High-Temperature Superconductors (HTS) Market
Get a free sample of this report
Your inquiry has been received. Our team will reach out to you with the required details via email. To ensure that you don't miss their response, kindly remember to check your spam folder as well!
Form submitted successfully!
Error submitting form. Please try again.
Request Sectional Data
Your inquiry has been received. Our team will reach out to you with the required details via email. To ensure that you don't miss their response, kindly remember to check your spam folder as well!
Form submitted successfully!
Error submitting form. Please try again.
The global high-temperature superconductors market size was estimated at USD 729.6 million in 2024 and is expected to reach USD 1.6 billion by 2034, growing at a CAGR of 8.5% from 2025 to 2034. High temperature superconductors are classified as materials that display superconductivity at a much greater temperature than the rest, or traditional (low temperature) superconductors. Unlike superconductors that must be cooled to the near absolute zero temperature, (4 Kelvin or -269°C) using liquid helium, super HTS materials work above 77 Kelvin (-196°C) which is where nitrogen boils, making it a much easier coolant to work with.
The high-temperature superconductors market is growing at a steady pace owing to the increased demand for energy-efficient and high-performance technologies in power transmission, medical imaging, transportation, scientific research, and others. One of the notable business drivers of the HTS market is the modernization of power systems and grid energy efficiency using superconducting systems for advanced power transmission and fault current limitation. There is notable action from governments and utilities on deploying superconducting cables and devices to ageing infrastructure to mitigate transmission losses because of increased reliance on these systems and to strengthen the resilience of the infrastructure.
| Report Attribute | Details |
|---|---|
| Base Year: | 2024 |
| High-Temperature Superconductors (HTS) Market size in 2024: | USD 729.6 Million |
| Forecast Period: | 2025 – 2034 |
| Forecast Period 2023 - 2032 CAGR: | 8.5 |
| 2023 Value Projection: | USD 1.6 Billion |
| Historical Data for: | 2021 – 2024 |
| No of Pages: | 165 |
| Tables, Charts & Figures: | 165 |
| Segments Covered: | Material Type, Product Form, Application and Region |
| Growth Drivers: |
|
| Pitfalls Challenges: |
|
Another emerging trend is the growing R&D investment from public and private organizations to develop next generation HTS materials that can operate at more elevated temperatures as well as harsher environmental conditions. The emergence of new HTS materials is being spurred by the efforts in developing inexpensive and portable MRI machines as it facilitates further miniaturization and cost saving. This new approach to precision propulsion that saves friction, and energy serves as a game changer for fast travel, through Maglev train HTS utilization. The HTS market is primarily driven by an increasing focus on sustainability and energy efficiency which is aligned with HTS’s property of conducting electricity with zero resistance and energy loss. The demand for powerful lightweight electrical parts in metropolitan and industrial regions speeds up the adoption of HTS.
Further increasing market demand are the applications in fusion energy and high-field magnets. International nuclear fusion research is starting to depend on HTS materials for the generation and containment of extreme magnetic fields needed for plasma confinement. For next-generation energy research, HTS magnets are essential because they are more compact, have better thermal margins and efficiency than low-temperature superconductors. At the same time, other research organizations and private companies are branching off from using HTS for other applications in high-energy physics as well as space propulsion systems.
Widespread grid modernization initiatives: The worldwide efforts being made towards grid modernization is one of the factors proving the demand for high temperature superconductors. About power grids, superconducting HTS technology can resolve problems of transmission losses, capacity, outage susceptibility, and others. HTS materials perform better than copper and aluminum wires in current carrying capabilities meaning they are capable of withstanding greater energy expenditure without any resistance above the critical temperature.
Also, their use is more desirable in metropolitan cities where there is high energy consumption but very little space. If fitted with HTS, thermal superconductor fault current limiters offer greater system security. These limiters enabled with HTS assume control of unexpected surge currents to curtail electric power to prevent damage to expensive equipment and minimize blackout chances.
Expansion in medical imaging applications: The advancement of individual parts of MRI technologies, entails the increased use of diagnostic machines like CAT and CT scans. The “Belted” MRI machines, which are becoming more common among practitioners to satisfy the demand, have LTS magnets which must be cooled with liquid helium. Liquid helium is expensive and difficult to manage. HTS, however, runs at higher temperatures with better accessibility, usually needing a nitrogen bath. Thus, HTS systems make the MRI compact while saving on cost, energy, and space.
This is vital in the present age when healthcare systems are striving to improve diagnostics while saving costs. Superconducting MRI utilizes low-temperatures superconductors (LTS) such as niobium-titanium (NbTi), which rely on cryogenic cooling with liquid helium—an infrequent and costly superconductor—during surgery level temperatures. High temperature superconductors (HTS) are far more economical and manage at operating at temperatures around 20-77 K (YBCO – yttrium barium copper oxide or Bi-2212 – bismuth strontium calcium copper oxide) and utilize less expensive and more manageable nitrogen or cryocoolers. This boosts the cooling and infrastructural systems, further decreases maintenance and operational costs for hospitals and imaging centres.
The high-temperature superconductors industry is continuously growing as the need for compact, high performing and efficient electronic and power systems in the healthcare, energy, transportation and even quantum computing sectors increases. One of the significant drivers of growth in this area is the modernization of the power grid in places like North America and parts of Europe, which is using HTS power cables, transformers, and fault current limiters to enhance grid stability and reduce electricity transmission losses.
The energy sector remains the main area of application due to the heightened need for energy efficiency, especially in the urban infrastructural development and smart grid systems. At the same time, there has been a shift towards adoption of HTS in MRI and NMR systems in the healthcare sector because these machines can operate at higher magnetic fields for lower costs.
The YBCO (Yttrium Barium Copper Oxide) segment held a 35.1% share in 2024 and was valued at USD 1.1 billion in 2024. High temperature superconductors have dominantly featured Yttrium Barium Copper Oxide (YBCO) in their market due to its superiority in performance at roughly 90 K, which is over the boiling point of liquid nitrogen. When compared to traditional low temperature superconductors, YBCO features easier cost-effective cooling technologies due to their functionality at greater temperatures. Additionally, YBCO possesses high critical current density and remarkable strength to endure powerful magnetic fields which broadens its prospects in the power or magnet-based technologies.
The first-generation (1G) HTS wires segment is expected to reach USD 761.8 million by 2034, and it is likely to expand to 11.6% CAGR during the forecast period. The first generation of high-temperature (1G) HTS wires, mostly focused on BSCCO compounds like Bi-2223, demonstrate the availability of high temperature superconductor commercially. The PIT (Powder-In-Tube) method is often employed for these wires; it involves superconducting powder being stuffed into a silver alloy tube which is then drawn into thin filaments. One of the primary benefits of 1G HTS wires is the manufacturing process is well developed, allowing them to be used in pilot projects and low-scale commercial applications. Reduces cooling costs enables the use of liquid nitrogen temperatures (~77 K) when operating with these wires in comparison to traditional superconductors.
The energy segment was valued at USD 1.1 billion in 2024 and gained 12% CAGR from 2025 to 2034 with a market share of 35.4%.
In the energy sector, high temperature superconductors (HTS) are changing the generation, transmission, and control of power across the world due to their ability to conduct electricity with zero resistance and energy loss at cryogenic temperatures. HTS materials, particularly in the second generation (2G) tape form, are now used in advanced power cables which can carry orders of magnitude more current than copper or aluminum wires for the same distance and do so far more efficiently. These cables are useful for densely populated urban regions with space limitations and high energy requirements.
U.S. High-temperature superconductors market was valued at USD 986.4 million in 2024 and expected to grow at a 12.4% CAGR from 2025 to 2034.
In the U.S. investment in high temperature superconductors is growing in respect to the modernization of the grid, energy optimization, and defense technologies. The Department of Energy (DOE) works together with research institutions and private companies to fund the R&D projects which implement HTS-based power technologies, including fault current limiters, superconducting cables, compact transformers, and others aimed at improving and fortifying the aging electric grid. These initiatives comply with wider federal policies concerned with the transition towards clean energy and upgrading infrastructure.
Top five companies include American Superconductor Bruker Fujikura High Temperature Superconductors, and IBM have established a presence which allows them to penetrate the high-temperature superconductors industry. The competitive landscape of the market for High Temperature Superconductors is of Average concern which means that a few selected competitors dominate the world stage with advanced R&D, vertically integrated structures, and ample cooperation within the industry.
American Superconductor Corporation (AMSC) possesses a dominant position in the UST market for HTS and holds a vast share of the market due to its second generation (2G) HTS wire (Amperium) as well as its use in grid modernization, motors, and propulsion systems for ships. Also, SuperPower, Furukawa Electric’s subsidiary, is one of the leading suppliers of REBCO based HTS tapes and contributes significantly to international HTS projects in energy and research. Bruker and its division BEST (Bruker Energy & Supercon Technologies) are also key players in the domain who are mainly supplying HTS for scientific and medical instruments, like MRI systems, Under the umbrella of Bruker’s precision instrumentation business they are under Bruker’s precision instrumentation business.
Superconducting cables, power systems, and medical devices are the primary targets of Fujikura Ltd. and Japan Superconductor Technology Inc (JASTEC), as they are strongly supported with Japan government’s innovation initiatives which puts them prominently in the Asian HTS ecosystem. IBM applies these materials in quantum computing with superconducting circuits and thin-film techniques in quantum processors, thereby sustaining leadership in the field. Nexans is an EU operator that incorporates HTS into grid solutions and takes part in EU-funded demonstration projects of HTS power cables amplifying their presence in the energy transmission systems industry.
The HTS industry is marked by large industrial companies with sophisticated infrastructure alongside niche innovators with small-scale skills. The strategic combination of academic, industrial, and government undertakings, as well as the changing needs of the industry, are vital for advancing healthcare and energy, thus maintaining competitive marketing in materials science.
High-temperature superconductors (HTS) are facing several issues from tariffs placed by the Trump administration, mostly concerning supply chains, material costs, and funding for research. President Trump, in 2025, recommended adding tariffs as high as 100 percent to Taiwanese-made semiconductors and disapproving of the already industry-facilitating bipartisan CHIPS Act, which has already triggered investments exceeding $450 billion in the U.S. semiconductor and electronics sector. Several HTS systems depend upon sophisticated semiconductors to control electronics, and rising costs could slow fusion reactors (e.g. ITER) or particle accelerator projects. The imposition of 25% tariffs on the importation of steel and aluminum increases costs on cryogenic systems and infrastructure necessary for the implementation of HTS.
For instance, cooling devices for superconducting magnets usually depend on aluminum components, now subject to greater procurement costs. 25% proposed tariffs on semiconductors affect HTS applications indirectly, such as fusion (e.g., ITER project magnets) and particle accelerators, that rely on high-level control electronics. The increasing cost on these components can delay mass-market HTS projects. Trump's tariffs strengthen other HTS barriers to adoption by adding costs for materials, upending worldwide supply chains, and overstretching R&D budgets.
Major players operating in the high-temperature superconductors industry are:
Market, By Material Type
Market, By Product Form
Market, By Application
The above information is provided for the following regions and countries:
The U.S. high-temperature superconductors market was worth over USD 986.4 million in 2024.
Some of the major players in the high-temperature superconductors industry include American Superconductor, Bruker, Fujikura, High Temperature Superconductors, IBM, Japan Superconductor Technology, Nexans, SuperOx, SuperPower, Theva.
The first-generation (1G) HTS wires segment is anticipated to cross USD 761.8 million by 2034.
The high-temperature superconductors market was valued at USD 729.6 million in 2024 and is expected to reach around USD 1.6 billion by 2034, growing at 8.5% CAGR through 2034.