Date of Award
5-2023
Document Type
Thesis
Degree Name
Master of Science (MS)
College/School
College of Science and Mathematics
Department/Program
Computer Science
Thesis Sponsor/Dissertation Chair/Project Chair
Jiacheng Shang
Committee Member
Bharath Samanthula
Committee Member
John Jenq
Abstract
Today's wireless networks (Wi-Fi) handle more significant numbers of connections, deploy efficiently, and provide increased reliability and high speeds at low cost. The ability of rogue access points (RAPs) to mimic legitimate APs makes them the most critical threat to wireless security. APs are found in coffee shops, supermarkets, stadiums, buses, trains, airports, hospitals, theaters, and shopping malls.
Rogue access points (RAP) are unauthorized devices that connect to legitimate access points and networks and bypass authorized security procedures. RAP detection has been attempted using hardware and software-based solutions requiring the developing of dedicated tools or beacon frame modification. (Arisandi, 2021). The effectiveness of software-based tools such as Aircrack-ng, Kismet, and InSSIDER is diminished as customized configurations are required for each environment. (VanSickle, 2019).
Channel State Information (CSI) are characteristics of the communication link between a Wi-Fi transmitter and receiver and facilitates reliable communication in multi-antenna systems. The data contained in CSI can be analyzed and used to detect motion and activity based on interference in the line of sight (LoS) between the transmitter and receiver. CSI has been used to recognize human activity (Wang, 2015) and recognize differences in gaits based on the speed of motion (Wang, 2016).
This paper proposes identifying RAPs by detecting differences in CSI characteristics due to interference in the (LoS) path between the Wi-Fi transmitter and the receiver.
File Format
Recommended Citation
McGinniss, Irene, "The Identification of Rogue Access Points Using Channel State Information" (2023). Theses, Dissertations and Culminating Projects. 1326.
https://digitalcommons.montclair.edu/etd/1326