David S-K. Ting – författare

Climate Change Science: Causes, Effects and Solutions for Global Warming presents unbiased, state-of-the-art, scientific knowledge on climate change and engineering solutions for mitigation. The book expands on all major prospective solutions for tackling climate change in a complete manner. It comprehensively explains the variety of climate solutions currently available, including the remaining challenges associated with each. Effective, complementary solutions for engineering to combat climate change are discussed and elaborated on. Some of the more high-risk proposals are qualitatively and quantitatively compared and contrasted with low-risk mitigation actions to facilitate the formulation of feasible, environmentally-friendly solutions.

The book provides academics, postgraduate students and other readers in the fields of environmental science, climate change, atmospheric sciences and engineering with the information they need for their roles. Through exploring the fundamental information currently available, exergy utilization, large-scale solutions, and current solutions in place, the book is an invaluable look into how climate change can be addressed from an engineering-perspective using scientific models and calculations.

Provides up-to-date, comprehensive research on the causes and effects of climate change - both manmade and natural Explains the scientific data behind climate change from an interdisciplinary perspective Describes the future effects of climate change and the necessity for immediate implementation Presents environmentally-friendly solutions and critically analyzes benefits and drawbacks

Progress in Sustainable Development: Sustainable Engineering Practices provides readers with the latest research and best practices in sustainable engineering in the fields of urban, environmental, energy and sustainability sciences, reflecting a focus on state-of-the art insights and the latest developments. Chapters focus on the key engineering principles of effective resource use, reduction of excess waste, and taking advantage of natural resources to equip readers with the background information and practical considerations of successful implementations of sustainable technical solutions. Each chapter features detailed case studies and figures showing real-world applications of the latest technologies, ensuring they are reproduceable by the reader.

The multidisciplinary chapters include environmentally-friendly technologies and the application of novel initiatives in engineering for infrastructure, renewable energy generation, advanced materials and waste, among other areas, with a strong emphasis on sustainability and conservation of resources.

Provides the most recent developments and novel practices in engineering for furthering sustainable development Takes an interdisciplinary look at sustainable engineering practices across the fields of urban studies, environmental science and energy Includes case studies to show how readers can implement the practical engineering solutions detailed

C. S. Lewis rightly instructed, "The task of the modern educator is not to cut down jungles, but to irrigate deserts." This book aims to achieve this task by pushing the frontiers of scholarship for securing a sustainable future through green energy and infrastructure. This encompasses the notion that what we create is in harmony and integration with both the spatial and temporal domains. Through numerous practical examples and illustrations, this book examines a comprehensive review of the latest science on indoor environmental health, energy requirements for buildings, and the "greening" of infrastructure. Also, it provides a discussion on the underlying properties of biomass and its influence on furthering energy conversion technologies. Energy storage is essential for driving the integration of renewable energy, and different storage approaches are discussed in terms of power balancing, grid stability, and reliability.Features: Focuses on the importance of coupling green energy with green infrastructure Provides an unbiased update of the state-of-the-art of sustainability science Discusses utilizing sustainable building materials for simultaneous improvement in energy, economic, and environmental bottom lines for industry Illuminates practical steps that need to be undertaken to achieve a greener infrastructure Green Energy and Infrastructure: Securing a Sustainable Future is appropriate for researchers, students, and decision-makers seeking the latest, practical information on environmental sustainability.

Based on state-of-the-art science and technologies, this book disseminates the latest advancements concerning the relationship between renewable energy and climate change and presents the best practices to further utilize renewable energy for mitigation. It examines issues of climate change from different renewable energy fronts by the respective experts from around the world. While high-level and in-depth technological advancements are judiciously presented, it also discusses different types of renewable energy and the associated technologies in consideration of the various perspectives of economy, availability, and societal implications in different regions.Features:Discusses the concept of leapfrogging renewable energy technologies in developing countries for the purpose of minimizing human-induced climate change impacts as rapidly as possibleIncludes various options from high technology to sustainable agriculturePresents and compares the latest novel and emerging potential technologiesOutlines how to advance renewable energy by improving energy storage and optimizing financial incentives and managementRenewable Energy for Mitigating Climate Change enlightens readers from a renewable energy perspective on how to best tackle the challenges of climate change. This is a must-read for senior undergraduate and graduate students in environmental studies, decision- and policymakers, educators, and every environmental steward. The interests of all stakeholders, especially future generations, form the thread connecting all the chapters together into a powerful tool to mitigate global climate change.

It was with a great insight when Stephen Hawking uttered, “Intelligence is the ability to adapt to change.” Incidentally, this also paraphrases Albert Einstein’s saying, “The measure of intelligence is the ability to change.” Adaptive Engineering: A Sustainable Development Endeavor aims at complementing sustainable development and technologies with adaptation. This entails engineering innovations that go hand in hand with responsible human behavior change.The book presents various aspects of adaptive engineering in combination with civil and structural engineering, architecture, urban design and infrastructure, as well as environmental engineering, coastal engineering, climate change, ecology, energy management, and much more. It commences with a comprehensive review of the state of the art of adaptive engineering. It then elucidates multiple engineering fronts that have proven to be robust and versatile, paving the way to a resilient, green tomorrow. The contributions from a diverse group of experts present a balanced reference compendium to keep professional engineers, students and researchers, policy makers, and various industry stakeholders abreast with the latest advancements.Focuses on means of engineering effective adaptation for a better tomorrowCovers engineering innovation advances which may help shape future policies contributing to sustainable developmentIllustrates pragmatic solutions which are not only impactful from an environmental standpoint, but also recognize the need for socially sustainable engineering

Tenable Engineering for a Sustainable Future: Integrating SDGs and Natural Resource Utilization offers a comprehensive exploration of sustainable resource management. It delves into how natural resources can be utilized to help achieve the United Nations Sustainable Development Goals (SDGs). This book highlights innovative ideas and technologies that encourage sustainable development and responsible resource utilization. To offer innovative solutions, the volume includes experts from diverse disciplines who examine eco-friendly practices across various global regions.Provides information on tenable engineering of natural resourcesHighlights sustainable natural resources managementDiscusses the interplay between natural resources and Sustainable Development Goals

Age-Friendly Engineering for the Built Environment advocates for inclusive, efficient, and resilient localities by exploring the pivotal role of engineers and addressing challenges. The book considers a broad range of topics specific to the built environment and its dwellers-from well-lit walkways, accessible buildings, pace-sensitive traffic lighting, easily navigable transportation infrastructure and services, aging-in-place housing, multigeneration cultural facilities, wearable devices, AI-powered sensors, and smart assistive equipment to optimize health and safety. Details on the latest advancements, actionable insights from case studies, and application examples strengthen the coverage and amplify its value for advanced students, researchers, practitioners, and other technical stakeholders.The book emphasizes the integration of human-centric planning and design approaches with innovative technologies to enhance accessibility, safety, and quality of life for an aging population as they navigate daily activities, interact with their surroundings, and maintain independence within evolving urban landscapes. The bookConsolidates a state-of-the art discourse on aging demographics from an engineering standpoint to create an age-friendly built environmentPresents multifront engineering approaches to overcome the challenges of older adults, and to better promote broader environmental and social sustainability goalsExpounds on a holistic range of engineering solutions, from microsensors to age-friendly smart communities

Based on state-of-the-art science and technologies, this book disseminates the latest advancements concerning the relationship between renewable energy and climate change and presents the best practices to further utilize renewable energy for mitigation. It examines issues of climate change from different renewable energy fronts by the respective experts from around the world. While high-level and in-depth technological advancements are judiciously presented, it also discusses different types of renewable energy and the associated technologies in consideration of the various perspectives of economy, availability, and societal implications in different regions.Features:Discusses the concept of leapfrogging renewable energy technologies in developing countries for the purpose of minimizing human-induced climate change impacts as rapidly as possibleIncludes various options from high technology to sustainable agriculturePresents and compares the latest novel and emerging potential technologiesOutlines how to advance renewable energy by improving energy storage and optimizing financial incentives and managementRenewable Energy for Mitigating Climate Change enlightens readers from a renewable energy perspective on how to best tackle the challenges of climate change. This is a must-read for senior undergraduate and graduate students in environmental studies, decision- and policymakers, educators, and every environmental steward. The interests of all stakeholders, especially future generations, form the thread connecting all the chapters together into a powerful tool to mitigate global climate change.

The notion that humanity may be too late to alter climate change could potentially lead to fear and therefore the advocacy of implementing radical strategies and/or hastening the execution of certain measures to the extreme. There is evidence that extensive and intensive implementation of some climate change solutions can significantly alter the environment and ecosystems in unintended ways. For example, the microclimate of a field in the proximity and downstream of a closely packed array of wind turbines can be noticeably altered by the modified lower atmospheric fluxes caused by the turbines, which can then negatively affect crop yields. Additionally, some studies have found that large-scale solar fields can result in the modulation of atmospheric circulation, leading to changes in regional precipitation. The Costs of Climate Change Mitigation Innovations: A Pragmatic Outlook provides a forum for discussion on the long-term consequences of various climate strategies. It promotes our striving toward minimizing the potential negative impact of new interventions by performing objective, holistic analyses. The bottom line is that we do not want today's solutions to become tomorrow’s problems.

The notion that humanity may be too late to alter climate change could potentially lead to fear and therefore the advocacy of implementing radical strategies and/or hastening the execution of certain measures to the extreme. There is evidence that extensive and intensive implementation of some climate change solutions can significantly alter the environment and ecosystems in unintended ways. For example, the microclimate of a field in the proximity and downstream of a closely packed array of wind turbines can be noticeably altered by the modified lower atmospheric fluxes caused by the turbines, which can then negatively affect crop yields. Additionally, some studies have found that large-scale solar fields can result in the modulation of atmospheric circulation, leading to changes in regional precipitation. The Costs of Climate Change Mitigation Innovations: A Pragmatic Outlook provides a forum for discussion on the long-term consequences of various climate strategies. It promotes our striving toward minimizing the potential negative impact of new interventions by performing objective, holistic analyses. The bottom line is that we do not want today's solutions to become tomorrow’s problems.

In recent years, unprecedented demographic aging has placed considerable strain on outdated healthcare systems, exacerbating existing challenges and creating new ones. Geriatric care, in particular, necessitates a multidisciplinary approach involving architects and engineers alongside healthcare professionals. Emerging technologies such as artificial intelligence, digital healthcare, nanotechnology, and additive manufacturing offer promising avenues for systematic improvements in healthcare delivery. Transforming Healthcare Infrastructure addresses the issues of demographic aging and embracing digital transformations such as artificial intelligence and offers timely insights into the evolving landscape of healthcare. It also emphasizes the necessity for all stakeholders to embrace these changes for the betterment of healthcare delivery and outcomes. This book serves as a definitive resource for healthcare professionals at all levels, from frontline workers to administrators, as well as researchers and students across various disciplines. Engineers, policymakers, architects, and environmentalists within the healthcare sector will also find it indispensable.Features:Offers timely insights into the evolving landscape of healthcare.Explores emerging technologies such as AI, IoT, robotics, and additive manufacturing used for healthcare solutions.Emphasizes the necessity for all stakeholders to embrace these changes for the betterment of healthcare delivery and outcomes.

Waste Engineering: Closing the Loop from Cradle to Cradle serves as a state-of-the-art reference on waste management advances, bringing together international experts to showcase innovations that transform waste into usable resources. It provides professionals, researchers, engineers, policy makers, architects, and environmentalists with cutting-edge insights on zero waste realization, hazardous waste management, ecological alternatives to harmful practices, and wastewater treatment technologies. It also serves as an indispensable resource for graduate students working on sustainability and those seeking solutions for closing waste loops. The approach encompasses circular economy and net-zero engineering, making biodegradable materials economically attractive, improving resource recovery, and engaging all stakeholders in the simple yet powerful philosophy: waste not.Includes case studies and effective methodologies for turning waste into valuable resources, with special attention to hazardous waste management and ecological alternatives to harmful practices.Demonstrates how waste engineering directly supports multiple UN Sustainable Development Goals, offering practical approaches to simultaneously address health, water quality, sustainable cities, and responsible consumption challenges.Provides analysis of policy frameworks and economic models that can accelerate the transition from linear to circular economies, making natural and biodegradable materials more socially and economically attractive.

A practical and accessible introductory textbook that enables engineering students to design and optimize typical thermofluid systemsEngineering Design and Optimization of Thermofluid Systems is designed to help students and professionals alike understand the design and optimization techniques used to create complex engineering systems that incorporate heat transfer, thermodynamics, fluid dynamics, and mass transfer. Designed for thermal systems design courses, this comprehensive textbook covers thermofluid theory, practical applications, and established techniques for improved performance, efficiency, and economy of thermofluid systems. Students gain a solid understanding of best practices for the design of pumps, compressors, heat exchangers, HVAC systems, power generation systems, and more.Covering the material using a pragmatic, student-friendly approach, the text begins by introducing design, optimization, and engineering economics—with emphasis on the importance of engineering optimization in maximizing efficiency and minimizing cost. Subsequent chapters review representative thermofluid systems and devices and discuss basic mathematical models for describing thermofluid systems. Moving on to system simulation, students work with the classical calculus method, the Lagrange multiplier, canonical search methods, and geometric programming. Throughout the text, examples and practice problems integrate emerging industry technologies to show students how key concepts are applied in the real world. This well-balanced textbook: Integrates underlying thermofluid principles, the fundamentals of engineering design, and a variety of optimization methodsCovers optimization techniques alongside thermofluid system theoryProvides readers best practices to follow on-the-job when designing thermofluid systems Contains numerous tables, figures, examples, and problem setsEmphasizing optimization techniques more than any other thermofluid system textbook available, Engineering Design and Optimization of Thermofluid Systems is the ideal textbook for upper-level undergraduate and graduate students and instructors in thermal systems design courses, and a valuable reference for professional mechanical engineers and researchers in the field.

Commercial energy storage has moved from the margins to the mainstream as it fosters flexibility in our smarter, increasingly integrated energy systems. Natural gas has been identified by many as the fuel to take us to the no-carbon horizon; where a hydrogen economy waits on development. These two actors are already connected in precursor applications as transitional solutions for hydrogen handling and transportation are sought ahead of a fully established hydrogen infrastructure.This monograph explores some of leading advances in methane and hydrogen storage as well as the interesting link between these two important elements in our evolving energy system mosaic. Topics covered include: hydrogen absorption for storage; power-to-gas for energy system integration and storage; methanation for power-to-gas applications; production of hydrogen from methane decarbonisation into power to gas scenarios; power-to-gas in an ancillary service market; methane in MOFs: where, why and how; thermal management as a key in storing adsorbed natural gas; and gas hydrate potential and development for methane storage.

A sustainable community energy system is an approach to supplying a local community - ranging from a few homes or farms to entire cities - with its energy requirements from renewable energy or high-efficiency co-generation energy sources. Such systems are frequently based on wind power, solar power, biomass, either singly or in combination. Community energy projects have been growing in numbers in several key regions.This book provides an overview of existing and emerging community energy technologies. Topics covered include data-driven methods for prediction of small to medium wind turbines performance; optimisation of wind farms for communities; financing for community wind and photovoltaic project development; community-level solar thermal systems; solar water desalination for small communities; community solar photovoltaic projects; assessing wind loads for urban photovoltaic installations; design optimisation of multi-energy hubs for community energy projects; battery based storage for communities; power-to-gas and power-to-power for storage and ancillary services in urban areas; smart multi-energy microgrids; and conservation and demand management in community energy systems.Wind and Solar Based Energy Systems for Communities is essential reading for researchers and engineers working to develop community energy systems and advance the transition to a clean energy future.

Residential buildings consume about a quarter of all energy (including electrical and thermal) in industrialized countries and emit around 20% of the carbon emissions there. Older and outdated heating and cooling technology causes high energy demand and, depending on building type, secondary causes can include ventilation and lighting. Technology is available to mitigate high energy consumption, and to enable the use of renewable or environmentally friendly energy, partly generated locally.This book, written by international experts from academia as well as industry, compiles and describes several key technologies available to reduce a residential building's energy consumption. Key themes include local energy generation, such as the use of sunlight to reduce heating needs, and photovoltaics for electricity. Case studies are included in most chapters to provide real-world context for the technologies described.

Sustainable Engineering for Life Tomorrow examines the future of sustainable engineering and architecture. The contributors' analyses of sustainable solutions, such as wind and solar power, offer valuable insights for future policy-making, scholarship, and the management of energy-intensive facilities.

Sustainable Engineering for Life Tomorrow examines the future of sustainable engineering and architecture. The contributors' analyses of sustainable solutions, such as wind and solar power, offer valuable insights for future policy-making, scholarship, and the management of energy-intensive facilities.

The most productive way to engage society as a whole with issues of sustainability is to involve them in the development and execution of the solutions. Pragmatic Engineering and Lifestyle draws together international experts from engineering and architecture to disclose the latest insights into forging viable means to sustain tomorrow’s needs.Focusing on breaking through the remaining barriers and fully realizing promising remedies by explicitly examining the social aspect of engineering and urban design, the authors present state of the art research on, among other topics, simple and responsible engineering and living, ecological and socially friendly buildings and infrastructures, socially resilient farming, and agroecology.Pragmatic Engineering and Lifestyle is an indispensable collection for tomorrow's engineers, architects, and policy makers.

Reports from the United Nations indicate that the Sustainable Development Goals (SDGs) are not meeting their targets, at least not according to the proposed timeline. Despite this, the world produces enough food to feed everyone. The crucial task remains to ensure equitable food distribution to those in need and reduce global food wastage.Feeding Tomorrow Ecologically: Ecofriendly Food from Cradle to Cradle serves to support the top three SDGs: No Poverty, Zero Hunger, and Good Health and Well-Being. In this edited collection, authors delve into multifaceted aspects of global food systems. They examine the pivotal role of engineering throughout the food supply chain, from production to waste management, and its potential in fostering sustainable food security. Additionally, contributors investigate the evolution and perception of eco-friendly agriculture, focusing on adoption rates and attitudes, as well as diverse topics such as soil management, water reclamation, and policy. Through these varied perspectives, the chapters provide a comprehensive overview of challenges and innovations in shaping the future of food production and sustainability.This edited collection brings together experts from farming, engineering, health sciences, policy, and other fields to provide insights into sustaining future populations with nourishing food. Scholars and professionals across various disciplines, including engineers, economists, scientists, sociologists, and marine conservationists, benefit from this work, which holds deep implications for food and economic systems.

Turbulence in transportation occurs in the aerodynamics of vehicles, hydrodynamics of watercrafts, and combustion engines, amongst others. Turbulent flows can greatly affect the performance of vehicles, from air and water resistance, noise, and combustion quality - but it can also be exploited to improve the efficiency of the involved engineering operations. Understanding how turbulence effects occur within various transport modes can help engineers build better performing and safer vehicles, and overall improve transport networks.This book provides a timely update on turbulence research within transportation, and the exploitation of turbulent flow for more efficient transport, through aerodynamics, hydrodynamics and combustion engine improvement.The book starts with an introduction to the many scenarios in which flow turbulence can be further harnessed within transportation engineering. Later the book details selected latest applications of flow turbulence to enhance the efficiency of essential engineering operations in transport, in particular in aerodynamics and combustion engines.Flow Turbulence Engineering in Transport is a useful aid for new and experienced researchers and engineers working in thermofluids, especially those whose research involves turbulent flow. It offers a look at selected latest exploitations of flow turbulence in enhancing the efficiency of essential engineering operations in transport, highlighting the latest and future advancements in this field.

Wind power is a pillar of low emission energy systems. Designing more efficient wind turbines and farms, and increasing reliability and flexibility, is an area of intense research and development. In order to overcome the intermittent character of wind power, both the individual turbines and the wind farm as a whole must be considered.Many recent advances have been achieved in multiple aspects of utility-scale wind power. This structured research review conveys recent progress, with chapters written by an international team of experts.Organized into five parts, the book covers the aerodynamics of turbines and farms including layout; control techniques; environmental concerns including noise and bird and bat collisions; the intermittency issue including forecasting, storage and hybrid wind-PV plants; and offshore wind farms.From the general principles of aerodynamics to detailed and systematic coverage of the latest developments, Utility-scale Wind Turbines and Wind Farms provides a convenient and up-to-date source of information for academic researchers and R&D professionals working in this field.

The intermittency of renewable energy sources is making increased deployment of storage technology necessary. Technologies are needed with high round-trip efficiency and at low cost to allow renewables to undercut fossil fuels. The cost of lithium batteries has fallen, but producing them comes with a substantial carbon footprint, as well as a cost to the local environment.Compressed air energy storage (CAES) uses excess electricity, particularly from wind farms, to compress air. Re-expansion of the air then drives machinery to recoup the electric power. Prototypes have capacities of several hundred MW. Challenges lie in conserving the thermal energy associated with compressing air and leakage of that heat, materials, power electronics, connection with the power generator, and grid integration.This comprehensive book provides a systematic overview of the current state of CAES technology. After an introduction to motivation and principles, the key components are covered, and then the principal types of systems in the order of technical maturity: diabatic, adiabatic, and isothermal. Experts from industry write about their experiences with existing major systems and prototypes. Economic aspects, power electronics and machinery, as well as special systems for offshore applications, are dealt with.Researchers in academia and industry alike, in particular at energy storage technology manufacturers and utilities, as well as advanced students and energy experts in think tanks will find this work valuable reading.

Energy provision for low income or remote communities is a difficult challenge, with many still depending on polluting and costly fossil fuels. Transporting energy is a further problem since some communities are only accessible during brief periods of the year. Local energy generation is a key solution, but technical challenges need to be overcome.This hands-on treatise explores technologies and approaches for accelerating deployment of accessible clean energy and discusses obstacles hindering that deployment. The primary focus is on engineering topics, although contributions from non-engineering application experts are also included. Chapters cover principal aspects of energy provision for low-income communities, low cost and energy-efficient housing designs, solar energy for low-income communities, solar PV integration in residential buildings, rural electrification in low-income communities and in remote communities using wind and solar energy, advances in biofuels production, and as a case study, modelling and forecasting energy mix scenarios for Turkey.Clean Energy for Low Income Communities: Technology, deployment and challenges offers in-depth discussion of this multidisciplinary topic for an audience of researchers in academia, renewable energy and utilities experts in industry, technology manufacturers and advanced students, as well as energy experts in think tanks and development banks.

This book gathers the proceedings of the Energy and Sustainability 2018 Symposium (EAS 2018) held in Windsor, Canada in June 2018. It brings together the state-of-the-art on specific aspects of the current energy status, and covers a wide range of energy and engineering systems, from internal combustion engines to electric vehicles, from the atmosphere, solar and wind, to underground geothermal and underwater turbines and energy storage. The book demonstrates how conventional internal combustion engines have advanced dramatically in terms of both performance and emissions over the past century. It also studies how life-supporting elements, such as water and greenhouses, must be prioritized and protected to ensure a sustainable future. The book offers a valuable source of information for future leaders, engineers, environmentalists, social forerunners, and decision-makers alike. It also provides a reference guide for both undergraduate and graduate students in engineering, the natural and social sciences, business and economics.