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X-ray free-electron lasers (XFELs) provide intense (∼1012 photons per pulse) coherent X-rays with ultra-short (∼10-14 s) pulse lengths. X-rays of such an unprecedented nature have introduced new means of atomic scale structural investigations, and discoveries are still ongoing. Effective use of XFELs would be further accelerated on a highly adaptable platform where most of the new experiments can be realized. Introduced here is the multiple-application X-ray imaging chamber (MAXIC), which is able to carry out various single-pulse diffraction experiments including single-shot imaging, nanocrystallographic data acquisition and ultra-fast pump-probe scattering for specimens in solid, liquid and gas phases. The MAXIC established at the SPring-8 °ngström compact freeelectron laser (SACLA) has demonstrated successful applications in the aforementioned experiments, but is not limited to them. Also introduced are recent experiments on single-shot diffraction imaging of Au nanoparticles and serial crystallographic data collection of lysozyme crystals at SACLA. [ABSTRACT FROM AUTHOR]

X-ray free-electron lasers (XFELs) provide intense (~1012 photons per pulse) coherent X-rays with ultra-short (~10-14 s) pulse lengths. X-rays of such an unprecedented nature have introduced new means of atomic scale structural investigations, and discoveries are still ongoing. Effective use of XFELs would be further accelerated on a highly adaptable platform where most of the new experiments can be realized. Introduced here is the multiple-application X-ray imaging chamber (MAXIC), which is able to carry out various single-pulse diffraction experiments including single-shot imaging, nanocrystallographic data acquisition and ultra-fast pump-probe scattering for specimens in solid, liquid and gas phases. The MAXIC established at the SPring-8 ångström compact freeelectron laser (SACLA) has demonstrated successful applications in the aforementioned experiments, but is not limited to them. Also introduced are recent experiments on single-shot diffraction imaging of Au nanoparticles and serial crystallographic data collection of lysozyme crystals at SACLA. [ABSTRACT FROM AUTHOR]

Single-shot imaging using femtosecond x-ray pulses from x-ray free electron lasers (XFELs) has revealed high-resolution structures of Au nanoparticles and biological macromolecular complexes. The x-ray pulse power of 10 GW is enough to vaporize specimen when it is focused on a few microns area. This makes it essential to have a single particle loader to provide fresh samples to the x-ray pulses. In this paper we introduce single-shot imaging at Spring-8 Angstrom Compact Free Electron Laser (SACLA) to investigate various types of specimen, from metallic nanoparticles to biological macromolecules, prepared on Si3N4 membrane. A significant reduction in sample consumption is achieved while maintaining a data acquisition rate of 30 Hz, which is compatible with the current SACLA operation rate. [ABSTRACT FROM AUTHOR]