This paper studies the principle of a novel voltage step-up converter based on a micromachined variable parallel-plate capacitor in combination with an electrostatic actuator. Electrical equivalent circuit and system-level SIMULINK models have been developed. Based on these models, an analysis of design parameters and expected device performance has been performed to serve as a starting point for a prototype implementation. Possible areas of application are self-powered, stand-alone sensing systems, aerospace applications and any kind of electrostatic or piezoelectric MEMS devices in general.status: publishe
As a powerful method to reduce actuation voltage in an electrostatic micro-actuator, we propose and ...
This paper describes the analysis, simulation and testing of a microengineered motion-driven power g...
This paper provides new investigation for the static and dynamic behavior of a MEMS parallel plate c...
This paper studies the principle of a novel voltage step-up converter based on a micromachined vari...
This paper studies the principle of a voltage step-up converter based on a micromachined variable pa...
International audienceThis paper presents a theoretical study of a novel MEMS approach to dc voltage...
ISBN 978-1-4244-6806-5International audienceThis paper presents a new MEMS approach to dc voltage st...
This paper presents a comprehensive analysis of a MEMS voltage step-up converter for energy harvesti...
peer reviewedThis paper presents a comprehensive analysis of voltage step-up converters for energy h...
International audienceThis paper is about the validation of minimal electronic structure developed a...
ISBN 978-1-4398-3402-2International audienceIn this paper, we present the modelling, the design, and...
A micromechanical moving plate capacitor has been designed and fabricated for use as the key compone...
This thesis explores high voltage converter circuits for MEMS applications using micromachined devic...
A micromechanical silicon device suitable for DC-DC voltage up-conversion is investigated theoretica...
A micromechanical moving plate capacitor has been designed and fabricated for use as a dc voltage re...
As a powerful method to reduce actuation voltage in an electrostatic micro-actuator, we propose and ...
This paper describes the analysis, simulation and testing of a microengineered motion-driven power g...
This paper provides new investigation for the static and dynamic behavior of a MEMS parallel plate c...
This paper studies the principle of a novel voltage step-up converter based on a micromachined vari...
This paper studies the principle of a voltage step-up converter based on a micromachined variable pa...
International audienceThis paper presents a theoretical study of a novel MEMS approach to dc voltage...
ISBN 978-1-4244-6806-5International audienceThis paper presents a new MEMS approach to dc voltage st...
This paper presents a comprehensive analysis of a MEMS voltage step-up converter for energy harvesti...
peer reviewedThis paper presents a comprehensive analysis of voltage step-up converters for energy h...
International audienceThis paper is about the validation of minimal electronic structure developed a...
ISBN 978-1-4398-3402-2International audienceIn this paper, we present the modelling, the design, and...
A micromechanical moving plate capacitor has been designed and fabricated for use as the key compone...
This thesis explores high voltage converter circuits for MEMS applications using micromachined devic...
A micromechanical silicon device suitable for DC-DC voltage up-conversion is investigated theoretica...
A micromechanical moving plate capacitor has been designed and fabricated for use as a dc voltage re...
As a powerful method to reduce actuation voltage in an electrostatic micro-actuator, we propose and ...
This paper describes the analysis, simulation and testing of a microengineered motion-driven power g...
This paper provides new investigation for the static and dynamic behavior of a MEMS parallel plate c...