Synopsis
Charged: The Unexpected Role of Electricity in the Workings of Nature by Gerald H. Pollack is a groundbreaking exploration of the pervasive and often overlooked role that electrical forces play in shaping natural phenomena, from biological systems to atmospheric processes. Building on his earlier work, particularly The Fourth Phase of Water, Pollack argues that electricity is not merely a byproduct of physical and chemical processes but a fundamental driver of nature’s mechanisms. The book challenges conventional scientific perspectives by proposing that electrical charges, particularly those associated with water and its unique properties, underpin a wide range of natural systems, offering new insights into biology, physics, and environmental science.
Pollack begins by introducing the concept of water’s “fourth phase,” a structured, gel-like state he calls exclusion zone (EZ) water, which forms near hydrophilic surfaces and carries a negative charge. This phase, distinct from liquid, solid, or vapor, is central to his thesis, as it generates electrical potential that influences everything from cellular function to cloud formation. He explains how EZ water’s negative charge, coupled with the positive charge of surrounding water, creates a battery-like system that can store and transfer energy. This electrical energy, often triggered by light or radiant energy, drives processes that traditional science attributes to other mechanisms. For instance, Pollack describes how the negative charge of EZ water in cells facilitates protein folding, ion transport, and even muscle contraction, suggesting that electricity is a primary force in biological systems.
The book extends this framework to broader natural phenomena, arguing that electrical charges govern processes as diverse as blood flow, joint lubrication, and atmospheric dynamics. Pollack illustrates how hydrophilic surfaces in blood vessels create EZ water, generating charge separation that propels blood flow independently of the heart’s pumping action. Similarly, he posits that the low friction in joints results from the repulsion of negatively charged EZ water layers, confined by the joint capsule to prevent squeaking. In the atmosphere, he proposes that negatively charged aerosol droplets, formed through processes involving EZ water, condense into clouds due to a “like-likes-like” attraction, challenging conventional explanations of cloud formation. These examples underscore Pollack’s broader claim that electricity is a unifying force across scales, from microscopic cellular interactions to macroscopic weather patterns.
Pollack also delves into practical implications, suggesting that understanding these electrical mechanisms could revolutionize fields like medicine, energy, and environmental management. He discusses how the exclusion properties of EZ water could be harnessed for filtration, producing solute- and bacteria-free water, or how its energy-storing capacity could be tapped for electrical energy harvesting. However, he acknowledges the speculative nature of some claims, emphasizing the need for further research to validate these ideas. The book is written in an accessible yet rigorous style, blending experimental evidence with thought-provoking hypotheses, and is aimed at both scientists and curious lay readers. Pollack’s narrative is infused with a sense of wonder at nature’s complexity, urging readers to reconsider the role of electricity as a central, dynamic force in the natural world.