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| More efficient data processing for protein crystallography |
| Development of an innovative protein crystallization method |
| Structure of heliorhodospin, a new photosensitive protein |
| Development of new genome-editing technologies |
| Visualization of enzymatic reactions |
| Platform for innovative allosteric catalysts and selective molecule sensors |
| Intestinal environment health |
| Determining how cells can transport nutrients across cell membranes |
| Elucidation of specific diseases |
| Intracellular molecular accumulation |
| Automatic crystal detection program |
| Recording molecular movies |
| Catalytic mechanisms of artificial enzymes |
| Unattended and automated data collection for protein crystallography(MX) |
| De nova structure analysis of proteins using short-wavelength XFEL |
| Molecular mechanisms of proteins |
| Energy production mechanisms of mammals |
| Visualizing oxygen-formation processes in photosynthesis |
| Multimodal and multicolor soft-X-ray nanoprobes of 20-nm size |
| Observing mammalian cells with ultrashort soft-X-ray laser pulses |
| Visualizing repair process of damaged DNA by a photolyase |
| Rapid structure determination of intrinsically disordered protein |
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| Und Understanding the structure-function relationships of enzymes |
| Development of new hypotensive drugs |
| Critical clues for discovering g new pharmaceutical drugs |
| Application of XFEL for drug discovery |
| Toward the drug discovery from social amoeba |
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| New radiotherapy technology |
| Investigating the causes of Parkinson's disease |
| A photo-induced release system using hollow crystal capsules |
| Diagnostics by imaging |
| Using new nanoparticles to deliver drugs to affected areas |
| Imaging live cells |
| Increasing efficiency in photosynthesis |
| Reduction of exposure dose during diagnosis |
| New functional materials for artificial muscles |
| Biological rhythm and dynamics |
| Making an accurate diagnosis by capturing slight changes in a body |
| Architecture of proteins involved in nitrogen fixation in symbiotic plants |
| Impacts of diabetes on the glomeruli |
| Capture the molecular aggregation process |
| Understanding the mechanisms of radiation damage |
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| Hydrogen storage using aluminum-based materials |
| Preventing aluminum degradation |
| Development of a tungsten recycling process |
| Improving the durability of stainless steel |
| Visualizing the internal structures of nano-sized metal particles |
| Development of materials for building more resilient infrastructure |
| Design for structural materials with lightness and hardness |
| Development of surface-controlled steel with high corrosion resistance |
| Reducing CO2 emissions by decreasing automobile body weight |
| Developing stronger and more durable aluminum materials |
| Nano-alloy design with new functions |
| Higher quality and performance for steel |
| Improving the properties and capabilities of steel |
| Observing electron orbitals |
| Origin of the volume expansion of molten palladium-iron alloys |
| Mechanism of state changes inherent in glasses by external fields |
| New superconductor having chiral crystal structure |
| Quantum beam reveals origin of superconductivity improvement |
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| Observing the atomic and molecular dynamics at a rate of 1/10,000,000sec. |
| Drastic changes in amorphous polymers |
| Super-tough materials for ceramics |
| Unique properties of spider draglines |
| New material made of tough polymers for the bodies of electric vehicles |
| Improving the mechanical reliability of ceramics |
| Discovering the source of strength and durability of bagworm silk |
| Fabrication of a new type of functional glass |
| Production of innovative glass materials |
| Tougher silk materials with synthetic peptides |
| Controlling durability and flexibility at the molecular level |
| Toward effective use of light element materials |
| A world record for high-speed 3D imaging |
| New nanotubes with periodic vacancy defects |
| Development of tires with greater fuel efficiency |
| Method for fabricating a regenerated-silk-fiber that is superior to native silk |
| Direct observation of a glass hardening process |
| Development of precise synthesis techniques of <5 nm metal oxide |
| Development of spatial X-ray modulator |
| Exploring the new functionalities of Non-Oxide Materials |
| Novel functional materials and understanding of life phenomena |
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| Foundation for X-ray optical physics in the 22nd century |
| More eco-friendly cars and higher efficiency wind-power generators |
| Mechanisms of innovative superconductors |
| High-performance memory using spintronics materials |
| Development of spintronics solid-state devices |
| storage for a massively growing data |
| Making stronger magnets with new uses |
| Development guidelines for advanced magnetic devices |
| Discovering magnetism under high pressure |
| A glass-farming charge liquid |
| Power-saving telecommunications technology using magnetization |
| New principle for energy-saving information technology |
| Magnetic memory devices with ultra low-power consumption |
| Innovative Superconducting State |
| Discovering new physical phenomena in insulators |
| Topological materials for developing ultra-low power consumption devices |
| ・超伝導になる電子をとらえる |
| Unveiling the mechanisms of high-temperature superconductors |
| Domain wall driven by a magneto-electric effect |
| Controlling magnetic memory with electric fields |
| Development of new electronic devices |
| Adjusting magnetic states through structural electronic engineering |
| Magnetic field control without electric current |
| Discovering copper magnetism for new types of magnetic devices |
| Ion dynamics in a water solution |
| Observing electron clouds inside solids |
| Achieving the long-held dream of "superconductivity at room temperature" |
| ・隕石に由来する高機能磁性材料の人工作製 |
| Unraveling the complex phenomena in many-body systems |
| Quantum criticality induced by lazy valence electrons |
| Development of a superconductor having negative thermal expansion |
| Toward faster and lower-power spin devices |
| New short-range magnetic order in a novel quantum magnetic |
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| Power devices for efficient energy use |
| ・シリコン結晶の表面に酸素原子が反応する様子 |
| Atomic level examinations of electronics materials |
| Nanometer-sized molecular bearings rotating around a single axis |
| LED's with higher efficiency |
| Higher efficiency power generated material by vibration |
| Higher-performance LED devices |
| Light-controllable object transportation system |
| Fundamental research of extreme ultraviolet lithography (EUVL) |
| Improvement of fluorite lens performance |
| Intense XFEL can change materials into extreme states |
| High performance and low power consumption information devices |
| New peep prevention filter |
| Highly-durable luminescent materials |
| High-performance nitride semiconductors for photovoltaics |
| Developing an ultra-precise nuclear clock |
| Materials mapping with element selectivity |
| Highly efficient thermoelectric materials |
| Materials that have zero thermal-expansion ability |
| Red phosphor for white LEDs |
| Lead-free piezoelectric materials |
| Investigation of physical properties using photoelectrons |
| Higher performance organic transistors |
| X-rays with a resolution close to the theoretical limit |
| Discovery of novel design for the development of high-performance |
| Focusing of 100keV X-rays to sub-μm range by multilayer mirrors |
| New Printable Organic Conductors having Potential for Mass |
| Hydrogen injection resolves contact issues of oxide thin-film |
| Three-dimensional analysis of the strain field around dislocations |
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| More brilliant XFEL |
| Ultimate focusing of an X-ray laser beam |
| A two-dimensional ellipsoidal mirror with nanometer precision |
| Ultimate focusing of an X-ray laser beam |
| New approach for developing functional materials |
| Mechanism for light-induced insulator-to-metal transition |
| Fabrication of lead perovskites and the discovery of charge ordering |
| New nano-particle science |
| Exploring new phenomena |
| New optical and electronic materials |
| Elucidating the electronic states in innovative hybrid materials |
| Devices for next-generation optical computing |
| A mirror for the world's smallest X-ray focused beam |
| Visualizing materials that are invisible to electron microscopes |
| Observing details beyond the limits of wavelengths |
| New understanding of molecular self-assemblies |
| Discovery of Shape-Changing Metal Molecules in Solids |
| Visualizing chemical reactions by trapping molecules in protein |
| Visualization of Chemical Bonds |
| Efficient exploratory synthesis of cesium chlorides by In Silico |
| Visualization of local atoms surrounding a specific element |
| High-precision microcrystallography for challenging targets |
| Unraveling the superconductivity of Ca and K co-intercalated |
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| More efficient shrimp aquaculture |
| Waste treatment with less pollution |
| Recovery of hair root collapse due to aging |
| Enhancement of sweeteners |
| Radical enzymes for industrial use |
| Evolution of rice plants by cultivation Pl 33-2 Delicious "tenobe somen" noodles |
| Taiwan Photon Source (TPS) - a third-generation 3.0 GeV synchrotron light source |
| Exploring the origin and spread of iron weapons |
| Highly sensitive detection and discrimination of volatile molecules |
| Elucidation of the mechanism behind hair-wave improvement |
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| Eco-friendly diatoms |
| Thin film storing gas |
| Developing fuel-efficient engines for eco-friendly vehicles |
| Highly sensitive detection of endocrine-disturbing chemicals in the sea |
| Development of a sustainable catalyst |
| ・希少元素のリサイクルへ |
| Exhaust gas purification that does not require precious metals |
| New cooling technology using solid refrigerants |
| Damage-free analysis of catalysts |
| Using hydrogen to reduce global warming |
| Understanding how hydrogen is stored in materials |
| Storage of hazardous waste |
| Visualizing the true distribution of trace Uranium using |
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| Lithium-ion battery development using machine learning and mathematics |
| Nanosheets: innovative solar cell materials |
| More durable lithium-ion batteries |
| Making batteries that are all-solid-state |
| Storage hydrogen like noble metals |
| ・貴金属元素に代わる普遍元素を用いて高活性･高選択的新型触媒へ |
| Using a huge current over a short period |
| ・固体酸化物燃料電池(SOFC)の熱耐久性の改善へ |
| Revealing the secrets of photosynthesis |
| Electron motion in photocatalysts |
| High-performance lithium-ion batteries (LIBs) |
| Next-generation fuel cell electrode catalysts |
| Improving the performance of storage batteries |
| Development of catalysts |
| Basis for plant gene modification and artificial photosynthesis |
| Information for the design of artificial enzymes |
| Revealing the secrets of water |
| Moving toward a "hydrogen society" |
| Dramatic improvements in solar utilization efficiency |
| Examining the interiors of large batteries |
| High-performance storage batteries |
| Understanding the mechanisms of batteries |
| New techniques for diagnosing batteries |
| ・塗って作れる太陽電池で変換効率10％を達成 |
| Electrochemical phenomena in fuel cells under operating conditions |
| Visualizing the interior of an operating battery |
| Electrochemical phenomena in fuel cells under operating conditions |
| Producing organic compounds from CO2 and H20 using sunlight energy |
| A key to investigate the interfaces in fuel cells |
| Long-life and high-quality fuel cells for the future |
| Suppressing the diminishing of fuel cell performance |
| Clarifying catalytic reaction mechanisms of polymer electrolyte fuel cells |
| Ultrafast oscillation of molecules |
| High durability fuel cell electrodes |
| Visualizing the catalyst state during an electrochemical reaction |
| Extreme focusing of X-ray free-electron laser |
| Microstructural changes in cobalt- / nickel-free positive electrode materials |
| Cobalt-free battery material with high energy density and long |
| Extreme focusing of X-ray free-electron laser |
| Development of a High-Performance Material for Perovskite Solar |
| Ionization dynamics in high-intense later-matter interactions |
| Exploring the new functionalities of Non-Oxide Materials |
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| Microfabrication using an X-ray vortex |
| Creation of new functional materials |
| High-activity catalysts under mild reaction conditions |
| Understanding and designing functional materials |
| Design for more compact automobile parts to reduce energy consumption |
| ・レーザー溶接中の内部の様子 |
| Improving the eco-friendliness of electric vehicles |
| Deeper understanding of laser processing of light materials |
| Highly active catalysts |
| Inspect nanometer defects in materials |
| Development of innovative catalysts |
| Mechanism-based process designing by manufacturing science |
| Design of material destruction |
| Visualization of vortex cavitation by fast X-ray imaging |
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| Developing high-performance furnaces that are X-ray-transparent |
| Origin of the ltokawa asteroid |
| Exploring the universe with gamma rays |
| Approaching the source for the mass of objects |
| Exploring the mysteries of cosmic particle accelerators |
| Dynamics of volcanic eruptions |
| Discovery of abundant Mn-microparticles from deep-sea oxic sediments |
| A new exotic particle, "Pentaquark" |
| Possible e presence of noble iron hydride in Earth's interior |
| Investigation of electronic properties of the Earth's inner core environment |
| Searching for hidden elementary particles |
| Verifying important theories of physics |
| Toward an ultra-high-precision "solid-state nuclear clock" |
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| Efficient exploratory synthesis of cesium chlorides by In Silico |
