Intermittent computing (ImC) refers to the scenario where periods of program execution are
separated by reboots. ImC systems are generally powered by energy-harvesting (EH) …

With the advent of ultra-low-power embedded processors, energy harvesting devices
(EHDs) are becoming exceedingly prevalent. These devices are highly portable, self …

This paper introduces power failure immunity (PFI), an essential program execution property
for energy harvesting systems to achieve efficient intermittent computation. PFI ensures …

Intermittently powered energy-harvesting devices enable new applications in inaccessible
environments. Program executions must be robust to unpredictable power failures …

Current peripheral execution approaches for intermittently powered systems require full
access to the internal hardware state for checkpointing or rely on application-level energy …

Energy harvesting systems have emerged as an alternative to battery-operated Internet of
Things (IoT) devices. To deal with frequent power outages in the absence of battery, energy …

The main obstacles to achieve truly ubiquitous sensing are (i) the limitations of battery
technology-batteries are short-lived, hazardous, bulky, and costly-and (ii) the unpredictability …

Abstract Battery-powered, ultra-low-power embedded devices are often limited by the size
and maintenance costs of batteries, giving rise to battery-less devices and the emergence of …

Self-powered intermittent systems typically adopt runtime checkpointing as a means to
accumulate computation progress across power cycles and recover system status from …

Energy harvesting (EH)-powered sensor nodes can achieve theoretically unlimited lifetime
by scavenging energy from ambient power sources, such as radio-frequency (RF) and …