E-grāmata: Molecular Modeling for the Design of Novel Performance Chemicals and Materials

"Preface Over the past few decades, molecular modeling (MM) has become an important tool in many academic institutions and industrial laboratories. While the role of MM in biological fields--especially in the design and development of novel drug molecules or formulations--is well established and acknowledged, its direct role in the design and development of performance chemicals and novel materials is still not well known. Questions such as, which new products have resulted from an MM-based approach? arestill often asked. Although MM may be playing an important role in product development, quite often it becomes difficult to predict its direct impact because most of the time the problem being addressed involves a multidisciplinary approach. Further, theassumption that fundamental phenomena being modeled though MM will have a direct impact on the macroscopic and functional properties of a product make the situation more complicated. In most of the cases, MM actually works as an enabler toward novel product and material development (e.g., novel drug molecules in biological application) rather than directly coming up with new products and materials. This precisely is the reason that despite seeing value in MM tools, most engineers and practitioners are often focus on the question, how do I leverage these tools to design and develop novel materials or chemicals for the industry I am working with? Unfortunately, there is no simple answer to this question. Excellent books and very good research publications highlight the most intricate, fundamental, and theoretical details about MM techniques and tools"--

"Preface Over the past few decades, molecular modeling (MM) has become an important tool in many academic institutions and industrial laboratories. While the role of MM in biological fields--especially in the design and development of novel drug molecules or formulations--is well established and acknowledged, its direct role in the design and development of performance chemicals and novel materials is still not well known. Questions such as, which new products have resulted from an MM-based approach? arestill often asked. Although MM may be playing an important role in product development, quite often it becomes difficult to predict its direct impact because most of the time the problem being addressed involves a multidisciplinary approach. Further, theassumption that fundamental phenomena being modeled though MM will have a direct impact on the macroscopic and functional properties of a product make the situation more complicated. In most of the cases, MM actually works as an enabler toward novel product and material development (e.g., novel drug molecules in biological application) rather than directly coming up with new products and materials. This precisely is the reason that despite seeing value in MM tools, most engineers and practitioners are often focus on the question, how do I leverage these tools to design and develop novel materials or chemicals for the industry I am working with? Unfortunately, there is no simple answer to this question. Excellent books and very good research publications highlight the most intricate, fundamental, and theoretical details about MM techniques and tools"--Provided by publisher.

Molecular modeling (MM) tools offer significant benefits in the design of industrial chemical plants and material processing operations. While the role of MM in biological fields is well established, in most cases MM works as an accessory in novel products/materials development rather than a tool for direct innovation. As a result, MM engineers and practitioners are often seized with the question: "How do I leverage these tools to develop novel materials or chemicals in my industry?"

Molecular Modeling for the Design of Novel Performance Chemicals and Materials answers this important question via a simple and practical approach to the MM paradigm. Using case studies, it highlights the importance and usability of MM tools and techniques in various industrial applications. The book presents detailed case studies demonstrating diverse applications such as mineral processing, pharmaceuticals, ceramics, energy storage, electronic materials, paints, coatings, agrochemicals, and personal care.

The book is divided into themed chapters covering a diverse range of industrial case studies, from pharmaceuticals to cement. While not going too in-depth into fundamental aspects, the book covers almost all paradigms of MM, and references are provided for further learning. The text includes more than 100 color illustrations of molecular models.