0000000000519345

AUTHOR

Shuangshuang Zeng

0000-0002-7584-6479

showing 2 related works from this author

Generalized Noise Study of Solid-State Nanopores at Low Frequencies.

2017

Nanopore technology has been extensively investigated for analysis of biomolecules, and a success story in this field concerns DNA sequencing using a nanopore chip featuring an array of hundreds of biological nanopores (BioNs). Solid-state nanopores (SSNs) have been explored to attain longer lifetime and higher integration density than what BioNs can offer, but SSNs are generally considered to generate higher noise whose origin remains to be confirmed. Here, we systematically study low-frequency (including thermal and flicker) noise characteristics of SSNs measuring 7 to 200 nm in diameter drilled through a 20-nm-thick SiNx membrane by focused ion milling. Both bulk and surface ionic curren…

noiseta221Analytical chemistryIonic bondingBioengineering02 engineering and technologyElectrolyte010402 general chemistry01 natural sciencesNoise (electronics)Flicker noiseInstrumentationFluid Flow and Transfer Processesta114ChemistryProcess Chemistry and TechnologyFlicker021001 nanoscience & nanotechnology0104 chemical sciencesNanoporenanopore technologyChemical physicssolid-state nanoporesIon milling machine0210 nano-technologyVoltageACS sensors
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A generalized noise study of solid-state nanopores at low frequencies

2017

Nanopore technology has been extensively investigated for analysis of biomolecules, and a success story in this field concerns DNA sequencing using a nanopore chip featuring an array of hundreds of biological nanopores (BioNs). Solid-state nanopores (SSNs) have been explored to attain longer lifetime and higher integration density than what BioNs can offer, but SSNs are generally considered to generate higher noise whose origin remains to be confirmed. Here, we systematically study low-frequency (including thermal and flicker) noise characteristics of SSNs measuring 7 to 200 nm in diameter drilled through a 20-nm-thick SiNx membrane by focused ion milling. Both bulk and surface ionic curren…

nanopore technologysolid-state nanoporesmelu
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