- Publication . Article . 2021Open AccessAuthors:Nan Zhao; Zhi-Ya Zhang; Xiaodong Yang; Aifeng Ren; Jianxun Zhao; Masood Ur Rehman;Nan Zhao; Zhi-Ya Zhang; Xiaodong Yang; Aifeng Ren; Jianxun Zhao; Masood Ur Rehman;Publisher: Institute of Electrical and Electronics Engineers (IEEE)Country: United Kingdom
Identity-based attacks serve as the basis of an intruder’s attempt to launch security infringements in mobile health monitoring scenarios. Wireless channel perturbations due to the presence of human body are a relative phenomenon depending heavily on the subject’s dielectric properties. A new body-centric signature authorization (B-CSAI) approach based on time-frequency domain characteristics was proposed. This method utilizes multiple millimeter wave bands of 27–28 GHz, 29–30 GHz, and 31–32 GHz, thereby enhancing the security in body-centric communications exploiting benefits of subject specific channel signature. The proposed bornprint method is based on the intrinsic identity-related time-frequency domain information, which generated by the user’s natural hand motion signature and resulting creeping waves and space waves. It can meet the unconditional keyless authorization requirements. A detailed measurement campaign considering radiation efficiency ( $\bar {\eta }({\mathrm{ dB}}) = -25.8, -24.7, -26.4$ ), path-loss exponent, and shadowing factor in three millimeter wave bands, using six human subjects confirm the usability and efficiency of the proposed approach. This also shows that there is a wide space for realizing security from physical mechanisms.
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- Publication . Article . 2021Open AccessAuthors:Nan Zhao; Zhi-Ya Zhang; Xiaodong Yang; Aifeng Ren; Jianxun Zhao; Masood Ur Rehman;Nan Zhao; Zhi-Ya Zhang; Xiaodong Yang; Aifeng Ren; Jianxun Zhao; Masood Ur Rehman;Publisher: Institute of Electrical and Electronics Engineers (IEEE)Country: United Kingdom
Identity-based attacks serve as the basis of an intruder’s attempt to launch security infringements in mobile health monitoring scenarios. Wireless channel perturbations due to the presence of human body are a relative phenomenon depending heavily on the subject’s dielectric properties. A new body-centric signature authorization (B-CSAI) approach based on time-frequency domain characteristics was proposed. This method utilizes multiple millimeter wave bands of 27–28 GHz, 29–30 GHz, and 31–32 GHz, thereby enhancing the security in body-centric communications exploiting benefits of subject specific channel signature. The proposed bornprint method is based on the intrinsic identity-related time-frequency domain information, which generated by the user’s natural hand motion signature and resulting creeping waves and space waves. It can meet the unconditional keyless authorization requirements. A detailed measurement campaign considering radiation efficiency ( $\bar {\eta }({\mathrm{ dB}}) = -25.8, -24.7, -26.4$ ), path-loss exponent, and shadowing factor in three millimeter wave bands, using six human subjects confirm the usability and efficiency of the proposed approach. This also shows that there is a wide space for realizing security from physical mechanisms.
Average popularityAverage popularity In bottom 99%Average influencePopularity: Citation-based measure reflecting the current impact.Average influence In bottom 99%Influence: Citation-based measure reflecting the total impact.add Add to ORCIDPlease grant OpenAIRE to access and update your ORCID works.This Research product is the result of merged Research products in OpenAIRE.
You have already added works in your ORCID record related to the merged Research product.