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Gresik Power Plant2,219 MW Gas

Gas

The Gresik Power Plant is a significant asset in Indonesia's energy landscape, playing a crucial role in the nation's power generation mix. Located at coordinates -7.1639, 112.6618, this gas-fired power plant boasts a remarkable generation capacity of 2,219 MW. As one of the largest power generation facilities in Indonesia, Gresik contributes substantially to the national grid, enhancing energy security and supporting economic growth in the region. The plant utilizes advanced gas turbine technology, which is known for its efficiency and lower emissions compared to traditional coal-fired facilities. This aligns with Indonesia's commitment to transitioning towards cleaner energy sources and reducing its carbon footprint. The operational context of the Gresik Power Plant highlights its importance in meeting the increasing energy demands of the region, particularly as Indonesia continues to experience rapid industrialization and urbanization. The facility is strategically positioned to provide reliable electricity to both residential consumers and industrial sectors, ensuring a stable energy supply that is vital for economic development. As Indonesia strives to diversify its energy portfolio, the Gresik Power Plant exemplifies the country’s focus on utilizing natural gas as a transitional fuel. This approach not only supports energy generation but also helps in stabilizing the grid during peak demand times. The plant is operated by a reputable energy company, which ensures that it meets the regulatory standards set by the Indonesian government, further enhancing its operational reliability. In the broader context of Indonesia's energy policy, the Gresik Power Plant represents a key component of the national strategy to increase the share of renewable and cleaner energy sources. By integrating gas power generation, Indonesia is making strides towards achieving its energy independence and sustainability goals. Overall, the Gresik Power Plant serves as a cornerstone of Indonesia's energy infrastructure, providing essential power generation capabilities that support both the economic and social development of the nation.

Capacity
2,219 MW

2.22 GW

Commissioning Year
2011

15 years old

Owner
Perusahaan Listrik Negara (PLN)
Location
-7.1639°, 112.6618°

Indonesia, Asia

Location
Coordinates:: -7.163857, 112.661753
Open in Google Maps
Technical Details
Primary Fuel Type
Gas
Energy Source
Non-Renewable
Country
Indonesia
Continent
Asia
Data Source
Global Power Plant Database
Gresik Power Plant: A Key Player in Indonesia's Energy Landscape

The Gresik Power Plant, located in East Java, Indonesia, stands as one of the country's most significant energy facilities, boasting an impressive installed capacity of 2,219 megawatts (MW). This gas-fired power plant plays a crucial role in Indonesia's energy sector, contributing to the nation's growing demand for reliable and efficient electricity. As Indonesia continues to industrialize, the Gresik Power Plant serves as a backbone for the national grid, supplying power to both residential and commercial sectors, thereby supporting economic growth and development in the region.

Utilizing natural gas as its primary fuel source, the Gresik Power Plant exemplifies a modern approach to energy generation. Natural gas is often viewed as a cleaner alternative to coal, producing fewer greenhouse gas emissions and particulate matter when burned. This aligns with Indonesia's commitment to improving its energy mix and reducing the environmental impact of its energy production. The plant employs advanced gas turbine technology, which enhances efficiency and reduces fuel consumption. This not only helps in lowering operational costs but also contributes to a reduction in the carbon footprint associated with electricity generation.

The environmental impact of the Gresik Power Plant is a significant consideration, especially in the context of Indonesia's diverse ecosystems and climate commitments. While natural gas is cleaner than other fossil fuels, the extraction and transportation processes can pose environmental risks, including methane leaks that may negate some of the benefits associated with its cleaner combustion. Additionally, the plant's operation must comply with stringent environmental regulations to minimize air and water pollution, which is critical for protecting local biodiversity and public health.

Regionally, the Gresik Power Plant holds strategic importance not only for East Java but for the entire Indonesian archipelago. East Java is one of the most populous and economically vibrant regions in Indonesia, and the power generated from the Gresik facility supports local industries, agriculture, and urban development. The plant also plays a role in stabilizing the energy supply in the region, helping to mitigate the risk of blackouts and energy shortages that can hinder economic progress.

In conclusion, the Gresik Power Plant represents a vital asset in Indonesia's energy infrastructure, leveraging natural gas to meet the growing electricity demands of the nation. Its role in enhancing energy security, coupled with its relatively lower environmental impact compared to other fossil fuels, underscores its significance in the country's pursuit of a sustainable energy future. As Indonesia continues to navigate the complexities of energy production and environmental stewardship, the Gresik Power Plant will remain a key player in shaping the energy landscape of the region.

IndonesiaEnergy Profile
297
Total Plants
108.2 GW
Total Capacity
GasCoalHydroGeothermal
Top Fuels
Gas Power Generation: An Overview of Its Mechanisms, Benefits, and Future Prospects

Gas power generation is a significant component of the global energy landscape, characterized by the use of natural gas to produce electricity. This process typically involves either gas turbines or combined cycle gas plants. In a gas turbine, compressed air is mixed with natural gas and ignited, producing high-temperature exhaust gases that spin a turbine connected to a generator. Combined cycle plants enhance efficiency by utilizing both gas and steam turbines. After the gas turbine generates electricity, the waste heat is used to produce steam, which drives a steam turbine, thereby maximizing energy extraction from the fuel.

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