• Infrared and Laser Engineering
  • Vol. 31, Issue 6, 550 (2002)
[in Chinese]*
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  • [in Chinese]
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    [in Chinese]. Study on technology about hard X monochromatizing sagittal focusing beam in synchrotron radiation[J]. Infrared and Laser Engineering, 2002, 31(6): 550 Copy Citation Text show less
    References

    [1] Lemonner M. X-ray curved-crystal monochromator system at the storage ring dci[J]. Nucl Instum Methods, 1978, 194(1):173-177.

    [2] Sparks C J. X-ray monochromator geometry for focusing synchrotron radiation above 10 keV[J]. Nucl Instum Methods, 1980, 172(1):237-242.

    [3] Sparks C J. Sagittal focusing of synchrotron x-radiation with curved crystals[J]. Nucl Instum Methods, 1982, 194(1):73-78.

    [4] Ice C E. Focusing optics a synchrotron x-radiation microprobe[J]. Nucl Instum Methods, 1984, 222(1):121-127.

    [5] Matsushita T. Sagittally focusing double-crystal monochromator with constant exit beam height at the photo factory[J]. Nucl Instum Methods, 1986, A246(1):137-139.

    [8] Robert K Smither. Summary of a workshop on high heat load X-ray optics held at argonne national laboratory[J]. Nucl Instum Methods, 1990, A291(1):286-299.

    [9] Oyanagi H. A directly water-cooled silicon crystal for high power insertion devices[J]. Rev Sci Instrum, 1995, 66(9):4482-4486.

    [11] Marine Pierre. Conception, fabrication and test of a bender for an x-ray focusing crystal (ESRF Internal Report)[R]. 1994. 9-10.

    [15] ZHOU Ren-kui, FU Xuan, ZHOU Si-zhong, et al. Technology of the sagittal focusing crystal manufacturing and testing for monochromator in synchrotron radiation[A]. SPIE[C]. 2000, 4231(1-3).515-519.

    [in Chinese]. Study on technology about hard X monochromatizing sagittal focusing beam in synchrotron radiation[J]. Infrared and Laser Engineering, 2002, 31(6): 550
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