Label-Free Flexible DNA Biosensing System Using Low-Temperature Solution-Processed In-Zn-O Thin-Film Transistors

We investigated a novel deoxyribonucleic acid (DNA) sensing system based on low-temperature solution-processed In-Zn-O (IZO) thin-film transistors (TFTs) suggesting an alternative evolutionary line to the traditional DNA biosensors. The IZO TFTs exhibited a favorable microenvironment for adsorbed bi...

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Veröffentlicht in:IEEE transactions on electron devices 2017-02, Vol.64 (2), p.515-520
Hauptverfasser: Joohye Jung, Si Joon Kim, Tae Soo Jung, Jaewon Na, Doo Hyun Yoon, Sabri, Mardhiah Muhamad, Hyun Jae Kim
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container_title IEEE transactions on electron devices
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creator Joohye Jung
Si Joon Kim
Tae Soo Jung
Jaewon Na
Doo Hyun Yoon
Sabri, Mardhiah Muhamad
Hyun Jae Kim
description We investigated a novel deoxyribonucleic acid (DNA) sensing system based on low-temperature solution-processed In-Zn-O (IZO) thin-film transistors (TFTs) suggesting an alternative evolutionary line to the traditional DNA biosensors. The IZO TFTs exhibited a favorable microenvironment for adsorbed biomolecule such as DNA to transfer electron, which emerges potential sensing behavior. Superior sensing ability to detect and distinguish 0.45 μL of 0.1 μM of target DNA oligomers was secured, and indeed selectivity based on oxidation potentials of each oligomer was achieved. Our IZO TFT had a turn-on voltage (V ON ) of -1.2 V, on/off ratio of 3.55 × 10 6 , and on-current (I ON ) value of 9.02 μA in pristine condition. A dry-wet method was applied to immobilize target DNA oligomers on the IZO surface, after which we observed a negative shift of the transfer curve accompanied by a significant increase in the I ON and the degradation of the V ON and ON/OFF ratio. Furthermore, the variances in these parameters became increasingly severe following the concentration of target DNA. In addition, the sensing mechanism, oxidation of DNA that had been figured out in our previous research offered selectivity in different types of oligomer based on their capabilities to be oxidized; our biosensors were more sensitive to guanine and cytosine compared with adenine. The biosensor applied on a flexible substrate under the same fabrication conditions obtained exactly analogous sensing behavior. These results suggest a prominent candidate to conventional biosensor area and also its posterior applications by demonstrating remarkable sensitivity, selectivity, and feasibility of flexible device.
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The IZO TFTs exhibited a favorable microenvironment for adsorbed biomolecule such as DNA to transfer electron, which emerges potential sensing behavior. Superior sensing ability to detect and distinguish 0.45 μL of 0.1 μM of target DNA oligomers was secured, and indeed selectivity based on oxidation potentials of each oligomer was achieved. Our IZO TFT had a turn-on voltage (V ON ) of -1.2 V, on/off ratio of 3.55 × 10 6 , and on-current (I ON ) value of 9.02 μA in pristine condition. A dry-wet method was applied to immobilize target DNA oligomers on the IZO surface, after which we observed a negative shift of the transfer curve accompanied by a significant increase in the I ON and the degradation of the V ON and ON/OFF ratio. Furthermore, the variances in these parameters became increasingly severe following the concentration of target DNA. In addition, the sensing mechanism, oxidation of DNA that had been figured out in our previous research offered selectivity in different types of oligomer based on their capabilities to be oxidized; our biosensors were more sensitive to guanine and cytosine compared with adenine. The biosensor applied on a flexible substrate under the same fabrication conditions obtained exactly analogous sensing behavior. 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In addition, the sensing mechanism, oxidation of DNA that had been figured out in our previous research offered selectivity in different types of oligomer based on their capabilities to be oxidized; our biosensors were more sensitive to guanine and cytosine compared with adenine. The biosensor applied on a flexible substrate under the same fabrication conditions obtained exactly analogous sensing behavior. 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In addition, the sensing mechanism, oxidation of DNA that had been figured out in our previous research offered selectivity in different types of oligomer based on their capabilities to be oxidized; our biosensors were more sensitive to guanine and cytosine compared with adenine. The biosensor applied on a flexible substrate under the same fabrication conditions obtained exactly analogous sensing behavior. These results suggest a prominent candidate to conventional biosensor area and also its posterior applications by demonstrating remarkable sensitivity, selectivity, and feasibility of flexible device.</abstract><cop>New York</cop><pub>IEEE</pub><doi>10.1109/TED.2016.2635155</doi><tpages>6</tpages><orcidid>https://orcid.org/0000-0002-6879-9256</orcidid></addata></record>
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subjects Amorphous oxide semiconductor (AOS)
Biosensors
deoxyribonucleic acid (DNA) biosensor
DNA
Electron transfer
Ethanol
Fabrication
label-free method
solution process
Substrates
Thin film transistors
thin-film transistor (TFT)
title Label-Free Flexible DNA Biosensing System Using Low-Temperature Solution-Processed In-Zn-O Thin-Film Transistors
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