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Nuclear energy is the energy released after splitting atom of certain elements. As of November 2020, nuclear energy provides about 10% of the world’s electricity from about 440 power reactors and 50 more are under construction in different parts of the world.
These power plants are operational in 31 countries throughout the world and many more countries depend partly on nuclear generated power through regional transmission grids.
Nuclear industry is now characterized by international commerce e.g. a reactor under construction in Asia today may have component from South Korea, Japan, Canada, Germany, France, Russia and other countries.
Similarly, uranium from Australia or Namibia may end up in a reactor in the UAE, which might have been converted in France and enriched in Netherlands, reconverted in UK and fabricated in South Korea.
In 2019, nuclear plants supplied 2657 TWh of electricity, which is 94 TWh more than 2018 and with-it nuclear generation worldwide has seen surge for the seventh consecutive year.
Market segmentation for Global nuclear reactor market has been on the basis of following-
The nuclear reactor market has witnessed several recent partnerships that have significantly impacted the industry. One of the significant partnerships in the nuclear reactor market involved General Electric (GE) and Hitachi.
GE completed the sale of its nuclear business to Hitachi, forming a joint venture known as GE Hitachi Nuclear Energy. This partnership aimed to combine GE’s expertise in boiling water reactors (BWR) and Hitachi’s advanced boiling water reactor (ABWR) technology to enhance the development of advanced nuclear reactors. The collaboration strengthened their global presence and provided a platform for innovation and technological advancements in the nuclear power industry.
Another notable partnership was the collaboration between Mitsubishi Heavy Industries (MHI) and France’s Framatome. MHI acquired a 50% stake in Framatome from Electricité de France (EDF).
This partnership aimed to combine MHI’s extensive experience in nuclear power plant construction and Framatome’s expertise in nuclear fuel, equipment, and services. The collaboration enhanced their capabilities in delivering comprehensive solutions for the nuclear power industry, including reactor design, construction, and maintenance.
In addition to these major partnerships, there have been several strategic partnerships in the nuclear reactor market. Rolls-Royce, a prominent player in the aerospace and defense industry, has partnered with various organizations to develop small modular reactors (SMRs).
Rolls-Royce signed agreements with Exelon Generation, a leading nuclear energy company in the United States, to pursue the potential deployment of SMRs in the US market. These partnerships aimed to leverage Rolls-Royce’s expertise in nuclear propulsion systems to develop compact and flexible nuclear reactors for power generation.
Furthermore, international collaborations have also played a significant role in shaping the nuclear reactor market. For instance, the United Arab Emirates (UAE) partnered with Korea Electric Power Corporation (KEPCO) to develop the Barakah Nuclear Power Plant, the first nuclear power plant in the UAE.
This partnership involved the transfer of technology and knowledge from KEPCO to the UAE, enabling the country to develop its nuclear energy capabilities and reduce its reliance on fossil fuels. Overall, the recent partnerships in the nuclear reactor market reflect the growing interest in nuclear energy as a sustainable and low-carbon power source.
BWX Technologies, Inc. developed the country’s first advanced nuclear microreactor. SCO and the US Department of Energy are working together to design, build, and test a transportable microreactor that can offer the DoD with a reliable power source for a range of operational requirements that have traditionally depended on long supply chains and the delivery of fossil fuels.
For the Department of Defence as well as possible commercial uses for disaster response and recovery, power generation at remote locations, and deep decarbonization initiatives, transportable microreactors provide clean, zero-carbon energy where and when it is needed in a range of harsh conditions.
The goal is to design, build, and test novel nuclear technologies to protect the environment while generating power. Advanced reactors are acknowledged by the nuclear industry as a major advancement towards meeting the increasing demand for power and the pressing need to reduce carbon emissions.
The 1–5 MWe high-temperature gas-cooled reactor (HTGR) will be able to run at a power level and be transported in shipping containers that are readily available for purchase. It will run on TRISO fuel, a particular type of high-assay low-enriched uranium (HALEU) fuel with minimal environmental risk and the ability to tolerate intense heat.
The control system and reactor core that are transportable are engineered to ensure safety under all circumstances, including those that arise during movement. The fuel has undergone testing and verification at temperatures well above the reactor’s operational parameters.
The transportable design is made up of many modules that house the parts of the microreactor in CONEX shipping containers that are 20 feet long and comply with ISO standards. The reactor may be transported quickly and safely by air, sea, rail, or road.
The reactor system as a whole is intended to be constructed on location and put into service in less than 72 hours. It is intended for shutdown, cooling down, disconnecting, and removal for transportation to take place in fewer than seven days.