Battery Anode Market

Graphite has historically been and is expected to remain the dominant active material in the anode of the lithium-ion battery, and accounts for the largest proportion of active material in a lithium-ion battery by mass.

Lithium-ion is the incumbent battery technology used in most electric vehicles, retail energy storage and consumer electronics applications.

As the world transitions towards an electrified future, and demand increases for batteries, resilient and sustainable supply of battery materials has become a major priority for supply chain participants and governments.

Diversification is Required in Anode Material Supply

The global battery anode supply chain remains heavily concentrated in China, creating a significant supply risk for downstream battery and electric vehicle industries outside China.

Despite increasing efforts by governments and industry participants to establish alternative supply chains, market distortions have hindered the development of ex-China anode material capacity. Significant overcapacity in China's synthetic graphite sector has driven intense competition and persistent pricing pressure, with prices for some synthetic graphite AAM products remaining below estimated production costs. Ongoing government support for large-scale capacity expansion has further weakened the economics of new projects outside China, slowing industrialisation of geographically diversified supply chains that could support battery manufacturing growth in North America, Europe and other regions.

Diversification is further complicated by the technical requirements of active anode material production. AAM is not a homogeneous commodity and requires specialised processing expertise, stringent quality control and extensive customer qualification processes before commercial supply can commence. Qualification programs with battery cell manufacturers can take up to two years, creating substantial barriers to the rapid establishment of new suppliers.

At the entity level, the graphite industry is fragmented, with a large number of producers, processors and distributors participating across the value chain. The three largest graphite producers collectively account for less than 20% of global output. While this fragmentation can make it difficult to verify the origin, movement and chain of custody of graphite products, the high geographic concentration of mining and refining activities in China provides relative transparency regarding geographic provenance.

As supply chain verification, ethical sourcing and regulatory compliance become increasingly important to downstream customers and end-product consumers, greater vertical integration and traceability across the graphite value chain will be critical. At the same time, Chinese export licensing controls on graphite products highlight the strategic importance of developing secure, diversified and transparent anode material supply chains outside China.

What is Driving Demand?

Battery Electric Vehicles

The most significant driver of lithium-ion battery and active anode material demand is the global adoption of battery electric vehicles. Electric vehicle sales are expected to grow significantly over the coming several decades, supported by extensive Government policy actions, point-of-sale incentives, development of charging infrastructure networks, developing consumer preferences, and decreasing costs with manufacturing scale and technological advancements.

Source: Benchmark Minerals Intelligence Q2 2026, Flake Graphite Forecast

Battery Energy Storage Systems (BESS)

The Battery Energy Storage System (BESS) market is experiencing rapid growth globally, driven by increasing renewable energy deployment and the need for greater energy reliability and flexibility. As renewable energy generation continues to expand, utility-scale battery storage is becoming a critical enabler for balancing supply and demand and supporting grid stability. Declining battery costs, supportive government policies, and growing investment in clean energy infrastructure are further accelerating adoption across utility, commercial, and industrial sectors. Industry forecasts indicate that the global BESS market is expected to grow at a double-digit rate over the coming decade, making battery storage one of the fastest-growing segments.

Battery Anode Composition

Graphite is the dominant input material in active anode materials for lithium-ion batteries across all cathode chemistries, including high nickel content (NCM and NCA) and lithium iron phosphate (LFP) batteries.

Raw Materials Composition of Batteries

Source: Syrah analysis, data from Gaines, L., Richa, K., & Spangenberger, J. (2018) Key issues for Li-ion battery recycling (excludes oxygen). Note 1: Percent of the total sum by elemental mass featured in the analysis for each battery chemistry, excludes oxygen (cathode).

Natural graphite AAM has undergone significant product development over the past decade, with advances in purification, micronisation, spheroidisation, coating technologies and process control substantially improving electrochemical performance and consistency. As a result, high-performance natural graphite AAM is increasingly able to deliver cycle life, energy density and fast-charging characteristics that approach those of synthetic graphite AAM in many battery applications.

Major Chinese battery manufacturers have aggressively pursued the development of synthetic graphite AAM preferring its relatively higher cycle life capability and durability and high-rate charging performance, while largely ignoring the higher cost, greater energy consumption during manufacturing and greater carbon footprint.  

The expected reduced market share of natural graphite AAM in the future largely reflects the dominance of the Chinese battery industry and expected increased market penetration rates outside China.

Source: Benchmark Minerals Intelligence Flake Graphite Forecast, Q2 2026.

Alternative Active Anode Materials and Battery Cell Technology

Silicon is considered a potential future alternative to graphite as an active anode material. Silicon has a higher theoretical energy and volumetric density compared with graphite, translating to higher capacity, and may allow for faster charging. Silicon is currently used in small proportions of up to 5% by mass with graphite in battery anodes to take advantage of these benefits. However, silicon swells significantly more than graphite in charge/discharge cycling, causing cell instability, capacity degradation and reduced cycle life when it is used in more significant proportions in a battery anode. Technological solutions have not yet addressed these critical issues for real world application of silicon as a direct substitute for graphite at scale. It is expected that graphite and silicon will continue to be blended in future anode product development.

Even though novel battery anode and battery cell technology (e.g. solid state) are being evaluated, there are myriad technical, manufacturing and market challenges to overcome for these technologies to be commercialised and scaled in a meaningful way in the electric vehicle market. Significant base-load capacity investment has been made and is expected to continue for battery manufacturing facilities that primarily utilise graphite active anode materials in the battery anode, and these large scale, low cost facilities are largely incompatible with novel battery cell technologies.

Graphite is expected to remain the preferred and most widely used active anode material for mass market batteries, particularly for electric vehicles and stationary storage applications.