Determining the major noise sources in nanoscale field-effect transistor (nanoFET) biosensors is critical for improving bioelectronic interfaces. We use the carbon nanotube (CNT) FET biosensor platform to examine the noise generated by substrate interactions and surface adsorbates, both of which are present in current nanoFET biosensors. The charge noise model is used as a quantitative framework to show that insulating substrates and surface adsorbates are both significant contributors to the noise floor of CNT FET biosensors. Removing substrate interactions and surface adsorbates reduces the power spectral density of background voltage fluctuations by 19-fold
103 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 2009.Chemical and electrical prope...
Noise can help signal detection at the nano–level. Experiments on a single–walled carbon nanotube tr...
Abstract—A new sensing metric is proposed for a field-effect transistor (FET)-based biosensor. As pr...
Graduation date: 2015Low-dimensional electronic materials offer a platform to observe biological pro...
Single molecule biosensing techniques offer unique advantages and opportunities for basic biological...
The adsorption-desorption (AD) noise in nanowire FET biosensors is analyzed, which manifests itself ...
The adsorption-desorption (AD) noise in nanowire FET biosensors is analyzed, which manifests itself ...
The adsorption-desorption (AD) noise in nanowire FET biosensors is analyzed, which manifests itself ...
Abstract—We report the experimental study of noise in electrochemical biosensors as related to volta...
DC and intrinsic low-frequency noise properties of p-channel depletion-mode carbon nanotube field ef...
Graduation date: 2011As electronics reach nanometer size scales, new avenues of integrating biology ...
We calculate the amplitude of the random-telegraph-signal (RTS) noise due to a single charged defect...
Low frequency noise measurements have been performed on a single-wall carbon nanotube connected by T...
We report on the 1/f noise in various ballistic carbon nanotube devices. A common means to character...
Carbon nanotube transistors show tremendous potential for electronic detection of biomolecules in so...
103 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 2009.Chemical and electrical prope...
Noise can help signal detection at the nano–level. Experiments on a single–walled carbon nanotube tr...
Abstract—A new sensing metric is proposed for a field-effect transistor (FET)-based biosensor. As pr...
Graduation date: 2015Low-dimensional electronic materials offer a platform to observe biological pro...
Single molecule biosensing techniques offer unique advantages and opportunities for basic biological...
The adsorption-desorption (AD) noise in nanowire FET biosensors is analyzed, which manifests itself ...
The adsorption-desorption (AD) noise in nanowire FET biosensors is analyzed, which manifests itself ...
The adsorption-desorption (AD) noise in nanowire FET biosensors is analyzed, which manifests itself ...
Abstract—We report the experimental study of noise in electrochemical biosensors as related to volta...
DC and intrinsic low-frequency noise properties of p-channel depletion-mode carbon nanotube field ef...
Graduation date: 2011As electronics reach nanometer size scales, new avenues of integrating biology ...
We calculate the amplitude of the random-telegraph-signal (RTS) noise due to a single charged defect...
Low frequency noise measurements have been performed on a single-wall carbon nanotube connected by T...
We report on the 1/f noise in various ballistic carbon nanotube devices. A common means to character...
Carbon nanotube transistors show tremendous potential for electronic detection of biomolecules in so...
103 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 2009.Chemical and electrical prope...
Noise can help signal detection at the nano–level. Experiments on a single–walled carbon nanotube tr...
Abstract—A new sensing metric is proposed for a field-effect transistor (FET)-based biosensor. As pr...