Current publication gives hands-on recommendations how to develop a successful course in either the bachelor or the master of chemistry. The author discusses different ways of course building, such as lectures, workshops, seminars and labs, explains how to identify potential improvements for the next run of the class and elucidates the tools to create an efficient learning environment that helps students to understand the nature of chemistry.

Bioorganometallic Chemistry is an excellent introduction to this transdisciplinary field which is straddled with biochemistry, medicine and organometallic chemistry. The book is a comprehensive review on the latest advances of this rapidly growing area, as well as historical background and future trends, revealing a tremendous potential of bioorganometallic compounds as novel drug candidates and diagnostic tools.

The book gives a systematic introduction to green chemistry principles and technologies in inorganic and organic chemistry, polymer sciences and pharmaceutical industry. It also discusses the use of biomass and marine resources for synthesis as well as renewable energy utilization and the concepts and evaluation of recycling economy and eco-industrial parks.

The book provides an excellent introduction to industrial biotechnology, addressing the applications of biomolecules and living systems in industrial manufacturing of various products. Each part of the book is devoted to a certain biotech sector, such as biofuels, food, chemicals, pharmaceuticals and materials. The book also covers the environmental aspects of industrial biotechnology and the principles of bio-based economy.

Modelics is focused on mathematical modelling of chemical kinetics. The authors present the classification of basic models of chemical kinetics, thermokinetics and macrokinetics, as well as their application for the most important chemical transformations, such as combustion and catalysis. Readers will find a detailed description and analysis of different mathematical instruments which can be applied for simulation of reaction dynamics.

The book presents principles of electron magnetic resonance from a chemist’s point-of-view, covering g-tensor theory, isotropical hyperfine structure, anisotropical hyperfine structure and fine structure of spectrum, and relaxation theory. Detailed explanations on quantitative determination of paramagnetic species are given to address readers' difficulties. Written as a physical chemistry graduate textbook, it is also suitable for industry users.

While there is a plethora of excellent, but mostly "tell-it-all'' books on the subject, this one is intended to take a unique place in what today seems to be a still wide open niche for an introductory text on the basics of functional analysis to be taught within the existing constraints of the standard, for the United States, one-semester graduate curriculum (fifteen weeks with two seventy-five-minute lectures per week).　 The book consists of seven chapters and an appendix taking the reader from the fundamentals of abstract spaces (metric, vector, normed vector, and inner product),...