Year
2023
File Attachment
finalpaper_257_0508045220.pdf941.87 KB
Abstract
Next-generation treaty verification will require a wide range of enabling capabilities to support
future transparency in monitoring systems. Trusted capabilities must be developed to support
inspections, monitoring, and confirmation of warheads while protecting sensitive information
such as warhead design and facility operations. Prior trusted system development efforts have
often incorporated information barriers (IBs), which help address host certification concerns
(safety and security of equipment used in host facilities) but make authentication (inspector
process to gain trust in monitoring equipment) challenging. For all but the simplest of
measurements, some type of complex processing device is required to operate the system and
process acquired data. This complexity makes authentication and certification of measurement
systems and collected data challenging and time consuming. To meet that challenge, we present
our development of a general-purpose, extrinsic information barrier that will protect against the
release of sensitive information collected from sensor measurements while providing inspectors
confidence in the measurement results. Our design will use a field programmable gate array
(FPGA) to operate the system, which provides the requisite flexibility for all required operations
while reducing extraneous functionality found in a microprocessor that could potentially be
exploited. By developing hardware that can serve as an information barrier for a range of different
verification measurements, we will eliminate the need to develop authentication and certification
procedures for multiple independent systems. Additionally, because it is reprogrammable, we will
be able to leverage the same IB hardware for systems with different sensors and facilitate the reuse of firmware portions that are more generally applicable (such as waveform processing),
further streamlining authentication and certification procedures.