford Publishing Pte. Ltd., 2020. — 448 p. — ISBN: 978-981-4267-50-2
This book presents the first ever comprehensive survey of a new family of nanocomposite sorbents “salt in porous matrix” (CSPMs). These composites have recently been developed for selective sorption of water, alcohols, ammonia, and carbon dioxide. They owe their origin to the catchy idea of target-oriented tailoring of materials with predetermined adsorption properties harmonized with a particular adsorption process.
The book develops the concept of target-oriented synthesis and suggests tools for tailoring new adsorbent materials adapted to multiple practical applications. It describes properties of approximately 50 new CSPMs of water, alcohols, ammonia, and carbon dioxide, including the data obtained in the author’s laboratory and literature available by the end of 2018. These data can be used for engineering calculations and analysis of practical applications. The book also discusses potential applications of these sorbents for storage and transformation of low-temperature heat, gas drying, maintenance of relative humidity in museums, and regeneration of heat and moisture in ventilation systems.
Introductory Remarks
Description of Adsorption Equilibrium and Dynamics
Optimal Adsorbent: Basic Requirements
Basic Synthesis Methods
Composite Sorbents of Water Vapour: The Effect of a Confined Salt
Composite Sorbents of Water Vapour: The Effect of a Host Matrix
Composite Sorbents of Methanol
Composite Sorbents of Ammonia
Composite Sorbents of Carbon Dioxide
Thermal Properties of CSPMs
Melting-Solidification of Salt Solution/ Hydrates in the Pores
Molecular Dynamics of Sorbed Water
Sorption Dynamics: An Individual Composite Grain
Sorption Dynamics: A Composite Bed
Isobaric Sorption Dynamics: A Temperature Initiation
Adsorptive Transformation of Heat: Temperature-Driven Cycles
Adsorptive Transformation of Heat: Pressure-Driven Cycles
Regeneration of Heat and Moisture in Ventilation Systems
Maintaining Relative Humidity
Shifting Chemical Equilibrium
Active Heat Insulation