Document Type
Conference Paper
Publication Date
7-2018
Publication Title
Proceedings of the USENIX Annual Technical Conference (USENIX ATC)
Department
Department of Computer Science
Abstract
The proliferation of applications that handle sensitive user data on wearable platforms generates a critical need for embedded systems that offer strong security without sacrificing flexibility and long battery life. To secure sensitive information, such as health data, ultra-low-power wearables must isolate applications from each other and protect the underlying system from errant or malicious application code. These platforms typically use microcontrollers that lack sophisticated Memory Management Units (MMU). Some include a Memory Protection Unit (MPU), but current MPUs are inadequate to the task, leading platform developers to software-based memory-protection solutions. In this paper, we present our memory isolation technique, which leverages compiler inserted code and MPU-hardware support to achieve better runtime performance than software-only counterparts.
Original Citation
Taylor Hardin, Ryan Scott, Patrick Proctor, Josiah Hester, Jacob Sorber, and David Kotz. Application Memory Isolation on Ultra-Low-Power MCUs. In Proceedings of the USENIX Annual Technical Conference (USENIX ATC), July 2018.
Dartmouth Digital Commons Citation
Hardin, Taylor; Scott, Ryan; Proctor, Patrick; Hester, Josiah; Sorber, Jacob; and Kotz, David, "Application Memory Isolation on Ultra-Low-Power Mcus" (2018). Dartmouth Scholarship. 3317.
https://digitalcommons.dartmouth.edu/facoa/3317