The Elizabeth River courses through the heart of Virginia. The Jamestown colonists recognized the river's strategic importance and explored its watershed almost immediately after the 1607 founding. The Elizabeth River traces four centuries of this historic stream's path through the geography and culture of Virginia.

The Rouge River is a mostly urbanized watershed of about 500 square miles populated by nearly 1.4 million people. While not geographically large, the river has played an outsized role in the history of southeast Michigan, most famously housing Ford's massive Rouge Factory, designed by architect Albert Kahn and later memorialized in Diego Rivera's renowned "Detroit Industry" murals. In recent decades, the story of the Rouge River has also been one of grassroots environmental activism. After pollution from the Ford complex and neighboring factories literally caused the river to catch on fire in 1969, community groups launched a Herculean effort to restore and protect the watershed. Today the Rouge stands as one of the most successful examples of urban river revival in the country. Rouge River Revived describes the river's history from pre-European times into the 21st century. Chapters cover topics such as Native American life on the Rouge; indigenous flora and fauna over time; the river's role in the founding of local cities; its key involvement in Detroit's urban development and intensive industrialization; and the dramatic clean-up arising from citizen concern and activism. This book is not only a history of the environment of the Rouge River, but also of the complex and evolving relationship between humans and natural spaces.

"Stream Ecosystems in a Changing Environment" synthesizes current understanding in stream ecosystem ecology, emphasizing nutrient cycling and carbon dynamics, and provides a forward-looking perspective regarding the response of stream ecosystems to environmental change. Stream ecosystem ecology has undergone major advances in the past decade following a series of high-profile and innovative research initiatives focusing on nutrient cycling and metabolism. Each chapter includes a section focusing on anticipated and ongoing dynamics in stream ecosystems in a changing environment, and hypotheses regarding controls on stream ecosystem functioning. These innovative sections provide a bridge between papers published in peer-reviewed scientific journals, and researchers development of new ideas areas of study.
Provides a synthesis of the latest findings on stream ecosystems ecology in one volumeIncludes thought exercises and discussion activities throughout, providing valuable tools for learningOffers conceptual models and hypotheses to stimulate conversation and serve to advance research"

The lands and waters of the Mid-Atlantic Region (MAR) have changed significantly since before the 16th century when the Susquehannock lived in the area. Much has changed since Captain John Smith penetrated the estuaries and rivers during the early 17th century; since the surveying of the Mason-Dixon Line to settle border disputes among Maryland, Pennsylvania, and Delaware during the middle of the 18th century; and since J. Thomas Scharf described the physiographic setting of Baltimore County in the late 19th century. As early as 1881, Scharf provides us with an assessment of the condition of the aquatic ecosystems of the region, albeit in narrative form, and already changes are taking place - the conversion of forests to fields, the founding of towns and cities, and the depletion of natural resources. We have always conducted our work with the premise that "man" is part of, and not apart from, this ecosystem and landscape. This premise, and the historical changes in our landscape, provide the foundation for our overarching research question: how do human activities impact the functioning of aquatic ecosystems and the ecosystem services that they provide, and how can we optimize this relationship?

Examining the science of stream restoration, Rebecca Lave argues that the neoliberal emphasis on the privatization and commercialization of knowledge has fundamentally changed the way that science is funded, organized, and viewed in the United States. Stream restoration science and practice is in a startling state. The most widely respected expert in the field, Dave Rosgen, is a private consultant with relatively little formal scientific training. Since the mid-1990s, many academic and federal agency - based scientists have denounced Rosgen as a charlatan and a hack. Despite this, Rosgen's Natural Channel Design approach, classification system, and short-course series are not only accepted but are viewed as more legitimate than academically produced knowledge and training. Rosgen's methods are now promoted by federal agencies including the Environmental Protection Agency, the U.S. Forest Service, the U.S. Fish and Wildlife Service, and the Natural Resources Conservation Service, as well as by resource agencies in dozens of states. Drawing on the work of Pierre Bourdieu, Lave demonstrates that the primary cause of Rosgen's success is neither the method nor the man but is instead the assignment of a new legitimacy to scientific claims developed outside the academy, concurrent with academic scientists' decreasing ability to defend their turf. What is at stake in the Rosgen wars, argues Lave, is not just the ecological health of our rivers and streams but the very future of environmental science.

This book presents the phylogeny, taxonomy and biogeography of freshwater red algae. Its content is divided into five chapters. The first chapter provides a brief history of freshwater red algal research, habits and collecting methods, general biogeographic trends and an overview of the taxonomic/phylogenetic placement of freshwater taxa. The other four chapters are taxonomic treatments of non-marine red algae based on taxonomic levels, i.e. classes within the phylum Rhodophyta, orders within each class, families within each order, and genera within each family. Descriptions, phylogenetic data (including numerous trees), geographic range (maps for most species) and dichotomous keys for identification are presented. Comprehensive data are provided for more than 220 species.