Coal power is a major cause of air pollution and global warming and has resulted in the release of toxic heavy metals and radionuclides, which place communities at riskfor long-term health problems. However, coal-fired power plants also currently fuel 41% of global electricity.

"Clean Electricity Through Advanced Coal Technologies" discussesthe environmental issues caused by coal power, such as air pollution, greenhouse gas emissions and toxic solid wastes.

This volume focuses on increasingly prevalent newer generation technologies with smaller environmental footprints than the existing coal-fired infrastructure throughout most of the world. These technologies include fluidized-bed combustion and gasification. It also provides an overview of carbon capture and sequestration technologies and closely examines the 2008 Kingston TVA spill, the largest fly ash release ever to have occurred in the United States.

Each volume of the "Handbook of Pollution Prevention and Cleaner Production" covers manufacturing technologies, waste management, pollution issues, methods for estimating and reporting emissions, treatment and control techniques, worker and community health risks, cost data for pollution management, and cleaner production and prevention options.
Discusses the environmental impact of coal power, including air pollution, greenhouse gas emissions and solid toxic wastesFocuses on newer coaltechnologies with smaller environmental footprints than existing infrastructureProvides an overview of carbon capture and sequestration technologies"

A guide for screening feasible alternative, innovative, and emerging treatment technologies for contaminated soils and sludges at CERCLA (Superfund) sites. The technology data were selected from individual treatment technology vendors. Indexed by vendor only. Annotation copyright Book News, Inc. Por

Halogenated-Organic Con- taining Waste

Accidental Releases Of Air Toxics

In this compelling, and important book, John Schmitz brings order to the world of chaos that surrounds us. The Second Law of Life refers to the second law of thermodynamics, entropy, which is an omnipresent force that quietly and crucially determines every aspect of our society, culture and daily lives. Unless we come to understand entropy, future generations will face consequences of the unstoppable laws of physics.
Entropy explains the amount of energy no longer capable of doing work; in other words, wasted energy or heat loss. Each moment of every day, we lose irreplaceable energy and omoderno technology is not helping. In fact, it is accelerating the problem at a catastrophic rate. u And we will ultimately face a heat death crisis and utter destruction of the Earth.
Even actions we take to improve the environment may actually do more damage than good. For example, recycling is considered environmentally, socially and politically correct. Under the influence of entropy, however, it is a prolific waster of energy; we must look at entire systems, not just parts.
It is critical that we find ways to reduce energy loss. Seeing the problems with greater clarity will lead to solutions. This fascinating and accessible journey through the second law of thermodynamics is a step in the right direction."

Reliability of Software Intensive Systems

This book provides industrial facilities with comprehensive guidance on the development of storm water pollution prevention plans and identification of Best Management Practices (BMPs). It provides technical assistance and support to all facilities suibject to pollution prevention requirements established under National Pollutant Discharge Elimination System (NPDES) permits for storm water point discharge discharges. In addition to providing guidance for facilities that are subject to storm water permit requirements, this book contains information that is generally useful for controlling storm water problems. Guidelines and accompanying worksheets will walk the reader through the process.

Life cycle design is a proactive approach for integrating pollution prevention and resource conservation strategies into the development of more ecologically and economically sustainable product systems. Cross media pollutant transfer and the shifting of other impacts can be avoided by addressing the entire life cycle, which includes raw materials acquisition, materials processing, manufacturing and assembly, use and service, retirement, disposal and the ultimate fate of residuals.
The goal of life cycle design is to minimize aggregate risks and impacts over this life cycle. This goal can only be attained through the balancing of environmental, performance, cost, cultural, legal, and technical requirements of the product system. Concepts such as concurrent design, total quality management, cross- disciplinary teams, and multi-attribute decision making are essential elements of life cycle design that help meet these goals.
The framework for life cycle design was developed to be applicable for all product domains. It was written to assist not only design professionals but all other constituents who have an important role in life cycle design including corporate executives, product managers, production workers, distributors, environmental health and safety staff, purchasers, accountants, marketers, salespersons, legal staff, consumers, and government regulators. A coordinated effort is required to institute changes needed for successful implementation of life cycle design.
Part I seeks to promote the reduction of environmental imparts and health risks through a systems approach to design. The approach is based on the product life cycle, which includes raw materials acquisition and processing, manufacturing, use/service, resource recovery, and disposal. A life cycle design framework was developed to provide guidance for more effectively conserving resources and energy, preventing pollution, and reducing the aggregate environmental impacts and health risks associated with a product system. This framework addresses the product, process, distribution, and management/information components of each product system.
Part II describes the three components of a life cycle assessment (inventory analysis, impact analysis, and improvement analysis) as well as scoping activities, presents a brief overview of the development of the life cycle assessment process, and develops guidelines and principles for implementation of a product life cycle assessment. The major states in a life cycle are raw materials acquisition, manufacturing, consumer use/reuse/maintenance, and recycle/waste management. The basic steps of performing a life cycle inventory (defining the goals and system boundaries, including scoping; gathering and developing data; presenting and reviewing data; and interpreting and communicating results) are presented along with the general issues to be addressed. The system boundaries, assumptions, and conventions to be addressed in each stage of the inventory are presented.

The information in this book is from Technical resource document: treatment technologies for dioxin-containing wastes, by M. Arienti et al., prepared for the US EPA, October 1986. For decision-makers. Discusses regulations, thermal and nonthermal technologies, and factors involved in technology selection. No index. Annotation copyright Book News, I

Quartz, zeolites, gemstones, perovskite type oxides, ferrite, carbon allotropes, complex coordinated compounds and many more -- all products now being produced using hydrothermal technology. Handbook of Hydrothermal Technology brings together the latest techniques in this rapidly advancing field in one exceptionally useful, long-needed volume. The handbook provides a single source for understanding how aqueous solvents or mineralizers work under temperature and pressure to dissolve and recrystallize normally insoluble materials, and decompose or recycle any waste material. The result, as the authors show in the book, is technologically the most efficient method in crystal growth, materials processing, and waste treatment. The book gives scientists and technologists an overview of the entire subject including: A Evolution of the technology from geology to widespread industrial use. A Descriptions of equipment used in the process and how it works. A Problems involved with the growth of crystals, processing of technological materials, environmental and safety issues. A Analysis of the direction of today's technology.

In addition, readers get a close look at the hydrothermal synthesis of zeolites, fluorides, sulfides, tungstates, and molybdates, as well as native elements and simple oxides. Delving into the commercial production of various types, the authors clarify the effects of temperature, pressure, solvents, and various other chemical components on the hydrothermal processes.
Gives an overview of the evolution of HydrothermalTechnology from geology to widespread industrial useDescribes the equipment used in the process and how it worksDiscusses problems involved with the growth of crystals, processing of technological materials, and environmental and safety issues "

Advanced Software Applications in Japan

State-of-the-art metals treatment and recovery technologies to assist in identifying waste management options.