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Lightbridge Approved to Conduct Advanced Nuclear Fuel Irradiation Testing at Idaho National Laboratory

On September 9, Lightbridge Corporation (Lightbridge, Nasdaq: LTBR), a developer of advanced nuclear fuel technology, announced that it has completed the signing of Project Task Statement No. 2 (PTS No. 2) under the Cooperative Research and Development Agreement (CRADA) with Battelle Energy Alliance, LLC (BEA), the operating contractor of Idaho National Laboratory (INL). Under this task statement, Lightbridge will gain access to the loop test facility of the Advanced Test Reactor (ATR) at Idaho National Laboratory to conduct irradiation testing of Lightbridge Fuel™ cladded fuel rods. The loop...

2026-09-10

U.S. Bluecore Energy Raises $50 Million to Advance Floating Small Modular Reactors

On September 8, 2026, U.S.-based Bluecore Energy announced the completion of a $50 million seed financing round to accelerate the development, testing, and deployment of its floating nuclear energy systems. Bluecore Energy is developing small modular water-cooled reactors that can operate on floating barges, with target applications including ports, utilities, data centers, offshore infrastructure, and communities facing energy shortages. The round was led by Silverton Partners, with existing investor Slauson & Co continuing its participation, alongside Harlem Capital, Precursor Ventures, LMNT, Visible Hands VC, Karman Ventures, and others. Bluecore ...

2026-09-09

IAEA Technical Meeting on Data Requirements for Ion Beam Analysis Explores Prospects for Nuclear Track Emulsion Applications

From 24 to 28 August 2026, the International Atomic Energy Agency convened a Technical Meeting on Data Requirements for Ion Beam Analysis Experiments in Vienna, Austria, attended by scientists and experts from multiple nuclear physics research institutions. The meeting discussed the nuclear data requirements for current and future applications of ion beam analysis, with attention to new experimental methods and the application of artificial intelligence and machine learning in experiments and data processing. The meeting focused on assessing whether existing nuclear data can meet the needs of ion beam analysis applications, covering areas such as elastic recoil cross sections, nuclear reaction data, and gamma-ray spectrum analysis. Experts discussed the limitations that insufficient existing data impose on quantitative analysis and uncertainty assessment...

2026-09-08

IAEA Meeting Focuses on Data Needs for Ion Beam Analysis, JINR Presents Progress in Nuclear Track Emulsion Research

From August 24 to 28, 2026, the International Atomic Energy Agency held a Technical Meeting on Data Requirements for Ion Beam Analysis in Vienna, Austria, attended by scientists and experts from multiple nuclear physics research institutions. Andrey Zaitsev, Senior Researcher at the High Energy Physics Laboratory of the Joint Institute for Nuclear Research, delivered a report at the meeting, presenting the current performance of nuclear track emulsions and research progress related to the BECQUEREL project. The meeting focused on assessing whether existing nuclear data can meet current and future application needs of ion beam analysis, and discussed new experimental methods, as well as the application of artificial intelligence and machine learning in experiments and data processing. Topics included elastic backscattering cross sections, nuclear re...

2026-09-05

CERN removes first giant beam absorbers from LHC, making room for High-Luminosity Large Hadron Collider upgrade

CERN recently completed a complex transport operation, moving the first two giant components from the Large Hadron Collider (LHC) tunnel to the surface, making room for the operation and upgrade of the future High-Luminosity Large Hadron Collider (HiLumi LHC). The equipment removed this time consists of two beam absorbers, also known as TAN absorbers. Each absorber is about 5 meters long and weighs about 30 tons, made of iron, copper, and marble, primarily used to protect accelerator magnets from damage caused by neutral particles generated along the beam direction during collisions. A relevant official stated that this type of equipment is among the heaviest and largest devices that need to be removed from the LHC during this shutdown period...

2026-09-03

U.S. to Conduct Underwater Neutrino Detection Tests in Lake Superior and Vermilion Lake

From October 2026 to approximately April 2027, a team of researchers from U.S. universities and government agencies will conduct underwater neutrino tests in Lake Superior and Vermilion Lake. The project, named the Experimental Neutrino Detector (END), aims to validate a baseline detection system in natural water bodies to identify the NuMI neutrino beam produced by Fermi National Accelerator Laboratory and distinguish it from cosmic-ray backgrounds and other noise in shallow-water environments. END will place underwater neutrino detectors on the lakebed of Lake Superior where the Fermilab neutrino beamline passes through—near Two Harbors, Minnesota. The beamline will continue toward...

2026-09-02

Japan's PF Launches Quantum Multi-Beam Experiments, Achieving Simultaneous Hard and Soft X-ray Measurements

The Photon Factory, a synchrotron radiation facility at the Institute of Materials Structure Science, High Energy Accelerator Research Organization (KEK) in Japan, has recently launched collaborative experiments on the development and research multi-purpose beamlines BL-11A and BL-11B, achieving simultaneous irradiation of the same sample with hard and soft X-rays at the same position. The research results will be published in the international academic journal *Review of Scientific Instruments*. The Photon Factory uses electrons moving at near-light speed to generate high-brightness X-rays, known as synchrotron radiation, for studying material structures and properties. Among these, hard X-rays are better suited for observing the internal structure of materials, while soft X-rays are ideal for analyzing material surfaces and electronic states. Previously, at synchrotron radiation facilities, the two types of X-rays typically had to...

2026-08-31

Gallium ion FIB-SEM sample preparation has a damage limit; low-energy argon ion beam cleaning is used to improve TEM sample quality

Gallium ion focused ion beam-scanning electron microscopy (Ga⁺ FIB-SEM) has become an important method for site-specific thin lamella sample preparation for transmission electron microscopy/scanning transmission electron microscopy (TEM/STEM), enabling cutting, extraction, and thinning of target regions at the nanometer scale. However, the literature indicates that while gallium ions provide high-precision machining capability, they also cause amorphization, ion implantation, and localized chemical modification on the sample surface, which can subsequently affect high-resolution imaging and energy dispersive spectroscopy analysis results. According to the literature, Ga⁺ FIB-SEM typically enables high-resolution site-specific machining at 30 keV, but high-energy gallium ions form a damage layer on the sample sidewalls. Taking silicon as an example...

2026-08-31

Assam, India, Plans to Introduce Proton Beam Therapy for Cancer Treatment at a Public Hospital

Cancer treatment capabilities in Assam, India, are set to be upgraded. Assam Chief Minister Himanta Biswa Sarma announced that the state cabinet has approved the introduction of a proton beam therapy system at Gauhati Medical College Hospital. Once the project is completed, Assam will become the third region in India to offer proton beam therapy, and the hospital will be the first public hospital in India to be equipped with this technology. Currently, proton beam therapy is already in use at the Tata Memorial Centre in Mumbai and the Apollo Proton Cancer Centre in Chennai. The facility planned at Gauhati Medical College Hospital will become the third such treatment center in India. Proton beam therapy is an advanced form of radiotherapy used to treat cancer and certain non-cancerous tumors. Unlike conventional radiation therapy, which typically uses X-rays, proton therapy delivers precise irradiation to the tumor area using high-energy positively charged particles—protons. As proton beams enter the body, they release energy, causing DNA damage to cells. Healthy cells generally possess some capacity for repair, whereas cancer cells are less able to repair themselves, thereby inhibiting their growth and proliferation and helping to destroy tumor tissue.

2026-08-31

Russia Plans to Complete Development of First Domestic Proton Beam Therapy Cyclotron by 2027

Russian scientists plan to complete the development of the country's first domestically produced proton beam therapy cyclotron by 2027, with commissioning to begin in the same year. This progress was announced by Sergey Gertzog, CEO of the Russian National Institute of Electronics and Atomic Energy (NIIEFA), at the recent Technoprom forum held in Novosibirsk. A proton beam therapy cyclotron is a type of charged particle accelerator that uses magnetic and electric fields to accelerate protons to high-energy states, reaching speeds of one-half to two-thirds the speed of light. The accelerated proton beam can target cancerous tumor areas with relative precision for oncological treatment. According to the schedule outlined in Gertzog's report...

2026-08-28

Tescan Launches MIRA XR Ultra-High-Resolution Scanning Electron Microscope for Materials Characterization and Failure Analysis Applications

Tescan recently launched the MIRA XR ultra-high-resolution scanning electron microscope system, targeting materials characterization needs in fields such as battery technology, metallurgy, and advanced materials science. Positioned between the Tescan MIRA and Tescan CLARA, the system aims to deliver higher resolution, enhanced surface sensitivity, and a more streamlined workflow, serving applications including R&D laboratories, industrial quality control, and failure analysis. According to reports, the MIRA XR employs BrightBeam™ technology and a single high-efficiency axial detector to improve surface signal acquisition under field-free imaging conditions, making it suitable for beam-sensitive materials and magnetic samples while reducing the need for sample preparation steps such as surface coating. The system also features an aperture-free column design that minimizes manual aperture selection and adjustment steps, allowing operators to focus more on sample observation and data analysis.

2026-08-26

Electron Beam Processing Can Reduce Poultry Pathogens, Study Shows Turkey Meat Quality Remains Well Preserved

A study on electron beam treatment of poultry meat products shows that electron beam irradiation has the potential to reduce the risk of foodborne pathogens in poultry while preserving meat quality as much as possible. The paper, titled "Effects of Electron Beam (eBeam) Treatment on the Texture and Sensory Attributes of Chicken and Turkey Meat Batters," was published in the journal Poultry Science. Electron beam is a non-thermal processing technology that uses high-energy electrons to cause irreversible damage to pathogen DNA or RNA, making it difficult for bacteria to replicate. Like X-rays and gamma rays, electron beam has been approved by the U.S. Food and Drug Administration for cold pasteurization that does not rely on heating. The research team used the electron beam irradiation facility at Texas A&M University...

2026-08-26

Jamaica Launches Graduate Training Program in Radiation Protection and Safety, Poised to Become a Regional Center of Excellence in the Caribbean

Jamaica's newly established graduate training program in radiation protection and safety is being viewed as an important platform for enhancing nuclear technology safety capabilities in the Caribbean region. Chris Ardouin, an International Atomic Energy Agency expert and Senior Scientist and Technical Manager of Public Health and Forensic Science at the National Radiation Science Centre of New Zealand, stated that the program demonstrates Jamaica's potential to become a regional center of excellence for radiation protection and safety training. The six-month program, implemented as the first graduate education course in radiation protection and safety under the framework of the University of the West Indies' short-term academic resources, is currently training 12 professionals from seven CARICOM member states, with a focus on enhancing regional...

2026-08-26

Kyoto University and NEDO to Build Dedicated Beamline for Hydrogen Energy Research at SPring-8-II

Kyoto University announced on August 20 that it will collaborate with the New Energy and Industrial Technology Development Organization (NEDO) to construct dedicated research equipment for the hydrogen energy field at the large synchrotron radiation facility SPring-8-II, located in Sayo Town, Hyogo Prefecture, Japan. SPring-8-II is scheduled to begin operation in fiscal year 2029. On the 20th, Hajime Kitagawa, Executive Director of Kyoto University (2nd from right), attended a press conference held by Kyoto City government officials. According to the plan, the two parties will install a dedicated beamline at the facility, focusing on hydrogen energy-related research such as fuel cells and hydrogen production via water electrolysis. The beamline will be used to analyze key materials including catalysts and electrolyte membranes in fuel cells and water electrolyzers, leveraging synchrotron radiation to observe material reaction processes and help researchers identify the main factors affecting performance and cost.

2026-08-21

CERN Injector Complex Enters Final Beam Run Phase Before LS3

The CERN accelerator complex is entering its final operational phase before the third Long Shutdown (LS3). With the Large Hadron Collider (LHC) having already entered LS3, the injector complex and associated facilities will continue high-intensity beam operations until 6:00 a.m. on Monday, August 31, after which the operations team will hand over control to the LS3 coordination team, marking the formal transition of the entire accelerator complex into the shutdown maintenance phase. August 19, 2026, page one of the SPS. The third run of the injector complex is drawing to a close. (Image: CERN) During the final week-plus of operations, CERN will continue delivering proton and ion beams to physics experiments.

2026-08-21