The applications of biometrics in the real world include various types of large-scale "one-to-many" identification, which require high performance classification technology. This paper presents a system with a classification algorithm that integrates multiple features observed in a set of fingerprints and uses them, to pre-select candidates, for more efficient personal identification from a very large fingerprint enrollment database. The algorithm determines a fingerprint's pattern type by using both ridge structure analysis and direction-based neural networks. It measures such additional feature characteristics as core-delta distance and ridge counts in parallel, along with confidence indexes associated with each feature. The pre-selector then integrates the set of obtained features from multiple fingers, after weighting them according to each feature's inherent ability to contribute to the selection process and the expected errors in observations of that feature. The system calculates the similarity between pairs of sets on the basis of feature differences, statistically evaluates the conditional probability of each pair being a correct match, and selects most similar collection of candidates for detailed matching. Experimental results confirm that it achieves an effective pre-selecting capability of 0.2% average selection (false acceptance or penetration) rate with 2% selection error (false rejection) rate.
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Kaoru UCHIDA, "Multiple Fingerprint Set Classification for Large-Scale Personal Identification" in IEICE TRANSACTIONS on Information,
vol. E86-D, no. 8, pp. 1426-1435, August 2003, doi: .
Abstract: The applications of biometrics in the real world include various types of large-scale "one-to-many" identification, which require high performance classification technology. This paper presents a system with a classification algorithm that integrates multiple features observed in a set of fingerprints and uses them, to pre-select candidates, for more efficient personal identification from a very large fingerprint enrollment database. The algorithm determines a fingerprint's pattern type by using both ridge structure analysis and direction-based neural networks. It measures such additional feature characteristics as core-delta distance and ridge counts in parallel, along with confidence indexes associated with each feature. The pre-selector then integrates the set of obtained features from multiple fingers, after weighting them according to each feature's inherent ability to contribute to the selection process and the expected errors in observations of that feature. The system calculates the similarity between pairs of sets on the basis of feature differences, statistically evaluates the conditional probability of each pair being a correct match, and selects most similar collection of candidates for detailed matching. Experimental results confirm that it achieves an effective pre-selecting capability of 0.2% average selection (false acceptance or penetration) rate with 2% selection error (false rejection) rate.
URL: https://global.ieice.org/en_transactions/information/10.1587/e86-d_8_1426/_p
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@ARTICLE{e86-d_8_1426,
author={Kaoru UCHIDA, },
journal={IEICE TRANSACTIONS on Information},
title={Multiple Fingerprint Set Classification for Large-Scale Personal Identification},
year={2003},
volume={E86-D},
number={8},
pages={1426-1435},
abstract={The applications of biometrics in the real world include various types of large-scale "one-to-many" identification, which require high performance classification technology. This paper presents a system with a classification algorithm that integrates multiple features observed in a set of fingerprints and uses them, to pre-select candidates, for more efficient personal identification from a very large fingerprint enrollment database. The algorithm determines a fingerprint's pattern type by using both ridge structure analysis and direction-based neural networks. It measures such additional feature characteristics as core-delta distance and ridge counts in parallel, along with confidence indexes associated with each feature. The pre-selector then integrates the set of obtained features from multiple fingers, after weighting them according to each feature's inherent ability to contribute to the selection process and the expected errors in observations of that feature. The system calculates the similarity between pairs of sets on the basis of feature differences, statistically evaluates the conditional probability of each pair being a correct match, and selects most similar collection of candidates for detailed matching. Experimental results confirm that it achieves an effective pre-selecting capability of 0.2% average selection (false acceptance or penetration) rate with 2% selection error (false rejection) rate.},
keywords={},
doi={},
ISSN={},
month={August},}
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TY - JOUR
TI - Multiple Fingerprint Set Classification for Large-Scale Personal Identification
T2 - IEICE TRANSACTIONS on Information
SP - 1426
EP - 1435
AU - Kaoru UCHIDA
PY - 2003
DO -
JO - IEICE TRANSACTIONS on Information
SN -
VL - E86-D
IS - 8
JA - IEICE TRANSACTIONS on Information
Y1 - August 2003
AB - The applications of biometrics in the real world include various types of large-scale "one-to-many" identification, which require high performance classification technology. This paper presents a system with a classification algorithm that integrates multiple features observed in a set of fingerprints and uses them, to pre-select candidates, for more efficient personal identification from a very large fingerprint enrollment database. The algorithm determines a fingerprint's pattern type by using both ridge structure analysis and direction-based neural networks. It measures such additional feature characteristics as core-delta distance and ridge counts in parallel, along with confidence indexes associated with each feature. The pre-selector then integrates the set of obtained features from multiple fingers, after weighting them according to each feature's inherent ability to contribute to the selection process and the expected errors in observations of that feature. The system calculates the similarity between pairs of sets on the basis of feature differences, statistically evaluates the conditional probability of each pair being a correct match, and selects most similar collection of candidates for detailed matching. Experimental results confirm that it achieves an effective pre-selecting capability of 0.2% average selection (false acceptance or penetration) rate with 2% selection error (false rejection) rate.
ER -