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Roswell, United States
1-10 Employees
1993
We are also leaders in titanium tension sets, making the tough asymmetric designs that others can't do. We are the source for SuperConductor, TiMascus, Tantalum, Crystal Ti, Mokume Gane , Damascus Steel inlays, exclusive Damasculaze™️ and other precious metal inlays. The business is doing well and we're having fun creating new products. Boone Titanium Rings is the industry leader in Meteorite Rings, Carbon fiber inlay, and Hardwood inlay rings. We also offer a full line of Black Zirconium, Stainless Steel and Cobalt Chrome rings. We hope to offer many of the same products we used to back in the day as well as a series of new ones.
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Featured
Titanium with Superconductor Spinner Ring
... ring with a twist (literally!). The center section of the ring is able to spin with your finger. This ring is titanium with an inlay of SuperConductor. The overall ring width is 10mm and the inlay is around 7mm. Being smooth titanium on the inside, the ring can be engraved. ...
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Superconductor
... Superconductor --Table of ...
Birmingham, United Kingdom
1-10 Employees
2007
At Keen-AI, Chris’ primary focus is to strengthen our industry leadership position by expanding vertical markets while developing compelling sales strategies for our innovative AI services and solutions. Petar is passionate about climate change and conservation, seeking to apply novel ML methods to revolutionise these fields. Tom is passionate about data science and applying AI to solve real world challenges. Sandy’s experience includes leading large transformation projects including the sale of Standard Life Bank to Barclays Bank. Sarah is passionate about sustainability, championing environmental causes, and the use of AI to protect the natural world. Mubin is passionate about using technology to improve processes and bring convenience to people. Keen AI Labs and our research initiatives are only made possible through collaboration with leading academics, industry experts, and dedicated professionals, all contributing their unique expertise. Qifan Fu is a PhD candidate at Queen Mary University of London, working in Queen Mary’s Digital Environment Research Institute (DERI) and a member of the DERI Vision Group led by Professor Greg Slabaugh.
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Share, process & organise visual data with Superconductor
... Share, process & organise visual data with Superconductor ...
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.400" DIA X 12.00 SUPERCONDUCTOR
... .400" DIA X 12.00 SUPERCONDUCTOR | AMERICAN METAL XCHANGE, INC. ...
Singapore, Singapore
1-10 Employees
2012
We are working on solutions for the Energy, Mining, Manufacturing, Pharmaceuticals, Textiles, and Healthcare industries. We are interested in partnering to develop solutions that leverage our knowledge and unique materials and processes to solve real world massive scale problems. We are hard at work creating a standard wire, printable ink and 3D resins. We are seeking partners to do fundamental use research on our molecules. We are working on frontier applications in high temperature superconductors, next generation material recovery, mining, catalysts, crop Science and Pharmaceutical delivery. We are looking to partner with innovative companies working on real solutions and products, knowledgable investors and scientists. We can safely recover everything and provide a direct, closed loop solution to industry. We design and manufacture next generation materials to commercial standards, they are not only for the lab, or to produce research papers.
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Home
... High Temperature Superconductors? ...
Budapest, Hungary
1-10 Employees
We provide a wide range of services and products for developers. We are a team of developers and designers that create the best products and services for you. We are working hard to make sure that Linear Fox is stable and secure. But we are doing our best to make sure that Linear Fox is here for the long run. This platform serves the Linear Fox community, offering a simple and user-friendly way for researchers to share documents in PDF, LaTeX, and project codes, as well as their ideas, providing an alternative to traditional research publishing platforms. Linear Fox is a technology and deployment project. We also provide a wide range of APIs for developers to use in their applications. We strongly believe that innovation is the key to progress and that's why we are constantly pushing ourselves to try something new.
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Linear Fox Account
... LK-99 "Superconductor" ...
Village of Elmsford, United States
11-50 Employees
1983
The flagship product is the Advanced Digital-RF Receiver (ADR), comprising superconducting digital and mixed-signal ICs packaged on a cryocooler. Using its Digital-RF technology base, the company engages in multi-faceted sponsored research and development (R&D) activities in sensors and processors for diverse applications spanning the entire electromagnetic spectrum. HYPRES also offers a variety of custom IC design, test and cryogenic packaging services, including superconductor and semiconductor digital, high-performance analog and mixed-signal circuits. Another featured HYPRES product is the Integrated Cryoelectronics Test-bed (ICE-T), a turnkey laboratory test system requiring no liquid cryogen. It provides a complete cryogenic infrastructure for broadband, variable-temperature testing of superconductor ICs and other cryogenic electronic and photonic devices at 4 K and above.
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Superconductor ICs
... Superconductor ICs - Hypres, Inc. ...
Munich, Germany
1-10 Employees
2019
We are a market enabler for high power missions focused on delivering disruptive and innovative electric propulsion systems incorporating the latest high temperature superconductor technology (HTS). Neutron Star Systems (NSS) is a space start-up revolutionising near-Earth operations, in-space logistics and deep space missions. Mission savings for Cargo Transfers to the Moon. Mission savings for Cargo Transfers to the Mars. A single SUPREME thruster can be used for a wide range of missions with different thrust and efficiency requirements. SUPREME can operate on propellants like Argon, Hydrogen, Ammonia (up to 1000x cheaper than status quo), saving millions of euros per mission.
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Neutron Star Systems
... High-temperature Superconductor based thrusters, our SUPREME™ flagship, and other space tech. ...
Boston, United States
1-10 Employees
2019
VEIR’s new generation of superconducting electric transmission lines operate with negligible losses at much higher currents than conventional lines and other advanced conductors. VEIR reduces the space needed to transmit power, maximizes the transfer capabilities in existing corridors, and reduces requirements for new corridors. VEIR is aligned around the goal to rapidly accelerate the growth in electric transmission capacity necessary for global decarbonization and grid resilience. The gravity of our mission must not preclude us from enjoying ourselves along the way. We are focused on ensuring the health and happiness of our entire team and their families and continuously strive to ensure that we all enjoy the adventure for which we have signed up. In addition to VEIR, Wood currently serves on the Board ofAdvisors for Mobility Impact Partners and as a Distinguished Associate for theEnergy Futures Initiative. Max oversees VEIR’s commercial engagements and VEIR’s strategic engagements with governments and regulatory bodies in the United States and globally. VEIR’s mission is to rapidly accelerate the growth in electric transmission capacity necessary for global decarbonization and grid resilience.
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High Temperature Superconductors (HTS) potentially solve transmission challenges
... High Temperature Superconductors (HTS) potentially solve transmission ...
Genoa, Italy
11-50 Employees
1998
We are fully dedicated in making the next generation of MgB2-based superconducting systems available to our present and future customers, with up-to-date wire and liquid helium-free cooling technologies. We have contributed to the achievement of important goals in scientific research, such as the discovery of the Higgs Boson - ASG has provided magnets for the Large Hadron Collider at CERN - and to the progress of studies in the nuclear fusion sector cooperating with the most important projects in the world like ITER and JT-60SA. We believe that our challenge for the future is to continue supporting research activity worldwide with magnets and systems providing the technological advantages of superconductivity and at the same time extending its numerous applications to the industrial world and to everyday life. Leveraging on more than 60 years of experience ASG Superconductors works everyday with research institutes, international institutions and leader companies worldwide. ASG nowadays is a highly technological company with distinctive skills and continuous investments in research and development. Over the years the company has furthermore developed expertise in the development of industrial, energy and med-tech applications with cost effective approach. Having now teamed-up the full value chain of a superconducting system is the best guarantee for the end user that the product will perform as expected in all its parts. ASG Superconductors invests constantly to maintain the highest standard of services and production quality with professional training and re-qualification of its employees.
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ASG Superconductors Company
... ASG Superconductors ...
Technologies which have been searched by others and may be interesting for you:
Some interesting numbers and facts about the results you have just received for Superconductors
| Country with most fitting companies | United States |
| Amount of fitting manufacturers | 54 |
| Amount of suitable service providers | 30 |
| Average amount of employees | 1-10 |
| Oldest suiting company | 1983 |
| Youngest suiting company | 2019 |
Superconductors are materials that exhibit zero electrical resistance and the expulsion of magnetic fields (Meissner effect) when cooled below a characteristic critical temperature. This transition to a superconducting state enables the unimpeded flow of electric current, thereby eliminating energy losses typically incurred due to resistance in conventional conductors. The phenomenon of superconductivity, discovered in 1911 by Dutch physicist Heike Kamerlingh Onnes, fundamentally alters our understanding and capabilities in the field of condensed matter physics. Superconductors are pivotal in a variety of applications due to their unique properties. They play a crucial role in the production of high-field magnets, which are essential components of magnetic resonance imaging (MRI) machines, particle accelerators, and magnetic levitation (maglev) transportation systems. Additionally, superconductors are integral to the development of quantum computers, due to their ability to maintain quantum coherence over relatively long periods. Their zero resistance characteristic is also exploited in the creation of lossless power cables and highly sensitive magnetic field sensors. The impact of superconductors extends across multiple disciplines, including medical diagnostics, transportation, energy, and information technology, signifying their transformative potential in advancing both scientific research and practical applications. As research progresses, the discovery of new superconducting materials and the pursuit of higher critical temperatures aim to unlock further revolutionary uses, potentially leading to more widespread adoption and significant societal benefits.
1. Zero Electrical Resistance
: One of the most significant advantages of superconductors is their ability to conduct electricity without any resistance. This means they can transmit power without losing any energy as heat, making them incredibly efficient compared to conventional conductors that suffer from energy loss.
2. Strong Magnetic Fields
: Superconductors can create powerful magnetic fields, which are beneficial in various applications. This property is crucial for the operation of MRI machines in medical diagnostics and the functioning of maglev trains, which float above the tracks due to the repulsive forces between the train and track superconductors.
3. Energy Efficiency
: The absence of electrical resistance in superconductors translates into significant energy savings. This is particularly important in power transmission over long distances where traditional materials lose a substantial amount of energy. Superconductors can help in reducing these losses, leading to a more efficient and environmentally friendly power grid.
4. Compactness
: Due to their high current density, superconductors can carry the same amount of current as a much larger conventional conductor. This allows for more compact and less bulky designs in electrical systems and components, making them ideal for applications where space is at a premium.
These benefits highlight the transformative potential of superconductors across various industries, from energy to transportation, and underline their superiority over traditional conductive materials.
While evaluating the different suppliers make sure to check the following criteria:
1. Material Quality
Ensure the superconductor materials provided meet high purity and performance standards. The quality directly impacts the efficiency and lifespan of superconductors.
2. Customization Capabilities
Assess the supplier's ability to provide tailor-made superconductors that match your specific requirements, including dimensions, shapes, and material compositions.
3. Technological Expertise
Opt for suppliers with a strong background in superconductor technology and a track record of innovation. This ensures access to the latest advancements and technical support.
4. Certification and Standards Compliance
Verify that the supplier complies with international standards and holds relevant certifications, ensuring the reliability and safety of the superconductors.
5. Cost-Effectiveness
Compare pricing, but also consider the total cost of ownership, including maintenance, durability, and operational efficiency of the superconductors.
6. Supply Chain Reliability
Evaluate the supplier's ability to deliver on time and manage logistics efficiently, minimizing disruptions in your supply chain.
7. Customer Service and Support
Choose a supplier that offers robust after-sales support, including technical assistance, troubleshooting, and warranty services.
Superconductors, materials that can conduct electricity without resistance, are revolutionizing industries with their efficiency and power. One significant use case is in the medical industry, particularly in magnetic resonance imaging (MRI) machines. Superconductors enable these devices to generate the powerful and stable magnetic fields necessary for high-resolution imaging, thus supporting early and accurate diagnosis. In the energy sector, superconductors are making strides in the development of efficient power grids. They can transmit electricity with minimal energy loss, making them ideal for long-distance power transmission. This not only reduces operational costs but also significantly decreases energy wastage, contributing to a more sustainable energy ecosystem. The transportation industry benefits from superconductors through the advancement of magnetic levitation (maglev) trains. These trains levitate above the tracks, eliminating friction and allowing for much higher speeds than traditional trains, along with reduced maintenance costs and noise levels. This technology promises to revolutionize public transport by offering faster, cleaner, and more efficient alternatives. Lastly, in scientific research, superconductors are crucial for particle accelerators like the Large Hadron Collider. They enable the creation of strong magnetic fields necessary to steer and accelerate particles to high speeds, facilitating groundbreaking experiments that delve into the fundamental properties of matter. Through these diverse applications, superconductors are driving innovation and efficiency across multiple industries, demonstrating their critical role in the advancement of modern technology and infrastructure.
As of my last update in 2023, superconductors are at various Technology Readiness Levels (TRLs) depending on their specific applications and types, with TRLs ranging broadly from 4 (technology validated in lab) to 7 (system prototype demonstration in operational environment) for certain applications. The diversity in TRLs is primarily due to the multifaceted nature of superconducting materials and their applications, which span from magnetic resonance imaging (MRI) and particle accelerators to potential future uses in power grids and transportation. The core technical reason for this range is the distinction between low-temperature superconductors (LTS), which are well-established and utilized in commercial applications but require cooling to very low temperatures, and high-temperature superconductors (HTS), which operate at relatively higher temperatures but face challenges in material durability, large-scale manufacturing processes, and integration into existing systems. HTS materials, despite their potential for revolutionizing energy transmission and magnetic levitation trains, are still grappling with issues related to cost, cooling requirements (though less extreme than LTS), and the development of long, flexible, and durable wires or tapes. These technical challenges are pivotal in determining the TRL of specific superconductor technologies, as they directly impact the feasibility, scalability, and economic viability of superconducting applications, thus reflecting the broad spectrum of readiness levels within the field.
In the Short-Term phase, the focus in superconducting technology will be on enhancing the performance and reducing the cost of second-generation high-temperature superconductors (HTS). Immediate advancements are expected in materials engineering to increase the critical temperature and critical current density of these superconductors. This will enable more efficient and compact designs for applications in magnetic resonance imaging (MRI) machines, maglev trains, and electrical grids, making superconductor-based technologies more accessible and affordable. Mid-Term developments will likely pivot towards integrating superconductors into renewable energy systems and the power grid. The aim will be to significantly reduce energy losses in power transmission and increase the efficiency of wind and hydroelectric generators. Breakthroughs in this phase may include the creation of superconducting cables that can operate at higher temperatures, requiring less cooling infrastructure, thus bridging the gap towards practical, widespread deployment. Additionally, superconducting magnetic energy storage systems will become more viable, offering superior energy storage solutions to support the stability of the renewable energy supply. In the Long-Term, the advent of room-temperature superconductors will mark a revolutionary leap, unlocking unprecedented possibilities in technology and industry. Such materials would dramatically transform all sectors, including transportation, with the potential for frictionless, super-efficient vehicles, and in computing, enabling the development of ultra-fast, energy-efficient supercomputers. Space exploration could also benefit from lightweight, high-efficiency power systems. However, achieving this milestone requires overcoming significant scientific and material challenges, potentially involving new physics or the discovery of novel materials.
