Automated grain boundary detection by CASRG

被引:31
|
作者
Choudhury, KR [1 ]
Meere, PA
Mulchrone, KF
机构
[1] Natl Univ Ireland, Dept Stat, Cork, Ireland
[2] Natl Univ Ireland, Dept Geol, Cork, Ireland
[3] Natl Univ Ireland, Dept Appl Math, Cork, Ireland
关键词
grain boundaries; seeded region growing; adaptive threshold; automated; constraints; non-overlap; shape features; strain analysis;
D O I
10.1016/j.jsg.2005.12.010
中图分类号
P [天文学、地球科学];
学科分类号
07 ;
摘要
Constrained automated seeded region growing (CASRG) is an algorithm for automated grain boundary detection. It uses as input a single digitised microphotograph, such as ones obtained from a polarising microscope with an attached digital camera. In addition to this, it requires the user to click on the clasts within the microphotograph that the user wishes to obtain boundaries for. The algorithm requires no subsequent human input. The algorithm is based on the seeded region growing (SRG) algorithm of Adams and Bischof [Adams, R., Bischof, L., 1994. Seeded region growing. IEEE Transactions on Pattern Analysis Machine Intelligence 16, 641-647]. We have modified this algorithm to be guided by constraints and to adapt to the heterogeneity of colour information in the image. Imposition of these pre-determined additional conditions enables automated grain boundary detection without human intervention. The accuracy of CASRG has been validated through two benchmarking comparisons; one lithology with low tectonic strain and a second with high strain are used. The CASRG measurements arc compared with those from hand drawn boundaries, which are used as a gold standard. Comparison is made using (a) a non-overlap statistic, (b) shape features, (c) strain estimates. In each case, the CASRG method compares very favourably with the gold standard. (C) 2006 Elsevier Ltd. All rights reserved.
引用
收藏
页码:363 / 375
页数:13
相关论文
共 50 条
  • [1] Automated grain boundary detection using the level set method
    Lu, Bibo
    Cui, Min
    Liu, Qiang
    Wang, Yangang
    COMPUTERS & GEOSCIENCES, 2009, 35 (02) : 267 - 275
  • [2] Automated grain boundary detection and classification in orientation contrast images
    Bartozzi, M
    Boyle, AP
    Prior, DJ
    JOURNAL OF STRUCTURAL GEOLOGY, 2000, 22 (11-12) : 1569 - 1579
  • [3] Automated image processing for grain boundary analysis
    Mahadevan, S
    Casasent, D
    ULTRAMICROSCOPY, 2003, 96 (02) : 153 - 162
  • [4] Rapid and Automated Grain Orientation and Grain Boundary Analysis in Nanoscale Copper Interconnects
    Ganesh, K. J.
    Rajasekhara, S.
    Bultreys, D.
    Ferreira, P. J.
    2011 IEEE INTERNATIONAL RELIABILITY PHYSICS SYMPOSIUM (IRPS), 2011,
  • [5] Grain boundary detection - Classical and tricky algorithms
    Wojnar, L
    IMAGE ANALYSIS IN MATERIALS AND LIFE SCIENCES, 2001, : 72 - 72
  • [6] Automated Grain Boundary Detection for Bright-Field Transmission Electron Microscopy Images via U-Net
    Patrick, Matthew J.
    Eckstein, James K.
    Lopez, Javier R.
    Toderas, Silvia
    Asher, Sarah A.
    Whang, Sylvia, I
    Levine, Stacey
    Rickman, Jeffrey M.
    Barmak, Katayun
    MICROSCOPY AND MICROANALYSIS, 2023, 29 (06) : 1968 - 1979
  • [7] Automated Grain Boundary Detection for Bright-Field Transmission Electron Microscopy Images via U-Net
    Patrick, Matthew J.
    Eckstein, James K.
    Lopez, Javier R.
    Toderas, Silvia
    Asher, Sarah A.
    Whang, Sylvia, I
    Levine, Stacey
    Rickman, Jeffrey M.
    Barmak, Katayun
    MICROSCOPY AND MICROANALYSIS, 2023, 30 (03) : 632 - 632
  • [8] Image processing for grain boundary detection in microscope images
    Talukder, A
    Casasent, D
    Ozdemir, S
    GRAIN GROWTH IN POLYCRYSTALLINE MATERIALS III, 1998, : 243 - 248
  • [9] Automated black-box boundary value detection
    Dobslaw, Felix
    Feldt, Robert
    Neto, Francisco Gomes de Oliveira
    PEERJ COMPUTER SCIENCE, 2023, 9
  • [10] Automated black-box boundary value detection
    Dobslaw F.
    Feldt R.
    de Oliveira Neto F.G.
    PeerJ Computer Science, 2023, 9