A novel lattice-spacing comparator with resolution of 10-8

被引:13
|
作者
Zhang, XW
Sugiyama, H
Ando, M
Imai, Y
Yoda, Y
机构
关键词
SILICON;
D O I
10.1107/S0021889802021374
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
A novel, fast and stable system for measuring the lattice spacing of a silicon crystal with a precision of 10(-8) is described. Self selection of monochromatic X-rays by a monolithic double channel-cut crystal monochromator (MDCM), producing silicon 264 and 624 diffraction, may lead to a stable, highly collimated and narrow-bandwidth beam. When utilizing the 264 and 624 Bragg reflections of a silicon sample, the angular distance between the two associated Bragg peaks must be extremely small, so that the diffraction angle can be determined with high precision and the traveling time from one peak to the other can be considerably reduced by the order of at least three compared with the established classical Bond method. This so-called self-reference comparator method can dramatically save measurement time and can provide an absolute measurement on the basis of the known X-ray wavelength available from the MDCM. Thus a lattice-spacing measurement with resolution of 10(-8), within a few tens of seconds for an area of 1 mm 2 on a silicon sample, has been realised.
引用
收藏
页码:188 / 192
页数:5
相关论文
共 50 条
  • [1] Quartz as a standard for accurate lattice-spacing measurements
    Bradley, AJ
    Jay, AH
    PROCEEDINGS OF THE PHYSICAL SOCIETY, 1933, 45 : 507 - 522
  • [2] LATTICE-SPACING DEPENDENCE OF THE SPHALERON TRANSITION RATE
    BOCHKAREV, A
    NUCLEAR PHYSICS B, 1994, : 619 - 621
  • [3] Comparison of the INRIM and PTB lattice-spacing standards
    Massa, E.
    Mana, G.
    Kuetgens, U.
    METROLOGIA, 2009, 46 (03) : 249 - 253
  • [4] Lattice spacing mapping in large silicon ingot using high resolution lattice comparator
    Fujimoto, H
    Waseda, A
    Xiaowei, Z
    Nakayama, K
    Fujii, K
    Sugiyama, H
    Ando, M
    2002 CONFERENCE ON PRECISION ELECTROMAGNETIC MEASUREMENTS, CONFERENCE DIGEST, 2002, : 304 - 305
  • [5] The equilibrium and lattice-spacing relations in the system magnesium-cadmium
    Hume-Rothery, W
    Raynor, GV
    PROCEEDINGS OF THE ROYAL SOCIETY OF LONDON SERIES A-MATHEMATICAL AND PHYSICAL SCIENCES, 1940, 174 (A959) : 0471 - 0486
  • [6] Neutron Larmor diffraction measurement of the lattice-spacing spread of pyrolytic graphite
    Keller, T
    Rekveldt, MT
    Habicht, K
    APPLIED PHYSICS A-MATERIALS SCIENCE & PROCESSING, 2002, 74 (Suppl 1): : S127 - S129
  • [7] Neutron Larmor diffraction measurement of the lattice-spacing spread of pyrolytic graphite
    T. Keller
    M.Th. Rekveldt
    K. Habicht
    Applied Physics A, 2002, 74 : s127 - s129
  • [8] LATTICE-SPACING FLUCTUATION ENHANCED NEAR THE SURFACE OF NB3SN
    FUJII, Y
    HASTINGS, JB
    SHIRANI, G
    BULLETIN OF THE AMERICAN PHYSICAL SOCIETY, 1980, 25 (03): : 311 - 311
  • [9] METHOD FOR RECORDING THE RADIATION SPECTRA OF A PULSE DISCHARGE WITH A TIME RESOLUTION OF 10-8 SEC
    ANDREEV, SI
    VANYUKOV, MP
    DANIEL, EV
    OPTIKA I SPEKTROSKOPIYA, 1962, 13 (06): : 863 - 865
  • [10] Comparison of Lattice Spacing between Crystals by the Self-Referenced Lattice Comparator
    Waseda, A.
    Fujimoto, H.
    Zhang, X. W.
    Fujii, K.
    2018 CONFERENCE ON PRECISION ELECTROMAGNETIC MEASUREMENTS (CPEM 2018), 2018,