Tonni Agustiono Kurniawan – författare

Accelerating the Transition to a Hydrogen Economy: Achieving Carbon Neutrality provides a guide to the transition to net zero carbon emissions through the hydrogen economy. Within the context of the Industrial Revolution 4.0, the book explores the implications of the hydrogen economy on the nexus of food-waste-energy and provides an overview of the impacts of the hydrogen economy on the energy industry. The book examines the role of the hydrogen economy in achieving net zero carbon emissions in the waste sector, methods for achieving decarbonization in different industries and parts of the economy, and the technologies that can achieve this.Each chapter provides a synopsis of the fundamental knowledge and latest developments to ensure readers of all experience levels and backgrounds can benefit from the book. Future perspectives and actionable next steps are suggested alongside case studies that provide a roadmap to decarbonization.

Climate Change Impacts on the Water-Energy-Food Nexus: Net Zero Emissions and Sustainability identifies and assesses climate change impacts on the nexus of food, energy, and waste. It also strives to examine how to contribute to net zero emissions through the water-energy-food nexus.This book elaborates the roles of water, energy, and food nexus in the 4th Industrial Revolution for environmental protection using resource recovery while presenting an in-depth exploration system to reducing carbon emissions to maximize the overall welfare of socio-economic systems and achieve sustainability by addressing sustainable development goals. Climate Change Impacts on the Water-Energy-Food Nexus: Net Zero Emissions and Sustainability provides a comprehensive understanding of possible issues relevant to climate change impacts, the water-energy-food nexus, and net zero emissions.

Accelerating the Transition to a Hydrogen Economy provides a roadmap in the global economy, from carbon to hydrogen. Within the context of the Industrial Revolution 4.0, the book brings together global expertise from academia and industry to accelerate the science, innovation, and practice of the hydrogen economy to address energy challenges and advance UN Sustainable Development Goals. The book highlights the change of paradigm in the global economy from carbon to hydrogen, disseminating knowledge to readers about climate change and providing a critical overview of hydrogen generation and its utilization in various sectors.Each chapter provides a synopsis of the fundamental knowledge and recent developments to ensure readers of all experience levels and backgrounds benefit. Future perspectives and actionable next steps are presented alongside case studies from different region of the world that provide a roadmap to decarbonization and the energy transition.

BiOX-based Photocatalysts for Dual Applications: Water Treatment and Energy Storage presents opportunities for finding balance between the progress in semiconductor materials and their seminal applications in cutting-edge areas of water treatment and energy storage, which mitigate environmental impact. This book provides an understanding of BiOX with respect to the relationship between materials’ structure and photoreaction performance, paving the way for a new direction of photocatalysis technology for the future of water treatment. Subsequently, the development of the next generation of BiOX would allow an efficient collection of sunlight to catalyze chemical reactions, promoting solar energy utilization as the cleanest and most sustainable energy source in the long-term. To reflect this novelty, the works presented in this book focuses on BiOX applications not only for water treatment, but also for energy storage and conversion.Written by world-class experts in their respective fields, this book will be an excellent resource for postgraduate students and postdoctoral researchers and academics in chemical engineering, chemistry, physics, and environmental science doing research on advanced oxidation process (AOP); technicians working in research and development on different uses of BiOX-based material for photocatalytic applications; and waste specialists in the waste and energy industries.

Accelerating the Transition to a Hydrogen Economy: Volume 3 Techno-Economic Feasibility provides a road map in the global economy from carbon to hydrogen. Within the context of the Industrial Revolution 4.0, the book brings together global expertise from academia and industry to accelerate the science, innovation, and practice of the hydrogen economy to address energy challenges and advance the UN Sustainable Development Goals.Divided into 2 parts, this third volume presents the techno-economic feasibility of the hydrogen economy and its policy-associated regulations from the perspective of technology, economics, and the environment. The book examines the development of the hydrogen economy within regional settings as a means for greater development, while presenting a vision for the implementation of the hydrogen economy in the long-term in each region. For each region, case studies are presented to highlight the current state of preparation and potential for a hydrogen economy.Written by an international list of experts from across the fields of academia, industry, and government, Accelerating the Transition to a Hydrogen Economy provides valuable perspectives for scientists, engineers, professionals, and policymakers from developing and developed economies on how to accelerate the transition to the hydrogen economy.

This three-volume set delves into the intersection of cutting-edge technology and environmental science to address pressing challenges in the water sector and develop digitalization solutions that can have practical implementation in decision-making and management of wastewater treatment.

With special emphasis on the integration of big data, artificial intelligence (AI), and machine learning (ML), Volume 1 provides theoretical, foundational, and practical insights for water systems optimization, resource conservation, and sustainable operations; Volume 2 explores pathways to a sustainable, low-carbon future by emphasizing predictive maintenance, energy-efficient operations, leak detection, and climate-adaptive planning; and Volume 3 pursues real-world applications in water supply, wastewater treatment, and flood management through a host of diverse and well-researched case studies.

Ideal for water engineers, researchers, policymakers, and sustainability practitioners, this handbook serves as an essential guide for professionals seeking to harness digitalization for smarter, data-driven water management. It is equally valuable for graduate students, academics, and technology innovators interested in bridging the gap between emerging AI capabilities and practical water sector applications.

This three-volume set delves into the intersection of cutting-edge technology and environmental science to address pressing challenges in the water sector and develop digitalization solutions that can have practical implementation in decision-making and management of wastewater treatment.

With special emphasis on the integration of big data, artificial intelligence (AI), and machine learning (ML), Volume 1 provides theoretical, foundational, and practical insights for water systems optimization, resource conservation, and sustainable operations; Volume 2 explores pathways to a sustainable, low-carbon future by emphasizing predictive maintenance, energy-efficient operations, leak detection, and climate-adaptive planning; and Volume 3 pursues real-world applications in water supply, wastewater treatment, and flood management through a host of diverse and well-researched case studies.

Ideal for water engineers, researchers, policymakers, and sustainability practitioners, this handbook serves as an essential guide for professionals seeking to harness digitalization for smarter, data-driven water management. It is equally valuable for graduate students, academics, and technology innovators interested in bridging the gap between emerging AI capabilities and practical water sector applications.