World Power PlantsWorld Power Plants

Edwin I Hatch1,848 MW Nuclear

Nuclear

The Edwin I Hatch Nuclear Power Plant is a critical power generation facility located in the United States, specifically at coordinates 31.9342° N latitude and -82.3447° W longitude in Georgia. With a substantial capacity of 1848 MW, it plays a vital role in the national energy mix by providing a significant amount of baseload energy, which is essential for meeting the continuous electricity demands of the region. Operated by Georgia Power Co, this nuclear facility contributes to the state's efforts to maintain a reliable and sustainable energy supply, aligning with broader energy policy goals aimed at reducing carbon emissions and enhancing energy independence. Commissioned in 1977, the plant has been a cornerstone of the local grid, ensuring that the surrounding communities have access to stable and low-emission energy sources. The technology employed at Edwin I Hatch includes advanced nuclear reactor systems, which are known for their efficiency and low operational costs compared to fossil fuel plants. Nuclear energy generation is pivotal in the United States as it provides a large portion of the country's electricity without the greenhouse gas emissions associated with coal and natural gas. The significance of the Edwin I Hatch plant extends beyond just its energy output; it also contributes to job creation in the region and supports local economies. With the ongoing transition towards cleaner energy sources, facilities like Edwin I Hatch are essential in supporting the balance between energy demand and environmental sustainability.

Capacity
1,848 MW

1.85 GW

Commissioning Year
1977

49 years old

Owner
Georgia Power Co
Location
31.9342°, -82.3447°

United States of America, North America

Location

Coordinates:: 31.934200, -82.344700
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Carbon Footprint

Zero Direct Emissions

Edwin I Hatch is a nuclear power plant producing approximately 13760 GWh of clean electricity per year with zero direct CO₂ emissions during operation.

Lifecycle emissions: ~12 g CO₂/kWh (manufacturing, transport, decommissioning)

Technical Details

Primary Fuel Type
Nuclear
Energy Source
Non-Renewable
Country
United States of America
Continent
North America
Data Source
Global Power Station Database

United States of AmericaEnergy Profile

10,047
Total Stations
1386.4 GW
Total Capacity
GasCoalNuclearHydro
Top Fuels

An Overview of Nuclear Power Generation as a Global Energy Source

Nuclear power generation is a significant source of electricity worldwide, with 243 nuclear power plants operating across 32 countries, contributing a total installed capacity of 534.0 gigawatts (GW). The leading countries in nuclear energy production include the United States, Japan, France, South Korea, and China, with the United States housing the most plants at 68, generating 130.7 GW of power. Nuclear reactors operate on the principle of nuclear fission, where the nucleus of an atom, typically uranium-235 or plutonium-239, is split into smaller parts, releasing a substantial amount of energy in the form of heat. This heat is used to produce steam, which drives turbines connected to electricity generators, thus converting nuclear energy into electrical energy. The advantages of nuclear power are multifaceted. One of the primary benefits is its ability to generate large amounts of electricity with a relatively small footprint compared to fossil fuel plants. Nuclear power plants can operate continuously for long periods, typically around 18-24 months, before needing to refuel, which contributes to a stable and reliable power supply. Additionally, nuclear energy produces minimal greenhouse gas emissions during operation, making it a more environmentally friendly option compared to coal and natural gas power plants. This characteristic positions nuclear power as a potential solution to combat climate change and reduce dependence on fossil fuels. However, nuclear power also has significant disadvantages. The most pressing concern is the management of radioactive waste, which remains hazardous for thousands of years and requires secure, long-term storage solutions. Accidents at nuclear facilities, such as those at Chernobyl and Fukushima, have raised public fears about the safety of nuclear energy, leading to calls for stricter regulations and, in some cases, the decommissioning of nuclear plants. Furthermore, the construction of nuclear power plants is capital-intensive, often requiring substantial investment and time to build, which can deter potential projects. The environmental impact of nuclear power is complex. While it produces minimal air pollution and greenhouse gases, the mining and processing of uranium can result in significant environmental degradation. Additionally, the risk of catastrophic accidents, while statistically low, poses a potential threat to both human safety and the environment. The management of nuclear waste remains a critical challenge that must be addressed to ensure the long-term sustainability of nuclear energy. Globally, there is a noticeable trend towards the expansion of nuclear power, particularly in countries like China, which is rapidly increasing its nuclear capacity. As nations strive to meet energy demands while addressing climate change, many are considering nuclear power as a viable alternative to fossil fuels. The development of advanced reactor technologies, including small modular reactors (SMRs) and next-generation reactors, holds promise for improving safety and efficiency in nuclear energy production. Looking to the future, the outlook for nuclear power generation is mixed. While some countries are phasing out nuclear energy in favour of renewable sources, others are investing in new technologies to enhance the safety and efficiency of nuclear power. The global energy landscape is evolving, and nuclear power may play a crucial role in achieving energy security and sustainability. As technological advancements continue to emerge and public perception shifts, nuclear power could see a resurgence as a key player in the global energy mix.

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