4卷 第2期
Department of Mechanical Engineering, National University of Singapore,Singapore,117581
纸质出版日期： 2023 ，
Full txt
(2023). Review on Polymer-supported Metal Particles as Catalysts in Microfluidic Fuel Cell. 科技理论与实践（英文版）, 4(2), 10-17.
Hongyan Liu. (2023). Review on Polymer-supported Metal Particles as Catalysts in Microfluidic Fuel Cell. Theory and Practice of Science and Technology, 4(2), 10-17.
(2023). Review on Polymer-supported Metal Particles as Catalysts in Microfluidic Fuel Cell. 科技理论与实践（英文版）, 4(2), 10-17. DOI： 10.47297/taposatWSP2633-456902.20230402.
Hongyan Liu. (2023). Review on Polymer-supported Metal Particles as Catalysts in Microfluidic Fuel Cell. Theory and Practice of Science and Technology, 4(2), 10-17. DOI： 10.47297/taposatWSP2633-456902.20230402.
In modern society
electrical energy is commonly converted by chemical energy
which is essential for various applications. Over time
several techniques involved in converting energy have been investigated
including electricity generator
battery
and fuel cell. Conventional electric generators powered by fossil fuel face challenges related to efficiency because of multiple steps within its energy converting process. On the other hand
batteries also have their limitations
primarily related to density of energies
which is limited by their volume for storing reactants. In contrast
fuel cells represent an anticipated technique for supplying power in the future. This innovative technique takes the strengths of both electricity generator and battery
offering great efficiency of converting energies process and impressive density of energies simultaneously. By directly converting the chemical energy from fuels into electrical energy through an electrochemical process
fuel cells overcome the efficiency and storage limitations associated with traditional generators and batteries. Microfluidic fuel cells (MFFCs) are a category of fuel cells with structure sizes ranging from 1 to 1000 μm. The choice of catalyst material has been demonstrated to affect the efficiency of MFFCs. In recent years
there has been growing interest in utilizing metal nanoparticle/ conductive polymer nanocomposites as catalysts in fuel cells. Conductive polymers have emerged as promising substitutes for traditional carbon-supported catalysts. Thanks to properties of large specific areas
satisfying electrically conductive capabilities
and chemically stable ability in their porous surfaces
it makes polymers attractive for supporting catalysts in fuel cells. When metal nanoparticles (NPs) are incorporated into these conductive polymers in a highly dispersed manner
it maximizes the active surface area available for oxidation and reduction reactions
thereby allowing for low catalyst loading in fuel cell applications. In this study
we aim to explore and discuss recent developments in the field of polymer-supported metal nanoparticles as catalysts for fuel cells. By examining the synergistic effects of conductive polymers and metal NPs
we hope to gain insights into their possibility to improve the efficiency and performance of fuel cell. This research could be an advancement and reference for developing more efficient and sustainable energy conversion technologies.
Microfluidic fuel cellCatalystMetal particlePolymer support
Kjeang, E., Djilali, N., Sinton, D. (2009). Microfluidic fuel cells: A review. Journal of Power Sources, 186(2), 353-69.[2]Shaegh, S. A. M., Nguyen, N. T., Chan, S. H. (2011). A review on membraneless laminar flow-based fuel cells. International Journal of Hydrogen Energy, 36(9), 5675-94. [3]Goulet, M. A., Kjeang, E. (2014). Co-laminar flow cells for electrochemical energy conversion. Journal of Power Sources, 260, 186-96. [4]Nasharudin, M. N., Kamarudin, S. K., Hasran, U. A., Masdar, M. S. (2014). Mass transfer and performance of membrane-less micro fuel cell: A review. International Journal of Hydrogen Energy, 39(2), 1039-55. [5]Rashed, M. K., Mohd Salleh, M. A., Abdulbari, H. A., Shah Ismail, M. H., Izhar, S. (2015). The effects of electrode and catalystselection on microfluidic fuel cell performance. ChemBioEng Reviews, 2(5), 356-72.[6]Kjeang, E., Djilali, N., Sinton, D. (2009). Microfluidic fuel cells: A review. Journal of Power Sources, 186(2), 353-69.[7]Wang, Y., Luo, S., Kwok, H. Y., Pan,W., Zhang, Y., Zhao, X., Leung, D. Y. (2021). Microfluidic fuel cells with different types of fuels: A prospective review. Renewable and sustainable energy reviews, 141, 110806.[8]Fard, L. A., Ojani, R., Raoof, J. B. (2016). Electrodeposition of three-dimensional Pd nanoflowers on a PPy@ MWCNTs with superior electrocatalytic activity for methanol electrooxidation. International Journal of Hydrogen Energy, 41(40), 17987-17994.[9]Jia, X., Guan,Q., Chen,Y., Wang, Y., Zhao, Q., Li,J. (2019). Poly (triazine imide) (PTI) and graphene hybrids supported PtSn catalysts for enhanced electrocatalytic oxidation of ethanol. Applied Surface Science, 492, 879-85.[10]Choi, J. H., Park, K. W., Lee, H. K., Kim, Y. M., Lee, J. S., Sung, Y. E. (2003). Nano-composite of PtRu alloy electrocatalyst and electronically conducting polymer for use as the anode in a direct methanol fuel cell. Electrochimica acta, 48(19), 2781-89.[11]Choi,J. H., Kim,Y. M., Lee, J. S., Cho, K. Y., Jung, H. Y., Park, J. K., Sung, Y. E. (2005). A polyaniline supported PtRu nanocomposite anode and a Pd-impregnated nanocomposite Nafion membrane for DMFCs. Solid State Ionics, 176(39-40), 3031-34.[12]Kim, S., Park, S. J. (2008). Electroactivity of Pt–Ru/polyaniline composite catalyst-electrodes prepared by electrochemical deposition methods. Solid State Ionics, 178(37-38), 1915-21.[13]Amani, M., Kazemeini, M., Hamedanian, M., Pahlavanzadeh, H., Gharibi, H. (2015). Investigation of methanol oxidation on a highly active and stable Pt–Sn electrocatalyst supported on carbon–polyaniline composite for application in a passive direct methanol fuel cell. Materials Research Bulletin, 68, 166-78.[14]Yaldagard, M., Jahanshahi, M., Seghatoleslami, N. (2014). Pt catalysts on PANI coated WC/C nanocomposites for methanol electro-oxidation and oxygen electro-reduction in DMFC. Applied surface science, 317, 496-504.[15]Wu, H., Yuan,T., Huang, Q., Zhang, H., Zou, Z., Zheng, J., Yang, H. (2014). Polypyrrole nanowire networks as anodic micro-porous layer for passive direct methanol fuel cells. Electrochimica Acta, 141, 1-5.[16]Selvaraj, V., Alagar, M. (2007). Pt and Pt–Ru nanoparticles decorated polypyrrole/multiwalled carbon nanotubes and their catalytic activity towards methanol oxidation. Electrochemistry Communications, 9(5), 1145-53.[17]Huang, H., He, Z., Lin, X., Ruan, W., Liu, Y., Yang, Z. (2015). Ultradispersed platinum nanoclusters on polydopamine- functionalized carbon nanotubes as an excellent catalyst for methanol oxidation reaction. Applied Catalysis A: General, 490, 65-70. [18]Liu, X. C., Wang, G. C., Liang, R. P., Shi, L., Qiu, J. D. (2013). Environment-friendly facile synthesis of Pt nanoparticles supported on polydopamine modified carbon materials. Journal of Materials Chemistry A, 1(12), 3945-53. [19]Sun, R., Ren, F., Wang, D., Yao, Y., Fei, Z., Wang, H., Du, Y. (2019). Polydopamine functionalized multi-walled carbon nanotubes supported PdAu nanoparticles as advanced catalysts for ethylene glycol oxidation. Colloids and Surfaces A: Physicochemical and Engineering Aspects, 578, 123566. [20]Song, C., Park, S. J., Kim, S. (2016). Effect of modification by polydopamine and polymeric carbon nitride on methanol oxidation ability of Pt catalysts- supported on reduced graphene oxide. Journal of the Electrochemical Society, 163(7), F668.[21]Woo, J. H., Park, S. J., Chung, S., Kim, S. (2019). Effect of polydopamine-modified reduced graphene oxides on the catalytic activity of Pt nanoparticles catalysts for fuel cell electrodes. Carbon Letters, 29, 47-55. [22]Ji,Y., Ying, Y., Guo, X., Wu, Y., Wen,Y., Yang, H. (2018). Palladium litchi-like nanoclusters for remarkably elevating methanol electrocatalytic activity. Journal of Power Sources, 402, 183-88.[23]Parnell, C. M., Chhetri, B., Brandt, A., Watanabe, F., Nima, Z. A., Mudalige, T. K., Ghosh, A. (2016). Polydopamine-coated manganese complex/graphene nanocomposite for enhanced electrocatalytic activity towards oxygen reduction. Scientific Reports, 6(1), 31415. [24]Zhang, X., Wang, Y., Dong, S., Li, M. (2015). Dual-site polydopamine spheres/CoFe layered double hydroxides for electrocatalytic oxygen reduction reaction. Electrochimica Acta, 170, 248-55.[25]Sun, Y., Qiao, K., Zheng, Y., Liu, S., Xie, Y., Zhang, M., Wang, C. (2017). Mussel-inspired fabrication of a flexible free-standing membrane cathode for oxygen reduction in neutral media. Journal of Electroanalytical Chemistry, 799, 377-85.[26]Faraji, M., Gharibi, H., Javaheri, M. (2016). High Pt loading on polydopamine functionalized graphene as a high performance cathode electrocatalyst for proton exchange membrane fuel cells. Journal of Nanostructures, 6(2), 156-66.[27]Yoon, K. R., Lee, K. A., Jo, S., Yook, S. H., Lee, K. Y., Kim, I. D., Kim, J. Y. (2019). Mussel-Inspired Polydopamine-Treated Reinforced Composite Membranes with Self-Supported CeOx Radical Scavengers for Highly Stable PEM Fuel Cells. Advanced Functional Materials, 29(3), 1806929. [28]Themsirimongkon, S., Waenkaew, P., Ounnunkad, K., Jakmunee, J., Fang, L., Saipanya, S. (2019). Catalytic electrooxidation of formic acid by noble metal nanoparticle catalysts on reduced graphene oxide. Fullerenes, Nanotubes and Carbon Nanostructures, 27(11), 830-45.
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