A New Security and Identification Concept for SWIPT Systems in IoT Applications
Taki Eddine Djidjekh (INSA Toulouse, LAAS-MINC), Lamoussa Sanogo, (LAAS-MINC), Ga\"el Loubet (LAAS-MINC), Alassane Sidibe (LAAS-MINC), Daniela, Dragomirescu (LAAS-MINC), Alexandru Takacs (LAAS-MINC)

TL;DR
This paper proposes a novel security and identification method for IoT SWIPT systems by embedding a real-time backscattered waveform generated at the RF rectifier, enabling autonomous security independent of communication protocols.
Contribution
It introduces a new physical security layer in SWIPT IoT systems using a prototype RF rectifier that generates identifiable backscattered signals based on energy waveform and private keys.
Findings
Prototype RF rectifier successfully generates real-time backscattered signals.
The backscattered waveform encodes security and identification information.
The method operates independently of communication protocols for enhanced security.
Abstract
This article addresses an innovative concept to enhance the security for IoT applications in the case of Simultaneous Wireless Information and Power Transfer. This is achieved by integrating a complementary security and identification mechanism through Wireless Power Transfer link within the network of autonomous wireless nodes. This mechanism is implemented at the level of the RF rectifier used to receive energy from a dedicated RF source. A prototype of such RF rectifier has been developed, it generates in real time a backscattered waveform (uplink from the wireless node to the RF source) as function of the parameters of the incoming energy waveform (downlink from RF source) and a digital private key code, generated/available at the level of the wireless node. This uplink waveform can be monitored at the level of the RF source for security/identification purposes implementing an…
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