Reliable Security Algorithm for Drones Using Individual Characteristics From an EEG Signal

Abstract
Unmanned aerial vehicles (UAVs) have been applied for both civilian and military applications; scientific research involving UAVs has encompassed a wide range of scientific study. However, communication with unmanned vehicles are subject to attack and compromise. Such attacks have been reported as early as 2009, when a Predator UAV’s video stream was compromised. Since UAVs extensively utilize autonomous behavior, it is important to develop an autopilot system that is robust to potential cyber-attack. In this work, we present a biometric system to encrypt communication between a UAV and a computerized base station. This is accomplished by generating a key derived from a user’s EEG Beta component.We first extract coefficients from Beta data using Legendre’s polynomials.We perform encoding of the coefficients using BCH encoding and then generate a key from a hash function. The key is used to encrypt the communication between XBees. Also we have introduced scenarios where the communication is attacked. When communication with a UAV is attacked, a safety mechanism directs the UAV to a safe “home” location. This system has been validated on a commercial UAV under malicious attack conditions.
Funding Information
  • National Aeronautics and Space Administration (NASA) issued through the Nevada NASA Space (NNX10AN23H)
  • Nevada NASA Research Infrastructure Development Seed Grant (NNX15AI02H)
  • National Science Foundation (IIS-1528137)

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