Presents previously unpublished formulas and charts to expedite calculations used when improving industrial furnace design, construction, and operation. Supports such studies for reasons of energy conservation. Includes case studies that illustrate the value of alternative methods. The shortcut solutions can be completed in a few hours compared to days of research when using other methods. Highlights some of the changes in industrial organization necessary to undertake effective programs for energy conservation.
Provides a unique overview of energy management for the process industries Provides an overall approach to energy management and places the technical issues that drive energy efficiency in context Combines the perspectives of freewheeling consultants and corporate insiders In two sections, the book provides the organizational framework (Section 1) within which the technical aspects of energy management, described in Section 2, can be most effectively executed Includes success stories from three very different companies that have achieved excellence in their energy management efforts Covers energy management, including the role of the energy manager, designing and implementing energy management programs, energy benchmarking, reporting, and energy management systems Technical topics cover efficiency improvement opportunities in a wide range of utility systems and process equipment types, as well as techniques to improve process design and operation
This book discusses the extent to whcih differences exist in the approach to energy management by different types of firms: large multidivisional firms at corporate headquarters level and division level and independent firms, energy intensive and non-energy intensive firms and growth and non-growth firms. Although originally published in 1984, the significance of the study is reflected by the continued timeliness and urgency of many of the issues covered such as the need for a national energy policy and the potential for improvement in industrial energy efficiency and conservation.
This book is presented to demonstrate how energy efficiency can be achieved in existing systems or in the design of a new system, as well as a guide for energy savings opportunities. Accordingly, the content of the book has been enriched with many examples applied in the industry. Thus, it is aimed to provide energy savings by successfully managing the energy in the readers’ own businesses. The authors primarily present the necessary measurement techniques and measurement tools to be used for energy saving, as well as how to evaluate the methods that can be used for improvements in systems. The book also provides information on how to calculate the investments to be made for these necessary improvements and the payback periods. The book covers topics such as: • Reducing unit production costs by ensuring the reduction of energy costs, • Efficient and quality energy use, • Meeting market needs while maintaining competitive conditions, • Ensuring the protection of the environment by reducing CO2 and CO emissions with energy saving and energy efficiency, • Ensuring the correct usage of systems by carrying out energy audits. In summary, this book explains how to effectively design energy systems and manage energy to increase energy savings. In addition, the study has been strengthened by giving some case studies and their results in the fields of intensive energy consumption in industry. This book is an ideal resource for practitioners, engineers, researchers, academics, employees and investors in the fields of energy, energy management, energy efficiency and energy saving.
Energy demand reduction is fast becoming a business activity for all companies and organisations because it can increase profits regardless of the nature of their core activity. The International Energy Agency believes that industry could improve its energy efficiency and reduce carbon dioxide emissions by almost a third using the best available practices and technologies. This guide looks at the many ways available to energy managers to achieve or even exceed this level of performance, including: base-lining consumption planning a monitoring and verification strategy metering (including smart, wireless metering) energy supply management motors and drives compressed air and process controls. Uniquely, it includes a whole chapter on greening data centres. It also looks at topics covered in greater detail in its companion volume, Energy Management in Buildings: insulation, lighting, renewable heating, cooling and HVAC systems. Further chapters examine minimising water use and how to make the financial case, both to prioritise measures for cost effectiveness, and to get management on board. This title is aimed at all professional energy, industry and facilities managers, energy consultants, students, trainees and academics and can be read alongside training for ISO 50001 - Energy Management Systems. It takes the reader from basic concepts to the latest advanced thinking, with principles applicable anywhere in the world and in any climate.
Energy management training and solutions are not one size fits all. While some general methods apply, the metals industry has its own unique processes and environments for which a more tailored approach is necessary. Aimed at managers, engineers, and supervisors working in the metals industry, Energy Management for the Metals Industry offers specifics that can help readers in the metals field achieve energy savings for their companies. The book explains general energy management methods and offers approaches germane to the metals industry. It discusses the benefits and reasons for implementing an energy management program and the requirements necessary to begin one. The book covers defining and measuring performance, setting baselines, and benchmarking a plant and its processes. It also discusses analyzing data, identifying projects, improving processes, setting goals, and creating an action plan, while controlling and evaluating progress. Real-world examples highlight concepts and illustrate potential pitfalls.
The demands made on the energy-efficiency and pollutant emissions of industrial furnaces are rising continuously and have high priority in view of the latest increases in energy prices and of the discussion of climate change for which CO2 emissions are at least partly responsible. Great importance is now attached to increasing energy-efficiency in a large range of industrial sectors, including the steel industry and companies operating heat-treatment installations. This work is intended to provide support for those persons responsible for the clean and efficient heating of industrial furnaces. The initial chapters of the Handbook of Burner Technology for Industrial Furnaces deal with the indispensable theoretical principles of combustion theory, fluid mechanics and heat transfer. Only those aspects which are of importance for burner technology are examined. The succeeding chapters then proceed on to burner technology as such, and focus on combustion-system concepts, analyze pollutant generation and reduction, and discuss the recovery of heat for use in combustion-air preheating, the most important provision for the enhancement of energy-efficiency. The "Industrial Burners" chapter outlines, with detailed examples, the essential types of industrial burners and their integration into the extremely diverse range of modern furnace-system concepts. his is then followed by chapters on standardization and legal requirements, more specialized and detailed literature, relevant research institutions, and an annex containing the relevant physical data. The book discusses the present-day state of technological development in a practically orientated manner. The reader is provided with a detailed view of all relevant principles, terms and processes in industrial combustion technology, and thus with important aids for his or her daily work. This compact-format book, with its plethora of information, is an indispensable reference source for all persons who are professionally involved in any way at all with the heating and combustion-systems of industrial furnaces.
