Overview
Xinjiang Hetian Yulongkashi River Dakequke is a 75 MW hydroelectric power plant in China. It harnesses the Yulongkashi River in the Xinjiang region to generate renewable electricity.
Xinjiang Hetian Yulongkashi River Dakequke is a hydroelectric power plant located in the Xinjiang region of China. With a capacity of 75 MW, it is a medium-scale facility that contributes to the region's renewable energy portfolio. The plant is operational and utilizes the flow of the Yulongkashi River to generate electricity. The plant operates under China's national regulations for hydropower, which include environmental impact assessments and water resource management requirements. As a hydroelectric facility, it benefits from low operational costs and a long lifespan, typical of run-of-river or reservoir-based projects in the region. The facility plays a role in supporting local energy needs and reducing reliance on fossil fuels. Its location in Xinjiang, a region with significant hydropower potential, aligns with China's broader goals of expanding renewable energy capacity and reducing carbon emissions.
Environmental context
The plant's hydroelectric generation produces no direct CO2, SOx, or NOx emissions, offering a low-carbon energy source. However, its operation may affect local aquatic ecosystems and river flow patterns. The facility is situated in an arid region where water management is critical, and its presence supports grid stability in Xinjiang.
Frequently asked questions
The plant is located in the Xinjiang region of China, on the Yulongkashi River near Hetian.
The plant has a capacity of 75 megawatts (MW), making it a medium-scale hydroelectric facility.
It is a hydroelectric power plant that generates electricity by harnessing the flow of the Yulongkashi River.
Hydroelectric plants in China must comply with national environmental impact assessments, water resource management laws, and renewable energy policies.
Hydroelectric power produces no direct air emissions, reduces reliance on fossil fuels, and supports grid stability with renewable energy.