:format(auto):focal(center))
Glossary | Graphite
What is Graphite?
:format(auto):focal(1880x1873:1881x1874))
Graphite is a crystalline form of carbon with a layered, hexagonal structure. Within each layer, carbon atoms are tightly bonded in sheets, while the layers themselves are held together by weak van der Waals forces. This structure allows lithium ions to move between layers, intercalating during charging and de-intercalating during discharge.
Its ability to reversibly host lithium ions, combined with high electrical conductivity, electrochemical stability, and natural abundance, makes graphite the dominant anode material in commercial lithium-ion batteries.
Graphite’s role in lithium-ion batteries
:format(auto):focal(center))
Graphite is the largest component of a lithium-ion battery by weight. It forms the bulk of the anode, the negative electrode where lithium ions are stored during charging and released during discharge.
During charging, lithium-ions migrate from the cathode into the graphite structure, forming lithium-intercalated carbon. During discharge, the ions move back to the cathode, generating electrical energy. This interaction determines battery capacity, efficiency, and cycle life.
Types of graphite for battery applications
Battery applications rely on two main types of graphite: natural and synthetic.
Natural graphite is mined in countries such as China, Brazil, Mozambique, and Madagascar. It occurs in three primary forms: flake, amorphous and vein or lump.
Of these, flake graphite is the most important for batteries, as it can be purified and processed into spherical graphite for anode use. Amorphous graphite, with lower crystallinity, is mainly used in refractories and steelmaking. Vein graphite is rare, but highly pure, and mined in small quantities.
Synthetic graphite is produced through high-temperature graphitisation of petroleum or needle coke at approximately 2,500–3,000°C. This process produces very high-purity material with consistent performance, making it suitable for applications requiring long cycle life. However, it is energy-intensive, increasing both cost and carbon footprint.
Both natural and synthetic graphite play complementary roles in the battery supply chain.
Graphite in anode material
:format(auto):focal(center))
Graphite is the dominant anode material in most commercial chemistries:
Graphite accounts for ~95% of the anode material.
Anodes represent 10%–15% of total cell weight.
This makes graphite essential to modern battery performance and a key component of the global energy transition.
The two main types used in anodes are:
Natural graphite: a mined mineral refined into spherical form.
Synthetic graphite: produced from petroleum coke via graphitisation.
Natural graphite offers lower cost and a smaller carbon footprint, making it preferred for mid‑range EVs and consumer batteries.
Synthetic graphite, with higher purity and structural uniformity, enables faster charging and longer cycle life, but is more expensive and energy-intensive to produce.
As EV adoption accelerates, the anode has become increasingly strategic. Industry efforts are focused on improving processing efficiency, expanding production outside China, and developing next-generation composite anodes that combine graphite with silicon.
Graphite underpins almost all commercial lithium-ion batteries today, and no scalable alternative is expected in the near term.
Graphite prices: natural vs synthetic
:format(auto):focal(center))
:format(auto):focal(center))
:format(auto):focal(center))
Graphite pricing is complex, as natural and synthetic graphite are distinct materials with separate supply chains, production methods, and cost structures. Each responds differently to changes in energy costs, policy risk, and demand from the EV sector.
Natural graphite prices
Natural graphite prices are primarily formed in China through:
Domestic trading.
Cost‑insurance‑freight (CIF) export markets into Asia.
Benchmark's price assessments cover multiple product categories:
Flake graphite concentrates (classified by flake size +50, +80, +100 and –100 mesh).
Spherical graphite (uncoated and coated).
Purified spherical graphite ( >99.95% carbon), used directly in anodes.
Flake Graphite prices
Flake graphite prices declined sharply between 2023 and 2025 as supply growth outpaced demand. Weaker-than-expected EV sales and competition from lower-cost synthetic graphite contributed to the downturn. By late 2025, prices had reached historic lows, forcing some Chinese capacity offline.
Synthetic graphite prices
Synthetic graphite occupies a higher‑priced but more stable segment of the market. Produced from petroleum or needle coke through high‑temperature graphitisation, it offers superior purity and consistency but is more expensive to produce.
Synthetic graphite prices are closely linked to feedstock and electricity costs. Increases in oil or power prices feed directly into higher production costs. However, demand for synthetic material is typically less price sensitive, due to its use in performance-critical applications.
Factors impacting prices
Anode material prices reflect a blend of natural and synthetic graphite costs, alongside processing and coating expenses.
Key drivers include:
Chinese EV production levels.
Inventory levels.
Export policies.
Any tightening of Chinese export licensing could increase premiums for non-Chinese supply. Energy costs remain especially important for synthetic graphite production.
Graphite market outlook
:format(auto):focal(center))
Global supply
Supply concentration remains a major challenge:
China produces ~70% of the world's natural graphite.
China controls more than 90% of anode manufacturing capacity.
Beijing's 2023 export restrictions heightened concern among Western automakers and policymakers over supply security and diversification, positioning graphite as a potential bottleneck in the next phase of EV growth.
In the short to medium term, supply growth is expected to outpace demand, leaving the market oversupplied through the end of the decade. However, demand is projected to exceed supply thereafter, requiring new mine capacity to close the gap.
Natural graphite use in batteries continues to face competition from synthetic graphite produced from petroleum or needle coke through high‑temperature graphitisation. Synthetic graphite offers higher purity and consistency but at a greater cost. Recently, however, producers have cut costs by using lower‑grade coke feedstocks, improving competitiveness with natural graphite.
Supply diversification
Supply is beginning to diversify away from China, with new capacity ramping up in East African countries such as : Tanzania, Mozambique and Madagascar. Projects in Canada, The United States and Australia are progressing more slowly.
Supply bottlenecks
Permitting delays, financing constraints, and infrastructure limitations mean many projects will not reach production until the late 2020s.
Processing remains a key bottleneck. Converting flake graphite into spherical graphite is still overwhelmingly concentrated in China. Building equivalent capacity elsewhere will require significant time and investment.
The largest bottleneck lies in anode manufacturing. Recycling may contribute from the late 2020s, but economics remain challenging due to graphite’s relatively low value.
Global demand
Global demand for natural flake graphite is forecast to rise from ~1.3mn t in 2026 to ~2.7m t by 2036, more than doubling within a decade. This growth rate exceeds that of every other major battery material except lithium.
Graphite supply chain: China’s dominance
:format(auto):focal(center))
The graphite supply chain is highly concentrated, with China at its centre.
Graphite mining
At the mining stage, China accounts for ~70% of global natural graphite output. Other producers include Mozambique, Tanzania and Madagascar, but at much smaller scale.
Graphite processing
China holds over 80% of spherical graphite processing capacity. Processing, not mining, is the main barrier to supply diversification.
Graphitisation
China also leads synthetic graphite production, controlling more than 80% of global supply. Production requires:
Petroleum or needle coke.
Large volumes of low-cost electricity.
These conditions are difficult to replicate elsewhere.
Anode manufacturing
China controls over 90% of global anode manufacturing capacity. Natural and synthetic graphite are combined with binders and conductive additives, then coated onto copper foil. Western capacity remains limited, creating a bottleneck for gigafactory expansion.
China’s December 2023 export controls on graphite materials and technologies added further uncertainty. While not a full ban, licensing requirements increase costs and complexity for buyers. More broadly, this highlights graphite’s strategic importance in global supply chains.
Read more about Graphite
:format(auto):focal(center))
SourceCould the Middle East become an anode supply chain hub?
18 June 2026 · Tony Alderson
:format(auto):focal(center))
SourceTesla reinstates graphite supply agreement with Syrah Resources
3 June 2026 · Tony Alderson
:format(auto):focal(center))
SourceBattery raw material prices on the rise again after overbuying wiped out 2021–23 gains
29 May 2026 · Daisy Jennings-Gray
:format(auto):focal(center))
:format(auto):focal(center))
:format(auto):focal(center))
General FAQs
Frequently asked questions about the Graphite market If you'd like to learn more about our Graphite service:
Contact UsWhat's the difference between natural and synthetic graphite?
What's the difference between natural and synthetic graphite?
Natural graphite is mined from carbon‑rich deposits found in countries including China, Mozambique, Brazil, and Madagascar. It occurs in three main forms flake, amorphous, and vein of which flake graphite is most relevant for battery applications. Before use in anodes, it must be purified and processed into spherical graphite.
Synthetic graphite, by contrast, is produced from petroleum or needle coke through a high‑temperature graphitisation process of ~2,500–3,000°C. Synthetic grades provide higher purity, structural uniformity, and longer cycle life, but is generally more expensive and significantly more energy‑intensive to produce.
Natural graphite dominates mid‑range EV applications due to its lower cost, while synthetic graphite is preferred in premium or long‑range models where performance and durability are prioritised.