Jinyue Yan – författare

Waste Biorefineries: Advanced Design Concepts for Integrated Waste to Energy Processes presents a detailed guide to the design of energy-efficient and cost-effective waste-integrated biorefineries. Integrating thermochemical processing of waste with existing waste-to-energy technologies, the book includes the latest developments and technologies. It introduces current waste valorization techniques and examines reasons to modify existing waste-to-energy systems through the integration of new processes. In addition, the book explains the design of novel biorefineries and methods to assess these processes alongside detailed results, including the integration of waste-based CHP plants with waste gasification and the integration of pyrolysis technologies and biogas plants with waste thermochemical processing.Other sections discuss the issues and challenges of commercializing waste-to-energy technologies, including uncertainty in waste thermochemical process designs, the environmental impact of waste-integrated biorefineries, and the role of integrated waste-to-energy management in smart cities and urban energy systems. This book will be an invaluable reference for students, researchers and those in industry who are interested in the design and implementation of waste-to-energy systems, waste biomass-based combined heat and power plants, biogas plants and forest-based industries. Presents advanced and novel waste conversion processes and provides the tools, data and models for waste-to-energy processes and waste biorefineries availability Provides comprehensive uncertainty analysis of waste-to-energy designs and modelling processes Examines the replicability potential of methods for the design of waste biorefineries for different regions and markets with different sets of products

Waste Biorefineries: Advanced Design Concepts for Integrated Waste to Energy Processes presents a detailed guide to the design of energy-efficient and cost-effective waste-integrated biorefineries. Integrating thermochemical processing of waste with existing waste-to-energy technologies, the book includes the latest developments and technologies. It introduces current waste valorization techniques and examines reasons to modify existing waste-to-energy systems through the integration of new processes. In addition, the book explains the design of novel biorefineries and methods to assess these processes alongside detailed results, including the integration of waste-based CHP plants with waste gasification and the integration of pyrolysis technologies and biogas plants with waste thermochemical processing.Other sections discuss the issues and challenges of commercializing waste-to-energy technologies, including uncertainty in waste thermochemical process designs, the environmental impact of waste-integrated biorefineries, and the role of integrated waste-to-energy management in smart cities and urban energy systems. This book will be an invaluable reference for students, researchers and those in industry who are interested in the design and implementation of waste-to-energy systems, waste biomass-based combined heat and power plants, biogas plants and forest-based industries.- Presents advanced and novel waste conversion processes and provides the tools, data and models for waste-to-energy processes and waste biorefineries availability- Provides comprehensive uncertainty analysis of waste-to-energy designs and modelling processes- Examines the replicability potential of methods for the design of waste biorefineries for different regions and markets with different sets of products

Thermal Energy Storage in Porous Media: Design and Applications introduces new design concepts and operation strategies for the core part of heat and mass transfer in thermal energy storage tanks. With a strong focus on design, operation, and optimization, the book presents the latest advances in thermal energy storage. Opening with an introduction to latent heat thermal storage, the book then discusses porous media-enhanced thermal storage classifications, methods, and characterizations. Subsequent topics include energy charging/discharging system design, numerical simulation models and verification, and an analysis of various melting/solidification laws. Finishing with a detailed presentation of applications and packed with case studies and real-world examples throughout, this book is an essential read for graduate students, researchers, and engineers interested in thermal engineering, energy systems, and renewable energy.

Presents the emerging design concept of using porous media, such as metal foam, for heat transfer enhancementDetails mechanisms and processes for the process of transient phenomenon of thermal energy storage/release in porous mediaDescribes comparable analysis and modeling methods for the transient problem, including the volume averaged method and the pore-scale reconstruction approachProvides the key to utilizing renewable energy through balancing the mismatch of space and time for energy supply and demandHarnesses renewable energy through thermal energy storage to advance clean, sustainable, and affordable solutions in alignment with UN SDGs

Thermal Energy Storage in Porous Media introduces the new design concepts and operation strategies for the core part of heat and mass transfer in thermal energy storage tanks. With a strong focus on design, operation and optimization, the book presents the latest advances in thermal energy storage.Opening with an introduction to latent heat thermal storage, the book then discusses porous media enhanced thermal storage classifications, methods and characterizations. Subsequent topics include energy charging/discharging system design, numerical simulation models and verification, and an analysis of various melting/solidification laws. Finishing with a detailed presentation of applications and containing case studies and real-world examples throughout, this is an essential read for graduate students, researchers and engineers interested in thermal engineering, energy systems, and renewable energy.- Presents the emerging design concept of using porous media, such as metal foam, for heat transfer enhancement- Details mechanisms and processes for the transient phenomena of thermal energy storage/release process in porous media- Describes comparable analysis and modeling methods for the transient problem, including the volume-averaged method, pore-scale reconstruction approach, and the Lattice Boltzmann method