This study presents an enhanced CMOS-compatible process for fabricating silicon nanowire FET sensors, achieving minimal sensor-to-sensor variations and improved sensitivity for potential diagnostic applications.

This research compares FET and BJT transducers in electrochemical sensors, demonstrating that BJT sensors offer superior signal-to-noise ratios and sensitivity, beneficial for mobile sensing applications.

This paper discusses the design and testing of a microfabricated Coulter counter for precise particle size measurement, utilizing coplanar electrodes to achieve accurate sizing with reduced error.

The work demonstrates an on-chip multiplexed multichannel resistive pulse sensor employing frequency division multiplexing to enhance throughput in microparticle counting.

This publication presents the design and testing of a multiplexed multichannel Coulter counter that uses amplitude modulation to achieve high-throughput microparticle counting.

This study evaluates plasma-induced damage to atomic layer carbon materials, comparing conventional and low electron temperature plasma sources.

The research proposes a selective PMMA removal method from block copolymers using gas pulsing cyclic etching with carbon monoxide-based plasmas.

This article explores the use of ionic liquids in droplet-based microgrippers, suitable for high-temperature and vacuum environments, for micro-object manipulation.

The paper develops a process based on discrete wavelet transforms for denoising and baseline correction of signals from Coulter counters, enhancing measurement accuracy.

This study demonstrates a high-throughput, all-electronic Coulter-type sensor with multiple sensing microapertures for detecting and counting microscale particles and pollen.