Ali Maleki – författare

Heterogeneous Micro and Nanoscale Composites for the Catalysis of Organic Reactions discusses the major properties and applications of heterogeneous micro and nanoscale composites, including surface coating and functionalization capability, effective physical properties, recovery and reusability, biocompatibility and biodegradability. In addition, preparation strategies and essential analytical methods for the characterization of these materials are investigated. The effects of morphology, porosity and sizes of these composites on catalytic activity are also discussed. This book is an important reference source for materials engineers and chemical engineers who are interested in heterogeneous, thin-scaled materials and catalyzed organic synthesis reactions.

In addition, this book will help researchers design novel structures and apply them in catalytic applications.

Provides information on the preparation, characterization and applications of catalysis of organic reactions Outlines the major catalytic applications of heterogenous nanocomposites Assesses the major challenges of manufacturing heterogenous nanocomposites on an industrial scale

Heterogeneous Micro and Nanoscale Composites for the Catalysis of Organic Reactions discusses the major properties and applications of heterogeneous micro and nanoscale composites, including surface coating and functionalization capability, effective physical properties, recovery and reusability, biocompatibility and biodegradability. In addition, preparation strategies and essential analytical methods for the characterization of these materials are investigated. The effects of morphology, porosity and sizes of these composites on catalytic activity are also discussed. This book is an important reference source for materials engineers and chemical engineers who are interested in heterogeneous, thin-scaled materials and catalyzed organic synthesis reactions.In addition, this book will help researchers design novel structures and apply them in catalytic applications.- Provides information on the preparation, characterization and applications of catalysis of organic reactions- Outlines the major catalytic applications of heterogenous nanocomposites- Assesses the major challenges of manufacturing heterogenous nanocomposites on an industrial scale

Biomedicine faces critical challenges, including the development of targeted drug delivery systems, the creation of effective antibacterial agents, and the advancement of cancer therapies, among others. This book demonstrates how 2D nanomaterials are emerging as powerful solutions and explores the synthesis, characterization, and functionalization of these materials, unlocking their potential to overcome existing limitations. From gene delivery and tissue regeneration to innovative phototherapy and hyperthermia treatments, the book encompasses a broad range of applications. It explores how 2D nanomaterials are revolutionizing biosensors and bioimaging, enabling earlier and more accurate disease detection. Providing key insights for researchers and students in nanomedicine, materials science, chemistry, and bioengineering, this book offers a roadmap for utilizing 2D nanomaterials to tackle pressing biomedical needs and improve patient outcomes. It focuses on major treatment and diagnostic approaches to solve problems.

This book presents a both detailed and comprehensive look at metal–organic frameworks (MOFs), a relatively new class of materials with a broad application potential. The beginning chapters focus on introducing the requisite fundamental knowledge of MOFs with respect to their classification, synthesis, functionalization approaches, and various other physiochemical facets such as structural morphology and coordination chemistry. The remaining chapters cover an array of diverse applications, from areas such as energy storage and environmental remediation, to drug delivery, biosensing, and tissue engineering.Featuring chapters dedicated to the design of novel MOF structures, as well as theoretical calculations via density functional theory and machine learning techniques, this book targets a wide readership of both academic and industrial researchers interested in an in-depth understanding of the latest MOF structure–function relationships, as well as their deployment in a wide variety of coordinated engineering applications.

This book presents a both detailed and comprehensive look at metal–organic frameworks (MOFs), a relatively new class of materials with a broad application potential. The beginning chapters focus on introducing the requisite fundamental knowledge of MOFs with respect to their classification, synthesis, functionalization approaches, and various other physiochemical facets such as structural morphology and coordination chemistry. The remaining chapters cover an array of diverse applications, from areas such as energy storage and environmental remediation, to drug delivery, biosensing, and tissue engineering.Featuring chapters dedicated to the design of novel MOF structures, as well as theoretical calculations via density functional theory and machine learning techniques, this book targets a wide readership of both academic and industrial researchers interested in an in-depth understanding of the latest MOF structure–function relationships, as well as their deployment in a wide variety of coordinated engineering applications.