Skip to main content

Current long-duration energy storage technologies can cut industrial emissions by up to 65%

Published by , Editorial Assistant
World Cement,


Long-duration energy storage (LDES) can abate up to 65% of industrial emissions using currently existing technologies, according to a new report from the LDES Council and Roland Berger.

Industrial carbon dioxide emissions account for around one quarter of greenhouse gasses emitted annually worldwide. Growing by more than 2% annually, these industrial emissions are increasing the difficulty of achieving global net-zero emissions targets.

The Driving to Net Zero Industry Through Long Duration Energy Storage report concludes that the four categories of LDES technology – electrochemical, thermal, mechanical, and chemical – are viable, cost-effective, and readily applicable options now for industrial decarbonisation when paired with renewable energy.

By storing energy during the lowest cost times or during periods when production is higher than consumption, long-duration energy storage provides reliable power for off-grid applications and reliable heat and power for grid connected industrial applications.

Julia Souder, CEO of the LDES Council, said: “Decarbonising industry is one of the largest challenges we face on our journey to achieve net zero. This report finds that there is no time to waste and no reason to delay action. LDES and renewables can be crucial in cost-effectively reducing emissions across key industrial sectors in the short, medium, and long term.”

Major industrial players are investing in these technologies, with Microsoft, Tata Steel and BHP already embarking on projects to demonstrate the ability of LDES technologies to decarbonise their operations.

In off-grid facilities, LDES can replace expensive diesel fuel with more affordable renewable electricity, providing round-the-clock power for industrial customers.

Providing energy storage beyond ten hours can enable remote mines, data centres, and other off-grid industrial operations to run on 24-7 carbon-free power.

LDES also supports decarbonising high-temperature industrial manufacturing, which currently relies on burning fossil fuels to produce heat.

This demand for industrial heat is expected to grow by 34% between 2019 and 2040, with low and medium-temperature heat the fastest-growing segments.

LDES can reduce these emissions at food processing and chemical facilities with heat requirements below 500°C. The food and chemicals industries alone account for over 20% of industrial emissions. Meeting their needs with thermal energy storage solutions powered by electricity from the grid will have a sizeable impact on global emissions.

To meet these targets, new policy mechanisms may be necessary to bridge current cost gaps. Long-term market signals, secure revenue mechanisms, and technology support will accelerate industrial decarbonisation.

Julia Souder continued: “Some of the world’s biggest companies are adopting long duration energy storage technologies to support industrial processes. However, we require policy-makers to create the right market mechanisms and provide effective support to supercharge the success of these solutions.”


Click here for free registration to World Cement

Read the article online at: https://www.worldcement.com/europe-cis/13112023/current-long-duration-energy-storage-technologies-can-cut-industrial-emissions-by-up-to-65/

You might also like

World Cement podcast

World Cement Podcast

In the latest episode of the World Cement Podcast, Senior Editor David Bizley is joined by Dr Andrew Minson of the GCCA to discuss the ins and outs of the recently launched Low Carbon Ratings (LCR) system.

Listen for free today »

 

Responsible Capacity Growth, Powered by Your Data

As demand rises with urbanisation, manufacturers must meet growth targets while advancing 2030 and 2050 decarbonisation goals. AI Optimisation (AIO) technology is empowering teams with AI expertise to transform operations and accelerate their journey toward a smarter, more sustainable future.

 
 

Embed article link: (copy the HTML code below):