Catálogo de publicaciones

The three-volume Proceedings include: (a) national and international hydrogen energy programs; (b) various hydrogen production methods; (c) transmission, storage and distribution of hydrogen; (d) hydrogen-hydride technology; (e) utilization of hydrogen by transportation, industrial, commercial, residential and utility sectors; (f) environmental effects and benefits of hydrogen energy system; (g) economics of hydrogen production, storage, transmission and utilization.

Hydrogen on semiconductor surfaces has been an area of considerable activity over the last two decades. Structural, thermal, and dynamical properties of hydrogen chemisorbed on crystalline silicon and other semiconductors have been studied in great detail. These properties serve as a reference for related, but more complex systems such as hydrogen at multiple vacancies in crystalline semiconductors or at microvoids in amorphous samples. Interesting from a surface physics point of view is the fact that hydrogen as a monovalent element is an ideal terminator for unsaturated bonds on surfaces and therefore tends to have a large influence on surface reconstruction. A related phenomenon with large technological impact (for example in low cost solar cells) is the passivation of grain boundaries in microcrystalline semiconductors. Finally, hydrogenated semiconductor surfaces always appear as a boundary layer during low-energy hydrogenation of bulk semiconductors, so that a complete description of hydrogen uptake or desorption necessarily has to take these surfaces into account.

This collection of invited and contributed papers has been carefully balanced to deal with amorphous and crystalline semiconductors and surfaces and presents basic and experimental work (basic and applied) as well as theory. The resulting volume presents a summary of the state-of-the-art in the field of hydrogen in semiconductors and will hopefully stimulate future work in this area.

Hydronautics focuses on the major scientific and engineering disciplines related to ocean technology. This book provides information pertinent to the development of offshore oil production.
Organized into seven chapters, this book starts with an overview of the basic description of the primary ocean resources, and then proceeds with a discussion of the ocean environment, which is the major field of the various branches of oceanology. This text then explores the technical detail on marine vehicle systems, including the state-of the-art on ships, platforms, submersibles. Other chapters discuss the ocean dynamics, including waves, current, and coastal waters. This book explores as well the discipline of navigation, underwater navigation, and the general characteristics of navigation systems. The final chapter deals with policy planning, with emphasis on the basic principles needed for policy decisions and the role of government in this field.
This book is a valuable resource for marine scientists and marine engineers.

Hydropedology is a microcosm for what is happening in Soil Science. Once a staid discipline found in schools of agriculture devoted to increasing crop yield, soil science is transforming itself into an interdisciplinary mulch with great significance not only for food production but also climate change, ecology, preservation of natural resources, forestry, and carbon sequestration. Hydropedology brings together pedology (soil characteristics) with hydrology (movement of water) to understand and achieve the goals now associated with modern soil science.

• The first book of its kind in the market
• Highly interdisciplinary, involving new thinking and synergistic approaches
• Stimulating case studies demonstrate the need for hydropedology in various practical applications
• Future directions and new approaches are present to advance this emerging interdisciplinary science

Control volume finite element methods (CVFEM) bridge the gap between finite difference and finite element methods, using the advantages of both methods for simulation of multi-physics problems in complex geometries. In Hydrothermal Analysis in Engineering Using Control Volume Finite Element Method, CVFEM is covered in detail and applied to key areas of thermal engineering. Examples, exercises, and extensive references are used to show the use of the technique to model key engineering problems such as heat transfer in nanofluids (to enhance performance and compactness of energy systems), hydro-magnetic techniques in materials and bioengineering, and convective flow in fluid-saturated porous media. The topics are of practical interest to engineering, geothermal science, and medical and biomedical sciences.

• Introduces a detailed explanation of Control Volume Finite Element Method (CVFEM) to provide for a complete understanding of the fundamentals
• Demonstrates applications of this method in various fields, such as nanofluid flow and heat transfer, MHD, FHD, and porous media
• Offers complete familiarity with the governing equations in which nanofluid is used as a working fluid
• Discusses the governing equations of MHD and FHD
• Provides a number of extensive examples throughout the book
• Bonus appendix with sample computer code