Zhang Lin – författare

Modeling and simulation (M&S) based systems engineering (MSBSE) is the extension of MBSE, which enhances the value of MBSE and the ability of digitally evaluating and optimizing the whole system through comprehensive applications of M&S technologies. This book puts together the recent research in MSBSE, and hopefully this will provide the researchers and engineers with reference cases in M&S technologies to support the R&D of complex products and systems.

This book provides a comprehensive exploration of methods and insights for understanding and improving thermal comfort in outdoor environments. Outdoor thermal comfort has become an increasingly critical area of research, especially in the context of climate change and urbanization. It presents cutting-edge techniques for measuring environmental parameters, such as radiant temperature and ground temperature, while introducing innovative modifications to established thermal indices like the Physiological Equivalent Temperature Index (PET) and the Universal Thermal Climate Index (UTCI). The book also delves into human factors such as metabolic rates and behavioral adaptations, offering a nuanced perspective on the interaction between individuals and their thermal environment. Distinguished by its integration of real-world case studies, validated models, and practical design guidelines, this book features a rich array of illustrations, comparative analyses, and novel frameworks for urban cooling and heat stress mitigation. Its value lies in equipping readers with the tools to assess thermal comfort more effectively, design climate-resilient spaces, and promote safer outdoor environments. Targeted at researchers, urban planners, environmental engineers, and policymakers, this book serves as both a foundational resource for academic study and a practical guide for professionals addressing the challenges of outdoor thermal comfort.

This book investigates the creation of healthy and thermally comfortable built environments in a low-carbon manner with advanced air distribution, i.e., stratum ventilation. Stratum ventilation efficiently supplies conditioned and clean air to the head level of occupants for thermal comfort and inhaled air quality and largely reduces energy consumption and CO2 emission, e.g., by 44% and 32%, respectively, compared with the conventional air distribution method. This book provides the working principles, performance evaluations methods, design methods, operation methods, and different application scenarios (particularly highlighting airborne infection risk control of respiratory diseases and integrated application with renewable energy) of stratum ventilation, to provide theoretical understandings and technical guidelines of stratum ventilation. The book is intended for undergraduate and graduate students, researchers, and engineers who are interested in cutting-edge technologies of livable and sustainable built environments.