Over the past few decades, embedded systems, like those in spacecraft and aircraft, have
evolved into complex distributed systems with hundreds of nodes and dozens of network …

Real-time embedded systems perform many important functions in the modern world. A
standard way to tolerate faults in these systems is with Byzantine fault-tolerant (BFT) state …

Designers are increasingly using mixed-criticality networks in embedded systems to reduce
size, weight, power, and cost. Perhaps the most successful of these technologies is Time …

Byzantine fault-tolerant (BFT) state-machine replication offers resilience against a wide
spectrum of faults including hardware crashes, software failures, and attacks. Unfortunately …

Critical real-time systems like spacecraft and aircraft commonly use Byzantine fault-tolerant
(BFT) state machine replication (SMR) to mask faulty processors and sensors. Unfortunately …

This paper presents the first critical analysis of building highly secure, performant, and
confidential Byzantine fault-tolerant (BFT) consensus by integrating off-the-shelf crash fault …

Malicious and coordinated attacks are happening increasingly often, and have targeted
critical systems such as nuclear plants, public transportation systems, hospitals and …

Critical infrastructures have to withstand advanced and persistent threats, which can be
addressed using Byzantine fault tolerant state-machine replication (BFT-SMR). In practice …

Minimizing end-to-end latency in geo-replicated systems usually makes it necessary to
compromise on resilience, resource efficiency, or throughput performance, because existing …

Many embedded systems, such as in cars, use a network to coordinate control actions in
real time. Usually, the system doesn't employ an Ethernet network but rather a specialized …