Español

Blue Laser Fusion plans to commercialize nuclear fusion reactors using laser technology by 2030

462
2023-08-21 10:55:33
Ver traducción

Recently, a start-up company co founded by Nobel laureate Hideyoshi Nakamura in San Francisco plans to commercialize nuclear fusion reactors using laser technology around 2030.

Hideyoshi Nakamura won the 2014 Nobel Prize in Physics for inventing blue light-emitting diodes. He founded Blue Laser Fusion in Palo Alto, California in November 2022. Partners include Hiroaki Ohta, former CEO of drone manufacturer ACSL Ltd. This startup company raised $25 million earlier and plans to collaborate with a subsidiary of Toshiba to build a small experimental reactor in Japan in 2024. Professor Nakamura of the University of California, Santa Barbara said: Japan excels in manufacturing, while the United States excels in business and marketing. They hope to combine the advantages of both countries to build nuclear fusion reactors.

Currently, the Blue Laser Fusion program is commercializing nuclear fusion reactors, which can generate 1 gigawatt of electricity, equivalent to the output power of a regular nuclear power reactor. The construction cost is approximately $3 billion. Nuclear fusion technology aims to replicate the processes that occur on the sun, generating a large amount of energy in a controlled manner. Unlike nuclear fission, fusion does not produce radioactive waste, making it a promising energy source not only for Earth but also for space missions.

In order to initiate fusion ignition, researchers had to heat the fuel to over one million degrees Celsius, and they used various methods to accomplish this feat. However, the main challenge lies in maintaining the reaction and generating more energy than is consumed during the fusion process. In seeking to maintain fusion reactions, nuclear scientists use two main methods. The first involves magnetic confinement, in which a powerful magnet is used to maintain the fuel in the plasma state within a torus or donut shape. This method led to the creation of the Tokamak reactor and sparked great interest and investment from companies and venture capitalists; The second method is to use a laser and emit it rapidly and continuously. However, the disadvantage of this method is that large equipment cannot emit laser in continuous mode, while small equipment cannot generate sufficiently high output to ignite fusion fuel.

This is where blue laser fusion believes it can bring about change.

Nakamura was awarded the Nobel Prize for his groundbreaking work in developing blue light-emitting diodes. He believes that his company can utilize his semiconductor expertise to create a safe path for achieving nuclear fusion and transforming it into commercially viable technology. Due to the fact that Blue Laser Fusion Company is currently applying for a patent, the specific details of this method have not yet been disclosed. However, Nakamura is confident in the feasibility of building a fast shooting laser and envisions building a one megawatt nuclear reactor in Japan or the United States by the end of this century. Before reaching this milestone, the company plans to build a small experimental factory in Japan by the end of next year.

In the months since its establishment, Blue Laser Fusion has submitted more than ten patent applications in the United States and other countries. The company is still researching using boron instead of deuterium as fuel for fusion reactors. The company claims that boron as a fuel does not produce harmful neutrons, making it a more favorable choice. Blue Laser Fusion also collaborates with other Japanese companies, such as Toshiba Energy Systems and Solutions, a manufacturer of nuclear power plant turbine mechanisms, and Tokyo YUKI Holdings, which provides metal processing services. In December 2022, the Lawrence Livermore National Laboratory in the United States successfully demonstrated the use of lasers to generate more energy from nuclear fusion processes. Nevertheless, this achievement is only temporary, and to make blue laser nuclear fusion commercially viable, they must demonstrate long-term sustainability.

Source: OFweek


Recomendaciones relacionadas
  • The researchers used ultrafast lasers to create nanoscale photonic crystals

    The optical properties of photonic crystals are closely related to their lattice constants, which are usually required to be in the same order of magnitude as the operating wavelength. In a crystal material, the photonic crystal structure is formed by the periodic arrangement in space of units whose dielectric constant is different from that of the crystal itself, and whose lattice constant depend...

    2023-08-04
    Ver traducción
  • Deere Laser's self-developed laser induced sintering technology, with LIF equipment orders exceeding 100GW in production capacity

    Recently, Deere Laser received mass production orders and bid confirmations for laser induced sintering (LIF) equipment from multiple top customers, with a cumulative production capacity exceeding 100GW.As an innovative technology iteratively developed by the company based on its own LIR technology and LIA technology, LIF technology has won industry recognition for its excellent efficiency improve...

    2023-09-18
    Ver traducción
  • Researchers at Georgia Institute of Technology have developed cost-effective nanoscale printing

    A team of researchers from Georgia Institute of Technology has developed a scalable printing system for metal nanostructures using a new technology called superluminescent light projection. The inventor of this technology Dr. Sourabh Saha and Jungho Choi submitted a patent application for nanoscale printing.Nowadays, the cost of existing nanoscale printing technologies hinders their widespread use...

    2024-02-19
    Ver traducción
  • First 6-inch thin film lithium niobate photonic chip wafer pilot production line

    Recently, Shanghai Jiao Tong University Wuxi Photon Chip Research Institute (CHIPX) located in Binhu District, Wuxi City, has achieved a breakthrough - the first 6-inch thin film lithium niobate photon chip wafer has been produced on China's first photon chip pilot line, and high-performance thin film lithium niobate modulator chips with ultra-low loss and ultra-high bandwidth have been mass-produ...

    06-11
    Ver traducción
  • The Innovation Road of Laser Welding Automation Production Line for New Energy Vehicle Motor stators

    With the increasing global attention to environmental protection and sustainability, new energy vehicles have become an important trend in the automotive industry. In this context, the production method of the core component of new energy vehicles - the motor stator - has also undergone profound changes. Welding, as a key manufacturing process, has brought disruptive innovation to the manufacturin...

    2024-02-28
    Ver traducción