China's super microscope achieves neutron beam output milestone

China's China Spallation Neutron Source (CSNS) has reached a significant milestone in its Phase II construction, with its first beamline—the neutron technology development station—successfully producing a neutron beam. This marks the completion of equipment development and installation for the beamline. Located in Dongguan, Guangdong province, the facility operates like a super microscope, using neutrons to examine materials and support breakthroughs in renewable energy, aerospace, and bioscience.

The China Spallation Neutron Source (CSNS) is China's first and the world's fourth pulsed spallation neutron source, operated by the Institute of High Energy Physics of the Chinese Academy of Sciences and located in Dongguan, Guangdong province. It functions like a super microscope, using neutrons to reveal hidden details in materials, such as metal fatigue or battery performance, and supports breakthroughs in fields like renewable energy, aerospace, and bioscience.

The Phase II project began construction in 2024 and is scheduled for completion by 2029. Its proton accelerator's target power will rise to 500 kilowatts, increasing the "brightness" of its neutron "flashlight" to detect fainter structural signals in materials and achieve nanoscale precision in material structure studies.

The newly completed neutron technology development station serves as a dedicated test-bed for developing neutron detection technologies. It features an ultra-clean environment with minimal background noise to capture faint neutron signals and high efficiency that enables scientists to verify new technologies more quickly. After five years of interdisciplinary efforts, researchers have overcome challenges in the beamline's design and construction, including precise control of the neutron beam, dynamic equipment switching, and relocation of heavy components. These advancements will provide standardized testing conditions for domestically developed scientific instruments, ensuring the timely completion of the CSNS Phase II project.

Additionally, CSNS recently achieved a record 185 kW of beam power on target with 72 hours of continuous, stable operation, following breakthroughs of 160 kW and 170 kW in 2024. This progress has shortened user experiment durations, optimized facility utilization efficiency, and offered stronger technical support for cutting-edge research. It also validates the core technical pathways for beam power enhancement in Phase II, advancing China's spallation neutron source technology toward international leadership.

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Researchers at the University of Tokyo with their Great Unified Microscope, displaying label-free cell images in a lab setting.
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University of Tokyo team debuts ‘Great Unified Microscope’ for label-free micro-to-nano cell imaging

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Researchers at the University of Tokyo have built a bidirectional, label-free microscope that captures micro- and nanoscale activity in living cells without dyes. Nicknamed the “Great Unified Microscope,” the system combines forward- and back-scattered light detection to broaden what scientists can see inside cells, including changes during cell death and estimates of particle size and refractive index.

The Linac Coherent Light Source II at California's SLAC National Accelerator Laboratory has set new records for X-ray pulses, but its key components will soon shut down for a major upgrade. This enhancement, expected to more than double the X-ray energy, could transform research into subatomic behaviors in light-sensitive systems. The facility's recent achievements include the strongest pulse ever in 2024 and 93,000 pulses per second in 2025.

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A Chinese team has finished constructing a steep spiral ramp leading to the underground Beishan Laboratory, where nuclear waste will be secured for thousands of years. Located in the Gobi Desert, the facility represents a key milestone in handling high-level radioactive waste.

Nuclear physicists at the University of Tennessee have made three key findings about the rapid neutron-capture process that forms heavy elements like gold in stellar events. Their research, conducted at CERN's ISOLDE facility, clarifies how unstable atomic nuclei decay. The results, published in Physical Review Letters, could refine models of element formation in the universe.

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In the Masterclass Series under the Nurturing Future InnoTech Talent Project, seven leading national-level scientists shared cutting-edge technology and discoveries with 3,800 students from 16 schools and tertiary institutions over two weeks in September, plus a special forum at the Hong Kong Palace Museum. Topics included AI, spaceflight, archaeology, new energy, and ocean carbon science. The project is funded by the Institute of Philanthropy and The Hong Kong Jockey Club Charities Trust, organized by the China Soong Ching Ling Foundation with The Hong Kong Federation of Youth Groups as strategic partner.

CERN researchers are set to transport around 100 antiprotons by truck around the campus near Geneva, Switzerland, on Tuesday. This marks the first demonstration of a planned antimatter delivery service to labs across Europe. The experiment, known as STEP, aims to enable precision measurements away from the noisy antimatter factory.

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Physicists from the KATRIN collaboration have reported no evidence for a sterile neutrino in a precise analysis of tritium decay data. The findings, published in Nature, contradict earlier experimental claims and strengthen the case against a fourth neutrino type. The experiment, based in Germany, continues to gather more data for further tests.

 

 

 

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