Green Economy Journal Issue 61
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STORAGE<br />
STORAGE<br />
CEA, BofA, Benchmark Mineral; Kearney analysis<br />
The automotive industry’s dominance in lithium-ion<br />
battery demand strains supply and impacts prices.<br />
OEM reactions (vehicle withdrawals) to material<br />
shortages can positively impact supply and prices.<br />
The recovery of lithium prices eases the situation,<br />
reducing short-term risks, but prices remain high.<br />
Uncertain price development and forecaste increases<br />
from 2025 onward create long-term price risk.<br />
Figure 1. Lithium’s cost influences battery prices significantly, and although prices have partially recovered, future trends remain uncertain. 1Lithium<br />
carbonate equivalent: battery grade lithium. 2Lithium-iron-phosphate.<br />
FULL CHARGE<br />
How energy companies can power up against supply chain<br />
risks in battery energy storage systems.<br />
It’s a gut response of our modern era: the assurance we feel from an icon lit with green bars,<br />
telling us a battery is fully charged. Wouldn’t it be great if industries dependent on battery<br />
energy storage systems saw that icon light up regularly to indicate a steady, reliable supply of<br />
lithium and other essential raw materials?<br />
BY KEARNEY CONSULTING*<br />
Lithium-ion batteries are currently the dominant storage<br />
technology for the automotive industry, utilities and renewables<br />
developers. Yet key ingredients pose risks to the battery storage<br />
supply chain, the most daunting of which influence cost, supply<br />
and ESG matters.<br />
Global disruptors ranging from volatile geopolitics and inflation to<br />
technological acceleration are reshaping supply, causing shortages<br />
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The beauty of a<br />
that have become fundamental business issues. For industries in<br />
the renewable energy sector, risks to the battery energy storage systems<br />
(BESS) supply chain and its need for raw materials can turn from orange<br />
to red quickly, jeopardising considerable value. But there are ways to<br />
proactively reduce the risks to ensure a secure and sustainable battery<br />
supply. It’s a matter of understanding the risks and then adopting<br />
strategies for mitigating them in the short and longer term.<br />
Article courtesy of Kearney Consulting<br />
Lithium-ion batteries have become the technology of choice for battery<br />
energy storage due to their high energy density, long cycle life, fast<br />
charging and widespread availability. These advantages have created<br />
a huge demand for them. The automotive industry, which accounts<br />
for 80% of demand, and electric vehicle makers are the hungriest,<br />
followed by renewable-focused energy companies and the needs<br />
of vital energy infrastructure and the military.<br />
The strain has impacted prices, supply and issues surrounding ESG<br />
for materials including lithium, graphite, nickel and cobalt. Kearney’s<br />
research indicates that the price of lithium has risen 500% from 2020<br />
to 2023. As global demand for the material grows, the compound<br />
annual growth rate (CAGR) for lithium-ion batteries could go up by<br />
33% in the next three years, and by 2030, lithium demand could see<br />
another 400% increase.<br />
We believe a comprehensive approach to the entire battery<br />
supply chain is needed to address the rising risks. Among concerns<br />
voiced by renewable-energy developers is their dependency on China,<br />
which accounts for 75% of battery manufacturing, an oligopolistic<br />
sellers’ market, the auto industry’s dominance over demand, raw<br />
materials shortages, further price volatility and failure to comply with<br />
ESG expectations.<br />
The price for lithium has risen<br />
500% from 2020 to 2023.<br />
Achieving supply<br />
chain control doesn’t<br />
happen overnight.<br />
THE THREE LEADING RISKS<br />
Cost risk. Lithium prices have fluctuated a great deal recently, having<br />
rocketed upward by a factor of 15 from 2021 to 2022 (figure 1). They<br />
have recovered, but we see them remaining at a high level, creating<br />
long-term price risk. This is significant because lithium comprises<br />
approximately 40% of battery cell costs, and passing on the rising<br />
expense is difficult, especially for utilities.<br />
Supply risk. The supply chains for raw materials are complex, long<br />
and span multiple continents, often reaching across South America,<br />
China and Europe. China, for example, controls the refinement of most<br />
of the world’s raw materials for batteries (including 70% of the needed<br />
graphite). Its dominance comes in part from the cost advantages the<br />
country enjoys, along with vertical integration. However, the risk here<br />
is political. If global demand outweighs supply, the country could<br />
prioritise Chinese companies, with political tensions leading to an<br />
embargo for battery manufacturers beyond its borders.<br />
Chronic lithium supply shortages are already emerging. If the<br />
desire for EVs continues to rise, demand could overwhelm mining<br />
companies’ ability to extract enough lithium to keep pace. Conversely,<br />
inflation and slowing demand for new EVs could ease the need<br />
for lithium. However, we believe the forecasted supply shortage<br />
and China’s control over the supply chain will pose significant<br />
risks (figure 2).<br />
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