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Investigation of a cation exchange membrane comprising Sulphonated Poly Ether Ether Ketone and Sulphonated Titanium Nanotubes in Microbial Fuel Cell and preliminary insights on microbial adhesion

机译:在微生物燃料电池中对磺化聚醚醚酮和磺化钛纳米管的阳离子交换膜的研究及微生物粘附的初步见解

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摘要

Hydrothermally synthesized Titanium Nanotubes (TNTs) are sulphonated and characterized to confirm their morphological, physical and chemical characteristics. Different weight percentages (2.5, 5, 7.5 and 10 wt%) of Sulphonated TNTs (S-TNTs) are introduced into Sulphonated Poly Ether Ether Ketone (SPEEK) where the negative channels that form with the aid of sulphonic acid groups play an essential criterion for the improved proton conductivity and better water holding capacity. A tubular-designed Microbial Fuel Cell (MFC) of 300 mL volume is fabricated to test the potentiality of the self-assembled inorganic and functionalized Titanium nano tubes incorporated SPEEK membranes. SPEEK + 7.5% S-TNT exhibits a maximum power density of 121 mW m(-2) with higher ion exchange capacity of 3.2 meq g(-1) and lower internal resistance of 30 Omega. Biofouling investigation after 3 weeks of operation reveals that the optimized membrane displays better proton conductivity with an electrochemically stable biofilm without deteriorating the essential membrane characteristics. Preliminary microbial studies reveal the dominance of gram negative bacteria accelerating the rate of enriched extra-electrogen transfer (EET) to the anode enabling better MFC performance.
机译:水热合成的钛纳米管(TNT)是磺化的,其特征在于证实它们的形态学,物理和化学特性。将不同的重量百分比(2.5,5,7.5和10wt%)磺化TNT(S-TNT)引入磺化聚醚醚酮(Speek)中,其中借助于磺酸基团形成的负通道起到基本标准为了改善质子电导率和更好的水持续容量。制造了管状设计的微生物燃料电池(MFC),以测试自组装无机和官能化钛纳米管的潜力掺入Speek膜。 Speek + 7.5%S-TNT的最大功率密度为121毫瓦(-2),具有3.2 meq g(-1)的离子交换容量,其内部电阻较低。在3周的操作后生物污垢研究表明,优化的膜在没有劣化的必要膜特性的情况下显示出更好的质子电导率。初步微生物研究揭示了革兰氏阴性细菌的优势,加速富集的超热传递(EET)对阳极的速率,从而实现更好的MFC性能。

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