# Graphite Market

> Graphite Market Research Report Information By Type (Synthetic Graphite and Natural Graphite), By Application (Batteries, Electrodes, Refractories/Casting/Foundries, Lubricants, and Other Applications), By End-User Industry (Automotive, Metallurgy, Electronics, and Others), and By Region (North America, Europe, Asia-Pacific, and Rest Of The World) - Forecast Till 2035

- **Forecast Period:** 2026-2035
- **CAGR:** 10.8%
- **2025:** USD 6.14 Billion (2025)
- **2035:** USD 16.96 Billion (2035)
- **Key Players:** SGL Carbon SE, GrafTech International, Tokai Carbon Co. Ltd., Showa Denko (Resonac), Graphite India Ltd., HEG Ltd., Syrah Resources Ltd., Imerys SA

**Report ID:** MRFR/CnM/0354-CR · **Pages:** 111 · **Author:** Chitranshi Jaiswal · **Last Updated:** July 10, 2026

**URL:** https://www.marketresearchfuture.com/reports/graphite-market-853

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## Market Summary

As per Market Research Future analysis, the Graphite Market Size was estimated at 19.01 USD Billion in 2024. The Graphite industry is projected to grow from 20.56 USD Billion in 2025 to 44.97 USD Billion by 2035, exhibiting a compound annual growth rate (CAGR) of 8.1% during the forecast period 2025 - 2035

## Market Drivers

| Driver | ~% Impact on CAGR | Geographic Relevance | Impact Timeline | Ref |
| --- | --- | --- | --- | --- |
| EV battery gigafactory buildout | ~28% | Global | Short-term (≤2 yr) | [2] |
| EAF steelmaking transition | ~20% | Europe, North America | Medium-term (2–4 yr) | [9] |
| Semiconductor demand for high purity graphite | ~12% | Asia-Pacific, North America | Medium-term (2–4 yr) | [10] |
| Supply-chain reshoring policies | ~15% | North America, Europe | Short-term (≤2 yr) | [7] |
| Grid-scale energy storage expansion | ~10% | Global | Long-term (≥4 yr) | [14] |
| Emerging-market industrialization | ~8% | South America, MEA, India | Long-term (≥4 yr) | [12] |
| Nuclear graphite demand resurgence | ~7% | Europe, Asia-Pacific | Long-term (≥4 yr) | [15] |

### EV Battery Gigafactory Buildout

Global announced lithium ion battery manufacturing capacity exceeded 9,000 GWh by late 2024, per BloombergNEF tracking, with over 60% of projects requiring battery anode materials derived from either natural graphite or synthetic graphite [2]. The U.S. Inflation Reduction Act's 10% advanced manufacturing production credit for electrode-active materials has redirected approximately USD 7 Billion in planned anode investments to North American sites since 2023, directly lifting the Graphite Market across the value chain [3].

### EAF Steelmaking Transition

The European Green Deal's carbon border adjustment mechanism (CBAM) is accelerating steelmakers' shift to EAF routes, which consume graphite electrodes at 1.5–2.0 kg per ton of crude steel versus near zero in basic oxygen furnaces. ArcelorMittal, Thyssenkrupp, and Tata Steel Europe collectively announced over 15 Mt of new EAF capacity between 2024 and 2028, representing an incremental demand uplift of roughly 25,000 tons annually for industrial graphite products [9].

### Semiconductor-Grade Demand

The CHIPS and Science Act allocated USD 52.7 Billion to domestic [semiconductor fabrication](https://www.marketresearchfuture.com/reports/semiconductor-fabrication-materials-market-11922), with wafer-processing furnace components requiring high purity graphite susceptors, crucibles, and heating elements rated at 99.99%+ carbon content. Demand from this segment alone is expected to grow at 14% annually through 2030, creating a premium-price pocket within the broader Graphite Market [10].

### Supply-Chain Reshoring Policies

China's December 2023 export-licence requirements for natural graphite products prompted a strategic recalibration. By mid-2025, North American and European governments had approved over USD 1.9 Billion in grants and loan guarantees targeting graphite mining, spheronization, and coating capacity — a direct supply-security response that adds structural demand for domestically sourced carbon based materials [4][7].

## Restraints

Restraint impacts are directional estimates of growth drag; they do not subtract directly from the headline CAGR.

| Restraint | ~% Drag on CAGR | Geographic Relevance | Impact Timeline | Ref |
| --- | --- | --- | --- | --- |
| Silicon-anode substitution risk | ~−12% | Global | Medium-term (2–4 yr) | [16] |
| Needle-coke feedstock volatility | ~−10% | Global | Short-term (≤2 yr) | [3] |
| Environmental permitting delays | ~−8% | North America, Europe | Medium-term (2–4 yr) | [17] |
| Chinese export-policy uncertainty | ~−7% | Asia-Pacific | Short-term (≤2 yr) | [4] |
| Recycled graphite supply cannibalization | ~−5% | Europe | Long-term (≥4 yr) | [13] |

### Silicon-Anode Substitution

Next-generation battery chemistries blending silicon into the anode at 10–30 wt% can reduce graphite loading per cell by up to 25%. Tesla, Samsung SDI, and Sila Nanotechnologies have each disclosed silicon-composite anode roadmaps targeting commercial deployment by 2027, which could trim graphite intensity in premium EVs. However, cost parity remains elusive — silicon anode pre-lithiation adds roughly USD 4–6/kWh to cell cost — limiting near-term penetration to high-performance segments rather than mainstream lithium ion battery graphite demand [16].

### Needle-Coke Feedstock Volatility

Synthetic graphite production depends on petroleum- or coal-tar-derived needle coke, a commodity whose supply is concentrated among fewer than 10 global producers. Spot prices surged 40% during the 2022–2023 cycle, compressing margins for graphite electrode manufacturers and raising input costs across the synthetic graphite value chain. Prolonged coke tightness could slow capacity additions for refractory graphite materials and specialty carbon products [3].

### Environmental Permitting Delays

Greenfield graphite mining projects in Canada, Mozambique, and Tanzania face permitting timelines averaging 7–10 years. Environmental impact assessments for natural graphite operations now increasingly require full lifecycle carbon accounting, water-use modeling, and community benefit agreements, adding 18–24 months to project schedules and deferring new supply that the Graphite Market urgently needs [17].

## Opportunities

### Bio-Based Synthetic Graphite Production

Biomass pyrolysis to carbon-negative synthetic graphite is progressing rapidly. Companies such as Vianode (Norway) and Novonix (Australia/Canada) have shown pilot-scale output with energy intensities 40% below typical Acheson-furnace techniques, creating a premium conductive carbon materials sector for ESG-sensitive battery OEMs [11].

### Grid-Scale Energy Storage

The IEA forecasts that stationary [lithium-iron-phosphate (LFP) batteries](https://www.marketresearchfuture.com/reports/lithium-iron-phosphate-batteries-market-8732) for grid storage will be deployed at a rate of 1,200 GWh per year by 2032. LFP cells use 100% graphite anodes, with no nickel or cobalt, offering a dedicated high-volume offtake channel for battery anode materials producers looking to develop beyond automotive [14].

### Emerging-Market Industrialization

India’s National Mineral Policy 2025 amendment designates graphite as an important mineral, opening up exploration licences across Jharkhand, Odisha and Tamil Nadu. At the same time, Brazil´s growing EAF steel sector and increasing foundry base are creating demand for refractory graphite materials and industrial graphite products, offering opportunities for greenfield investments [12].

### Recycled-Graphite Circular Economy

Business models for urban mining of anode graphite from end-of-life EV batteries are gaining popularity. Redwood Materials and Li-Cycle introduced lines of recycled graphite with purities reaching 99.95% and with cost reductions of 20-30% vs virgin synthetic graphite. This establishes a new revenue pool in the Graphite Market and meets ESG standards [13].

### Nuclear Energy Renaissance

Small modular reactor (SMR) designs from companies such as X-energy and Kairos Power use graphite as a neutron moderator, requiring high purity graphite billets machined to exacting tolerances. With over 80 SMR projects globally in licensing or construction as of 2025, nuclear applications present a durable niche demand stream for carbon based materials [15].

## Future Outlook

### Electrification Supercycle and Battery Demand

The IEA projects global EV sales will surpass 45 million units annually by 2030, with each vehicle consuming 50–100 kg of battery anode materials depending on chemistry. This electrification wave ensures that the Graphite Market's single-largest demand vertical — lithium ion battery anodes — will sustain double-digit growth well into the 2030s, even as silicon blending modestly trims per-cell graphite intensity [2][14].

### AI-Driven Process Optimization

Advanced analytics and machine learning are entering graphite processing operations, optimizing Acheson furnace thermal profiles, purification yields, and particle-size distributions. Pilot deployments at synthetic graphite plants in China and Germany have demonstrated 12–15% energy-cost reductions, which will become critical as decarbonization regulations raise the cost of carbon-intensive manufacturing [10].

### ESG and Sustainability Reporting

Scope 3 emissions disclosure under ISSB and EU CSRD frameworks will force battery OEMs to map graphite supply chains end to end. Producers offering verified low-carbon natural graphite or bio-sourced synthetic graphite will command premium pricing, creating a bifurcated Graphite Market with distinct ESG and commodity tiers [11][13].

### Platform Economics and Vertical Integration

Major anode producers — POSCO Future M, BTR New Material, Shanshan Technology — are vertically integrating from mine ownership through coating and formation to direct cell-maker supply. This platform model compresses margins for independent toll processors but consolidates customer relationships, reshaping the competitive structure of the Graphite Market for the next decade.

## Segment Insights

### By Type

| Segment | Key Metric | Primary Demand Driver |
| --- | --- | --- |
| Synthetic Graphite | 63.5% share (2025) | Graphite electrodes for EAF steel and conductive carbon materials |
| Natural Graphite | CAGR 13.3% (2026–2035) | Battery anode materials and refractory graphite materials |

Synthetic graphite dominates the Graphite Market because it offers tailored purity, crystallinity, and particle morphology that natural alternatives cannot match without extensive downstream processing. EAF steel production consumes ultra-high-power graphite electrodes manufactured exclusively from synthetic precursors, while semiconductor applications demand high purity graphite at 99.99%+ grades achievable only through synthetic routes.

Natural graphite, however, is gaining share as battery anode materials producers adopt spheronized flake graphite coated with amorphous carbon — a process that delivers comparable electrochemical performance to synthetic anodes at roughly 40% lower cost. The proliferation of cost-sensitive LFP battery chemistries, which pair exclusively with graphite-dominant anodes, reinforces natural graphite's growth trajectory across the Graphite Market.

### By Application

| Segment | Key Metric | Primary Demand Driver |
| --- | --- | --- |
| Batteries | 44.2% share (2025) | Lithium ion battery graphite anode scaling |
| Electrodes | USD 1.42 Billion (2025) | EAF steelmaking capacity additions |
| Refractories / Casting / Foundries | CAGR 8.2% | Industrial graphite products for metal casting |
| Lubricants | 8.0% share (2025) | High-temperature conductive carbon materials for machinery |
| Other Applications | CAGR 7.5% | Nuclear moderators, pencil cores, specialty seals |

Batteries stand as the fastest-expanding application within the Graphite Market, propelled by the sheer scale of lithium ion battery manufacturing commitments. Each GWh of cell capacity requires approximately 800–1,100 tons of anode graphite, creating a linear relationship between gigafactory commissioning schedules and raw-material offtake.

Graphite electrodes rank second, with the global EAF steel share projected to exceed 50% by 2030. Each ton of EAF steel consumes 1.5–2.0 kg of electrode material, and the shift toward larger-diameter ultra-high-power electrodes raises the quality threshold — favoring producers of premium synthetic graphite with low coefficient-of-thermal-expansion specifications.

### By End-User Industry

| Segment | Key Metric | Primary Demand Driver |
| --- | --- | --- |
| Automotive | 47.2% share (2025) | EV production scaling requiring battery anode materials |
| Metallurgy | CAGR 8.9% | EAF transition lifting graphite electrodes consumption |
| Electronics | USD 0.97 Billion (2025) | Semiconductor-grade high purity graphite components |
| Others | 9.8% share (2025) | Aerospace, energy, defense applications |

The automotive industry's gravitational pull on the Graphite Market intensifies each year as global OEMs scale EV production lines. Volkswagen, BYD, Tesla, and Hyundai collectively plan over 500 GWh of in-house and contracted cell capacity by 2030, each gigawatt-hour translating to sustained lithium ion battery graphite procurement contracts.

## Regional Market Share Analysis

| Region | Key Metric | Primary Investment Themes |
| --- | --- | --- |
| Asia-Pacific | 51.5% share (2025) | Battery anode materials processing, EAF steel expansion |
| Europe | 20.0% share (2025) | CRM Act localization, synthetic graphite capacity |
| North America | 18.0% share (2025) | IRA-driven reshoring, graphite electrodes supply security |
| South America | 5.5% share (2025) | Natural graphite mining, foundry-grade materials |
| Middle East & Africa | 5.0% share (2025) | Mining concession development, industrial diversification |
| Total | 100% | — |

The Graphite Market displays significant regional asymmetry, with Asia-Pacific dominating production and consumption while North America and Europe accelerate processing capacity investments.

### North America

| Country | Key Metric | Key Driver |
| --- | --- | --- |
| US | CAGR 11.9% | IRA manufacturing credits for battery anode materials |
| Canada | USD 0.38 Billion (2025) | New graphite mine commissioning in Quebec and Ontario |
| Mexico | CAGR 9.4% | Nearshoring of industrial graphite products assembly |

The U.S. accounts for the bulk of North American demand, with the DOE's Loan Programs Office backing four graphite processing facilities totaling 150,000 tpa of coated spherical graphite capacity by 2028. Canada's Nouveau Monde Graphite and Northern Graphite are constructing integrated mine-to-anode operations in Quebec, positioning the country as a critical non-Chinese source of natural graphite for the North American Graphite Market [8].

### Europe

| Country | Key Metric | Key Driver |
| --- | --- | --- |
| Germany | 28% of regional share | EAF steel transition and EV battery cell production |
| UK | CAGR 10.2% | Specialty conductive carbon materials for electronics |
| France | USD 0.18 Billion (2025) | Nuclear-grade high purity graphite demand |
| Italy | CAGR 9.1% | Foundry and refractory graphite materials consumption |
| Spain | 6% of regional share | Emerging lithium ion battery cell assembly |
| Nordic Countries | CAGR 12.8% | Bio-based synthetic graphite pilot facilities |
| Russia | USD 0.11 Billion (2025) | Legacy electrode production for domestic steel |
| Rest of Europe | 14% of regional share | Diversified industrial demand |

Europe's Graphite Market benefits from the EU Critical Raw Materials Act mandating that 40% of strategic material processing occur domestically by 2030. Vianode's Norwegian anode facility and SGL Carbon's expansions in Germany anchor the region's synthetic graphite ambitions, while Imerys' Lautaret project in France targets 34,000 tpa of natural graphite concentrate [7].

### Asia-Pacific

| Country | Key Metric | Key Driver |
| --- | --- | --- |
| China | 62% of regional share | Integrated anode supply chain, largest global producer |
| India | CAGR 14.5% | Critical mineral policy and graphite electrodes demand |
| Japan | USD 0.41 Billion (2025) | Advanced synthetic graphite for semiconductors |
| South Korea | CAGR 13.1% | Battery anode materials for domestic cell makers |
| ASEAN | 7% of regional share | Expanding steel and foundry sectors |
| Rest of Asia-Pacific | CAGR 10.4% | Resource exploration and industrial growth |

China processes over 90% of the world's spherical graphite for battery anodes, a concentration that governments elsewhere are actively working to dilute. Japan's Tokai Carbon and Nippon Carbon supply premium high purity graphite to the semiconductor and nuclear sectors, while South Korea's POSCO Future M and SK On are scaling domestic anode coating lines to reduce reliance on Chinese imports. The Graphite Market in Asia-Pacific remains the anchor of global supply chains despite diversification efforts [5].

### South America

| Country | Key Metric | Key Driver |
| --- | --- | --- |
| Brazil | 65% of regional share | Natural graphite mining and EAF foundry demand |
| Argentina | CAGR 9.8% | Emerging battery material exploration |
| Rest of South America | USD 0.06 Billion (2025) | Early-stage graphite deposit assessment |

Brazil holds significant flake natural graphite reserves in Minas Gerais and Bahia, with rising EAF steel output adding incremental demand for graphite electrodes. The Graphite Market across South America remains nascent but is gaining investor attention as supply-chain diversification pressures intensify [12].

### Middle East & Africa

| Country | Key Metric | Key Driver |
| --- | --- | --- |
| South Africa | 38% of regional share | Established graphite mining operations |
| UAE | CAGR 8.7% | Industrial diversification into carbon based materials |
| Saudi Arabia | USD 0.04 Billion (2025) | Vision 2030 manufacturing base development |
| Egypt | CAGR 7.9% | Foundry sector expansion |
| Rest of MEA | 22% of regional share | Mozambique and Tanzania mining concessions |

Mozambique's Balama mine (operated by Syrah Resources) is the largest integrated natural graphite operation outside China, supplying feedstock to Syrah's Vidalia active-anode-material plant in Louisiana. Tanzania's graphite deposits in the Lindi region represent additional untapped reserves that could reshape the Graphite Market supply picture in the MEA corridor [17].

## Competitive Benchmarking

The Graphite Market exhibits medium concentration, with the top five players accounting for an estimated 35–42% of global revenue. A moderate Herfindahl-Hirschman Index reflects a mix of vertically integrated conglomerates and specialized mid-tier producers competing across distinct value-chain segments — mining, processing, electrode manufacturing, and anode conversion.

| Company | Est. Revenue Share Range | Key Offerings for Graphite Market | Strategic Positioning |
| --- | --- | --- | --- |
| SGL Carbon SE | ~7–10% | Graphite electrodes, specialty carbon components | Vertically integrated European leader in synthetic graphite |
| GrafTech International | ~6–9% | Ultra-high-power graphite electrodes | Needle-coke-to-electrode integration via Seadrift facility |
| Tokai Carbon Co. Ltd. | ~5–8% | Graphite electrodes, fine carbon, high purity graphite | Diversified portfolio spanning steel and semiconductor sectors |
| Showa Denko (Resonac) | ~5–7% | Synthetic graphite, battery anode materials | Japanese conglomerate pivoting toward EV supply chains |
| Graphite India Ltd. | ~4–7% | Graphite electrodes, industrial graphite products | Low-cost Indian manufacturer with global export reach |
| HEG Ltd. | ~3–6% | Ultra-high-power electrodes, refractory graphite materials | Captive power advantage in Madhya Pradesh operations |
| Syrah Resources Ltd. | ~3–5% | Natural graphite mining and active anode material | Mine-to-anode integration (Balama–Vidalia corridor) |
| Imerys SA | ~2–4% | Natural graphite, conductive carbon materials | European mine-to-market strategy (Lautaret project) |
| BTR New Material Group | ~4–7% | Battery anode materials, synthetic graphite | China's largest anode producer by volume |
| Mersen SA | ~2–4% | High purity graphite components, specialty carbon | Niche focus on semiconductor and chemical-processing equipment |

## Recent News & Developments

- Syrah Resources (March 2025): Completed Phase 2 expansion at Vidalia, Louisiana, bringing active anode material capacity to 11,250 tpa — the first large-scale non-Chinese natural graphite anode plant in North America [8].

- Nouveau Monde Graphite (November 2024): Secured CAD 260 million in federal and provincial financing for its Matawinie mine and Bécancour anode facility in Quebec, Canada [8].
- European Commission (September 2024): Published the Critical Raw Materials Act implementing regulations, classifying graphite among 34 strategic materials requiring 40% domestic processing by 2030 [7].
- BTR New Material (July 2024): Commissioned a 200,000 tpa synthetic graphite anode line in Inner Mongolia, reinforcing China's battery anode materials production lead.
- U.S. Department of Energy (April 2024): Awarded USD 150 million in grants under the Battery Materials Processing program to three graphite spheronization startups in Tennessee and Georgia [2].
- Vianode AS (February 2024): Broke ground on its 20,000 tpa bio-based synthetic graphite plant near Herøya, Norway, targeting carbon-negative anode production [11].

## Report Scope

| Parameter | Detail |
| --- | --- |
| Market Scope | Global Graphite Market — natural graphite, synthetic graphite, battery anode materials, graphite electrodes, refractory graphite materials, conductive carbon materials, high purity graphite |
| Study Period | 2021–2035 |
| CAGR (Forecast) | 10.8% (2026–2035) |
| Base Year Market Size | USD 6.14 Billion (2025) |
| Forecast Endpoint | USD 16.96 Billion (2035) |
| Fastest Growing Segment | Natural graphite (by type); Batteries (by application); Automotive (by end-user) |
| Companies Profiled | SGL Carbon, GrafTech, Tokai Carbon, Resonac, Graphite India, HEG, Syrah Resources, Imerys, BTR New Material, Mersen |
| Valuation Currency | USD Billion |
| CAGR Driver Disclaimer | Impact percentages in Sections 4–5 are directional and not additive to headline CAGR |

## Frequently Asked Questions

**Q: What purity levels distinguish battery-grade from electrode-grade graphite?**
A: Battery-grade spherical graphite requires ≥99.95% carbon purity after chemical purification, while electrode-grade synthetic graphite typically operates at 99.5–99.8% purity. The purification cost gap makes battery anode materials roughly 2–3× more expensive per ton [19].

**Q: How do long-term offtake contracts affect pricing in the Graphite Market?**
A: Most battery anode materials contracts now lock pricing for 3–5 years with quarterly index adjustments, shielding buyers from spot volatility. Electrode contracts follow a similar structure but benchmark against needle-coke indices [3].

**Q: What role does particle morphology play in anode performance?**
A: Spheronized natural graphite with a D50 of 15–18 µm maximizes tap density and first-cycle coulombic efficiency in lithium ion battery cells. Synthetic graphite allows broader morphology tuning but at higher energy cost [6].

**Q: Which Graphite Market segment is most exposed to trade-policy disruption?**
A: Natural graphite mining and processing face the highest exposure because China controls over 65% of global flake-graphite output and over 90% of spheronization capacity [4].

**Q: Can recycled graphite meet OEM quality specifications for the Graphite Market?**
A: Recycled anode graphite from end-of-life batteries currently achieves 99.95% purity and comparable cycling performance, though supply volumes remain below 3% of virgin demand [13].

**Q: How does the EAF steel transition affect graphite electrode replacement cycles?**
A: EAF operations consume graphite electrodes continuously, with replacement cycles averaging 8–12 heats per electrode set depending on furnace power rating and scrap quality [9].

**Q: What distinguishes isostatic-pressed graphite from extruded grades in the Graphite Market?**
A: Isostatic pressing produces near-isotropic high purity graphite with uniform grain structure suited for semiconductor and nuclear uses, while extruded grades serve lower-cost industrial graphite products applications [18].


## Sources

[2] Source: U.S. Department of Energy, "Battery Materials Processing Grant Awards," DOE Loan Programs Office, 2024 (energy.gov)
[3] Source: BloombergNEF, "Global Needle Coke & Graphite Electrode Market Outlook," BNEF, 2024 (bloombergnef.com)
[4] Source: Ministry of Commerce of China, "Export License Regulations for Graphite Products," MOFCOM, 2023 (mofcom.gov.cn)
[5] Source: International Energy Agency, "Global EV Outlook 2025," IEA, 2025 (iea.org)
[7] Source: European Commission, "Critical Raw Materials Act Implementing Regulations," EU, 2024 (ec.europa.eu)
[8] Source: Natural Resources Canada, "Critical Minerals Strategy: Graphite Supply Chain," NRCan, 2024 (nrcan.gc.ca)
[9] Source: World Steel Association, "EAF Steelmaking Capacity Tracker," worldsteel, 2025 (worldsteel.org)
[10] Source: Semiconductor Industry Association, "CHIPS Act Progress Report," SIA, 2025 (semiconductors.org)
[11] Source: Vianode AS, "Carbon-Negative Anode Material Production Announcement," Company Press Release, 2024 (vianode.com)
[12] Source: Ministry of Mines, Government of India, "National Mineral Policy 2025 Revision," 2025 (mines.gov.in)
[13] Source: Li-Cycle Holdings, "Recycled Graphite Product Specification Sheet," Company Disclosure, 2024 (li-cycle.com)
[14] Source: IRENA, "Electricity Storage and Renewables: Costs and Markets to 2032," IRENA, 2025 (irena.org)
[15] Source: World Nuclear Association, "Small Modular Reactors and Graphite Moderators," WNA, 2025 (world-nuclear.org)
[16] Source: Sila Nanotechnologies, "Silicon Anode Roadmap 2025–2030," Company Whitepaper, 2024 (silanano.com)
[17] Source: Fraser Institute, "Annual Survey of Mining Companies — Permitting Index," 2024 (fraserinstitute.org)

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