Tag Archive: Kentucky

Ohio River Road Damage – Clarksville, Indiana

Ohio River Road Damage - Clarksville, Indiana

The image depicts damage to road running parallel to the Ohio River, in Clarksville , Indiana after recent high water and flooding led to bank erosion. Louisville, Kentucky lies on the opposite side of the Ohio River.

The Ohio River experiences frequent flooding and bank erosion, primarily due to heavy rainfall, snowmelt, and its extensive tributary system. Major floods have historically impacted cities along the river, with some of the worst occurring in 1937, 1997, and 2018. The Great Flood of 1937 was the most devastating, submerging entire towns, displacing hundreds of thousands, and causing widespread destruction from Pittsburgh to Cairo, Illinois. Modern flood control measures, including reservoirs, levees, and the lock-and-dam system managed by the U.S. Army Corps of Engineers, help mitigate extreme flooding. However, heavy storms and prolonged wet seasons still cause periodic water level surges, leading to localized flooding and property damage.

Bank erosion along the Ohio River is another persistent issue, caused by fast-moving currents, seasonal floods, and human activities like dredging and construction. Erosion leads to the loss of farmland, damage to infrastructure, and increased sedimentation in the river, which can affect water quality and aquatic habitats. In urban areas, failing riverbanks threaten roads, bridges, and homes, requiring costly stabilization efforts. Some communities use riprap (rock barriers), retaining walls, and vegetation planting to slow erosion, but long-term riverbank stability remains a challenge. As climate patterns shift, increased rainfall intensity may worsen both flooding and erosion, prompting further investment in floodplain management and conservation efforts.

Ohio River Navigation Dam No. 50 Sign – Marion, Kentucky

Ohio River Navigation Dam No. 50 Sign - Marion, Kentucky

Signage from a defunct navigation dam (no. 50) located on the Ohio River, near Marion, Crittenden County, KY

The Ohio River Lock and Dam System is a critical infrastructure network designed to regulate water levels and facilitate navigation along the 981-mile-long Ohio River. Managed primarily by the U.S. Army Corps of Engineers, the system consists of a series of locks and dams that maintain a consistent channel depth, allowing for the safe and efficient passage of commercial barges, recreational boats, and other vessels. Prior to modern improvements, the river was unpredictable, with natural shallows and seasonal variations making navigation difficult. The system, initially developed in the early 20th century, replaced outdated wooden wicket dams with more advanced high-lift structures that provide year-round navigability. Today, the system supports billions of dollars in commerce, primarily transporting coal, petroleum, steel, and agricultural products.

The lock and dam system works by creating a series of controlled pools along the river, allowing vessels to “lock through” from one water level to another. Each lock chamber is a large, enclosed space with gates at either end that open and close to let water in or out, raising or lowering boats as needed. Notable installations include the Markland Locks and Dam, McAlpine Locks and Dam, and Olmsted Locks and Dam, the latter being the most advanced and expensive project in the system. In addition to navigation, the system plays a key role in flood control, water supply, and hydroelectric power generation, benefiting communities along the river. Continuous modernization efforts ensure the system remains efficient, as aging infrastructure and increasing traffic demand ongoing improvements.

Misty Corn Field in Summer – Monterey, Kentucky

Misty Corn Field in Summer - Monterey, Kentucky

Early morning mist hangs over a corn crop in Monterey, Kentucky with the forest in the background, during mid-summer.

Corn has been a staple crop in America for thousands of years, originally cultivated by Indigenous peoples long before European colonization. Native American tribes such as the Iroquois and the Hopi developed advanced techniques for growing maize, which later became the backbone of American agriculture. By the 19th century, corn production expanded dramatically with westward expansion and technological advancements like the steel plow and hybrid seeds. Today, the United States is the world’s largest corn producer, with the crop playing a central role in food, livestock feed, and biofuel industries.

Politically, corn has been at the heart of U.S. agricultural policy for decades. The federal government heavily subsidizes corn production through farm bills, ensuring stable prices and high yields. Ethanol mandates, which require a percentage of biofuels in gasoline, have further boosted demand for corn. However, these policies have sparked debates over sustainability, corporate control, and the displacement of other crops. The influence of powerful agribusiness corporations and lobbying groups, such as the National Corn Growers Association, has made corn one of the most politically significant crops in the country.

Despite its dominance, corn farming faces several challenges, including soil depletion, climate change, and reliance on genetically modified organisms (GMOs). Intensive monoculture farming has led to biodiversity loss and increased vulnerability to pests and diseases. Climate change threatens corn yields through extreme weather events, such as droughts and floods, which have become more frequent. Additionally, the overproduction of corn has raised concerns about its role in unhealthy processed foods and environmental degradation due to excessive fertilizer and pesticide use. As America looks to the future, balancing economic, environmental, and health considerations will be key to the sustainable growth of corn farming.