​This book describes the available technologies that can be employed to reduce energy consumption and greenhouse emissions in the steel- and ironmaking industries. Ironmaking and steelmaking are some of the largest emitters of carbon dioxide (over 2Gt per year) and have some of the highest energy demand (25 EJ per year) among all industries; to help mitigate this problem, the book examines how changes can be made in energy efficiency, including energy consumption optimization, online monitoring, and energy audits. Due to negligible regulations and unparalleled growth in these industries during the past 15-20 years, knowledge of best practices and innovative technologies for greenhouse gas remediation is paramount, and something this book addresses. Presents the most recent technological solutions in productivity analyses and dangerous emissions control and reduction in steelmaking plants; Examines the energy saving and emissions abatement efficiency for potential solutions to emission control and reduction in steelmaking plants; Discusses the application of the results of research conducted over the last ten years at universities, research centers, and industrial institutions.

This book describes the available technologies that can be employed to reduce energy consumption and greenhouse emissions in the steel- and ironmaking industries. Ironmaking and steelmaking are some of the largest emitters of carbon dioxide (over 2Gt per year) and have some of the highest energy demand (25 EJ per year) among all industries; to help mitigate this problem, the book examines how changes can be made in energy efficiency, including energy consumption optimization, online monitoring, and energy audits. Due to negligible regulations and unparalleled growth in these industries during the past 15-20 years, knowledge of best practices and innovative technologies for greenhouse gas remediation is paramount, and something this book addresses. Presents the most recent technological solutions in productivity analyses and dangerous emissions control and reduction in steelmaking plants; Examines the energy saving and emissions abatement efficiency for potential solutions to emission control and reduction in steelmaking plants; Discusses the application of the results of research conducted over the last ten years at universities, research centers, and industrial institutions.

This book describes improvements in the iron and steel making process in the past few decades. It also presents new and improved solutions to producing high quality products with low greenhouse emissions. In addition, it examines legislative regulations regarding greenhouse emissions all around the world and how to control these dangerous emissions in iron and steel making plants.

The book describes the main approaches to produce and synthesize iron and steel through hydrogen-based technologies. Depending on the processing route and on the energy demand, the best available techniques and the most forward-looking solutions are explained. The book is edited with the contribution representing a range of industries in order to evaluate the industrial feasibility of each selected technology. It presents the most efficient solutions applied by ironmaking and steelmaking factories all around the world.

Flat steel products are fundamental to modern manufacturing and construction, serving as crucial materials in a wide array of industries. From automotive components and household appliances to building structures and packaging materials, flat steel’s versatility and strength make it indispensable. The flat steel industry has seen numerous technological advancements that have enhanced product quality and production efficiency. Key developments include: · Advanced Coating Technologies · Precision Manufacturing · High-Strength and Specialty Steels · Sustainability Initiatives The advancements in flat steel products have had a profound impact on both industry and society. In the industrial realm, these products have enabled the creation of safer, more efficient, and more durable materials. The automotive industry’s use of high-strength steel, for example, has led to safer vehicles with improved fuel efficiency. On a societal level, the widespread use of flat steel products has contributed to improved living standards. Household appliances and infrastructure developments have enhanced everyday life by providing reliable and durable solutions. Additionally, the impact of flat steel products on the economy cannot be overstated; they support numerous jobs and contribute significantly to global trade.

This book covers the physical metallurgy of steels as well as the heat treatments used to improve the their properties. A full chapter is dedicated to the atmospheres in the steelmaking, including the implications of the own gases generated in the iron and steelmaking factories and how they could be applied in these treatments. This book is specially conceived for graduate and undergraduate courses, being the result of more than 30 years of teaching experience in courses for undergraduate, graduate (master and Ph. D.), and companies (technicians). The trends in the re-utilization of industrial gases in the iron and steelmaking process are discussed by the authors. Additionally, the book comprises 41 solved exercises, problems and case-studies, as a complement of the theoretical sections of the text. These exercises, problems, and case-studies are based on problems observed in the industrial practice.

Theory and Methods of Metallurgical Process Integration analyzes the basic elements and characteristics of steel manufacturing processes and operation, also proposing a theory of precise dynamic design and integration of steel plants. Following several case studies, a new generation steel manufacturing process is proposed. Through deep description and analysis of the dynamic operation of the steel manufacturing process, this book can help readers understand that the study of dynamic integration for the "mass-energy-time-space-information" during the steel manufacturing process has to be highly emphasized in order to further promote optimization of the steel manufacturing process and plant. - Extends the research methodology and future direction of the metallurgical process - Concentrates on the study of the physical essence and the running rules of the dynamic operation of the steel manufacturing process - Summarizes six rules for the dynamic operation of the steel manufacturing process for newly-built or existing steel plants, which provides useful guidance for engineering design, production technology, and production and technology management