Real-time Monitoring of Cellular Cultures with Electrolyte-gated Carbon Nanotube Transistors

Cell-based biosensors constitute a fundamental tool in biotechnology, and their relevance has greatly increased in recent years as a result of a surging demand for reduced animal testing and for high-throughput and cost-effective in vitro screening platforms dedicated to environmental and biomedical...

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Veröffentlicht in:arXiv.org 2019-09
Hauptverfasser: Scuratti, Francesca, Bonacchini, Giorgio E, Bossio, Caterina, Salazar-Rios, Jorge M, Talsma, Wytse, Loi, Maria A, Antognazza, Maria R, Caironi, Mario
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container_title arXiv.org
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creator Scuratti, Francesca
Bonacchini, Giorgio E
Bossio, Caterina
Salazar-Rios, Jorge M
Talsma, Wytse
Loi, Maria A
Antognazza, Maria R
Caironi, Mario
description Cell-based biosensors constitute a fundamental tool in biotechnology, and their relevance has greatly increased in recent years as a result of a surging demand for reduced animal testing and for high-throughput and cost-effective in vitro screening platforms dedicated to environmental and biomedical diagnostics, drug development and toxicology. In this context, electrochemical/electronic cell-based biosensors represent a promising class of devices that enable long-term and real-time monitoring of cell physiology in a non-invasive and label-free fashion, with a remarkable potential for process automation and parallelization. Common limitations of this class of devices at large include the need for substrate surface modification strategies to ensure cell adhesion and immobilization, limited compatibility with complementary optical cell-probing techniques, and need for frequency-dependent measurements, which rely on elaborated equivalent electrical circuit models for data analysis and interpretation. We hereby demonstrate the monitoring of cell adhesion and detachment through the time-dependent variations in the quasi-static characteristic current curves of a highly stable electrolyte-gated transistor, based on an optically transparent network of printable polymer-wrapped semiconducting carbon-nanotubes.
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subjects Biocompatibility
Biosensors
Carbon nanotubes
Cell adhesion
Cell adhesion & migration
Circuits
Data analysis
Electrolytes
Monitoring
Physics - Biological Physics
Physics - Instrumentation and Detectors
Quantitative Biology - Quantitative Methods
Real time
Semiconductor devices
Static characteristics
Substrates
Time dependence
Toxicology
Transistors
title Real-time Monitoring of Cellular Cultures with Electrolyte-gated Carbon Nanotube Transistors
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