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Smart Identity Management System by Face Detection Using Multitasking Convolution Network
Author(s) -
Lubna Farhi,
Hira Abbasi,
Rija Rehman
Publication year - 2021
Publication title -
security and communication networks
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.446
H-Index - 43
eISSN - 1939-0114
pISSN - 1939-0122
DOI - 10.1155/2021/7314823
Subject(s) - computer science , convolutional neural network , artificial intelligence , identification (biology) , computation , identity (music) , timestamp , face (sociological concept) , convolution (computer science) , facial recognition system , feature (linguistics) , artificial neural network , human multitasking , pixel , process (computing) , computer vision , pattern recognition (psychology) , real time computing , algorithm , cognitive psychology , biology , operating system , psychology , social science , linguistics , philosophy , botany , physics , sociology , acoustics
Identity management system in most academic and office environments is presently achieved primarily by a manual method where the user has to input their attendance into the system. The manual method sometimes results in human error and makes the process less efficient and time-consuming. The proposed system highlights the implementation and design of a smart face identification-based management system while taking into account both the background luminosity and distance. This system detects and recognizes the person and marks their attendance with the timestamp. In this methodology, the face is initially resized to 3 different sizes of 256, 384, and 512 pixels for multiscale testing. The overall outcome size descriptor is the overall mean for these characteristic vectors, and the deep convolution neural network calculates 22 facial features in 128 distinct embeddings in 22-deep network layers. The pose of the 2D face from −15 to +15° provides identification with 98% accuracy in low computation time. Another feature of the proposed system is that it is able to accurately perform identification with an accuracy of 99.92% from a distance of 5 m under optimal light conditions. The accuracy is also dependent on the light intensity where it varies from 96% to 99% under 100 to 1000 lumen/m2, respectively. The presented model not only improves accuracy and identity under realistic conditions but also reduces computation time.

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