The electrical grid goes everywhere-it's the largest and most complex machine ever made. Yet the system is built in such a way that the bigger it gets, the more inevitable its collapse. Named the greatest engineering achievement of the 20th century by the National Academy of Engineering, the electrical grid is the largest industrial investment in the history of humankind. It reaches into your home, snakes its way to your bedroom, and climbs right up into the lamp next to your pillow. At times, it almost seems alive, like some enormous circulatory system that pumps life to big cities and the most remote rural areas. Constructed of intricately interdependent components, the grid operates on a rapidly shrinking margin for error. Things can-and do-go wrong in this system, no matter how many preventive steps we take. Just look at the colossal 2003 blackout, when 50 million Americans lost power due to a simple error at a power plant in Ohio; or the one a month later, which blacked out 57 million Italians. And these two combined don't even compare to the 2001 outage in India, which affected 226 million people. The Grid is the first history of the electrical grid intended for general readers, and it comes at a time when we badly need such a guide. As we get more and more dependent on electricity to perform even the most mundane daily tasks, the grid's inevitable shortcomings will take a toll on populations around the globe. At a moment when energy issues loom large on the nation's agenda and our hunger for electricity grows, The Grid is as timely as it is compelling.

The history of the grid, the world's largest interconnected power machine that is North America's electricity infrastructure. The North American power grid has been called the world's largest machine. The grid connects nearly every living soul on the continent; Americans rely utterly on the miracle of electrification. In this book, Julie Cohn tells the history of the grid, from early linkages in the 1890s through the grid's maturity as a networked infrastructure in the 1980s. She focuses on the strategies and technologies used to control power on the grid—in fact made up of four major networks of interconnected power systems—paying particular attention to the work of engineers and system operators who handled the everyday operations. To do so, she consulted sources that range from the pages of historical trade journals to corporate archives to the papers of her father, Nathan Cohn, who worked in the industry from 1927 to 1989—roughly the period of key power control innovations across North America. Cohn investigates major challenges and major breakthroughs but also the hidden aspects of our electricity infrastructure, both technical and human. She describes the origins of the grid and the growth of interconnection; emerging control issues, including difficulties in matching generation and demand on linked systems; collaboration and competition against the backdrop of economic depression and government infrastructure investment; the effects of World War II on electrification; postwar plans for a coast-to-coast grid; the northeast blackout of 1965 and the East-West closure of 1967; and renewed efforts at achieving stability and reliability after those two events.

examines principal energy policy decisions and their lingering effects, by recounting the historical context surrounding the interplay of law, markets, and technology.

The electric power industry has been transformed over the past forty years, becoming more reliable and resilient while meeting environmental goals. A big question now is how to prevent backsliding. Pollution, Politics, and Power tells the story of the remarkable transformation of the electric power industry over the last four decades. Electric power companies have morphed from highly polluting regulated monopolies into competitive, deregulated businesses that generate, transmit, and distribute cleaner electricity. Power companies are investing heavily in natural gas and utility-scale renewable resources and have stopped building new coal-fired plants. They facilitate end-use efficiency and purchase excess electricity produced by rooftop solar panels and backyard wind turbines, helping to reduce greenhouse-gas emissions. But these beneficial changes have come with costs. The once-powerful coal industry is on the edge of ruin, with existing coal-fired plants closing and coal mines shutting down. As a result, communities throughout Appalachia suffer from high unemployment and reduced resources, which have exacerbated a spiraling opioid epidemic. The Trump administration’s efforts to revive the coal industry by scaling back environmental controls and reregulating electricity prices have had little effect on the coal industry’s decline. Major advances therefore come with warning signs, which we must heed in charting the continuing course of sustainable electricity. In Pollution, Politics, and Power, Thomas O. McGarity examines the progress made, details lessons learned, and looks to the future with suggestions for building a more sustainable grid while easing the economic downsides of coal’s demise.

Climate Change Policy in North America is the first book to examine how cooperation respecting climate change can emerge within decentralized governance arrangements.

The book discusses principles of optimization techniques for microgrid applications specifically for microgrid system stability, smart charging, and storage units. It also highlights the importance of adaptive learning techniques for controlling autonomous microgrids. It further presents optimization-based computing techniques like fuzzy logic, and neural networks to enhance the computational speed. Features Discusses heuristic techniques and evolutionary algorithms in microgrids optimization problems Covers operation management, distributed control approaches, and conventional control methods for microgrids Presents intelligent control for energy management and battery charging systems Highlights a comprehensive treatment of power sharing in DC microgrids Explains control of low-voltage microgrids with master-slave architecture, where distributed energy resources interface with the grid by means of conventional current-driven inverters It is primarily written for senior undergraduates, graduate students, and academic researchers in the fields of electrical engineering, electronics, and communications engineering, computer science and engineering, and environmental engineering.