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As expected, the electrification of the global transportation system is creating strong tailwinds for the EV market…

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This article was originally published by A Head of the Herd


As expected, the electrification of the global transportation system is creating strong tailwinds for the EV market.

Power Technology, known for its research on the energy sector, reports that EV sales more than doubled in the first half of 2021, increasing by 160% compared to H1 2020. The 2.6 million units sold, 1.1 million of which were in China, represent 26% of total new car and truck sales globally.

An analysis from IDTechEx quoted by the publication forecasts EV sales in 2021 are on track to surpass 5 million passenger cars.  “If they do, it will mean an astonishing growth rate of ~86% CAGR since 2011,” the report reads.

Virta, which claims to be the fastest-growing electric vehicle charging platform in Europe, operating in over 30 countries, is more aggressive in its 2021 EV sales forecast.

Global plug-in vehicle sales. Source: Virta
BEV + PHEV sales and % growth. Source: Virta

“Carried by a decarbonization challenge most leading nations now take seriously, 2021 is a game changer in the history of EV sales and it is expected that 6.4 million vehicles (EVs and PHEVs combined) will be sold globally by the end of the year. It would then represent a 98% year over year increase,” the company states in a report titled ‘The Global Electric Vehicle Overview in 2022: Statistics and Forecasts’.

Projecting further out, Virta cites the International Energy Agency’s (IEA) Global EV Outlook 2021, whose Stated Policies Scenario suggests that by 2030, the global EV stock (excluding two- and three-wheelers) could reach nearly 145 million and account for 7% of the total vehicle fleet.

The more ambitious [email protected] campaign envisions, plainly, 30% of all vehicles becoming electric by 2030, putting global sales at 43 million, or almost double that of the Stated Policies Scenario.

Consulting firm McKinsey & Company believes EV sales will continue increasing, fueled by government policies including the Biden administration’s stated goal that half of all new vehicle sales by 2030 be zero-emission; state-level adoption of credit programs; tougher emissions standards; and increasing electrification commitments from OEMs.

Second-quarter EV sales in the US increased by nearly 200% compared to Q2 2020, contributing to a domestic penetration rate of 3.6% during the pandemic. The next report should deliver similar or even better growth figures.

EVs are likely to account for more than half of all US passenger car sales by 2030, according to McKinsey. Source: McKinsey & Company

Li-ion battery demand

A lithium-ion (Li-ion) battery is a type of rechargeable battery technology common to portable electronics, electric vehicles and large grid-scale storage systems for renewable energy. 

These batteries consist of an anode, cathode, separator, electrolyte and two current collectors (positive and negative).

The cathode contains lithium, either in the form of lithium carbonate or lithium hydroxide, while the anode is made up of graphite. There are no substitutes for either in a Li-ion battery.

While there are several obstacles to increasing the penetration rate of EVs to regular vehicles, including charging station infrastructure and lowering their sticker prices, recent research suggests the battery storage market is growing in leaps and bounds.

According to an analysis by Adamas Intelligence, in 2020 a total of 134.5 gigawatt hours (GWh) of battery capacity was deployed globally into newly sold passenger BEVs, PHEVs and HEVs, an increase of 39.6% compared to 2019.

The added capacity is on trend with a report last year from Roskill, which found that lithium-ion battery demand is expected to increase more than 10-fold.

“The pipeline capacity of battery Gigafactories is reported by Roskill to exceed 2,0‌00GWh in 20‌29, at over 145 facilities globally,” the report reads. “Driven by demand from the automotive and energy storage markets, NCM/NCA type cathode materials are expected to remain dominant, though other cathode types will take market share in niche environments or applications.” 

In March of this year, Benchmark Mineral Intelligence said it is tracking 200 “super-sized” lithium-ion battery cell plants in the pipeline to 2030, bringing total global capacity to 3.4 terawatt-hours, a massive increase from the 755 gigawatt-hours in 2020. (1TWh = 1,000 GWh)

The bulk of these sprawling new battery-making facilities are likely to be in China, which currently produces around three-quarters of the world’s lithium-ion batteries.

Of the 200 plants that BMI is tracking, 148 are in China, compared to 21 in Europe and 11 in the United States.

However, new energy storage systems in the US are sprouting up. According to a 2020 report by commodities consultancy Wood Mackenzie, and the US Energy Storage Association, over 2,000 megawatt-hours (MWh) were brought online in the fourth quarter of last year.

And there’s more to come. The firm’s head of energy storage, Dan Finn-Foley, predicts the US energy storage market will add five times more megawatts of storage in 2025 than was added in 2020, with front of the meter (FTM) storage continuing to contribute between 75-85% of new MW each year.

There are a number of battery plants in the works to join Tesla, whose first gigafactory in Nevada started production of battery cells in 2017. The company has a plant in Buffalo, New York, and plans to open a third (US plant) in Texas by the end of this year. Tesla also has a “pilot line” at its facility in Fremont, California, for R&D technologies. 

In 2020 General Motors announced plans to install its first battery cell factory in Ohio, a project called Ultium Cells launched with its Korean partner LG Chem. The latter opened a plant in Holland, Michigan in 2013.

Another South Korean company, SK Innovation, is planning on opening the first of two battery plants in Georgia early next year; the company is a supplier to Volkswagen and Ford.

The latter along with American auto icon GM have big plans to electrify their fleets. Ford announced plans to boost spending on electrification by more than a third, and aims to have 40% of its global volume electric by 2030, which translates to more than 1.5 million EVs based on last year’s sales.

GM reportedly aspires to halt all sales of gas-powered vehicles by 2035, with plans to invest $27 billion in electric and autonomous vehicles over the next five years.

In October Toyota said it will invest about $3.4 billion on American battery development and production through 2030.

North American battery cell manufacturing landscape. Source: BloombergNEF, company announcements

There are currently 11 EV start-ups racing to catch up with market leader Tesla, fueled by money from Wall Street. They include Rivian out of Irvine, California, Lucid Motors based in Newark, CA, Lordstown Motors from Ohio, Nikola Corp (Phoenix), Fisker (Los Angeles), Faraday & Future (Los Angeles), Canoo (Torrance), NIO, Li Auto and XPing from China, and Arrival, based in London.

The latest car company to commit to EVs is Nissan, which plans to spend 2 trillion yen (US$17.6 billion) over the next five years. The Japanese automaker is hoping to launch 23 electrified models including 15 EVs, aiming for 50% electrification by 2030 through its Ambition 30 strategy.

This gives you a sense of the extent to which the EV lithium battery market in the US is growing.

Need for graphite

For all the talk of electrification and battery plant growth, nothing can be achieved without ensuring there is enough supply of the metals used to power these vehicles.

A 2020 World Bank report entitled ‘The Mineral Intensity of the Clean Energy Transition’, estimated that production of minerals underpinning the clean energy shift would have to increase by nearly 500% by 2050 to meet global demand for renewable energy.

Cumulative demand for minerals needed for energy storage through 2050. Source: World Bank
Projected annual mineral demand under the 2-Degree Scenario. Source: World Bank

Lithium, obviously a key ingredient for making EV batteries, is set to endure an unprecedented shortage of supply in the coming years. Global miner Rio Tinto has said even if they had another 60 lithium mines, that wouldn’t fill the supply-demand gap. Bloomberg NEF research shows that over five times more lithium is needed in 2030 compared to current levels.

Another battery metal less in the spotlight but also facing severe supply concerns is graphite. Graphite is the only material that can be used in the lithium-ion battery anode, there are no substitutes. This is due to the fact that, with high natural strength and stiffness, graphite is an excellent conductor of heat and electricity. The only other natural form of carbon besides diamonds is also stable over a wide range of temperatures.

According to the World Bank, graphite accounts for nearly 53.8% of the mineral demand in batteries, the most of any. Lithium, despite being a staple across all Li-ion batteries, accounts for only 4% of total demand.

An electric car contains more than 200 pounds (>90 kg) of coated spherical graphite (CSPG), meaning it takes 10 to 15 times more graphite than lithium to make a Li-ion battery.

For every million electric vehicles, which is only about 1% of the new car market, we need in the order of 75,000 tonnes of natural graphite, representing a 10% increase in flake graphite demand.

The EV battery market alone is projected to consume well over 1.6 million tonnes of flake graphite per year, resulting in a 10-fold increase in demand by 2030. This is worrisome considering that total graphite mined in 2020 for all uses, including lump graphite for pencils and graphite used in nuclear reactors, was only 1.1 million tonnes.

It is estimated that the natural flake graphite market could reach a deficit as soon as 2023, with few new sources being developed around the world.

Image by Visual Capitalist

Critical graphite

At the moment, nearly all graphite processing takes place in China because of the ready availability of graphite there, weak environmental standards and low costs. Nearly 60% of the world’s mined production last year came from China, making it a dominant player in every stage of the supply chain.

Data source: USGS. Image by Visual Capitalist

After China, the next leading graphite producers are Mozambique, Brazil, Madagascar, Canada and India. The United States does not produce any natural graphite and therefore must rely solely on imports to satisfy domestic demand.

The level of foreign dependence has increased over the years. The US imported 38,900 tonnes of graphite in 2016 and 70,700t in 2018.

According to the USGS, in 2020 the US imported 42,000 tons, of which 71% was high-purity flake graphite, 28% was amorphous, and 1% was lump and chip graphite. The top importers were China (33%), Mexico (23%), Canada (17%) and India (9%). But remember, the US is not 33% dependent on China for its battery-grade graphite, but 100%, since China controls all spherical graphite processing.

It’s thought that the increased use of lithium-ion batteries could gobble up well over 1.6 million tonnes of flake graphite per year (out of a total 2020 market, all uses, of 1.1Mt) — only flake graphite, upgraded to 99.9% purity, and synthetic graphite (made from petroleum coke, a very expensive process) can be used in lithium-ion batteries.

The USGS believes that large-scale fuel cell applications are being developed that could consume as much graphite as all other uses combined.

Can the mining industry crank out more graphite every year to match this demand? Call me skeptical. Between 2018 and 2019, world mine production actually declined by 20,000 tonnes, or 1.8%. Global production in 2019 and 2020 was exactly the same, 1.1 million tonnes.

China’s limitations 

Currently there are no producing graphite mines in the United States, and only 10,000 tonnes a year is being mined from two facilities in Canada. The fact is, for the United States to develop a “mine to battery” supply chain at home, it currently has no choice but to import its raw materials from foreign countries.

For battery-grade graphite, that means China, which is growing increasingly adversarial, in terms of trade, foreign policy and militarily.

Even if the US wants to keep importing its graphite, doubts have been raised over whether China could keep up with surging global demand. The top producer has already taken steps to retain its graphite resources by restricting its export quota and imposed a 20% export duty.

Metal Bulletin reported in October that Chinese graphite prices are likely heading higher in the last quarter of this year due to rising electricity costs and reduced power supply, as well as insufficient inventories and inadequate availability of feedstock for spherical graphite processing.

High power costs and limits on energy consumption in China may make it increasingly difficult for graphite producers to stockpile material to serve customers during the winter months. Graphite producers typically halt production from mid-November/December until March.

Prohibitively cold temperatures in northern China’s Heilongjiang province, where the majority of natural flake graphite production is centered, typically prompt extended graphite production stoppages, with producers supplying customers from inventory during the outage period.

If natural graphite producers in Heilongjiang are unable to produce sufficient volumes of material for their stockpiles, given power shortages and elevated electricity costs, we may see natural graphite shortages emerge in the coming months, lending upward support to prices.

In short, the days of affordable, abundant graphite from China are numbered, adding further urgency for the US to develop its own supply.

The demand for graphite is only headed in one direction. A White House report on critical supply chains showed that graphite demand for clean energy applications will require 25 times more graphite by 2040 than was produced worldwide in 2020.

We have clearly reached a point when much more graphite needs to be discovered and mined.

This is why the US is looking to develop its own “mine to battery” supply chain, which would include a cost-competitive and environmentally sustainable source of graphite.

Political support

In February of this year, President Joe Biden signed an executive order (EO) aimed at strengthening critical US supply chains. Graphite was specifically identified as one of four minerals considered essential to the nation’s “national security, foreign policy and economy.”

Fortunately there are a growing number of US politicians who like the idea of developing domestic critical metal mines, and are working with the mining industry to achieve results.

Among the most vocal is Alaska Republican Senator Lisa Murkowsi. Murkowski helped draft the bipartisan infrastructure bill recently passed by Congress. The $1.2 trillion package includes money for research and demonstration projects and other efforts aimed at lessening the reliance on China for the supply of critical minerals like lithium and graphite.

In discussing America’s dependence on foreign nations such as Russia and China to meet its resource needs, Murkoswski said:

“We need a rational, clear-headed, eyes-wide-open approach to energy and mineral development. We don’t want to go back on energy, and we can’t be caught flat-footed on minerals. We have the resources, and we have the highest labor standards in the world, the highest environmental standards in the world. Our energy workers, our miners, they hold themselves to that standard. So instead of importing more from places like Russia and China, we need to free ourselves from them to the extent that we can and establish ourselves as this global alternative.” 

Fortunately, there is plenty of North American graphite for local consumption, if industry and government can find the collective will to make it happen.

The Kigluaik Mountains on Alaska’s Seward Peninsula hosts a deposit with the size and grade to meet the nation’s growing need for graphite in Li-ion batteries.

Graphite One

Earlier this year, the Federal Permitting Improvement Steering Committee (FPISC) granted High-Priority Infrastructure Project (HPIP) status to Graphite One Inc. (TSXV:GPH, OTCQX:GPHOF), which is aiming to develop America’s first high-grade producer of coated spherical graphite (CSG) integrated with a domestic graphite resource at Graphite Creek, Alaska.

The HPIP designation allows Graphite One to list on the US government’s Federal Permitting Dashboard, which ensures that the various federal permitting agencies coordinate their reviews of projects as a means of streamlining the approval process.

Graphite Creek is the highest-grade and largest known flake graphite deposit in North America, spanning a distance of 18 km.

The Graphite Creek property is located 55 km north of Nome, Alaska

The project is envisioned as a vertically integrated enterprise to mine, process and manufacture high-quality CSPG for the lithium-ion electric vehicle battery market. Graphite One aims to become the first US vertically integrated domestic producer to do so.

The latest resource estimate (March 2019) for Graphite Creek showed 10.95 million tonnes of measured and indicated resources at a graphite grade of 7.8% Cg (graphitic carbon), for some 850,000 tonnes of contained graphite. Another 91.9 million tonnes were tagged as inferred resources, with an average grade of 8.0% Cg containing 7.3 million tonnes.

A Preliminary Economic Assessment (PEA) supports a 40-year operation with a mineral processing plant capable of producing 60,000 tonnes of graphite concentrate (at 95% purity) per year. On a pre-tax basis, the project has a net present value of $1.03 billion using a 10% discount rate, with an internal rate of return (IRR) of 27%.

Once in full production, Graphite One’s proposed graphite products manufacturing plant — the second link in its proposed supply chain strategy — is expected to turn graphite concentrates into 41,850 tonnes of battery-grade coated spherical graphite and 13,500 tonnes of graphite powders per year. A location in the Pacific Northwest is being considered.


There are no substitutes for lithium and graphite; these critical metals are expected to remain the foundation of all lithium-ion EV battery chemistries for the foreseeable future. 

Lithium is in the battery cathode and graphite, or more precisely, coated spherical graphite, is in the anode.

Graphite has long been used in the aviation, automotive, sports, steel and plastic industries, as well as in the manufacture of bearings and lubricants. Graphite is an excellent conductor of heat and electricity, corrosion- and heat-resistant, as well as strong and light.

Lithium-ion batteries contain 10 to 15 times more graphite than lithium. The need for lithium batteries not only for EVs, but energy storage, handheld tools like drills, and an array of consumer electronics like cell phones and laptops, is almost certain to outstrip supply.

In fact, the lithium-ion battery manufacturing capacity currently under construction would require flake graphite production to more than double. 

(BMI estimates the major automakers have committed over $300 billion to developing EVs, and more than 2 terawatts of lithium battery production capacity, equating to 800,000 tonnes of new annual graphite demand by 2023 and 1.4Mt by 2028.)

To meet this demand, 12 battery factories are being built in the United States, including Tesla’s Texas “Terafactory”, which would have an annual battery production capacity of 1 terawatt-hour, or 1,000 gigawatt-hours (GWh).

According to BMI, just one 30 GWh per year lithium-ion battery factory needs roughly 33,000 tonnes of graphite anode material per year. The Texas Terafactory would demand more than 1 million tonnes of graphite per year, about one year’s worth of current mined graphite output for all uses.

If all 12 factories are built, they will require about 396,000 tonnes of graphite, every year. This is nearly two-thirds the amount of graphite produced by China, by far the largest graphite producer in the world, in 2020. Remember, the US currently produces NO natural graphite, yet it is consumed by roughly 90 American companies. 

According to’s EV Metal Index, graphite prices have held steady above $700 a tonne in 2021. But the more important number is the dramatically higher amount of graphite being used for EV batteries. states:

In April 2021, just over 14,000 tonnes of synthetic and natural graphite were deployed globally in batteries of all newly-sold passenger EVs combined, a 233% jump over the same month last year. 

The evidence piling up here leads to only one conclusion: if we continue to rely on China and other foreign source for graphite, the price of this indispensable EV battery ingredient is going to go through the roof.

Explosive EV demand + tight supply especially from China, which dominates the production of coated spherical graphite needed for Li-ion batteries = supply insecurity and higher prices.

There is however a happier ending to this story, and that is taking steps to secure a domestic supply of graphite with enough tonnage for America to reduce and even eliminate its dependence on foreign suppliers.

In my opinion, we can build a North American “mine to battery to EV” supply chain, using graphite mined and processed from Graphite One’s Graphite Creek deposit.

If we’re going to spend hundreds of billions trying to electrify and decarbonize, it just makes sense to us at AOTH that the mining is done in-country. Leaving it up to foreigners only weakens the supply chain, leaving it vulnerable to breakage. 

US critical minerals have been ignored for decades but they are finally getting the attention they deserve. Graphite One is a company on the move with the largest and highest-grade flake graphite deposit in the United States.

Graphite One Inc.
Cdn$2.18, 2021.11.30
Shares Outstanding 83.3m
Market cap Cdn$181.7m
GPH website

Richard (Rick) Mills
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