|
Forecast Period
|
2026-2030
|
|
Market Size (2024)
|
USD 1.94 Billion
|
|
Market Size (2030)
|
USD 3.59 Billion
|
|
CAGR (2025-2030)
|
10.63%
|
|
Fastest Growing Segment
|
Particle Accelerators
|
|
Largest Market
|
North America
|
Market Overview
Global Superconducting Wire
Market was valued at USD 1.94 Billion in 2024 and is expected to reach USD 3.59
Billion by 2030 with a CAGR of 10.63%. The Superconducting Wire Market refers
to the global industry focused on the development, production, and
commercialization of wires and cables that exhibit superconductivity—a
phenomenon characterized by the complete elimination of electrical resistance
and the expulsion of magnetic fields when cooled below a certain critical
temperature. Superconducting wires are primarily composed of materials such as
niobium-titanium (NbTi), niobium-tin (Nb3Sn), yttrium barium copper oxide
(YBCO), bismuth strontium calcium copper oxide (BSCCO), and other
high-temperature and low-temperature superconductors. These materials are
engineered into wire forms to be utilized in a wide range of high-performance
applications that require extremely efficient electrical transmission and
strong magnetic fields.
Key Market Drivers
Advancements in
Energy Transmission and Power Generation
The
Superconducting Wire Market is being significantly driven by advancements in
energy transmission and power generation technologies. Superconducting wires,
due to their zero electrical resistance, offer the potential to dramatically
improve the efficiency of power transmission over long distances, reducing
energy losses that are a common problem in conventional power grids. As the
demand for electricity grows globally, especially in emerging economies, there
is increasing pressure to enhance the capacity and efficiency of existing grid
infrastructure. Superconducting wires can transmit large amounts of electricity
without any power loss, which is particularly valuable for high-capacity
applications such as power plants, renewable energy integration, and urban
power distribution.
Additionally,
their ability to conduct electricity without resistance allows for the
construction of more compact power cables, which is beneficial in densely
populated urban areas where space for traditional infrastructure is limited.
The rise in renewable energy generation, such as wind and solar, has further
accelerated the demand for efficient power transmission systems capable of
handling variable energy inputs, where superconducting wires play a crucial
role by ensuring grid stability and optimizing the overall energy flow.
Furthermore, the ability to reduce power loss translates into both economic and
environmental benefits, making superconducting wire technology an attractive
solution for future-proofing energy grids. Over 80% of global electricity grids are now connected with advanced digital monitoring and control systems (smart grids). Around 10 million smart meters installed worldwide by 2023 to improve grid efficiency and consumer management. High Voltage Direct Current (HVDC) transmission lines have reached over 150,000 km globally, enabling efficient long-distance power transfer with reduced losses. Losses in power transmission have decreased globally to about 6-8%, down from over 10% a few decades ago, due to improved technologies.
Growth in
Transportation and Magnet Technology
Another key
driver for the Superconducting Wire Market is the increasing use of
superconducting wires in advanced transportation systems, particularly in
maglev (magnetic levitation) trains, and other high-performance applications
involving magnets. Superconducting materials have the unique property of
generating powerful magnetic fields without energy dissipation, which is
essential for high-speed transportation technologies such as maglev trains.
These trains, which use superconducting magnets to levitate above the track,
experience zero friction, allowing for faster speeds, greater energy
efficiency, and smoother rides compared to traditional rail systems. As
countries invest in future-oriented transportation infrastructure, including
high-speed rail networks, the demand for superconducting wires to power these
systems is expected to grow.
Superconducting
wires are also being explored for use in various magnetic technologies,
including MRI machines, particle accelerators, and other scientific
instruments, where their high magnetic fields enhance operational efficiency
and performance. The ongoing research and development in these areas, along
with the expansion of maglev train projects in countries like China and Japan,
are further fueling the growth of the superconducting wire market. As
transportation and magnetic technologies continue to evolve, the adoption of
superconducting wires is anticipated to increase, particularly for applications
that require high magnetic fields and energy efficiency. Electric Vehicle (EV) stock worldwide surpassed 30 million units by 2024, up from just 17 million in 2021. Global EV sales reached about 10 million vehicles in 2023, nearly doubling the sales from 2021. Public transportation investments worldwide exceeded USD 200 billion annually in recent years to expand and modernize networks. High-speed rail networks have expanded to over 40,000 km globally, with China alone accounting for more than 38,000 km. Shared mobility services (e-scooters, bike-sharing) have grown to over 150 million users globally by 2024.
Technological
Innovations and Government Support
Technological
advancements in the manufacturing of superconducting wires and growing
government support for clean and efficient energy solutions are significantly
boosting the Superconducting Wire Market. Over the years, significant research
and development have led to breakthroughs in the production of high-temperature
superconductors (HTS), which can operate at higher temperatures compared to
traditional superconductors, reducing the complexity and cost of cooling
systems required for their operation. These innovations make superconducting
wires more practical and commercially viable for a broader range of
applications, from power transmission to medical equipment. Governments around
the world are recognizing the potential of superconducting wire technology in
enhancing energy efficiency and supporting sustainable energy goals, and are
therefore offering incentives and funding to foster its development.
For example, the
U.S. Department of Energy and the European Union have launched initiatives
aimed at developing and deploying superconducting technologies to reduce energy
consumption and improve grid performance. These government efforts are expected
to further drive the market, as they promote collaboration between the private
and public sectors in advancing superconducting wire solutions. Additionally,
the increasing focus on reducing greenhouse gas emissions and the need for
cleaner technologies further accelerates the adoption of superconducting wire
applications in industries that are heavily reliant on energy consumption, such
as power generation and transportation. As the market continues to evolve, both
technological advancements and policy support will remain crucial drivers in
scaling the deployment and adoption of superconducting wire technology.
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Key Market Challenges
High Production Costs and
Complex Manufacturing Process
One of the primary challenges
in the Superconducting Wire Market is the high production costs and complex
manufacturing processes associated with the production of superconducting
wires. Superconducting materials, such as yttrium barium copper oxide (YBCO)
and magnesium diboride (MgB2), require specialized techniques and equipment for
their fabrication, which significantly increases the overall cost of
production.
The manufacturing process
involves the use of high-quality materials, precise temperature control, and
complex layering techniques, which not only require significant capital
investment but also demand advanced technological expertise. Additionally, the need
to maintain low temperatures for superconductivity to occur adds further
complexity, as these wires require cryogenic systems or expensive cooling
solutions to function properly in real-world applications.
The high costs involved in
manufacturing, coupled with the technical challenges of maintaining the wire's
superconducting properties, limit the widespread adoption of superconducting
wires across various industries. While advancements in manufacturing processes
and material science are gradually improving the cost-efficiency of
superconducting wires, they still remain prohibitively expensive for many
potential users, especially when compared to traditional copper or
aluminum-based conductors.
The development of
cost-effective, scalable production methods is critical for driving the market
forward, but until these challenges are addressed, the high cost of
superconducting wires will continue to be a significant barrier to market
growth, especially in industries where cost considerations are paramount, such
as consumer electronics, power distribution, and transportation.
Limited Commercial
Applications and Infrastructure Challenges
Another major challenge for
the Superconducting Wire Market is the limited commercial applications and the
lack of sufficient infrastructure to support widespread use. Despite their high
potential in fields such as power transmission, medical imaging (MRI machines),
and transportation (magnetic levitation trains), superconducting wires are
still not widely adopted due to their specific operating conditions and the
infrastructure required for their integration. Superconducting materials only
exhibit their unique properties when cooled to extremely low temperatures,
often requiring the use of liquid nitrogen or liquid helium, which adds to both
the complexity and the cost of deploying such systems.
The need for dedicated
cryogenic systems and specialized cooling infrastructure further limits the
applicability of superconducting wires in many industries. Moreover, the
current infrastructure for power grids and transportation networks is
predominantly designed around conventional materials such as copper or
aluminum, which makes the integration of superconducting wires into existing
systems both challenging and expensive. The lack of established commercial
infrastructure and the long payback period for investments in superconducting
technology deter companies from adopting this technology, especially when
alternative solutions exist.
The technical complexity of
installing and maintaining superconducting wire systems in a commercially
viable manner poses a barrier for many potential customers. For superconducting
wires to gain traction in the market, significant investments are needed to
develop the necessary infrastructure, including advanced cryogenic systems, and
to expand commercial applications in high-performance sectors. Until these
barriers are overcome, the potential for superconducting wires to replace
traditional conductors in mainstream applications remains limited, hindering
the market’s overall growth potential.
Key Market Trends
Growing Demand for
Energy-Efficient Power Transmission Solutions
One of the most significant trends in the
Superconducting Wire Market is the growing demand for energy-efficient power
transmission solutions. Traditional electrical transmission and distribution
systems often face significant energy losses due to resistance in wires,
especially over long distances. Superconducting wires, however, have zero
electrical resistance when cooled to their critical temperature, enabling the
transmission of electricity without any loss of power. This advantage makes
superconducting wires ideal for high-performance applications, such as
long-distance power transmission, and contributes to improving the overall
efficiency of electrical grids. As countries worldwide strive to meet
sustainability goals and reduce carbon emissions, energy-efficient solutions
like superconducting wires are gaining traction in grid modernization projects.
With the global push toward
renewable energy integration, the ability to efficiently transmit energy from
renewable sources, which are often located far from urban centers, is driving
the adoption of superconducting wires. Governments and utilities are investing
in smart grids and advanced transmission infrastructure, where superconducting
wires can help reduce line losses, improve grid reliability, and optimize power
distribution. This trend is also supported by the growing need for
high-capacity transmission lines to meet the increasing energy demands of
industries and consumers alike. As research and development efforts continue to
improve the cost-effectiveness and operational viability of superconducting
materials, the adoption of superconducting wires is expected to expand
significantly across both developed and emerging markets.
Rising Applications in
Magnetic Levitation and Transportation Technologies
The Superconducting Wire
Market is witnessing a significant uptick in the development and deployment of
magnetic levitation (maglev) technologies, particularly in transportation
applications. Superconducting wires are critical components in the creation of
powerful magnets that enable the levitation and propulsion of maglev trains,
which offer high-speed, energy-efficient transportation solutions. These trains
use superconducting magnets that generate powerful magnetic fields, reducing
friction and allowing for faster speeds compared to traditional rail systems.
The global push toward sustainable, high-speed transportation systems is
driving investments in maglev technologies, particularly in countries like
Japan, China, and Germany, which are at the forefront of this innovation.
The development of
superconducting wire-based technologies is also being extended to other
transportation systems, such as hyperloop and electric vehicles, where
superconducting components can improve performance and reduce energy
consumption. As governments and industries look to reduce the carbon footprint
of transportation and enhance mobility solutions, the use of superconducting
wires in these applications is becoming a key trend. This trend is expected to
further accelerate as advancements in superconducting materials and cooling
technologies make these systems more cost-competitive and commercially viable
for large-scale deployment.
Technological Advancements in
High-Temperature Superconducting Materials
Another prominent trend
driving the Superconducting Wire Market is the ongoing research and development
in high-temperature superconducting (HTS) materials. Traditionally,
superconducting materials required extremely low temperatures, achieved through
the use of liquid helium, making them costly and challenging to implement on a
large scale. However, advancements in HTS materials, which can operate at
higher temperatures (typically above the boiling point of liquid nitrogen),
have significantly reduced the cost and complexity of deploying superconducting
wire systems. The development of new HTS materials, such as yttrium barium
copper oxide (YBCO) and iron-based superconductors, is enabling more practical
applications of superconducting wires in a range of industries, from power
generation and medical imaging to transportation and scientific research.
As these materials continue
to evolve, they offer the potential for superconducting wires to be used in
more diverse and economically feasible applications, including energy storage
systems, power transformers, and advanced medical devices such as MRI machines.
The decreasing reliance on liquid helium and the ability to use more
cost-effective cooling methods (such as liquid nitrogen) is driving the broader
adoption of HTS-based superconducting wires. Moreover, with increased
investment from both government and private sectors, significant strides are
being made in scaling production and improving the efficiency of HTS wire
manufacturing processes, further propelling market growth. The ongoing
advancements in HTS technology are expected to create new opportunities for
superconducting wires, especially in high-demand sectors such as renewable
energy, transportation, and electronics, solidifying HTS as a key enabler of
the next generation of electrical systems and applications.
Segmental Insights
Application
Insights
The Magnetic Resonance
Imaging segment held the largest Market share in 2024. The Superconducting Wire
Market in the Magnetic Resonance Imaging (MRI) segment is experiencing
significant growth, primarily driven by the increasing demand for advanced
medical imaging technologies and the continuous improvements in MRI system
performance. Superconducting wires, specifically those made from
high-temperature superconductors (HTS), are critical components in the magnets
used in MRI machines, as they enable the creation of the strong and stable
magnetic fields necessary for high-resolution imaging.
Unlike conventional copper
wire, which experiences electrical resistance, superconducting wires exhibit
zero resistance when cooled to their critical temperature, allowing for more
powerful magnets that can produce high-quality images with minimal energy
consumption. This feature is particularly important in the MRI segment, where
the need for stronger magnetic fields is essential for obtaining clearer and
more detailed images of internal body structures, especially in complex
diagnostics such as neurological, musculoskeletal, and cardiovascular imaging.
As the global healthcare sector continues to emphasize early detection,
accurate diagnosis, and non-invasive imaging techniques, the demand for
high-performance MRI systems is steadily increasing, particularly in emerging
economies where access to advanced healthcare is expanding.
Superconducting wires offer a
reliable solution for manufacturing the powerful superconducting magnets in MRI
machines, enabling them to deliver superior imaging quality, shorter scan
times, and improved patient comfort. Additionally, the ongoing trend of
upgrading existing MRI systems to meet higher diagnostic requirements, along
with the development of portable and more affordable MRI technologies, is
boosting the market for superconducting wires in this segment.
Another driver is the
constant innovation in MRI technology, with manufacturers striving to improve
the resolution, sensitivity, and speed of MRI scans. These advancements require
the use of stronger and more efficient superconducting magnets, further propelling
the need for high-performance superconducting wires. Furthermore,
superconducting wires allow for more compact and efficient MRI machine designs,
making them suitable for use in diverse medical settings, including hospitals,
clinics, and research institutions, while minimizing operational costs.
The growing trend towards
non-invasive diagnostics, paired with an increasing focus on reducing
healthcare costs and improving patient outcomes, further supports the demand
for superconducting wire-based MRI systems. Additionally, governments in
developed and developing nations are investing in healthcare infrastructure,
including the modernization and expansion of diagnostic imaging equipment,
which presents lucrative growth opportunities for the superconducting wire
market.
As medical imaging technology
continues to advance, with the introduction of innovations such as functional
MRI and 3D MRI imaging, the demand for superconducting wire-based MRI systems
will likely increase, driving market expansion. Overall, the growing need for
high-quality, efficient, and cost-effective MRI solutions is a key market
driver for superconducting wires in the medical imaging segment, with
superconducting technology continuing to be integral to the next generation of
MRI machines and healthcare diagnostics.
Material
Type Insights
The High-Temperature
Superconductors segment held the largest Market share in 2024. The
High-Temperature Superconductors (HTS) segment is a significant driver in the
growth of the Superconducting Wire Market, driven by advancements in material
science, cost reduction, and the increasing demand for efficient,
high-performance electrical systems across various industries. HTS materials,
which operate at higher temperatures than traditional superconductors, offer
substantial advantages, such as reduced cooling costs and more practical
deployment in commercial applications. The primary appeal of HTS wires lies in
their ability to transmit electrical power without resistance, making them
ideal for energy transmission and storage systems.
As the cost of cooling
solutions, like liquid nitrogen, continues to decrease and becomes more widely
accessible, HTS materials are becoming increasingly viable for large-scale
implementation. This has led to growing interest in HTS-based solutions for grid
infrastructure, power generation, and renewable energy integration, where
reducing power loss during transmission is critical. Furthermore, the enhanced
capabilities of HTS wires enable more compact, higher-capacity systems,
supporting the development of advanced power transformers, generators, and
motors. These advancements are particularly important in sectors such as
transportation, where HTS wires are used in maglev trains and other high-speed,
energy-efficient transportation systems that require strong magnetic fields for
levitation and propulsion. Additionally, HTS wires are crucial in the medical
industry, where they play a key role in the construction of more efficient and
high-resolution magnetic resonance imaging (MRI) machines, enabling faster and
more accurate diagnostics.
The rapidly evolving field of
energy storage also benefits from HTS technology, particularly in the
development of superconducting magnetic energy storage (SMES) systems, which
can store and release energy instantaneously, offering a reliable solution for
balancing power grids. As the push for cleaner, more sustainable energy systems
intensifies globally, HTS wires are also gaining momentum in renewable energy
projects, including wind and solar farms, where efficient energy transmission
and storage are key to maximizing the utilization of generated power. The
increasing need for reduced transmission losses in long-distance power
distribution, especially with the expansion of smart grids and decentralized
energy production, is further accelerating the adoption of HTS technology.
The potential for HTS
materials to revolutionize applications in quantum computing and particle
accelerators, with their low-resistance properties enabling faster and more
efficient data processing, creates long-term growth prospects in the
Superconducting Wire Market. As the production and manufacturing techniques for
HTS materials continue to advance, alongside a reduction in the cost of raw
materials and fabrication processes, the market for HTS wires is poised for
significant growth. The ongoing investments in R&D and government
initiatives aimed at promoting the adoption of superconducting technologies,
combined with the continuous improvement in the performance and scalability of
HTS wires, further underscore the critical role this segment plays in shaping
the future of the Superconducting Wire Market.
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Regional Insights
Largest Region
North America region held the
largest market share in 2024. The Superconducting Wire Market in North America
is experiencing robust growth driven by several key factors, with a primary
focus on the region's increasing demand for energy-efficient and
high-performance power transmission solutions. As North American countries,
particularly the United States and Canada, strive to modernize their aging
power grids and integrate more renewable energy sources, the need for
efficient, low-loss transmission systems is becoming paramount. Superconducting
wires, with their ability to carry electricity without resistance, offer a
transformative solution for reducing transmission losses, especially over long
distances, which is a significant challenge in large, sprawling regions.
This capability makes
superconducting wire systems ideal for modernizing electrical grids,
facilitating the efficient transport of power generated from renewable sources
like wind and solar, often located far from population centers. Additionally,
North America’s commitment to reducing carbon emissions and achieving
sustainability targets further propels the demand for energy-efficient
technologies such as superconducting wires. The region’s strong emphasis on
innovation, research, and development, backed by significant investments from
both public and private sectors, is accelerating the deployment of advanced
superconducting technologies.
In particular, the U.S.
Department of Energy (DOE) has been actively funding and supporting projects
aimed at advancing superconducting materials, which is accelerating the
commercial viability of superconducting wires. Furthermore, North America is
witnessing a significant rise in the adoption of magnetic levitation (maglev)
transportation systems, particularly in the U.S., which rely on superconducting
materials for efficient high-speed travel. The growing interest in
energy-efficient and environmentally friendly transportation solutions has led
to increased investments in superconducting wire applications in maglev trains,
which are set to revolutionize the region’s transportation infrastructure.
The increasing deployment of
superconducting wires in medical imaging technologies, such as MRI systems,
also contributes to the growing market. With North America being home to some
of the world’s leading healthcare institutions and medical device manufacturers,
the demand for high-performance superconducting materials in these applications
is on the rise. The region’s strong industrial base and the ongoing expansion
of high-tech manufacturing facilities, such as data centers and semiconductor
plants, require advanced superconducting solutions for high-performance
cooling, power distribution, and data transmission.
The development of
high-temperature superconducting (HTS) materials, which can operate at more
practical temperatures and reduce the need for expensive liquid helium cooling
systems, is further driving the adoption of superconducting wires in the
region. This has made superconducting technologies more cost-effective and
commercially viable, making them an increasingly attractive choice for a wide
range of industries in North America. Moreover, the North American market is
benefiting from favorable government policies and regulatory frameworks that
promote the adoption of clean energy and grid modernization technologies,
creating a conducive environment for the growth of the superconducting wire
market.
With advancements in
superconducting materials and increased investments in energy infrastructure,
North America is well-positioned to lead the global market for superconducting
wires, offering significant opportunities for both established players and new
entrants in the industry.
Emerging region:
South America is
the emerging region in Superconducting Wire Market. The Superconducting Wire
Market in South America is poised for significant growth, driven by several key
factors that align with the region's evolving energy and infrastructure needs.
One of the primary market drivers is the increasing demand for energy-efficient
solutions in power transmission and distribution, particularly in emerging
economies such as Brazil, Argentina, and Chile. South America is facing
challenges with power losses and inefficiencies in its existing transmission
grids, particularly due to the vast geographic expanse and the need to deliver
electricity to remote areas. Superconducting wires, with their zero electrical
resistance when cooled to the required temperatures, offer a transformative
solution to these challenges by enabling efficient long-distance power
transmission without energy losses.
As the region
moves towards modernizing its electrical grids and adopting smart grid
technologies, superconducting wires are becoming a key component in improving
grid reliability and reducing transmission losses. Additionally, the growing
demand for renewable energy sources, such as wind and solar, which are often
located in remote or offshore areas, further boosts the need for advanced
transmission systems capable of efficiently transporting power to urban
centers. Superconducting wires can play a crucial role in facilitating the
integration of renewable energy into the grid, making them highly attractive
for investment in South America’s green energy transition.
Another driver
is the significant infrastructure development initiatives taking place across
the region, particularly in countries like Brazil and Argentina, where
investments in transportation, urbanization, and smart technologies are on the
rise. Superconducting wires are increasingly being explored for use in
transportation systems, particularly in maglev train technologies, which offer
high-speed, energy-efficient solutions for densely populated urban areas.
As the region’s
governments focus on sustainable development, superconducting materials are
gaining attention due to their potential to support low-carbon transportation
systems that reduce reliance on fossil fuels. Additionally, advancements in
high-temperature superconducting (HTS) materials are making these wires more
cost-effective and viable for large-scale applications, addressing the
historical challenge of the expensive and complex cooling systems traditionally
required for superconducting technologies.
The ability to
use liquid nitrogen instead of liquid helium for cooling further lowers
operational costs, making superconducting wires a more economically feasible
solution for South America’s energy and infrastructure projects. International
collaborations and investments from global companies in the region, especially
in the renewable energy and technology sectors, are accelerating the adoption
of superconducting technologies.
As the South
American region continues to invest in energy security, sustainability, and
technological innovation, superconducting wires offer an attractive option for
meeting the region’s evolving power transmission and distribution needs. The
combination of energy efficiency, reduced operational costs, and the growing
focus on sustainability positions the Superconducting Wire Market as a key area
of growth in South America, with significant opportunities for market expansion
in the coming years.
Recent Developments
- In December
2023, U.S.-based MetOx International, Inc., a leading developer of advanced
power delivery technologies, announced the expansion of its Xeus
high-temperature superconducting (HTS) wire manufacturing capabilities,
signaling a strategic move to scale production in response to growing market
demand.
- In June 2023,
Japan-based JEOL Ltd. strengthened its position in the superconducting sector
by acquiring a minority stake in Japan Superconductor Technology, Inc. from
Kobe Steel, Ltd., aligning with its broader business expansion initiatives.
- In January 2023,
UK-based Tokamak Energy entered into a supply agreement with Furukawa Electric
Co., Ltd. and SuperPower Inc. for high-temperature superconducting tape,
supporting the development of its next-generation prototype fusion device, the
ST80-HTS.
- In April 2025, Furukawa Electric launched Lightera Holding G.K., unifying its optical fiber cable operations under the brand Lightera™. This new holding company comprises Lightera Japan, Lightera LLC (U.S.), and Lightera LatAm S.A., led by Chairman and CEO Foad Shaikhzadeh and President and COO Holly Hulse. With four regional divisions, Lightera aims to enhance global collaboration and deliver agile, innovative, and customized optical fiber solutions worldwide.
- In April 2025, Bruker Corporation launched the Ascend Evo 700 and 800 MHz magnets at the Joint ENC-ISMAR Conference, enhancing high-field NMR access with improved sustainability. These compact, lighter magnets reduce helium consumption by up to 40%, extending hold times to 240 and 180 days. Featuring proprietary cryogenically cooled shim technology, they offer superior field homogeneity, minimal adjustments, and rapid installation, continuing three decades of technological advancement in the Ascend Evo series.
- In May 2024, Luvata Oy acquired Dawson Shanahan Group, which now operates as Luvata Welshpool Limited. Based in the UK, it produces highly engineered copper and metal components for Aerospace, Automotive, Medical, Power Distribution, and Industrial markets. Specializing in design, prototyping, and precision engineering, Luvata Welshpool is part of Luvata’s Formed Products Business Unit, a global leader in copper-based welding electrodes and alloyed copper brazing wire.
Key Market Players
- American Superconductor
Corporation
- ASG Superconductors spa
- Bruker Corporation
- Eaton Corporation Plc
- Epoch Wires TM
- Fuji Electric Co., Ltd.,
- Fujikura Ltd.
- Furukawa Electric Co., Ltd.
- LS Cable & System
- Sumitomo Electric Industries,
Ltd.
|
By Application
|
By Material Type
|
By End-User Industry
|
By Form
|
By Region
|
- Magnetic
Resonance Imaging
- Particle Accelerators
- Power Cables
- Fault Current
Limiters
- Superconducting Magnets
|
- High-Temperature
Superconductors
- Low-Temperature Superconductors
- Iron-Based Superconductors
- Cuprate Superconductors
|
- Healthcare
- Energy
- Transportation
- Telecommunications
|
- Sodium Wire
- Round
Wire
- Tape
- Filament
|
- North America
- Europe
- Asia Pacific
- South America
- Middle East &
Africa
|
Report Scope:
In this report, the Global Superconducting Wire
Market has been segmented into the following categories, in addition to the
industry trends which have also been detailed below:
- Superconducting Wire Market, By Application:
o Magnetic Resonance Imaging
o Particle Accelerators
o Power Cables
o Fault Current Limiters
o Superconducting Magnets
- Superconducting Wire Market, By Material Type:
o High-Temperature Superconductors
o Low-Temperature Superconductors
o Iron-Based Superconductors
o Cuprate Superconductors
- Superconducting Wire Market, By End-User Industry:
o Healthcare
o Energy
o Transportation
o Telecommunications
- Superconducting Wire Market, By Form:
o Sodium Wire
o Round Wire
o Tape
o Filament
- Superconducting Wire Market,
By Region:
o North America
§ United States
§ Canada
§ Mexico
o Europe
§ France
§ United Kingdom
§ Italy
§ Germany
§ Spain
o Asia-Pacific
§ China
§ India
§ Japan
§ Australia
§ South Korea
o South America
§ Brazil
§ Argentina
§ Colombia
o Middle East & Africa
§ South Africa
§ Saudi Arabia
§ UAE
§ Kuwait
§ Turkey
Competitive Landscape
Company Profiles: Detailed analysis of the major companies
presents in the Global Superconducting Wire Market.
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