This clear, easy-to-follow handbook is a useful resource for engineers, architects, and plant operators. A one-stop reference for beginners and advanced readers alike, it describes industrial steam systems design and operation in simple steps. The book explains the system fundamentals, system setup, and required equipment, building, mechanical, and other code requirements, and details the execution of a sample project. It also explains the equipment operation principle and describes best design practices for system setup, piping and instrumentation, equipment sizing, pipe sizing, and equipment selection.
Steam systems are a part of almost every major industrial process today. Thirty-seven percent of the fossil fuel burned in US industry is burned to produce steam. In this paper we will establish baseline energy consumption for steam systems. Based on a detailed analysis of boiler energy use we estimate current energy use in boilers in U.S. industry at 6.1 Quads (6.4 EJ), emitting almost 66 MtC in CO2 emissions. We will discuss fuels used and boiler size distribution. We also describe potential savings measures, and estimate the economic energy savings potential in U.S. industry (i.e. having payback period of 3 years or less). We estimate the nationwide economic potential, based on the evaluation of 16 individual measures in steam generation and distribution. The analysis excludes the efficient use of steam and increased heat recovery. Based on the analysis we estimate the economic potential at 18-20% of total boiler energy use, resulting in energy savings approximately 1120-1190 TBtu (1180-1260 PJ). This results in a reduction of CO2 emissions equivalent to 12-13 MtC.
Comprehensively describes the equipment used in process steam systems, good operational and maintenance practices, and techniques used to troubleshoot system problems Explains how an entire steam system should be properly designed, operated and maintained Includes chapters on commissioning and troubleshooting various process systems and problems Presents basic thermodynamics and heat transfer principles as they apply to good process steam system design Covers Steam System Efficiency Upgrades; useful for operations and maintenance personnel responsible for modifying their systems
Filled with over 225 boiler/HRSG operation and design problems, this book covers steam generators and related systems used in process plants, refineries, chemical plants, electrical utilities, and other industrial settings. Emphasizing the thermal engineering aspects, the author provides information on the design and performance of steam generators
This was my first book and a true labor of love. I spent decades studying steam and the work of Dead Men, in both old buildings and on library shelves. I traveled the country, haunting used-book stores, looking for engineering books that held the answers to questions that nagged at me. I was obsessed with this topic, and when I finally sat to write, I poured all that I had learned into this book, and as I wrote, I tried my best to make the words sound good to you - like we were together and having a conversation. I wanted you to know what I know and I wanted you to be able to do what I can do when it comes to old steam systems. This book arrived in 1992 and has since gone though dozens of printings. We've sold it in every state as well as in foreign countries. Steam heat is everywhere there are old buildings, so why shouldn't you be the one with the answers? Dan Holohan
A comprehensive and accessible handbook for process steam systems The revised second edition of Process Steam Systems: A Practical Guide for Operators, Maintainers, Designers, and Educators delivers a practical guide to ensuring steam systems are properly and efficiently designed, operated, and maintained. The book provides comprehensive information designed to improve process steam system knowledge, reliability, and integration into current manufacturing processes. The most up-to-date version of this volume includes brand-new coverage of current codes, sustainability measures, and updated applications. Heat transfer theory and thermodynamics are tied into practical applications with new practice problems ideal for both professionals seeking to improve their skills and engineers-in training. Readers will also find: Thorough design criteria for process steam systems, complete with detailed illustrations for piping and controls An entirely new chapter on the history of steam systems, including the evolution of the ASME code and boiler accidents Revised coverage of current NFPA, ASME, CSD-1, FM, and building codes, as well as new insurance requirements relevant to practitioners in the industry Expansive design guidance for steam system efficiency upgrades Perfect for operations and maintenance staff at manufacturing, healthcare, and commercial laundries, Process Steam Systems: A Practical Guide for Operators, Maintainers, Designers, and Educators will also earn a place in the libraries of consulting engineers and engineering students with an interest in process manufacturing.
Here is your complete guide to the systems and equipment used for producing electrical power, steam, and utility functions such as heating, refrigeration, ventilation, and water for industrial facilities. The full scope of the various types of boiler plants, turbines, pumps, and cogenerating systems are examined, including design considerations, as well as optimum application of auxiliary equipment. The critical and sometimes competing factors which contribute to the overall success of an installation, such as energy efficiency, solid and gas emissions, overall cost effectiveness and performance, convenience of operation, and safety are put into clear perspective. Energy conservation measures specific to the steam plant including heat recovery, as well as overall plant energy management, are fully explored.
Steam systems consume approximately one third of energy applied at U.S. industrial facilities. To reduce energy consumption, steam system energy assessments have been conducted on a wide range of industry types over the course of five years through the Energy Savings Assessment (ESA) program administered by the U.S. Department of Energy (U.S. DOE). ESA energy assessments result in energy efficiency measure recommendations that are given potential energy and energy cost savings and potential implementation cost values. Saving and cost metrics that measure the impact recommended measures will have at facilities, described as percentages of facility baseline energy and energy cost, are developed from ESA data and used in analyses. Developed savings and cost metrics are examined along with implementation and rejection rates of recommended steam system energy efficiency measures. Based on analyses, implementation of steam system energy efficiency measures is driven primarily by cost metrics: payback period and measure implementation cost as a percentage of facility baseline energy cost (implementation cost percentage). Stated reasons for rejecting recommended measures are primarily based upon economic concerns. Additionally, implementation rates of measures are not only functions of savings and cost metrics, but time as well.
Here is the most complete reference ever developed for identifying quantity and quality of industrial waste energy which may be economically practical to recover. Based on years of research, the detailed heat and material balances which are presented were developed from process flow diagrams of 108 industrial processes, with technical input from consultants and manufacturers, and extensive on-site verification studies. Data such as process temperature, pressure, fuel requirements, thermal efficiency and radiation, and convection losses are determined for varying industrial operations spanning the food products, textile, lumber and wood, paper, chemical, petroleum, rubber and plastics, glass, metals, machinery, transportation equipment, and instrument manufacturing industries.
