Dimensioni e quota di mercato dei compositi di carbonio

Analisi del mercato dei compositi di carbonio di Mordor Intelligence
The Carbon Composites Market size is expected to increase from 239.12 kilotons in 2025 to 257.32 kilotons in 2026 and reach 371.31 kilotons by 2031, growing at a CAGR of 7.61% over 2026-2031. Falling fiber prices, rapid offshore-wind scale-up, and the electrification push in transportation are expanding the addressable volume base for the Carbon composites market. Large-tow overcapacity in China reset average T300-grade prices to about USD 12 per kilogram by late 2024, accelerating adoption in wind-turbine blades and hydrogen vessels while compressing margins for incumbents. Automakers are gravitating toward fast-cycle thermoplastic platforms that deliver sub-5-minute part takt times, enabling structural battery-tray programs without autoclave bottlenecks. Aerospace keeps its premium share on the back of certified prepreg pipelines, yet capacity constraints in 6-meter-plus autoclaves are steering wide-body programs toward Out-of-Autoclave (OoA) resin systems.
Punti chiave del rapporto
- In base alla matrice, nel 2025 il polimero ha avuto la quota di mercato maggiore, pari al 75.22%. Si prevede inoltre che la quota di mercato del polimero aumenterà a un CAGR dell'8.72% durante il periodo di previsione (2026-2031).
- In base al processo, i processi di stampaggio e iniezione hanno rappresentato la quota maggiore, pari al 33.26%, nel 2025, e si prevede che questa percentuale crescerà a un CAGR dell'8.34% durante il periodo di previsione (2026-2031).
- Per applicazione, il settore aerospaziale e della difesa ha registrato la quota maggiore, pari al 31.67% nel 2025, mentre si prevede che la quota delle turbine eoliche crescerà con un CAGR dell'8.28% durante il periodo di previsione (2026-2031).
- In termini geografici, l'area Asia-Pacifico ha registrato la quota di mercato maggiore, pari al 39.12% nel 2025, e si prevede che questa quota aumenterà a un CAGR dell'8.66% durante il periodo di previsione (2026-2031).
Nota: le dimensioni del mercato e le cifre previste in questo rapporto sono generate utilizzando il framework di stima proprietario di Mordor Intelligence, aggiornato con i dati e le informazioni più recenti disponibili a gennaio 2026.
Tendenze e approfondimenti sul mercato globale dei compositi in carbonio
Analisi dell'impatto dei conducenti
| Guidatore | (~) % Impatto sulla previsione del CAGR | Rilevanza geografica | Cronologia dell'impatto |
|---|---|---|---|
| EV range-extension imperative | + 1.2% | Cina, Unione Europea, Nord America | Medio termine (2-4 anni) |
| Upsized offshore wind blades (more than or equal to 100 m) | + 1.8% | China, North Sea, U.S. Atlantic seaboard | A lungo termine (≥4 anni) |
| Chinese large-tow price impact | + 1.5% | Originating in China, diffusing globally | A breve termine (≤2 anni) |
| Hydrogen logistics Type-IV/Type-V CFRP vessels | + 0.9% | North America, European Union, Japan, South Korea | A lungo termine (≥4 anni) |
| Space-launch demand for reusable CFRP cryo-tanks | + 0.6% | United States, Europe, emerging Asia-Pacific | Medio termine (2-4 anni) |
| Fonte: Intelligenza di Mordor | |||
EV Range-Extension Imperative
Battery-electric models carry 400-600 kg battery packs. Carbon-fiber battery housings deliver 40-60% mass savings versus aluminum, yielding 15-25 km extra range for every 10 kg trimmed[1]Fraunhofer Institute, “Lightweight Battery Enclosure Research,” fraunhofer.de. SGL Carbon’s COOLBat demonstrator reduced enclosure weight by 35% while integrating active cooling paths. Yet BMW’s 2025 Neue Klasse program sidelined widespread carbon fiber use because lifecycle emissions still average 17.35 kg CO₂-eq per kg of fiber under coal-based grids. Cost-competitive short-fiber thermoplastic housings priced at USD 8-10 per kg, co-developed by SABIC and Kautex, are now aimed at premium 500 km-plus range cars. The bifurcation signals that the Carbon composites market will depend on luxury and performance EVs until renewable-powered fiber lines push delivered costs toward USD 10 per kg.
Upsized Offshore Wind Blades (more than or equal to 100 m)
Blade lengths above 100 m demand carbon spar caps to meet 25-year fatigue life. MingYang’s 143 m prototype uses Hengshen fiber to keep tip deflection under 8 m at rated wind speed[2]MingYang Smart Energy, “143 m Offshore Blade Announcement,” mingyang.com. Dongfang Electric’s 153 m blade trims 18% mass versus an all-glass layup, easing installation for floating foundations where crane-vessel rates exceed USD 500,000 per day. Vestas and Siemens Gamesa designs indicate carbon content rising from 8-12% of blade mass in 2025 to about 20% by 2030. TPI Composites reopened its Iowa plant in mid-2025 after a 10% blade price uplift driven by the longer-blade mix. As offshore additions accelerate, the Carbon composites market will benefit from 8-10 tonnes of fiber per new 12-15 MW turbine.
Chinese Large-Tow Price Impact (2026+)
Installed Chinese capacity climbed to roughly 135,500 t in 2024, overshooting domestic demand of 84,000 tons. Spot prices for T300-12K fiber fell from USD 33 per kg in 2022 to about USD 12 per kg by late 2024. Large tow lines (48K-50K) cut unit costs by 30% by boosting throughputs per oxidation furnace. Rising 2025 exports let European and United States fabricators substitute Chinese grades in non-aerospace applications. Toray and Jilin Chemical Fiber announced 10-20% hikes effective January 2026, but durability depends on demand recovery in cost-sensitive automotive and industrial segments.
Hydrogen Logistics Type-IV/Type-V CFRP Vessels
A 62.4-L Type-IV tank rated at 700 bar uses about 33 kg of fiber and costs USD 800-1,200. Type-V variants eliminate the liner, shaving 10-20% weight and surpassing 6 wt% storage density. The United States Department of Energy targets USD 15-20 per kg fiber pricing by 2030, spurring automated filament-winding programs with 15-minute takt cycles. Hexagon Purus’s Norway site targets 10,000 tanks per year in 2026, while Japanese NEDO (New Energy and Industrial Technology Development Organization) trials probe maritime 500-bar storage for 1,000-nautical-mile ferry range.
Analisi dell'impatto delle restrizioni
| moderazione | (~) % Impatto sulla previsione del CAGR | Rilevanza geografica | Cronologia dell'impatto |
|---|---|---|---|
| Al-Li and 3rd-gen AHSS substitution threat | -0.8% | Aerospaziale e automobilistico globale | Medio termine (2-4 anni) |
| Global autoclave bottleneck (wide-body aero) | -0.5% | Nord America, Europa | A breve termine (≤2 anni) |
| PFAS-linked sizing-agent bans | -0.3% | Unione Europea, Nord America | A lungo termine (≥4 anni) |
| Fonte: Intelligenza di Mordor | |||
Al-Li and 3rd-Gen AHSS Substitution Threat
Aluminum-lithium alloys trim up to 10% weight in fuselage frames while cutting maintenance outlays by 15-20% because repairs use established metal techniques. Third-generation AHSS delivers 980-1,180 MPa strength at over 15% elongation, supporting 20-25% mass-down-gauging at markedly lower CO₂ footprints. BMW’s decision to skip broad carbon-fiber use on Neue Klasse EVs reflects these lifecycle and cost realities. The Carbon composites industry will remain exposed until renewable electricity systematically cuts precursor emissions.
Global Autoclave Bottleneck (Wide-Body Aero)
Boeing’s South Carolina site runs five 6-m-diameter autoclaves, capping 787 barrel throughput at roughly 60 units per month. OoA systems such as Hexcel M77 meet 1.2% void allowance without pressure, yet lay-up labor rises 10-15% and thick-section porosity challenges linger. Certification under FAA AC 20-107B stretches 3-5 years, so the restraint shaves near-term build-rate flexibility for next-generation wide-bodies.
Analisi del segmento
By Matrix: Polymer Dominance Anchors Volume Growth
Polymer composites commanded 75.22% of the Carbon Composites market share in 2025 and are projected to advance at an 8.72% CAGR during the forecast period (2026-2031). Thermoplastic PEEK (Polyetheretherketone) and PPS (Polyphenylene Sulfide) parts for Airbus brackets now cure in under five minutes, while BMW i-series structures demonstrate recyclability and damage tolerance advantages. Metal-matrix and carbon-carbon formats stay at a low share because of high raw-material costs that exceed USD 500 per kg. Thermoplastic content inside the Polymer segment could rise to a nominal slice of the Carbon Composites market size by 2031 as polyamide 6 resin-transfer molding drops cycle times below 10 minutes.
Demand momentum rests on automotive battery trays, aerospace clips, and wind-blade trailing edges deploying hybrid epoxy-thermoplastic interlayers. Gurit’s 98-m prototype validated the design through 5-million fatigue cycles per IEC 61400-23, cutting delamination complaints in the root end. Re-meltable thermoplastic off-cuts reduce scrap cost for tier-1 molders, buttressing the long-term sustainability narrative of the Carbon composites market.

Nota: le quote di tutti i segmenti individuali sono disponibili al momento dell'acquisto del report
By Process: Press and Injection Lead Volume Manufacturing
Press and injection routes delivered 33.26% of the Carbon Composites market size in 2025 and will widen at an 8.34% CAGR during the forecast period (2026-2031). Compression-molded Sodium Metal Chloride (SMC) battery pans for 50,000-unit EV platforms operate on two-minute cyclicity and cut 9 kg from steel baselines. Pultrusion and continuous winding feed offshore-wind spar-cap tapes at 90-95% fiber volume, ensuring predictable quality for 100-m blades. Wet lamination and infusion stay relevant for marine hulls and civil-bridge retrofits where complex curvature offsets longer tack times.
Additive processes join the mainstream as Thermwood LSAM machines print 6-m hull plugs at 10 kg/hr deposition, shrinking tool-fabrication timelines by 40%. AFP deposition rates now touch 100 kg/hr on Electroimpact gantries for 777X wing skins, amplifying the Carbon composites industry’s drive to reduce unit labor.
By Application: Aerospace Anchors Share, Wind Turbines Drive Growth
Aerospace and defense held a 31.67% share in 2025, rooted in Boeing 787 and Airbus A350 output. Still, wind-turbine blades are poised to log the fastest 8.28% CAGR during the forecast period (2026-2031) as 12-16 MW offshore machines standardize 100-115 m blades needing 8-10 t of carbon per unit. Carbon composites market size for wind is therefore set to eclipse aerospace volume growth by 2030.
Automotive demand flattens after BMW’s Neue Klasse pivot, redirecting attention toward niche supercars and commercial-vehicle hydrogen tanks. Sports and leisure grow methodically at 4-5% on premium bicycles, while medical devices and consumer electronics together add single-digit growth under miniaturization trends.

Nota: le quote di tutti i segmenti individuali sono disponibili al momento dell'acquisto del report
Analisi geografica
Asia-Pacific retained 39.12% of the Carbon Composites market share in 2025, and is forecast to expand at an 8.66% CAGR during the forecast period (2026-2031). Chinese producers such as Zhongfu Shenying and Guangwei scaled large-tow lines to push domestic self-sufficiency beyond 80% in 2024, targeting 90% by 2026. Offshore-wind blade demand in Guangdong and Jiangsu alone consumed more than 10,000 tons of carbon fiber in 2025. Japan sustains leadership in T1000G and M60J high-modulus grades, with Toray’s Ehime plant occupying the premium aviation niche.
North America ranks second in terms of the market share, underpinned by Hexcel prepreg supply into Boeing, Lockheed Martin, and Northrop Grumman. TPI Composites’ Iowa re-opening in mid-2025 exemplifies supply-demand tightness for 100-m wind blades destined for Vineyard Wind and South Fork projects. Automotive composite uptake is moderate because the United States fuel-economy rules trail European CO₂ norms, leaving cost-advantaged steel and aluminum prevalent in pickups and SUVs.
Europe's share, driven by Airbus programs and offshore-wind installations at Dogger Bank and Baltic Eagle. Germany and France lead automotive composites though BMW’s strategy reset tempers volume forecasts. Gurit’s Swiss engineering center and SGL Carbon’s German plants secure critical mass in thermoplastic bracketry. Nordic marine applications, including electric ferries, absorb incremental composite tonnage but remain below 1,000 tons annually.

Panorama competitivo
The Carbon Composites market is moderately consolidated. Price competition dropped T300 spot quotes to USD 12 per kg, pushing Western incumbents toward aerospace-only margins. Toray’s T1100G, qualified on 787 wing skins, still secures USD 150-200 per kg price points, underscoring the moat around certified high-modulus grades. No M&A (mergers and acquisitions) deals above USD 500 million surfaced in 2025, reflecting valuation gaps amid cyclical price troughs.
Leader del settore dei compositi in carbonio
TORAY INDUSTRIES, INC.
Hexcel Corporation
Società per azioni del gruppo chimico di Mitsubishi
SGL Carbon
Tejin Limited
- *Disclaimer: i giocatori principali sono ordinati senza un ordine particolare

Recenti sviluppi del settore
- November 2025: Epsilon Composite, a French firm renowned for its expertise in carbon fibre-based composites, unveiled its new subsidiary, HindEpsilon Composite, in Chennai, India. Spearheading this initiative is Epsilon's Cable division, which focuses on the development and production of HVCRC (composite core electrical conductors) technology.
- Novembre 2024: Toray Advanced Composites ha acquisito asset, tecnologia e proprietà intellettuale da Gordon Plastics. Questa acquisizione strategica potenzia le capacità di TAC nello sviluppo, test e produzione di nastri compositi termoplastici unidirezionali (UD) rinforzati con fibre continue e sistemi polimerici ad alta temperatura di fusione.
- Febbraio 2024: Syensqo ha stretto una partnership con Trillium per offrire soluzioni sostenibili che consentano ai clienti di raggiungere i propri obiettivi ambientali. Attraverso questa collaborazione, Syensqo punta sulla creazione di materie prime sostenibili, studiate appositamente per le applicazioni in fibra di carbonio. Syensqo e Trillium prevedono di progredire ulteriormente verso compositi in fibra di carbonio completamente di origine biologica.
Ambito del rapporto sul mercato globale dei compositi di carbonio
I compositi di carbonio sono materiali compositi con rinforzi in fibra di carbonio. I compositi di carbonio di solito comprendono l'80%-90% di carbonio e grafite. La miscela unica di particelle di grafite naturale e sintetica, fibre di carbonio e particelle di carbonio amorfo è proprietaria e su misura per specifiche proprietà desiderate.
Il mercato dei compositi di carbonio è segmentato per matrice, processo, applicazione e area geografica. Per matrice, il mercato è segmentato in ibrido, metallo, ceramica, carbonio e polimero. Per processo, il mercato è segmentato in processo di laminazione di preimpregnati, pultrusione, laminazione a umido e processo di infusione, processi di pressatura e iniezione e altri (stampa 3D). Per applicazione, il mercato è segmentato in aerospaziale e difesa, automotive, turbine eoliche, sport e tempo libero, ingegneria civile, applicazioni marine e altre applicazioni (elettronica, applicazioni mediche, indumenti protettivi e recipienti a pressione). Il rapporto copre anche le dimensioni del mercato e le previsioni per i compositi di carbonio in 17 paesi nelle principali regioni. Per ciascun segmento, le dimensioni del mercato e le previsioni sono state calcolate sulla base del volume (chilotoni).
| IBRIDO | |
| Metallo | |
| Ceramica | |
| Carbonio | |
| Polimero | termoindurente |
| termoplastico |
| Lay-up preimpregnato |
| Pultrusione e Avvolgimento |
| Laminazione a umido e infusione |
| Processi di pressatura e iniezione |
| Altri processi |
| Aerospazio e Difesa |
| Automotive |
| Turbine Eoliche |
| Sport e tempo libero |
| Ingegneria Civile |
| Marino |
| Altre applicazioni |
| Asia-Pacifico | Cina |
| India | |
| Giappone | |
| Corea del Sud | |
| Paesi ASEAN | |
| Resto dell'Asia-Pacifico | |
| Nord America | Stati Uniti |
| Canada | |
| Messico | |
| Europa | Germania |
| Regno Unito | |
| Francia | |
| Italia | |
| Spagna | |
| Paesi nordici | |
| Russia | |
| Resto d'Europa | |
| Sud America | Brasile |
| Argentina | |
| Resto del Sud America | |
| Medio Oriente e Africa | Arabia Saudita |
| Sud Africa | |
| Resto del Medio Oriente e dell'Africa |
| Di Matrix | IBRIDO | |
| Metallo | ||
| Ceramica | ||
| Carbonio | ||
| Polimero | termoindurente | |
| termoplastico | ||
| Per processo | Lay-up preimpregnato | |
| Pultrusione e Avvolgimento | ||
| Laminazione a umido e infusione | ||
| Processi di pressatura e iniezione | ||
| Altri processi | ||
| Per Applicazione | Aerospazio e Difesa | |
| Automotive | ||
| Turbine Eoliche | ||
| Sport e tempo libero | ||
| Ingegneria Civile | ||
| Marino | ||
| Altre applicazioni | ||
| Per geografia | Asia-Pacifico | Cina |
| India | ||
| Giappone | ||
| Corea del Sud | ||
| Paesi ASEAN | ||
| Resto dell'Asia-Pacifico | ||
| Nord America | Stati Uniti | |
| Canada | ||
| Messico | ||
| Europa | Germania | |
| Regno Unito | ||
| Francia | ||
| Italia | ||
| Spagna | ||
| Paesi nordici | ||
| Russia | ||
| Resto d'Europa | ||
| Sud America | Brasile | |
| Argentina | ||
| Resto del Sud America | ||
| Medio Oriente e Africa | Arabia Saudita | |
| Sud Africa | ||
| Resto del Medio Oriente e dell'Africa | ||
Domande chiave a cui si risponde nel rapporto
What was the Carbon composites market size in 2026 and how fast is it growing?
It stood at 257.32 kilotons in 2026 and is forecast to rise to 371.31 kilotons by 2031 at a 7.61% CAGR.
Which region leads demand for carbon composites?
Asia-Pacific leads with 39.12% share in 2025 and is set to log the fastest 8.66% CAGR through 2031.
What segment is expanding quickest inside the Carbon composites market?
Wind-turbine blades show the highest 8.28% CAGR as offshore projects adopt 100 m-plus blades that rely on carbon-fiber spar caps.
How are falling fiber prices affecting adoption?
Large-tow overcapacity cut T300 fiber prices to about USD 12 kg by 2024, spurring uptake in wind energy and hydrogen tanks but squeezing producer margins.
Which companies dominate high-modulus aerospace grades?
Toray, Mitsubishi Chemical, and Teijin remain leaders in T1000+, M60J and similar grades due to proprietary precursor chemistry and long-standing aerospace qualifications.



