A sub-nanowatt oscillator is described. The oscillator is intended for a wake-up timer for remote sensors and hence trades frequency accuracy for reduced power consumption. It is constructed from a five-stage ring of inverters in which the switching speed is reduced using transistors that are always-off, or starved. Fabricated in a 0.35 μm process, the oscillator and its active load dissipate 80 pW at 1.5 Hz from a 1 V supply at 22°C.J.A. Kitchener and B.J. Phillip
This paper presents a wakeup timer in 40-nm CMOS for Internet-of-Things (IoT) applications based on ...
This book investigates the possible circuit solutions to overcome the temperature- and supply voltag...
There is growing demand for circuits that can provide ever greater performance from a minimal power...
Integrated low-frequency oscillators can replace crystal oscillators as sleep-mode timers to reduce ...
In this paper, a pW-power relaxation oscillator for sensor node applications is presented. The propo...
In this paper, two circuit topologies of pW-power Hz-range wake-up oscillators for sensor node appli...
This work presents an ultra-low power oscillator designed to target different contexts, such as crys...
Aggressively duty-cycling the operation of a system between ON and OFF states has proven to be the m...
The miniaturisation of electronic circuits allows the potential for new applications, such as smart-...
A pW-power versatile relaxation oscillator operating from sub-threshold (0.3V) to nominal voltage (1...
This thesis presents an ultra-low power wakeup timer locked to an RC time constant that can meet the...
Recent work in ultra-low-power sensor platforms has enabled a number of new applications in medical,...
A 40-nm CMOS wakeup timer employing a bang-bang digital-intensive frequency-locked loop for Internet...
The combination of ultra-low power analog front-ends and CMOS-compatible transducers enable new appl...
Extreme energy constraints inherent in many exciting new wireless sensing applications (such as [1-3...
This paper presents a wakeup timer in 40-nm CMOS for Internet-of-Things (IoT) applications based on ...
This book investigates the possible circuit solutions to overcome the temperature- and supply voltag...
There is growing demand for circuits that can provide ever greater performance from a minimal power...
Integrated low-frequency oscillators can replace crystal oscillators as sleep-mode timers to reduce ...
In this paper, a pW-power relaxation oscillator for sensor node applications is presented. The propo...
In this paper, two circuit topologies of pW-power Hz-range wake-up oscillators for sensor node appli...
This work presents an ultra-low power oscillator designed to target different contexts, such as crys...
Aggressively duty-cycling the operation of a system between ON and OFF states has proven to be the m...
The miniaturisation of electronic circuits allows the potential for new applications, such as smart-...
A pW-power versatile relaxation oscillator operating from sub-threshold (0.3V) to nominal voltage (1...
This thesis presents an ultra-low power wakeup timer locked to an RC time constant that can meet the...
Recent work in ultra-low-power sensor platforms has enabled a number of new applications in medical,...
A 40-nm CMOS wakeup timer employing a bang-bang digital-intensive frequency-locked loop for Internet...
The combination of ultra-low power analog front-ends and CMOS-compatible transducers enable new appl...
Extreme energy constraints inherent in many exciting new wireless sensing applications (such as [1-3...
This paper presents a wakeup timer in 40-nm CMOS for Internet-of-Things (IoT) applications based on ...
This book investigates the possible circuit solutions to overcome the temperature- and supply voltag...
There is growing demand for circuits that can provide ever greater performance from a minimal power...