Jude A. Okolie – författare

Hydrogen is poised to play a major role in the transition towards a net-zero economy. However, the worldwide implementation of hydrogen energy is restricted by several challenges, including those related to practical, easy, safe, and cost-effective storage and production methodologies. Nanomaterials present a promising solution, playing an integral role in overcoming the limitations of hydrogen production and storage. This book explores these innovations, covering a wide spectrum of applications of nanomaterials for sustainable hydrogen production and storage.Provides an overview of the hydrogen economy and its role in the transition to a net-zero economy.Details various nanomaterials for hydrogen production and storage as well as modeling and optimization of nanomaterials production.Features real-life case studies on innovations in nanomaterials applications for hydrogen storage.Discusses both the current status and future prospects.Aimed at researchers and professionals in chemical, materials, energy, environmental and related engineering disciplines, this work provides readers with an overview of the latest techniques and materials for the development and advancement of hydrogen energy technologies.

Hydrogen is poised to play a major role in the transition towards a net-zero economy. However, the worldwide implementation of hydrogen energy is restricted by several challenges, including those related to practical, easy, safe, and cost-effective storage and production methodologies. Nanomaterials present a promising solution, playing an integral role in overcoming the limitations of hydrogen production and storage. This book explores these innovations, covering a wide spectrum of applications of nanomaterials for sustainable hydrogen production and storage.Provides an overview of the hydrogen economy and its role in the transition to a net-zero economy.Details various nanomaterials for hydrogen production and storage as well as modeling and optimization of nanomaterials production.Features real-life case studies on innovations in nanomaterials applications for hydrogen storage.Discusses both the current status and future prospects.Aimed at researchers and professionals in chemical, materials, energy, environmental and related engineering disciplines, this work provides readers with an overview of the latest techniques and materials for the development and advancement of hydrogen energy technologies.

With the rise of remote and hybrid learning, there is an increasing need for flexibility around laboratory‑based coursework. This book offers readers a guide to conducting a wide variety of chemistry and chemical engineering labs and experimental procedures that can be completed easily and safely outside of a traditional lab setting, including at home. It helps students and interested readers achieve hands‑on learning of chemistry‑ and chemical engineering‑based concepts without the need for sophisticated lab equipment. Features a comprehensive range of labs on such topics as separation processes, CO2 capture, 3D printing, reaction kinetics, and fuel cells Includes detailed information on how to perform experiments at home via virtual experimental procedures and accompanying videos Uses household and readily accessible materials and provides safe material handling and disposal methods Offers solution spreadsheets where experimental results can be computed and validated Gives background information and relevant theory about each experiment and includes exercises at the end of each chapter Provides Python code and instructions on how to perform experiments, including a bowling exampleThis practical and useful guide is aimed at chemistry and chemical engineering students as well as general readers interested in running experiments in these disciplines. Video supplements to support comprehension of each lab and a solutions spreadsheet for Chapter 1 are available for download.

With the rise of remote and hybrid learning, there is an increasing need for flexibility around laboratory‑based coursework. This book offers readers a guide to conducting a wide variety of chemistry and chemical engineering labs and experimental procedures that can be completed easily and safely outside of a traditional lab setting, including at home. It helps students and interested readers achieve hands‑on learning of chemistry‑ and chemical engineering‑based concepts without the need for sophisticated lab equipment. Features a comprehensive range of labs on such topics as separation processes, CO2 capture, 3D printing, reaction kinetics, and fuel cells Includes detailed information on how to perform experiments at home via virtual experimental procedures and accompanying videos Uses household and readily accessible materials and provides safe material handling and disposal methods Offers solution spreadsheets where experimental results can be computed and validated Gives background information and relevant theory about each experiment and includes exercises at the end of each chapter Provides Python code and instructions on how to perform experiments, including a bowling exampleThis practical and useful guide is aimed at chemistry and chemical engineering students as well as general readers interested in running experiments in these disciplines. Video supplements to support comprehension of each lab and a solutions spreadsheet for Chapter 1 are available for download.

Hydrogen is poised to play a major role in the transition towards a net-zero economy. However, the worldwide implementation of hydrogen energy is restricted by several challenges, including those related to practical, easy, safe, and cost-effective storage and production methodologies. Nanomaterials present a promising solution, playing an integral role in overcoming the limitations of hydrogen production and storage. This book explores these innovations, covering a wide spectrum of applications of nanomaterials for sustainable hydrogen production and storage.

Provides an overview of the hydrogen economy and its role in the transition to a net-zero economy. Details various nanomaterials for hydrogen production and storage as well as modeling and optimization of nanomaterials production. Features real-life case studies on innovations in nanomaterials applications for hydrogen storage. Discusses both the current status and future prospects.

Aimed at researchers and professionals in chemical, materials, energy, environmental and related engineering disciplines, this work provides readers with an overview of the latest techniques and materials for the development and advancement of hydrogen energy technologies.

Hydrogen is poised to play a major role in the transition towards a net-zero economy. However, the worldwide implementation of hydrogen energy is restricted by several challenges, including those related to practical, easy, safe, and cost-effective storage and production methodologies. Nanomaterials present a promising solution, playing an integral role in overcoming the limitations of hydrogen production and storage. This book explores these innovations, covering a wide spectrum of applications of nanomaterials for sustainable hydrogen production and storage.

Provides an overview of the hydrogen economy and its role in the transition to a net-zero economy. Details various nanomaterials for hydrogen production and storage as well as modeling and optimization of nanomaterials production. Features real-life case studies on innovations in nanomaterials applications for hydrogen storage. Discusses both the current status and future prospects.

Aimed at researchers and professionals in chemical, materials, energy, environmental and related engineering disciplines, this work provides readers with an overview of the latest techniques and materials for the development and advancement of hydrogen energy technologies.

With the rise of remote and hybrid learning, there is an increasing need for flexibility around laboratory based coursework. This book offers readers a guide to conducting a wide variety of chemistry and chemical engineering labs and experimental procedures that can be completed easily and safely outside of a traditional lab setting, including at home. It helps students and interested readers achieve hands on learning of chemistry and chemical engineering based concepts without the need for sophisticated lab equipment. Features a comprehensive range of labs on such topics as separation processes, CO2 capture, 3D printing, reaction kinetics, and fuel cells Includes detailed information on how to perform experiments at home via virtual experimental procedures and accompanying videos Uses household and readily accessible materials and provides safe material handling and disposal methods Offers solution spreadsheets where experimental results can be computed and validated Gives background information and relevant theory about each experiment and includes exercises at the end of each chapter Provides Python code and instructions on how to perform experiments, including a bowling example This practical and useful guide is aimed at chemistry and chemical engineering students as well as general readers interested in running experiments in these disciplines. Video supplements to support comprehension of each lab and a solutions spreadsheet for Chapter 1 are available for download.

With the rise of remote and hybrid learning, there is an increasing need for flexibility around laboratory based coursework. This book offers readers a guide to conducting a wide variety of chemistry and chemical engineering labs and experimental procedures that can be completed easily and safely outside of a traditional lab setting, including at home. It helps students and interested readers achieve hands on learning of chemistry and chemical engineering based concepts without the need for sophisticated lab equipment. Features a comprehensive range of labs on such topics as separation processes, CO2 capture, 3D printing, reaction kinetics, and fuel cells Includes detailed information on how to perform experiments at home via virtual experimental procedures and accompanying videos Uses household and readily accessible materials and provides safe material handling and disposal methods Offers solution spreadsheets where experimental results can be computed and validated Gives background information and relevant theory about each experiment and includes exercises at the end of each chapter Provides Python code and instructions on how to perform experiments, including a bowling example This practical and useful guide is aimed at chemistry and chemical engineering students as well as general readers interested in running experiments in these disciplines. Video supplements to support comprehension of each lab and a solutions spreadsheet for Chapter 1 are available for download.

This book highlights 3D-printed biopolymers' advancements and sustainability, exploring cutting-edge research and real-world applications.Biopolymers have garnered global interest due to environmental concerns and are widely utilized in applications such as biomedicine, food, textiles, and cosmetics. Techniques like 3D printing have been extensively studied to fabricate reliable and efficient products, particularly in tissue engineering. These techniques enable the production of materials with complex structures and diverse functional groups.The book provides a comprehensive account of contemporary advancements in 3D-printed biopolymers, emphasizing their role in promoting sustainability and supporting the circular economy. Featuring meticulously curated chapters by leading scientists, it integrates diverse disciplines, including green biopolymers, nanotechnology, functionalization techniques, and material synthesis, offering a holistic understanding of the field. Several chapters delve into 3D printing processing techniques and their applications in areas such as water purification, energy storage, and biomedical advancements. Additionally, the book addresses progress in biopolymer technology, exploring its challenges and future prospects.AudienceThis book is ideal for industrial manufacturers, environmental chemists, materials and biopolymer scientists, and researchers in industries such as biomedicine, food, textiles, packaging, and cosmetics.

This book highlights 3D-printed biopolymers'' advancements and sustainability, exploring cutting-edge research and real-world applications.

Biopolymers have garnered global interest due to environmental concerns and are widely utilized in applications such as biomedicine, food, textiles, and cosmetics. Techniques like 3D printing have been extensively studied to fabricate reliable and efficient products, particularly in tissue engineering. These techniques enable the production of materials with complex structures and diverse functional groups.

The book provides a comprehensive account of contemporary advancements in 3D-printed biopolymers, emphasizing their role in promoting sustainability and supporting the circular economy. Featuring meticulously curated chapters by leading scientists, it integrates diverse disciplines, including green biopolymers, nanotechnology, functionalization techniques, and material synthesis, offering a holistic understanding of the field. Several chapters delve into 3D printing processing techniques and their applications in areas such as water purification, energy storage, and biomedical advancements. Additionally, the book addresses progress in biopolymer technology, exploring its challenges and future prospects.

Audience

This book is ideal for industrial manufacturers, environmental chemists, materials and biopolymer scientists, and researchers in industries such as biomedicine, food, textiles, packaging, and cosmetics.