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Comparison of the Extended Gate Field-Effect Transistor with Direct Potentiometric Sensing for Super-Nernstian InN/InGaN Quantum Dots

Lujia Rao, Peng Wang, Yinping Qian, Guofu Zhou, R. Nötzel

2020ACS Omega25 citationsDOIOpen Access PDF

Abstract

to 0.1 M KCl aqueous solutions. The sensitivity and linearity are reproduced for the EGFET and direct open-circuit potential (OCP) readout. The EGFET noise in the saturated regime is smaller than the OCP noise, while the EGFET noise in the linear regime is largest. This highlights EGFET operation in the saturated regime for most precise measurements and the lowest limit of detection and the lowest limit of quantification, which is attributed to the low-impedance current measurement at a relatively high bias and the large OCP for the InN/InGaN QDs.

Topics & Concepts

LinearityQuantum dotTransistorMaterials scienceDetection limitSensitivity (control systems)Noise (video)Analytical Chemistry (journal)OptoelectronicsField-effect transistorAqueous solutionChemistryVoltagePhysicsElectronic engineeringPhysical chemistryChromatographyQuantum mechanicsComputer scienceImage (mathematics)Artificial intelligenceEngineeringAnalytical Chemistry and SensorsAcoustic Wave Resonator TechnologiesGas Sensing Nanomaterials and Sensors
Comparison of the Extended Gate Field-Effect Transistor with Direct Potentiometric Sensing for Super-Nernstian InN/InGaN Quantum Dots | Litcius