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Roswell, United States
11-50 Employees
1994
Special Products: UxC Training Seminar Nuclear Power Outlook UxC Requirements Model Uranium Suppliers Annual UxC's Policy Watch. UxC's next Nuclear Fuel Training Seminar is scheduled for June 24-27, 2024 in Atlanta, Georgia. UxC announces new Nuclear Fuel Market Webinars for clients. UxC released a video during the WNFM virtual event in June 2021 discussing recent achievements and activities. Since 2020, UxC has been publishing annual editions of its Conversion & Enrichment Supplier Assessments (CESA) report. UxC has prepared a new special report to provide an overview of the zirconium alloy market for the nuclear industry entitled Nuclear Grade Zirconium Alloy Market Outlook. UxC, the industry leader in global nuclear market analysis, is pleased to announce a new report titled Small, Advanced and Micro-Reactor Assessments (SAMRA). In March 2013, UxC issued a new special report on the SMR Market Outlook (SMO).
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Nuclear Reactor Technology Assessments
... UxC: Nuclear Reactor Technology ...
Wimborne Minster, United Kingdom
251-500 Employees
1962
Part of Ultra Group, Ultra Energy is a global engineering company with 70 years' experience designing and manufacturing measurement and control solutions for markets such as nuclear, space and aerospace, oil and gas, as well as other industrial manufacturing sectors. Ultra Energy’s solutions provide customers with complete, long-term protection and control over safety critical systems operating in extreme environments. Ultra’s cultural values are focused on creating a modern working environment in which talent and knowledge combine in the best way to deliver the solutions our customers require. Our solutions provide reliable, long-term control of critical systems operating in extreme environments. They need to maintain productivity while ensuring the safety of their staff, people living nearby and globally, and the natural world. Our team partners with customers to design and deliver high quality solutions that solve their specific organizational requirements. We’re dedicated to protecting our planet, supporting our people, doing the right thing and giving back. Our work solves some of industry's most complex problems, delivering benefits to society while making the world a safer place.
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Neutron monitoring for safe management of nuclear reactors | Ultra Energy
... Neutron monitoring solutions for power generation and safety management in traditional and advanced nuclear reactors ...
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About | The Civic Studio
... has dealt with a wide gamut of design solutions from high performance industrial interiors for the nuclear reactor at kalpakkam, to modest spaces for a popular school in Chennai, to bustling retail showroom at Phoenix marketcity and recently a pre-engineered a fully structurally glazed ...
Berkeley, United States
11-50 Employees
2016
We are doing something that has never been done before. Our focus on public and stakeholder engagement reflects “best practice” and lessons learned from past experience in the field of nuclear waste disposal. Our lead investor is NAC International, a leading nuclear fuel cycle consulting and technology solutions. Headquartered in Berkeley, CA, Deep Isolation is a global company with offices in Washington DC, the United Kingdom, and Japan. Our partnerships with Bechtel and NAC International enable our capability for global solution delivery. PHOENIX AZ, March 11, 2024 — Deep Isolation, a leading innovator in nuclear waste storage and disposal solutions, will present its three latest publications and offer insights into site screening criteria at Waste Management Symposia 2024. Directional borehole disposal can provide robust and deep isolation for many types of radioactive waste, expanded location options for repositories as well as modular implementation adaptable to specific waste management programs and inventories. Mission-driven expertise to dispose of nuclear waste in the safest possible manner.
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Advanced nuclear reactors: Profiling research projects aimed at limiting volume of waste
... Advanced nuclear reactors: Profiling research projects aimed at limiting volume of waste - NS ...
Mumbai, India
251-500 Employees
1917
Beyond product quality and consistency, Ruby is known for its relentless pursuit of innovation. An organization is built on trust, The trust that the consumer puts in us becomes the bedrock of our business. Vision is the rare ability to see opportunities that others can’t. Passion for Fabrics is a part of our DNA. Exploration and innovation work on new blends, refined with state-of-the-art processing and finishing technology, has put us at the forefront of Fabric Engineering, thus making innovation a value that drives us. Quality is the finish that lasts, wash after wash. Quality is the flow, the bounce in the fabric. Quality is the brilliance shining through thousands Of colours.
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Ruby Mills | Home Page
... Back when there were no televisions, computers, helicopters, or nuclear reactors and Indian independence was still a distant dream, the looms at the Ruby Mills were already weaving the future of the fabric business. Beyond product quality and consistency, Ruby is known for its relentless ...
Dusseldorf, Germany
1-10 Employees
2012
After World War II, JSW transferred our sophisticated technologies and considerable experience to meet peacetime needs and branched out into new business fields such as materials and equipment for automobiles, electronics, shipbuilding and petrochemicals. JSW’s HQ is located in Tokyo, Japan, with 4 plants and approximately 20 offices worldwide. JSW established a local business office in 1969 to cover European business and enhance aftersales service. JSW established a local business office in 1969 and then we are joining and supporting European area business and service as “Japan Steel Works Europe GmbH” till today. We provide the optimum solutions for the customer’s challenges. JSW has various outstanding technologies backed by many experience by original development and/or the customer support. Armstrong and Vickers) and one Japanese company with a focus on production of military equipment. We have concentrated over the last three decades on proprietary special steels and steel products, plastics and other industrial machinery.
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Shell Flanges for Nuclear Reactor Pressure Vessel
... Shell Flanges for Nuclear Reactor Pressure Vessel - ...
Bahía Blanca, Argentina
11-50 Employees
2006
¡HOLA!Tenemos el mejor equipo y la última tecnología. disponible para acompañarte en tu trabajo de ingeniería.
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REACTOR NUCLEAR CAREM 25
... REACTOR NUCLEAR CAREM 25 Ingeniería de detalle INVAP-CNEA 2010 Bariloche Realización de la ingeniería de detalle de piping del sistema de purificación y refrigeración de la pileta de elementos combustibles y del Sistema de Gestión de Efluentes Líquidos Activos. ...
Amsterdam, Netherlands
11-50 Employees
2018
In 2018, Thorizon was spun off from NRG, the national nuclear research institute of the Netherlands, where our technology was developed under the radar for years. Since then, Thorizon has rapidly developed into an ambitious deep-tech company with extensive experience in the nuclear sector and the drive to contribute to the energy transition as fast as possible. In 2023, Thorizon opened its office in Lyon to be part of the strong nuclear technology community in France. We are a company of experienced nuclear professionals, working together closely across our two offices in Amsterdam and Lyon. At Thorizon, Lucas is responsible for its Business Development activities. At Thorizon, Damien will continue to analyse and model neutronics but this time to design a molten salt reactor. Thorizon is at the frontier and as a young engineer, it can’t get any better than that.’. Thorizon’s design comes with the potential of reshaping the image of the Dutch energy sector and creating a lasting impact in the international nuclear energy arena.’.
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Thorizon - Thorizon
... Germany closes its last nuclear reactors, while Finland opens a new ...
Mississauga, Canada
11-50 Employees
1983
We are proud to provide fire safety and engineering expertise to a wide range of sectors, including:. Since 1983, PLC Fire Safety Engineering has provided professional engineering services in fire and explosion protection and prevention to clients across Canada and internationally. We excel in the development of innovative, practical, and cost-effective solutions to meet the fire and life safety goals of clients across many sectors. As a result, PLC Fire Safety Engineering is uniquely positioned to provide our clients with a comprehensive collection of services that meet their fire protection and life safety objectives. The Importance of Regular Fire Safety Audits for Commercial Buildings Fire safety is a critical aspect of any commercial building’s infrastructure.
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Fire-safe Shutdown Analysis for Nuclear Reactors
... Fire-safe Shutdown Analysis for Nuclear Reactors - PLC Safety ...
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 Nuclear Reactor
| Country with most fitting companies | United Kingdom |
| Amount of fitting manufacturers | 117 |
| Amount of suitable service providers | 92 |
| Average amount of employees | 11-50 |
| Oldest suiting company | 1917 |
| Youngest suiting company | 2021 |
A nuclear reactor is a complex device used to initiate and control a sustained nuclear chain reaction. It serves as the core of nuclear power plants, generating heat through fission — the process of splitting atomic nuclei. This heat is then typically used to produce steam, driving turbines that generate electricity. Beyond power generation, nuclear reactors have critical applications in various fields including, but not limited to, medical isotope production for cancer treatment, research, and naval propulsion. They play a pivotal role in addressing some of the world’s most pressing energy challenges, offering a low-carbon alternative to fossil fuels and thus contributing to the mitigation of climate change. Despite their benefits, the operation of nuclear reactors involves handling radioactive materials, necessitating stringent safety protocols and measures to prevent accidents. Their design incorporates multiple safety systems to ensure the controlled release of energy and to protect the environment and human health. As such, nuclear reactors symbolize a sophisticated blend of engineering, physics, and environmental science, underscoring their significant impact in providing sustainable energy solutions and advancing technological and medical frontiers.
1. Low Operating Costs
Nuclear reactors have significantly lower fuel costs compared to fossil fuel-based power stations. Once a reactor is operational, the cost of uranium, which serves as the primary fuel, is much lower than the cost of coal, oil, or gas.
2. High Energy Density
The energy released by nuclear fission is approximately ten million times greater than the energy released by the combustion of an equivalent amount of fossil fuels. This high energy density means that nuclear reactors require less fuel to produce the same amount of energy, reducing the environmental impact associated with fuel extraction and transportation.
3. Reliability
Nuclear power plants operate and provide power consistently, with a higher capacity factor than renewable energy sources like wind or solar. This reliability ensures a stable supply of electricity, which is critical for meeting both base-load energy demands and supporting the grid during peak consumption periods.
4. Low Greenhouse Gas Emissions
During operation, nuclear reactors produce minimal greenhouse gas emissions, making them a viable option for reducing carbon footprints and combating climate change. This characteristic is particularly important as the world moves towards more sustainable energy solutions.
While evaluating the different suppliers make sure to check the following criteria:
1. Regulatory Compliance
Ensure the supplier adheres to international safety standards and regulations for nuclear reactors. Compliance with the International Atomic Energy Agency (IAEA) guidelines is crucial.
2. Technological Expertise
Assess the supplier's experience and capability in designing and manufacturing nuclear reactors. Look for a track record of innovation and reliability in their technology.
3. Financial Stability
The supplier should have a strong financial background to support long-term projects and potential unforeseen challenges. This ensures the project’s completion without financial hiccups.
4. Supply Chain Robustness
Examine the strength and reliability of the supplier’s supply chain. A robust supply chain is vital for timely delivery of materials and components, minimizing project delays.
5. After-Sales Support
Consider the level of after-sales support provided. Ongoing maintenance and technical support are essential for the operational longevity of a nuclear reactor.
6. Environmental Compliance
The supplier must demonstrate a commitment to environmental protection, including waste management practices and measures to minimize the ecological impact of the reactor.
Nuclear reactors play a pivotal role in the energy sector, offering a reliable source of low-carbon electricity. Industries with high energy demands, such as manufacturing and data centers, benefit from the stable and continuous power supply that nuclear reactors provide. This energy efficiency supports 24/7 operations, crucial for meeting global demands and reducing operational downtimes. In the field of medical isotopes production, nuclear reactors are indispensable. They produce radioactive isotopes used in various diagnostic and therapeutic procedures in medicine, including cancer treatment and heart disease diagnostics. This application showcases the versatility of nuclear technology beyond electricity generation, extending its benefits to public health and medical research. Furthermore, the maritime industry leverages nuclear reactors for powering naval vessels and icebreakers. These reactors offer unmatched endurance and operational capabilities, allowing ships to operate for long periods without refueling. This is particularly beneficial for vessels that undertake extended missions in remote areas, ensuring they remain operational regardless of external supply limitations. Another significant use case is in space exploration, where compact nuclear reactors provide energy for deep-space missions. These reactors offer a reliable power source for spacecraft and extraterrestrial bases, enabling long-duration missions and supporting life support systems, scientific experiments, and communication with Earth. Collectively, these use cases illustrate the diverse B2B applications of nuclear reactors across various industries, highlighting their importance in driving innovation, efficiency, and sustainability.
Nuclear reactors, as a technology, have reached a high Technology Readiness Level (TRL), generally considered to be at TRL 9, which signifies that the technology has been actualized and proven through successful mission operations. This advanced TRL is attributed to the extensive period over which nuclear reactors have been developed, tested, and operated. Since the mid-20th century, nuclear reactors have been subjected to rigorous research, design optimizations, and operational enhancements that have systematically addressed the initial technological uncertainties and safety concerns. The evolution from experimental reactors to today's highly efficient and safer reactors underscores a journey of technological maturation backed by decades of operational experience, continuous safety improvements, and technological innovations. For example, the integration of passive safety systems, advancements in fuel technology, and the development of Generation III and III+ reactors demonstrate significant technical progress, enhancing reliability and safety. Moreover, the ongoing research into Generation IV reactors, aiming for even higher efficiency, sustainability, and safety, indicates the robust, dynamic nature of this technology's development. Thus, the current TRL reflects not just the operational success and reliability of nuclear reactors but also the cumulative advancements in nuclear technology, driven by continuous innovation and rigorous safety standards.
In the short-term, advancements in nuclear reactor technology focus on enhancing safety and efficiency. The development of accident-tolerant fuels (ATF) is a key area, offering increased resistance to extreme conditions and reducing the likelihood of catastrophic failures. Additionally, small modular reactors (SMRs) are gaining traction, promising easier deployment and scalability compared to traditional large reactors, alongside significant improvements in waste management techniques aimed at reducing the environmental impact. The mid-term horizon looks at the integration of nuclear power with renewable energy sources, aiming for a more flexible and sustainable energy grid. Innovations such as the development of hybrid systems, which combine nuclear energy with renewables, are expected to optimize energy production and usage. Furthermore, the advancement in molten salt reactors (MSRs) showcases a shift towards more efficient and safer coolant options, potentially transforming nuclear power's safety profile and operational efficiency. Long-term developments are set to revolutionize the nuclear reactor landscape through the advent of fusion technology. Unlike current fission reactors, fusion promises abundant energy with minimal radioactive waste, marking a significant leap towards clean, inexhaustible power sources. The international ITER project, aiming to demonstrate the feasibility of fusion power, highlights the global commitment to this transformative technology. Additionally, research into thorium reactors offers a promising alternative, potentially providing a safer, more abundant fuel source than uranium, setting the stage for a sustainable and secure energy future.
