Precise Node Authentication using Dynamic Session Key Set and Node Pattern Analysis for Malicious Node Detection in Wireless Sensor Networks
DOI:
https://doi.org/10.22399/ijcesen.613Keywords:
Wireless Sensor Networks, Node Information, Node Authentication, Network SecurityAbstract
A Wireless Sensor Network (WSN) is a network of low-power, networked sensors that may gather data for a range of applications. These networks rely heavily on energy and security considerations that are essential to their administration. Lightweight cryptography procedures are necessary to attain high levels of security in WSNs because the conventional security approaches are inappropriate due to the restricted resources of the nodes. Topology maintenance and attack protection for individual sensor nodes is impractical. When it comes to monitoring and data collecting, WSNs are frequently used in unattended and hostile environments. Deploying sensor nodes in such an environment leaves the sensor network vulnerable to malicious node insertion since it lacks physical protection. The next step is for an attacker to use malicious nodes to perform a variety of attacks that disrupt network connectivity. In these types of attacks, the malicious node pretends to be a legitimate node by dropping packets at random to evade detection. There are a lot of systems out there for detecting malicious nodes, but only limited models can actually identify assaults. A plethora of sensors and actuators are necessary to enable the automation of modern industrial processes. Prevention of authenticity fraud and non-repudiation is crucial for building trust and identifying data errors in this network. An effective asymmetric-key-based security mechanism is proposed in this paper for distributed cooperative networks that allows all nodes, including the gateway, to establish authentication and non-repudiation with different session keys that can be used for one time usage for authentication and for data security. Assuming there are no malevolent nodes, the approach also provides anonymity and confidentiality. Authentication and non-repudiation are still intact in the event that a single node is hacked. There will be little effect even if additional nodes are compromised. Using the authentication mechanism, this main security architecture prevents incursion from external hostile nodes. This research proposes a Precise Node Authentication using Dynamic Session Key Set and Node Pattern Analysis for Malicious Node Detection (PNA-DSKS-NPA-MND) that is used for accurate node authentication and also for malicious node detection to increase the Quality of Service (QoS) levels in WSN. The proposed model when compared with the traditional models exhibits better performance in node authentication accuracy and also in detection of malicious nodes in the WSN.
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