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Separating battery metals market hype from reality

As we explored in The Boston Consulting Group's Future of Mobility study, car buyers' total cost of ownership, along with ever-stricter environmental regulations, constitute the major forces fuelling…

Editor 6 min read
Separating battery metals market hype from reality
Separating battery metals market hype from reality

From the Lithium News archive. This article dates from Aug 22, 2018 and is preserved as first published.

As we explored in The Boston Consulting Group’s Future of Mobility study, car buyers’ total cost of ownership, along with ever-stricter environmental regulations, constitute the major forces fuelling penetration of electric vehicles (EVs) in the automotive market. Indeed, BCG analysis suggests that, globally, the share of all EVs (including hybrid cars) could reach roughly 30% of manufactured vehicles by 2025 and as much as 50% by 2030 (though electrification will manifest itself differently in regions around the world). For fully battery-operated EVs, those global numbers may reach 6% and 14%, respectively (figure 1, below).

Given the hype surrounding battery metals these days, mining companies may be tempted to swiftly ramp up capacity to satiate demand. But, they risk falling into the ‘supercycle’ trap—whereby companies develop new mines on the assumption that demand and prices will continue increasing. History has shown that markets can turn all too suddenly, driven in part by producers’ over-eagerness. Too much supply floods the market, and prices plummet.

To avoid this scenario, miners must use a cool head to assess the opportunities and risks presented by the battery metals market. They need to draw on facts (not sentiment) to develop the best-informed perspective, and then use this more informed view to craft their business strategies. In this article, we examine trends in current battery materials dynamics and outline implications for miners.

Lithium, nickel and cobalt: The big three in EV battery technology today

To build a realistic understanding of the battery materials market, we suggest that miners avoid relying solely on the ‘voice of the market’ and instead consider a fundamental long-term perspective on supply, demand and price dynamics for lithium, nickel and cobalt—the metals currently dominating battery technology (figure 2, below). Drawing on BCG’s Commodity Market Insights (CMI) framework, we have developed such outlooks for each metal.

Lithium

Current EV battery technology is predominantly lithium-ion based, where lithium, nickel and cobalt are the primary raw materials required. Considerable hype surrounds the lithium market, with many observers expecting a shortage of supply that will trigger a struggle among battery manufacturers to source this material. But BCG analysis suggests that sufficient supply will come online in the medium term to satisfy demand. Coupled with innovations in production technology (such as chemical processing of brines), this development will keep prices from exploding. However, the lithium market still lacks sufficient spot volumes, and that could make it difficult for battery producers to source lithium materials with suitable specifications in the short term.

Current EV battery technology is predominantly lithium-ion based, where lithium, nickel and cobalt are the primary raw materials required.

With all of this in mind, we expect lithium prices to level out at about US$10,000 per tonne of lithium carbonate equivalent (LCE) in 2025, and hit the $12,000 range in the longer run. This medium-term price outlook is based on the assumption that developing capacities will be comparably well positioned on the global cost curve.

This outlook seems to contradict recently reported price spikes in lithium transactions. However, our analysis suggests that price levels substantially exceeding $10,000 are driven not by fundamentals, but by a not-yet-liquid market coupled with fears of shortages—making buyers less sensitive to price.

Nickel

Nickel is generally not scarce, but tightness in nickel Class 1 material (required for battery manufacturing) is around the corner. We anticipate solid demand growth, especially for Class 1 nickel, driven by the EV market, and drop in inventory levels as soon as 2019, which would prompt a supply deficit in the market. To mitigate this deficit, the market requires either processing of laterite ores into Class 1 material or the development of high-cost sulfide deposits, production of which can be directly used for battery-grade nickel. Both production routes come with high operational costs, so we expect Class 1 nickel prices to rise and even become decoupled from lower-grade indices.

Specifically, battery-grade nickel prices will likely exceed the $20,000 per tonne threshold in 2021 and then stabilise slightly below $20,000 by 2025. Mining companies are already showing more willingness to step up their expansion capex, which adds to the supply of nickel in the medium term. But even those large-scale developments will be operating towards the right-hand side of the supply cost curve, keeping longer-term prices well above today’s levels. Indeed, BCG’s CMI results lean towards the higher end of analysts’ forecasts through 2021. In the longer run, they fall slightly and oscillate around the analyst average.

Cobalt

It’s no secret that substantial risks surround the supply of cobalt. As much as 65% of the global supply of this metal comes from the Democratic Republic of Congo (DRC), an unstable jurisdiction often associated with perceptions of unethical mining practices. Prices skyrocketed during 2017 and early in 2018. BCG proprietary analysis shows that the spike was caused in part by battery producers’ stockpiling efforts as well as financial investors’ securing of physical volumes of cobalt.

But these moves have artificially inflated prices. Examined through the lens of market fundamentals, cobalt is not as scarce and ‘at risk’ as many believe. On-the-ground supply-side observations, especially in the DRC, reveal that ‘fresh’ supply of cobalt will hit the market. Also, at price levels beyond the $40,000 per tonne range, it may become economically advantageous to re-treat tailings volumes and change metallurgical processes to boost cobalt recovery from mixed deposits, though this could reduce recovery rates for other metals in those deposits, such as nickel and copper. Multiple mining companies have begun doing both to increase recovery from primary mined ore as well as from tailings. The ‘fear factor’ of relying on potentially dubious supply from the DRC will also likely ease up, as governments, mining companies and industry bodies step up efforts to trace cobalt production from ‘cradle to grave’, applying digital innovations such as blockchain.

Taking such developments into account, BCG’s perspective on price trends for cobalt is strongly contrarian. While analyst consensus suggests sustained price levels beyond the $80,000 mark, we believe that prices have passed their peak levels and will substantially drop in the short to medium term. Unless there are sustained interruptions in DRC volumes (which we view as unlikely), medium-term price levels exceeding $40,000 per tonne are not justified by fundamentals.

Implications for mining companies

Mining companies seem caught between the proverbial rock and hard place.

They must avoid investing in production capacity that might be loss-making down the road. But simultaneously (and for good reason), they should also capture the opportunities that battery materials present. By strengthening their understanding of the pricing mechanics for these metals, they can avoid overpaying for assets and can mitigate the risk of engaging in loss-making developments.

We also suggest that they consider alternative means of project financing that can shield them from the worst impacts of price collapses. Examples include joint-venture agreements with battery producers (who are eager to engage in such structures to secure their long-term raw material supply) and streaming agreements with automotive OEMs (who co-invest in the development of a new mine in return for rights to receive certain output volumes once the mine is operational).

Miners should also start looking beyond lithium-ion-based battery technology to the next wave of battery innovation. Most important, they need to consider the new raw materials that may be required to support those innovations—and tailor their longer-term business strategies accordingly. These potential new materials include vanadium, magnesium and zinc (among others), and each will come with its own strengths and risks.

The sirens’ song of the battery metals market may (understandably) be hard to resist. But savvy miners will tune it out so they can objectively gauge the market’s opportunities and risks.

They will keep the supercycle trap front and centre in their minds—and take steps to avoid it. By staying current with the outlooks for lithium, nickel and cobalt; exploring novel finance mechanisms; and anticipating tomorrow’s battery technology innovations, miners can prepare themselves to pivot as needed to succeed in this volatile market.

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Minnesota utilities hope surge of big-scale batteries helps transition to clean energyJared Newton remembers panicking at times when launching three first-of-their-kind battery projects in Minnesota for Connexus Energy in 2019. Would lithium technology — paired with solar farms — charge fast enough in the morning to meet afternoon electric needs? "Until I saw it in action, we didn't know if we'd be able to get them charged in time," said Newton, who leads engineering and system operations for the electric cooperative in Ramsey. Newton and Connexus are local trailblazers in the fledgling world of utility batteries. Now, Minnesota is on the brink of a large-scale rollout of the mega batteries over the next six years, putting the state on pace for a relative boom in battery infrastructure. On Thursday, state utility regulators approved a certificate of need for a $450 million project by Invenergy near Lake Wilson that would be by far the largest storage system in the state. Utilities — plus state planners here and across the country — are counting on utility-scale batteries to help with the shift from coal to wind and solar energy in the next two decades. However, many forms of the promising technology are still mostly untested beyond pilot projects and the batteries, while they have dropped in price, are still expensive. Xcel Energy, Minnesota's largest electricity provider, has no batteries in the state so far but released plans in February for a sizable fleet to help as it works toward closing its coal plants by 2030. A study commissioned by the state Legislature released this month also said a battery influx is needed for utilities to meet a state target for carbon-free electricity by 2040. "I feel like we've been talking about [energy storage] a long time," said Julie Pierce, vice president of planning and strategy for Duluth-based Minnesota Power. "Now we're really seeing the fit and form come into fruition here." What batteries can be used for The biggest challenge of shifting energy sources from fossil fuels to wind and solar power is 24-hour reliability. If there's no wind or it's a cloudy day, it can interfere with power generation. Especially during spikes in need, utilities need a backup. Xcel has two large nuclear plants, some hydropower and will use natural gas "peaking" plants for many years. But batteries can be used instead of gas for extra juice when demand is at its highest, like a hot summer day when people are running air-conditioning. "We're losing over two gigawatts of round-the-clock potential baseload power," said Justin Tomljanovic, Xcel's vice president of corporate development. "We're replacing it with generally intermittent resources." Two gigawatts can supply enough power for up to 2 million homes. Astrid Atkinson, CEO of California-based Camus Energy, said batteries also will play many smaller and more specific roles in a modern electric grid that has become more complex because of things like increased use of electric vehicles. Her company is working with Connexus and pitches software that acts as an air-traffic controller and helps cooperatives better use batteries. Pilot projects and 'baby steps' Connexus has 15 megawatts of batteries at three sites and plans for more. It uses a form of common lithium batteries that has a short battery life but is trusted and already widely available. Not only was the cooperative an early adopter of batteries, it still stands out. Outside of Connexus, there was only one other utility-scale battery facility in Minnesota as of December, a state study released this month found, and it is small. The study, commissioned by the Legislature and conducted by Siemens Industry, suggested Minnesota could need between 1.35 and 2.8 gigawatts of energy storage to hit the 2040 carbon-free target. Siemens pegged the optimal amount at 1.7 gigawatts, a little more than the capacity of Xcel's largest Minnesota coal plant in Sherburne County. So far, Xcel has state approval for an experimental 10 megawatt, 100-hour long-duration battery with Form Energy that uses iron and the process of rusting to store power. Great River Energy has a smaller pilot project with Form in the works, too. Cole Funseth, Great River's manager of generation engineering, said the battery is so promising and desired by the industry because it could help over long stretches, like a polar vortex that hampers natural gas production. Minnesota Power is a partner on the state's other battery facility, a small lithium ion project in Grand Rapids, but the company is eyeing grant funding after unsuccessfully applying for federal help to test another long-lasting technology known as a flow battery. "The utilities are still very much calling these pilot projects," said Beth Soholt, executive director of Clean Grid Alliance, a trade group that represents wind, solar and battery developers. "Until they have operating experience — they can touch it, kick it, see what it does — they don't know." Meanwhile, Soholt said the 15-state regional grid operator is still taking "baby steps" on batteries, writing rules for the open energy market that will be critical for developers and the future of the technology. In this early phase, utilities also say grant money is crucial. Ryan Long, Xcel's president in Minnesota, said in general the economics for batteries have improved. But Pierce of Minnesota Power said costs are still high, especially for technology that hasn't been fully commercialized. "It's probably on the higher end of some of the [carbon-free] alternatives right now, though we do have a lot of hope for the industry," Pierce said. Xcel, while refusing to divulge the overall cost, got a $70 million grant to use on the Form pilot project in Minnesota and another in Colorado, as well as $20 million from a Bill Gates-founded platform. Power surge ahead Xcel's new long-range plan calls for 600 megawatts of storage by 2030, which is large but less than half the power output of the large coal-fired plant in Sherburne County. Great River plans to add 200 megawatts in 2030. The state Public Utilities Commission (PUC) approved a plan for Minnesota Power to incorporate up to 500 megawatt hours — a measure that accounts for output and duration — of storage, likely by 2030. That is in the ballpark for how much battery storage Siemens found each utility might need. Smaller cooperatives and municipal utilities also will have to build hundreds of megawatts of batteries in total, Siemens said. Still, the question of exactly what kind of technology the utilities will build is unresolved. Connexus seems likely to keep its focus on lithium, the proverbial meat and potatoes of the battery world. Newton said long-duration batteries are likely critical in a carbon-free grid, but he said the highly anticipated technology such as Form seems "sort of like vaporware" until it's actually operating. Xcel isn't solely focused on the Form battery either. Tomljanovic said the utility is planning on also using lots of the readily available lithium ion units. And because long-range technology is still under development, the Siemens projection was based on four-hour lithium ion. Great River initially said its Form battery would be in operation by the end of 2023, though now the company expects late 2024 or early 2025. Funseth said the delay is because GRE is waiting to get batteries produced at Form's factory under construction in West Virginia rather than get custom infrastructure. "I wish the Form Energy pilot projects could go faster," Soholt said. "Because I think that we need to understand if they're going to pan out or not." Minnesota Power also is looking at a combination of technologies, Pierce said. The utility needs energy storage systems that can last for 10 to 12 hours that would better serve the company's customer base, which includes heavy industry like taconite mines. Right now, along with state regulators, Xcel is taking bids for a large amount of what is called "dispatchable" energy — power sources like gas plants or batteries that can be called on quickly for fast power that isn't dependent on weather. 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