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.

Sustainability Engineering: Challenges, Technologies, and Applications focuses on emerging topics within sustainability science and engineering, including the circular economy, advanced recycling technologies, decarbonization, renewable energy, and waste valorization. Readers will learn the trends driving today’s sustainability research and innovation as well as the latest in sustainable process technologies. This book: Addresses emerging sustainability development challenges, progress, and disruptive technologies Discusses biological sustainability, recycling technologies, and sustainable process design and manufacture Features a comprehensive view from renowned experts who are leaders in their respective research areas This work is aimed at an interdisciplinary audience of engineers and scientists working on solutions to advance the development and application of sustainable technologies, including – but not limited to – chemical and environmental engineers.

Human beings require nourishment for the body, mind, and soul. To nourish tomorrow demands sustainable, clean and healthy food, water, air, healthcare, energy, living quarters, communities, and governance for everyone. This volume brings together twenty-four experts — comprising engineers, scientists, economists, architects, academics, and public servants from around the world — to share their views on how we could sustainably nourish people and the planet.In this book, the theme of building environments in which life — human and non-human — can co-exist, grow, and thrive in, is explored from multiple aspects. From agriculture and food security to drinking water, energy generation, energy storage, waste management and treatment, to building for and encouraging biodiversity in marinas, to establishing resilient communities that can recover quickly from both manmade and natural disasters.This book is a valuable resource for readers in the fields of biological science, agriculture, and sustainability. It is also a thought-provoking volume for those who simply want to know more about the complex issue of nourishing the world.

What can we do to preserve a future for the next generation to cherish? A potent answer is to exercise good stewardship in realizing more sustainable living and development. This volume brings together experts from around the world to disseminate the latest knowledge and research toward this end, i.e., engineering for more sustainable development and living. Let us learn from a living cell that utilizes inherited biological intelligence to organize its resources for current needs and future existence. We also have the responsibility to ensure universal access to electricity and increase the share of renewable energies. Cost effective hybrid renewable energy systems should also be considered and furthered. Advancing energy storage is a necessary striving for managing a future "toilet paper crisis." More accurate accounting of weather is crucial in furthering energy efficiency for human thermal comfort. With cooling making up the highest energy cost in many medical structures, combining low-energy building strategies with source-efficient and low-cost manufacturing envelopes can contribute effectively to mitigating climate change. To realize calculated improvements in practice, we must assess the performance after implementation of the promising measures. Construction is definitely the right place to start incorporating sustainable development and living. Another means to promote sustainability is to improve engineering system performance. Simple means such as a rightly positioned cylindrical rod can enhance systems that involve heat exchangers. An important lesson came through dealing with COVID-19, teaching us to provide adaptation strategies through water-energy-food nexus planning, building resilient communities for tomorrow.

We cannot continue on a business-as-usual, carbon fuel dependent mode of operation, because the consequences of doing so are catching up with us. So, what must we do to ensure there is a tomorrow?In this book, experts from around the world come together to shed light on what we can do to preserve and expand resources key to the survival of human civilization — from the state-of-the-art of innovative engineering; to the latest status on energy, energy mix, and advancements in renewable energy — including the complementary energy storage using hydrogen; or innovative architecture for more sustainable buildings, including retrofitting of aging tall buildings; innovative ways to improve our air, water and coastline with nearshore biodiversity reclamation; to the subject of sustainable development through the water-energy-food nexus.This volume is recommended for research and graduate courses on energy and sustainability, and policymakers interested in the subjects.

It is crucial that engineers – from students to those already practising – have a deep understanding of the environmental threats facing the world, if they are to become part of the solution and not the problem. Is there a way to reconcile modern lifestyles with the compelling need for change? Could new improved technologies play a key role? If great leaps in the environmental efficiency of technologies are needed, can they be produced? Engineers are in a privileged and hugely influential position to innovate, design and build a sustainable future. But are they engaged or uninterested? Are they knowledgeable or ignorant? This book has been developed by a number of committed educators in European engineering departments under the leadership of Delft University of Technology and the Technical University of Catalunya to meet the perceived gap between what engineers know and what they should know in relation to sustainable development. The University of Delft decided as long ago as 1998 that all of its engineering graduates, working towards careers as designers, managers or researchers, should be prepared for the challenge of sustainable development and, as such, should leave university able to make sustainable development operational in their designs and daily practices. The huge amount of knowledge gathered on best-practice teaching for engineers is reflected in this book. The aim is to give engineering students a grounding in the challenge that sustainable development poses to the engineering profession, the contribution the engineer can make to attaining some of the societal and environmental goals of sustainability, and the barriers and pitfalls engineers will likely need to confront in their professional lives. Concise but comprehensive, the book examines the key tools, skills and techniques that can be used in engineering design and management to ensure that whole-life costs and impacts of engineering schemes are addressed at every stage of planning, implementation and disposal. The book also aims to demonstrate through real-life examples the tangible benefits that have already been achieved in many engineering projects, and to highlight how real improvements can be, and are being, made. Each chapter ends with a series of questions and exercises for the student to undertake. Sustainable Development for Engineers will be essential reading for all engineers and scientists concerned with sustainable development. In particular, it provides key reading and learning materials for undergraduate and postgraduate students reading environmental, chemical, civil or mechanical engineering, manufacturing and design, environmental science, green chemistry and environmental management.

This book reflects the current state of knowledge on sustainability in a wide range of fields, from engineering to agriculture, to education. Though primarily intended to offer an update for experts and researchers in the field, it can also be used as a valuable educational tool for relevant undergraduate and graduate courses. Key aspects covered include the better and more responsible engineering and management of energy conversion processes, the development of renewable energy technologies, and improvements in conventional energy utilization and food production. In addition, the book addresses green buildings, the green economy, waste and recycling, water, ecopolitics and social sustainability.