The state-owned power finance company aims to meet 20% of the INR 15 lakh crore ($181.25 billion) financing requirement for India’s targeted 500 GW of installed RE (non-fossil fuel) capacity.
Ayana Renewable Power will develop over 1 GW of renewable energy capacity comprising solar and wind, supplemented with a storage solution, to ensure round-the-clock power supply.
A new study by Central Electricity Authority assesses the least-cost, optimal generation capacity mix to meet India’s projected electricity demand for the year 2029-30.
Despite being a mature and largely indigenous technology, pumped storage hydropower’s operational capacity in India remains very low at 3.3 GW because of the high development costs and inherent challenges in constructing these schemes.
NTPC Renewable Energy Ltd is accepting bids to develop a cumulative 1.5 GW/9 GWh of energy storage capacity on a build-own-operate basis anywhere in India. It will utilize the energy storage facility to meet its round-the-clock renewable and/or peak power supply requirements. Bidding closes on June 16.
Su-Kam Power Systems has signed a memorandum of understanding with Himachal Pradesh government to establish a sustainable energy storage park in the state. It plans to invest around INR 300 crore to manufacture renewable, e-mobility, and solar energy products in this park in the near future.
The company has won large-scale renewable energy EPC projects in Africa and Middle-East regions. Its India portfolio includes an order to construct the single largest commercial and industrial solar park in Rajasthan.
Israeli company Brenmiller is set to launch a 4 GW to 5 GW production line for its thermal energy storage systems, which use crushed rocks to retain heat that can be released as steam, hot water, or hot air.
Tata Power will use the secured financing to enhance Delhi’s power distribution through grid enhancements and a battery energy storage system.
Stanford University researchers have created a model to assess how much compressed air storage capacity might be needed for the deep decarbonization of power systems, while compensating for the variability of wind and solar-based power systems. They applied the model to California’s energy system and found that compressed air could be very competitive on a dollars-per-kilowatt-hour basis.
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