|
Forecast
Period
|
2024-2028
|
|
Market
Size (2022)
|
USD 15.88 billion
|
|
CAGR
(2023-2028)
|
5.82%
|
|
Fastest
Growing Segment
|
Graphite
|
|
Largest
Market
|
North
America
|
Market Overview
Global
Advanced Carbon Materials Market has valued at USD 15.88 billion in 2022 and is
anticipated to project robust growth in the forecast period with a CAGR of 5.82 % through 2028. Advanced
carbon materials have emerged as indispensable components in various
industries, offering exceptional properties such as high strength, thermal
conductivity, and chemical resistance. Advanced carbon materials, encompassing
a diverse range of carbon-based substances like carbon fibers, carbon
nanotubes, graphene, fullerenes, and more, have gained prominence across
numerous industries. Their unique combination of properties, including
lightweight but robust structures, high thermal and electrical conductivity,
and resistance to extreme conditions, makes them critical in applications spanning
aerospace, automotive, electronics, energy, and beyond.
The
global push for sustainability and reduced carbon footprint has propelled the
adoption of advanced carbon materials. They offer lightweighting solutions,
energy efficiency, and recyclability, aligning with the sustainability goals of
various industries. The aerospace and defense sector relies heavily on advanced
carbon materials for lightweight structures and enhanced performance, driving
consistent demand.
In
the automotive industry, the need for lightweight materials to improve fuel
efficiency and reduce emissions has driven the adoption of carbon composites
and advanced carbon materials. Advanced carbon materials are integral to
electronic devices and energy storage solutions. The surge in electronics
consumption and renewable energy technologies has boosted their demand.
The
manufacturing of advanced carbon materials can be expensive, hindering their
widespread adoption, especially in price-sensitive industries. Addressing
technical challenges, such as scaling up production while maintaining quality
and consistency, remains a hurdle.
Ongoing
research efforts are leading to innovations in advanced carbon materials,
including cost-effective production methods and enhanced properties. The
transition to renewable energy sources requires advanced materials for energy
storage and transmission, offering a significant growth avenue.
The
integration of carbon nanotubes and graphene into various applications, such as
batteries and electronics, is an emerging trend due to their exceptional
properties. Manufacturers are increasingly focusing on sustainable production
methods and recycling options for advanced carbon materials. Tailoring advanced
carbon materials to meet specific industry needs is gaining traction,
facilitating innovation and market expansion. Growing aerospace and automotive
markets in Asia-Pacific and Latin America are driving the global expansion of
advanced carbon materials.
The
global market for advanced carbon materials is characterized by its versatility
and indispensability across a spectrum of industries. While challenges such as
high production costs persist, opportunities in research and development,
sustainability, and renewable energy are paving the way for growth.
Emerging
trends, including the integration of carbon nanotubes and graphene, sustainable
production, customization, and global expansion, signify a dynamic market
landscape. To harness these opportunities, stakeholders should continue
investing in innovation, sustainable practices, and cost-effective
manufacturing processes. As industries evolve and global demand for
high-performance materials escalates, advanced carbon materials are set to
remain pivotal in driving technological advancements and enhancing industrial
processes worldwide.
Key Market Drivers
Growing
Demand from Aerospace and Defense Industry is Major Factor for Advanced Carbon
Materials Market Growth
The
advanced carbon materials market is experiencing substantial growth, largely
driven by the growing demand from the aerospace and defense industry. Advanced
carbon materials, including carbon fibers, composites, and carbon-based
ceramics, have become indispensable in these sectors due to their exceptional
properties and performance advantages.
One
of the primary factors fueling the growth of the advanced carbon materials
market in the aerospace and defense industry is the quest for lightweight yet
high-strength materials. These industries require materials that can withstand
extreme conditions, such as high temperatures, mechanical stresses, and
corrosive environments, while also reducing the overall weight of aircraft,
spacecraft, and defense equipment. Carbon fibers and composites offer an ideal
solution, as they possess an outstanding strength-to-weight ratio, making them
valuable for designing lightweight yet structurally robust components. This
weight reduction not only enhances fuel efficiency in aerospace but also
contributes to the agility and maneuverability of military vehicles and equipment,
ultimately improving their performance.
Furthermore,
advanced carbon materials are known for their exceptional thermal and chemical
resistance properties, making them suitable for applications in the aerospace
and defense sectors that involve exposure to extreme temperatures and harsh
chemical environments. Carbon-based ceramics, for instance, are used in the
production of heat shields, ablative materials, and thermal protection systems
for reentry vehicles and spacecraft. These materials play a crucial role in
ensuring the safety and functionality of aerospace and defense equipment
operating in extreme conditions, such as during atmospheric reentry or
hypersonic flight.
Another
driver for the demand of advanced carbon materials in aerospace and defense is
their electrical conductivity and electromagnetic interference (EMI) shielding
capabilities. Carbon composites infused with conductive additives can dissipate
static electricity and provide EMI shielding, essential in aerospace
applications where electromagnetic interference can disrupt electronic systems
and communication. Additionally, carbon materials are used in the production of
radar-absorbing materials (RAMs), which reduce the radar signature of military
aircraft and naval vessels, enhancing their stealth capabilities.
Moreover,
advanced carbon materials contribute to sustainability goals within the
aerospace and defense sectors. As global awareness of environmental concerns
continues to grow, manufacturers are seeking eco-friendly solutions. Carbon
fibers and composites, derived from carbon-rich precursors such as
polyacrylonitrile (PAN) or lignin, align with sustainability objectives by
offering reduced environmental impact compared to traditional materials. This
has led to increased adoption, as both industries work to minimize their carbon
footprint.
Technological
advancements and innovations in carbon material production have played a
significant role in market growth. Manufacturers have invested in research and
development to improve the quality, consistency, and performance of advanced
carbon materials. These efforts have led to the development of tailored
materials optimized for specific aerospace and defense applications, further
enhancing their suitability and efficiency.
In
conclusion, the growing demand from the aerospace and defense industry is a
major driver of the advanced carbon materials market. Carbon materials offer
unique properties that meet the stringent requirements of these sectors,
including strength, lightweight design, thermal resistance, EMI shielding, and
sustainability. As the aerospace and defense industries continue to evolve and
innovate, advanced carbon materials are expected to play an increasingly
pivotal role in driving progress and addressing the complex challenges they
face in the modern era.
Rising
Demand for Electronics and Energy Storage Drives the Demand for Advanced Carbon
Materials Market
The
advanced carbon materials market is experiencing significant growth due to the
rising demand for electronics and energy storage solutions. Advanced carbon
materials, including carbon nanotubes, graphene, and advanced carbon
composites, have emerged as key components in these industries, driven by their
exceptional properties and performance advantages.
One
of the primary factors fueling the growth of the advanced carbon materials
market is the increasing demand for electronic devices. The electronics
industry has seen explosive growth in recent years, with the proliferation of
smartphones, tablets, wearable technology, and Internet of Things (IoT)
devices. These devices require high-performance materials to meet the demands
of miniaturization, improved energy efficiency, and enhanced functionality.
Carbon nanotubes and graphene, in particular, exhibit remarkable electrical
conductivity, thermal conductivity, and mechanical strength, making them ideal
candidates for use in electronic components. Carbon-based materials enable the
development of smaller, faster, and more energy-efficient electronic devices,
meeting the ever-increasing consumer and industry expectations.
Furthermore,
advanced carbon materials play a crucial role in energy storage solutions,
including batteries and supercapacitors. As the world transitions toward
renewable energy sources and electric vehicles (EVs), the need for
high-performance energy storage systems has grown significantly. Carbon-based
materials are at the forefront of energy storage innovation, contributing to
the development of lithium-ion batteries, supercapacitors, and next-generation
energy storage technologies. Carbon materials enhance energy density, increase
charge/discharge rates, and improve the overall efficiency and longevity of
energy storage systems. This is particularly important in the EV industry,
where advancements in energy storage technologies are driving the adoption of
electric vehicles on a global scale.
Moreover,
the demand for clean and sustainable energy solutions is driving the growth of
the advanced carbon materials market. Carbon-based materials are key components
in energy conversion and storage systems such as fuel cells and hydrogen
storage. These technologies are essential for the development of green energy
solutions, including hydrogen fuel cell vehicles and stationary fuel cell power
plants. Carbon materials serve as catalyst supports and conductive components
in these systems, enabling efficient and clean energy generation.
The
push for environmental sustainability and reduced carbon emissions is further
accelerating the adoption of advanced carbon materials. Governments and
industries around the world are investing in renewable energy and energy
efficiency initiatives, which rely on advanced carbon materials for their
success. Carbon nanotubes, for example, are used in the development of
lightweight and strong materials for wind turbine blades, contributing to the
expansion of wind energy capacity.
Additionally,
advancements in carbon material production technologies have played a
significant role in market growth. Researchers and manufacturers have been
exploring innovative methods to produce high-quality carbon nanotubes,
graphene, and other advanced carbon materials at scale and with improved
cost-efficiency. These developments have paved the way for broader adoption in
electronics and energy storage applications.
In
conclusion, the rising demand for electronics and energy storage solutions is a
major driver of the advanced carbon materials market. Carbon-based materials
are instrumental in meeting the needs of the rapidly evolving electronics
industry and the growing requirements for energy storage in renewable energy
systems and electric vehicles. As the world continues to prioritize clean
energy and technological innovation, advanced carbon materials are poised to
play a central role in driving progress and addressing the complex challenges
of a sustainable and electrified future.
Rising
Initiatives for Sustainability and Reduced Carbon Footprint
The
advanced carbon materials market is experiencing robust growth, primarily
propelled by the rising initiatives for sustainability and a reduced carbon
footprint. Advanced carbon materials, including carbon nanotubes, graphene, and
carbon composites, have emerged as critical components in various industries,
driven by their exceptional properties and the need to address environmental
challenges.
One
of the key factors driving the demand for advanced carbon materials is the
global commitment to sustainability and environmental protection. Governments,
industries, and consumers alike are increasingly aware of the detrimental
impacts of traditional materials and energy sources on the environment.
Carbon-based materials offer a more sustainable alternative due to their lower
environmental footprint. For instance, carbon nanotubes and graphene can be
produced from renewable carbon sources, such as biomass, reducing the reliance
on fossil fuels and decreasing carbon emissions associated with traditional
materials.
Moreover,
advanced carbon materials are integral to the development of clean energy
technologies. The transition to renewable energy sources, such as solar and
wind power, relies on advanced materials to improve the efficiency and
performance of energy conversion and storage systems. Carbon composites are
used in the production of lightweight and durable wind turbine blades,
contributing to the expansion of wind energy capacity. Additionally, carbon
materials serve as crucial components in next-generation energy storage
systems, including lithium-ion batteries and supercapacitors, enabling the
efficient storage of renewable energy.
The
push for sustainability extends to the transportation sector, where advanced
carbon materials play a pivotal role in reducing emissions and improving fuel
efficiency. Lightweight carbon composites are used extensively in the
automotive and aerospace industries to reduce the weight of vehicles and
aircraft. Lighter vehicles require less fuel to operate, leading to lower
carbon emissions and improved fuel economy. In the aerospace industry, carbon
composites are utilized in the construction of aircraft, contributing to
reduced fuel consumption and emissions during flight.
Furthermore,
carbon-based materials are essential for the development of advanced water and
air purification technologies. Carbon nanotubes and activated carbon are used
in filtration systems to remove contaminants, pollutants, and harmful chemicals
from water and air sources. These materials provide an efficient and
sustainable means of improving water quality and ensuring clean air, addressing
critical environmental and public health concerns.
The
construction industry is also witnessing the adoption of advanced carbon
materials in the pursuit of sustainability. Carbon fibers and composites are
used in the construction of energy-efficient and environmentally friendly
buildings. These materials offer enhanced insulation properties, reducing the
energy consumption required for heating and cooling. Additionally, carbon
materials contribute to the durability and longevity of construction
components, minimizing the need for replacements and reducing waste.
Technological
advancements and innovations in carbon material production have played a
pivotal role in market growth. Researchers and manufacturers continue to
explore novel methods for producing advanced carbon materials with improved
performance characteristics and cost-effectiveness. These developments are
driving broader adoption across various industries and applications.
In
conclusion, the rising initiatives for sustainability and a reduced carbon footprint
are major drivers of the advanced carbon materials market. Carbon-based
materials offer eco-friendly alternatives to traditional materials, enabling
progress toward a more sustainable and environmentally responsible future. As
industries and governments prioritize sustainability and environmental
protection, advanced carbon materials are expected to play an increasingly
vital role in addressing global challenges and promoting a greener, cleaner
world.
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Key Market
Challenges
High
Production Costs
High
production costs are posing a significant obstacle to the growth of the global
Advanced Carbon Materials market. These materials, which encompass a diverse
range of carbon-based substances like graphene, carbon nanotubes, and carbon
fiber composites, are highly sought after for their exceptional properties,
including strength, conductivity, and lightness. However, the complex and
resource-intensive processes involved in their production contribute to
elevated costs.
Carbon
materials often require specialized equipment and precise manufacturing
techniques, which demand substantial investments in research, development, and
production infrastructure. Moreover, the cost of raw materials, such as
high-purity carbon precursors, can be substantial. These factors make advanced
carbon materials expensive to produce, limiting their accessibility to a
broader range of industries and applications.
Addressing
high production costs is a critical challenge for the industry. To overcome
this obstacle, companies are actively exploring cost-efficient manufacturing
methods, recycling and reusing strategies for carbon materials, and sustainable
sourcing practices. Additionally, advancements in scalable production
techniques and economies of scale are expected to play a crucial role in
reducing costs and expanding the market for advanced carbon materials. As
technology and innovation progress, finding ways to make these remarkable
materials more affordable will be essential to unlocking their full potential
and fostering broader adoption across industries.
Technical
Challenges
Technical
challenges are acting as significant barriers to the growth of the global
Advanced Carbon Materials market. These challenges stem from the complex and multifaceted
nature of advanced carbon materials, which include substances like graphene,
carbon nanotubes, and carbon fiber composites, each with unique properties and
applications.
One
key technical challenge is achieving consistent quality and reproducibility in
the manufacturing processes of advanced carbon materials. Variability in
material characteristics can hinder their reliability and predictability in
various applications, from electronics to aerospace. Controlling factors such
as impurities, defects, and crystallographic structure is a complex
undertaking.
Furthermore,
scaling up production while maintaining material integrity and quality presents
a formidable technical hurdle. Many advanced carbon materials are synthesized
at a laboratory scale, but transitioning to large-scale, cost-effective
production without compromising their properties remains a challenge.
Additionally,
the integration of advanced carbon materials into existing systems and
industries requires overcoming compatibility and interfacing issues. These
materials often have unique electrical, thermal, or mechanical properties that
need to be effectively harnessed and integrated into practical applications.
To
overcome these technical challenges, ongoing research and development efforts
are essential. Collaborative endeavors between academia and industry, as well
as advancements in material characterization and process optimization, are key
strategies to unlock the full potential of advanced carbon materials and drive
their adoption across a wide range of sectors.
Key Market Trends
Tailoring
Advanced Carbon Materials
Tailoring
advanced carbon materials to meet specific application requirements stands out
as a pivotal trend driving the growth of the global Advanced Carbon Materials
market. These materials, including graphene, carbon nanotubes, and carbon fiber
composites, offer a diverse range of extraordinary properties such as
exceptional strength, electrical conductivity, and lightweight characteristics.
To harness these capabilities effectively, customization and tailoring have
become paramount.
One
key aspect of this trend involves engineering advanced carbon materials with
precise structural modifications. Researchers and manufacturers are exploring
methods to control material defects, layer stacking, and functionalization to
fine-tune their properties for various applications. For example, modifying the
surface chemistry of carbon nanotubes can enhance their compatibility with
specific polymers, making them ideal for reinforced composite materials in
aerospace or automotive industries.
Tailoring
also encompasses the development of hybrid materials, where advanced carbon
materials are combined with other substances like polymers or metals to create
composites with unique synergistic properties. These tailored composites offer
a broad spectrum of applications, from lightweight and strong structural
components to advanced electronic devices.
Furthermore,
customization extends to the scale of production, with efforts to optimize
manufacturing processes for different advanced carbon materials. Achieving
economies of scale while maintaining quality and consistency is a critical
aspect of tailoring these materials for mass production and widespread
adoption.
As
industries increasingly seek innovative solutions, the ability to customize
advanced carbon materials to meet specific needs is a driving force behind
their growth. This trend fosters collaboration between research institutions,
manufacturers, and end-users, resulting in a dynamic market that continuously
innovates to unlock the full potential of these remarkable materials across
diverse sectors, including electronics, energy storage, aerospace, and more.
Carbon
Nanotubes and Graphene Integration
The
integration of carbon nanotubes (CNTs) and graphene into various applications
is a pivotal trend driving the growth of the global Advanced Carbon Materials
market. CNTs and graphene are two of the most remarkable carbon-based
materials, each possessing unique properties that make them highly sought-after
in industries ranging from electronics to aerospace.
One
key aspect of this trend involves the combination of CNTs and graphene with
other materials to create advanced composites. These composites leverage the
exceptional strength, electrical conductivity, and thermal properties of both
materials. For example, graphene-CNT composites have shown promise in
developing ultra-strong, lightweight materials for structural components in
aerospace and automotive industries.
Another
application area is in electronics, where the integration of CNTs and graphene
into transistors, sensors, and other devices can significantly enhance
performance. Graphene's high electron mobility and CNTs' excellent electrical
conductivity make them ideal candidates for creating faster and more efficient
electronic components.
Additionally,
these advanced carbon materials are finding utility in energy storage
solutions. CNTs and graphene can enhance the performance of batteries and
supercapacitors by improving charge/discharge rates, energy density, and
overall efficiency. This is crucial in the context of renewable energy and
electric vehicles, where energy storage technologies are in high demand.
Furthermore,
research and development efforts are underway to create scalable and
cost-effective production methods for CNTs and graphene, making them more
accessible for a broader range of industries. As industries continue to seek
ways to improve performance, reduce weight, and enhance energy efficiency, the
integration of carbon nanotubes and graphene into various materials and devices
remains a key trend in the Advanced Carbon Materials market. These materials'
unique properties and versatility make them invaluable contributors to
technological advancements across multiple sectors, promising substantial
growth and innovation in the years to come.
Segmental Insights
Product
Type Insights
Based
on the product type, the graphite segment
emerged as the dominant player in the global market for Advanced Carbon
Materials. Graphite is a versatile advanced carbon material with a wide range
of applications, including in the aerospace, automotive, electronics, and
energy sectors. Its properties, including high thermal conductivity, electrical
conductivity, and resistance to corrosion, make it an essential material in
various industries.
Graphite
has been traditionally used in applications like lubricants and refractories.
Still, it is also finding new uses in emerging technologies such as lithium-ion
batteries for electric vehicles and energy storage systems, where its
conductivity and lightweight characteristics are highly advantageous.
Graphite
is available in various grades, including natural graphite, synthetic graphite,
and expanded graphite, each catering to specific applications. This diversity
allows it to meet a wide range of industry needs. The growth of electric
vehicles and renewable energy storage solutions has boosted the demand for
graphite in the form of anode materials for lithium-ion batteries. As these
industries continue to expand, graphite's dominance is further solidified.
Application
Insights
The
aerospace and defense segments are projected to experience rapid growth during
the forecast period. The aerospace and defense sector stands out as a major
driving force in the advanced carbon materials market, commanding a substantial
share of the industry. In recent years, this segment has witnessed a surge in
innovative products and solutions. Advanced carbon materials, with their
exceptional strength, durability, and stability characteristics, have become
the materials of choice for numerous aerospace and defense applications.
Traditional
metal structures are gradually giving way to the adoption of carbon fibers,
particularly carbon fiber-reinforced plastics (CFRP), in aircraft
manufacturing. These materials offer a unique combination of lightweight
properties and structural rigidity, making them ideal for diverse aerospace
components. From the interior components of airplanes and jets to the rotor
blades of helicopters, composite materials, including advanced carbon
materials, have emerged as integral elements within the aerospace industry.
In
the Asia-Pacific region, the aerospace sector is experiencing rapid growth,
propelled by increased investments in defense platforms and technologies by
several countries. India, in particular, has witnessed remarkable growth in
both civil and military aviation. According to the Indian government, the
commercial aviation sector contributed USD 30 billion to India's GDP in 2021.
With such exponential growth, the domestic aviation market is projected to
secure the third position globally by 2024. This growth is further underlined
by the substantial increase in air fleet numbers, expected to surge from 600
(as of October 2022) to 1,200 by 2024, consequently driving demand for advanced
carbon materials.
Additionally,
noteworthy collaborations and developments are shaping the aerospace industry
in the region. For instance, in April 2022, HAL (Hindustan Aeronautics Limited)
and Israel Aerospace Industries (IAI) signed a Memorandum of Understanding to
convert civil passenger aircraft into Multi-Mission Tanker Transport (MMTT)
aircraft in India.
The
rise of e-commerce, accelerated by the COVID-19 pandemic, has resulted in a
significant upswing in the air cargo market. Consequently, there has been a
surge in orders for freighter aircraft in 2022. A prime example is Luxembourg's
Cargolux airlines, which placed an order with Boeing for 10 777-8 freighters in
October 2022, with options for an additional 6 aircraft.
China
occupies a prominent position as the second-largest air freight market
globally, trailing only the United States. Boeing's Commercial Market Outlook
2022 forecasts China's commercial airfleet to grow from 3,900 to 9,600 by 2041,
emphasizing the country's expanding influence in the aerospace industry.
Furthermore,
the US Department of Defense awarded Boeing a contract worth USD 103.7 million
in February 2022 to supply eight AH-6 light attack reconnaissance helicopters
to Thailand under the foreign military sale (FMS) program. These helicopters
are slated to replace the aging AH-1F Cobra helicopters in service with the
Royal Thai Army, with deliveries expected to continue through 2024.
As
the aviation industry rebounds to normalcy, new airlines have entered the
market. Notably, Akasa Air, a new Indian airline, commenced operations in
August 2022 with plans to expand its routes. In the same vein, Alaska Airlines
placed an order for 52 Boeing 737 MAX aircraft in October 2022, aiming to have
an all-Boeing mainline fleet by the end of 2023.
Collectively,
the factors outlined above are poised to fuel substantial growth in the
advanced carbon materials market throughout the forecast period. The aerospace
and defense sectors, along with the burgeoning air cargo and airline
industries, represent significant opportunities for the continued utilization
and expansion of advanced carbon materials in various applications.
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Regional Insights
The
North American region is poised to assert its dominance in the advanced carbon
materials market throughout the forecast period, owing to the presence of
economic powerhouses such as the United States, Canada, and Mexico. The United
States, in particular, stands out as the world's largest and most influential
economy.
The
escalating demand for various advanced materials, including carbon fibers,
carbon nanotubes, graphene, special graphite, carbon foams, nanocrystalline
diamond (NCD), diamond-like-carbon (DLC), and fullerenes, across a diverse
range of industries is expected to drive robust growth in the utilization of
advanced carbon materials. These industries encompass aerospace and defense,
electronics, automotive, energy, and many others.
For
instance, data from the International Organization of Motor Vehicle
Manufacturers (OICA) indicates that in 2022, automobile production in the
United States reached a substantial 10.06 million units. This figure represents
a notable increase of 10% compared to 2021 and a significant 14% surge compared
to 2020. The upward trajectory in automobile production is expected to create a
considerable upswing in the demand for advanced carbon materials in North
America.
Furthermore,
the United States, as a NATO member, exhibited its commitment to defense by
allocating an estimated USD 822 billion for defense spending in 2022. This
places the United States at the forefront of defense budget allocation among
all NATO members. The continuous increase in defense expenditure from the
United States is anticipated to drive a heightened demand for advanced carbon
materials in the North American region.
Considering
these compelling factors, the market for advanced carbon materials in North
America is projected to experience significant and sustained growth throughout
the forecast period. The robust demand stemming from the United States, driven
by its strong economy, thriving industries, and substantial defense
investments, will undoubtedly contribute to the region's prominence in the
advanced carbon materials market.
Recent Development
- In
2023, Toray Industries Inc. unveiled its "Mid-Term Management Program,
Project AP-G 2025," a comprehensive strategic document outlining the
company's corporate vision for the fiscal years 2023 to 2025. In this strategy,
Toray underscores its commitment to delivering cutting-edge technologies and
advanced materials to address global challenges, particularly in the context of
sustainability. Notably, out of Toray's total revenue of USD 19 billion in
2022, its Carbon Fiber Composite Materials business secured the third position
in terms of revenue generation, following the Fibers and Textiles and
Performance Chemicals segments. The Carbon Fiber Composite Materials business
contributed JPY 282 billion (approximately USD 2 billion) to the company's
overall revenue.
- In
2022, during the 45th Annual General Meeting (AGM) of Reliance Industries,
Chairman Mukesh Ambani made a significant announcement regarding the
establishment of India's inaugural and one of the world's largest Carbon Fiber
plants. This cutting-edge facility is set to be located in Hazira, Gujarat, and
will boast an impressive production capacity of 20,000 metric tons per annum
(MTPA). Notably, the plant will rely on Acrylonitrile feedstock for its
operations.
Key Market Players
- Adherent Technologies Inc.
- Aldila, Inc.
- 2-DTech Limited
- Abalonyx AS
- ACS Material, LLC
- Advanced Nanotech Inc
- Adherent Technologies Inc.
- Advanced Composites, Inc.
- 2d Materials Pte. Limited
- Advanced Graphene Solutions, Inc.
|
By Product Type
|
By Application
|
By Region
|
- Graphite
- Carbon Fibers
- Carbon Nanotubes
- Carbon Foams
- Other
|
- Construction
- Electronics
- Aerospace & Defense
- Energy
- Automotive and Sports
|
- North America
- Asia Pacific
- Europe
- South America
- Middle East & Africa
|
Report
Scope:In
this report, the Global Advanced Carbon Materials Market has been segmented
into the following categories, in addition to the industry trends which have
also been detailed below:
- Advanced Carbon Materials Market, By Product Type:
o
Graphite
o
Carbon Fibers
o
Carbon Nanotubes
o
Carbon Foams
o
Other
- Advanced Carbon Materials Market, By Application:
o
Construction
o
Electronics
o
Aerospace & Defense
o
Energy
o
Automotive and Sports
- Advanced Carbon Materials Market,
By Region:
o North America
§ United States
§ Canada
§ Mexico
o Asia-Pacific
§ China
§ India
§ Japan
§ Australia
§ South Korea
o Europe
§ France
§ United Kingdom
§ Italy
§ Germany
§ Spain
o South America
§ Brazil
§ Argentina
§ Colombia
o Middle East & Africa
§ South Africa
§ Saudi Arabia
§ UAE
§ Kuwait
§ Turkey
§ Egypt
Competitive
Landscape
Company
Profiles: Detailed
analysis of the major companies present in the Global Advanced Carbon Materials
Market.
Available
Customizations:
Global
Advanced Carbon Materials market report with the given market data, TechSci Research offers customizations according to a company's specific needs. The
following customization options are available for the report:
Company
Information
- Detailed analysis and profiling of
additional market players (up to five).
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Advanced Carbon Materials Market is an upcoming report to be released soon. If
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release, please contact us at [email protected]