电容性ECG生物电极用聚二甲基硅氧烷介电膜的表征

A. H. Umar, F. Harun, Yusmeeraz Yusof
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摘要

电容式ECG生物电极具有可穿戴和长期生理监测应用的潜力。在非接触式心电记录中,介质材料限制了生物电信号的顺利采集。以前使用的电介质是刚性的。,与皮肤不贴合,诱发伪影和摩擦电噪声。当它们吸收皮肤渗出物时就会变得不稳定。最近。在美国,像PDMS这样的聚合物材料由于具有生物相容性而获得了不同的生物医学应用。、灵活。,易于制作。然而。在美国,它作为电容式心电感应介质的使用报道很少。在这项研究中。通过改变道康宁公司Sylgard 184™有机硅弹性体与交联剂的比例,制备了15个不同厚度的PDMS薄膜样品。,并手动沉积在丙烯酸玻璃基板上。利用组成比和厚度来调节薄膜的结构和介电性能。采用平行极板法测量了各介质膜对电容的影响。的相对介电常数也得到了相应的值。结果表明,组成比为10:2的PDMS薄膜的电容和相对介电常数最大。相比之下。厚度为0.14 mm的薄膜电容值最高,为31 pF。记录的电容值证明了PDMS介质作为容性心电生物电极的可行性。
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Characterization of Polydimethylsiloxane Dielectric Films for Capacitive ECG Bioelectrodes
Capacitive ECG bioelectrodes are potentials for wearable and long-term physiological monitoring applications. In non-contact ECG recordings, the dielectric material sets limit to smooth bioelectric signal acquisition. Previously used dielectrics are rigid., unconformable on the skin, induce artifact and triboelectric noise., and becomes unstable when they absorb skin exudates. Recently., polymeric materials such as PDMS have gained different biomedical applications because it is biocompatible., flexible., and easy to fabricate. However., its use as a dielectric for capacitive ECG sensing is poorly reported. In this study., 15 samples of thin PDMS films of various thicknesses were fabricated by varying the proportion of the Sylgard 184™ silicone elastomer to the crosslinker from Dow Corning Corporation., and manually deposited on acrylic glass substrates. The composition ratio and thickness were used to tune the structure and dielectric properties of the films. The effects on the capacitance generated by each dielectric film were measured using the parallel plate method., and their corresponding values of relative permittivity was also estimated. The results obtained reveal that PDMS films made from a composition ratio of 10:2 yielded the maximum capacitance and relative permittivity. In contrast., the film with 0.14 mm thickness revealed the highest value of capacitance (31 pF). The recorded values of capacitance demonstrate the feasibility of PDMS dielectrics for capacitive ECG bioelectrodes.
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