Abstract:The necessity for secured communication devices that has limited computing power has encouraged the development of key generation scheme. The generation of a symmetric key scheme that utilizes randomness of wireless channels offers a most promising solution as a result of the easy distribution of secret key mechanisms. In the last few years, various schemes have been proposed, but there are trade-offs between the performance parameters used. The expected parameters are the low Key Disagreement Rate (KDR), the … Show more
“…The measurement results show that the MAPI scheme can reduce KDL M values up to 100% compared to the existing schemes in almost all scenarios. The average value of KDL M in the quiet condition of the scheme [19] is 0.42%, in the scheme [20] is 0.275%, in the scheme [17] is 3.06%, and in the scheme [21] is 18%. For all measurement scenarios, the proposed MAPI scheme has the smallest average KDL M value compared to other comparison schemes.…”
Section: B Improved Correlation Using Mhpk Methodsmentioning
confidence: 99%
“…Several studies have modified the conventional SKG scheme by adding a signal pre-processing stage to increase wireless channels' reciprocity [16], [21]. Scheme [16], [20] discards the information reconciliation stage for security reasons. There are two methods of quantization, namely lossless quantization and lossy quantization.…”
Vehicular ad-hoc network is an exciting study that aims to improve driver safety in driving. Vehicle-to-vehicle (V2V) is communications between vehicles that occurs on a VANET using wireless channels. This channel allows vehicles to share personal or safety information with other vehicles. Vehicle communication is potentially vulnerable to adversaries' security attacks that can harm the driver and other legitimate users. Therefore, it requires a high-security system. This research proposes a new scheme, namely the MAPI (Mike-Amang-Prima-Inka), as a modified secret key generation scheme obtained from received signal strength (RSS) values. Our research focuses on obtaining a symmetric key that has a high key formation speed (KFS) with a low-key discrepancy level (KDL), while still thinking about the randomness and ensure safety from passive attackers. In the pre-processing, we use a combination of Kalman Filter and Polynomial Regression by modifying the parameters to produce the best performance. We also modified the grey code in the Modified Multibit (MMB) Quantization method to reduce the quantization bit mismatch. Our approach to the MAPI scheme can assign symmetric keys with better performance than existing schemes, increasing KFS and decreasing KDL up to 100%. Moreover, the scheme can generate a symmetric key that deals with NIST's statistical tests.
“…The measurement results show that the MAPI scheme can reduce KDL M values up to 100% compared to the existing schemes in almost all scenarios. The average value of KDL M in the quiet condition of the scheme [19] is 0.42%, in the scheme [20] is 0.275%, in the scheme [17] is 3.06%, and in the scheme [21] is 18%. For all measurement scenarios, the proposed MAPI scheme has the smallest average KDL M value compared to other comparison schemes.…”
Section: B Improved Correlation Using Mhpk Methodsmentioning
confidence: 99%
“…Several studies have modified the conventional SKG scheme by adding a signal pre-processing stage to increase wireless channels' reciprocity [16], [21]. Scheme [16], [20] discards the information reconciliation stage for security reasons. There are two methods of quantization, namely lossless quantization and lossy quantization.…”
Vehicular ad-hoc network is an exciting study that aims to improve driver safety in driving. Vehicle-to-vehicle (V2V) is communications between vehicles that occurs on a VANET using wireless channels. This channel allows vehicles to share personal or safety information with other vehicles. Vehicle communication is potentially vulnerable to adversaries' security attacks that can harm the driver and other legitimate users. Therefore, it requires a high-security system. This research proposes a new scheme, namely the MAPI (Mike-Amang-Prima-Inka), as a modified secret key generation scheme obtained from received signal strength (RSS) values. Our research focuses on obtaining a symmetric key that has a high key formation speed (KFS) with a low-key discrepancy level (KDL), while still thinking about the randomness and ensure safety from passive attackers. In the pre-processing, we use a combination of Kalman Filter and Polynomial Regression by modifying the parameters to produce the best performance. We also modified the grey code in the Modified Multibit (MMB) Quantization method to reduce the quantization bit mismatch. Our approach to the MAPI scheme can assign symmetric keys with better performance than existing schemes, increasing KFS and decreasing KDL up to 100%. Moreover, the scheme can generate a symmetric key that deals with NIST's statistical tests.
“…The lower the computing time and the communication overhead required, the more efficient the built key generation system. There are 4 existing key generation systems that will be used for comparison, i.e., system [9,31,33,46,48]. The system [9] uses four phases where the RSS channel characteristics will be quantized using the cumulative distribution function (CDF) method.…”
Section: Implementation and Performance Evaluationmentioning
confidence: 99%
“…The system [9] uses four phases where the RSS channel characteristics will be quantized using the cumulative distribution function (CDF) method. The system [31] uses five phases where the RSS channel characteristics will be divided into several blocks, each containing 50 data. Each block will be pre-processed using the Kalman method and the results will be converted into multi-bits with the quantization method proposed by [24].…”
Section: Implementation and Performance Evaluationmentioning
confidence: 99%
“…Some studies [30,31] seek to overcome this problem by modifying the existing signal pre-processing phase. The phase is modified by dividing the measurement data into several blocks of data.…”
One solution to ensure secrecy in the Internet of Things (IoT) is cryptography. However, classical cryptographic systems require high computational complexity that is not appropriate for IoT devices with restricted computing resources, energy, and memory. Physical layer security that utilizes channel characteristics is an often used solution because it is simpler and more efficient than classical cryptographic systems. In this paper, we propose a signal strength exchange (SSE) system as an efficient key generation system and a synchronized quantization (SQ) method as a part of the SSE system that synchronizes data blocks in the quantization phase. The SQ method eliminates the signal pre-processing phase by performing a multi-bit conversion directly from the channel characteristics of the measurement results. Synchronization is carried out between the two authorized nodes to ensure sameness of the produced keys so it can eliminate the error-correcting phase. The test results at the IoT devices equipped with IEEE 802.11 radio show that SSE system is more efficient in terms of computing time and communication overhead than existing systems.
scite is a Brooklyn-based organization that helps researchers better discover and understand research articles through Smart Citations–citations that display the context of the citation and describe whether the article provides supporting or contrasting evidence. scite is used by students and researchers from around the world and is funded in part by the National Science Foundation and the National Institute on Drug Abuse of the National Institutes of Health.