Odorant Sensor Using Olfactory Receptor Reconstituted in a Lipid Bilayer Membrane with Gas Flow System

Tetsuya Yamada, Hirotaka Sugiura, Hisatoshi Mimura, K. Kamiya, T. Osaki, S. Takeuchi
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Abstract

This work describes a gas flow system for an odorant sensor based on a droplet interface bilayer (DIB) device. In the previous study, the olfactory receptor (OR) was reconstituted in DIB device and odorant, 1-octen-3-ol (octenol), was successfully detected. As a next challenge, we aimed at the continuous monitoring of odorant. Here, we designed a gas flow pathway at the bottom of the droplet forming the bilayer, to effectively absorb the gas into the aqueous phase. The pathway consisted of a microchannel and a slit-structure at the bottom of a well that kept the droplet on top. This gas flow system was integrated as a 16-ch DIB device. By sequentially infusing the octenol gas and air into the channel, we confirmed the increase and decrease of octenol concentration in the droplet. Thus, the designed system was able to absorb and exchange odorant in the droplet. Remarkably, the controlled gas flow stirred inside the droplet, resulting in promoting the gas absorption.
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基于脂质双层膜与气体流动系统中嗅觉受体的气味传感器
本文描述了一种基于液滴界面双层(DIB)装置的气味传感器气体流动系统。在之前的研究中,我们在DIB装置中重建了嗅觉受体(OR),并成功检测到气味剂- 1-辛烯醇(octenol)。作为下一个挑战,我们的目标是持续监测气味。在这里,我们在形成双分子层的液滴底部设计了一个气体流动通道,以有效地将气体吸收到水相中。该通道由一个微通道和一个位于井底的裂缝结构组成,该裂缝结构使液滴保持在顶部。该气体流动系统集成为一个16-ch DIB设备。通过将辛烯醇气体和空气依次注入通道,我们证实了微滴中辛烯醇浓度的增减。因此,所设计的系统能够吸收和交换液滴中的气味。值得注意的是,受控气流在液滴内部搅拌,从而促进了气体的吸收。
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