Cathode Electrode Active Material Properties Evaluation for Lithium-Ion Batteries
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International Journal of Recent Engineering Science (IJRES) |  |
| © 2024 by IJRES Journal | ||
| Volume-11 Issue-5 |
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| Year of Publication : 2024 | ||
| Authors : Fidelis Nwabunike Okonkwo |
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| DOI : 10.14445/23497157/IJRES-V11I5P104 |
How to Cite?
Fidelis Nwabunike Okonkwo, "Cathode Electrode Active Material Properties Evaluation for Lithium-Ion Batteries ," International Journal of Recent Engineering Science, vol. 11, no. 5, pp. 33-39, 2024. Crossref, https://doi.org/10.14445/23497157/IJRES-V11I5P104
Abstract
The major element that hinders the performance of batteries is the active element of the cathode electrode. There has been an effort to offer and study oxide composites centered on transition metal elements, with a target on those compounds that accommodate large movements of Li+ ions such that during redox reactions, energy can be transferred. Nevertheless, these lithium-insertion composites should satisfy physical, mechanical, and electrochemical properties. Consequently, material properties evaluation for lithium-ion batteries cathode electrode active material with high nickel content is presented. The properties, namely, hardness, tensile strength, compressive strength, electrical resistivity, density, and cost, are analyzed with the assistance of CES EduPack Software. Understanding Li(Ni1/2Co1/5Mn3/10)O2 cathode material properties is essential to predicting and simulating the electrochemical performance of lithium-ion batteries with high reliability.
Keywords
Batteries, Active material properties, Li(Ni1/2Co1/5Mn3/10)O2, Bubble chart.
Reference
[1] Manh-Kien Tran et al., “Comparative Study of Equivalent Circuit Models Performance in Four Common Lithium-Ion Batteries: LFP, NMC, LMO, NCA,” Batteries, vol. 7, no. 3, pp. 1-15, 2021.
[CrossRef] [Google Scholar] [Publisher Link]
[2] Manh-Kien Tran et al, “Environmental and Economic Benefits of a Battery Electric Vehicle Powertrain with a Zinc-Air Range Extender in the Transition to Electric Vehicles,” Vehicles, vol. 2, no. 3, pp. 1-15, 2020.
[CrossRef] [Google Scholar] [Publisher Link]
[3] Manh-Kien Tran et al., “A Review of Range Extenders in Battery Electric Vehicles: Current Progress and Future Perspectives,” World Electric Vehicle Journal, vol. 12, no. 2, pp. 1-16, 2021.
[CrossRef] [Google Scholar] [Publisher Link]
[4] Kevin G. Gallagher et al., “Quantifying the Promise of Lithium-Air Batteries for Electric Vehicles,” Energy & Environmental Science, vol. 7, pp. 1555-1563, 2014.
[CrossRef] [Google Scholar] [Publisher Link]
[5] Andrzej Lewandowski, and Agnieszka Świderska-Mocek, “Ionic Liquids as Electrolytes for Li-Ion Batteries: An Overview of Electrochemical Studies,” Journal of Power Sources, vol. 194, no. 2, pp. 601-609, 2009.
[CrossRef] [Google Scholar] [Publisher Link]
[6] Naoki Nitta, and Gleb Yushin, “High-Capacity Anode Materials for Lithium-Ion Batteries: Choice of Elements and Structures for Active Particles,” Particle & Particle Systems Characterization, vol. 31, no. 3, pp. 317-336, 2013.
[CrossRef] [Google Scholar] [Publisher Link]
[7] Hyunchul Kim et al., “New Insight into the Reaction Mechanism for Exceptional Capacity of Ordered Mesoporous SnO2 Electrodes via Synchrotron-Based X-ray Analysis,” Chemistry of Materials, vol. 26, no. 22, pp. 6361-6370, 2014.
[CrossRef] [Google Scholar] [Publisher Link]
[8] Hyunchul Kim et al., “Comparative Study of Bulk and Nano-Structured Mesoporous SnO2 Electrodes on the Electrochemical Performances for Next Generation Li Rechargeable Batteries,” Journal of Power Sources, vol. 413, pp. 241-249, 2019.
[CrossRef] [Google Scholar] [Publisher Link]
[9] Christian M. Julien et al., “Comparative Issues of Cathode Materials for Li-Ion Batteries,” Inorganics, vol. 2, no. 1, pp. 132-154, 2014.
[CrossRef] [Google Scholar] [Publisher Link]
[10] John B. Goodenough, “Design considerations,” Solid State Ionics, vol. 69, no. 3-4, pp. 184-198, 1994.
[CrossRef] [Google Scholar] [Publisher Link]
[11] Yuanli Ding et al., “Automotive Li-Ion Batteries: Current Status and Future Perspectives,” Electrochemical Energy Reviews, vol. 2, pp. 1-28, 2019.
[CrossRef] [Google Scholar] [Publisher Link]
[12] Mike Ashby, Didac Ferrer, and Jennifer Bruce, “Materials and Sustainable Development,” Engineering Department, Cambridge University, UK, pp. 1-45, 2021.
[Google Scholar] [Publisher Link]
[13] Mike Ashby, Tim Davies, and Stéphane Gorsse, “CES EduPack DB for Bulk Functional Materials,” Granta Teaching Resources, 2015.
[Google Scholar] [Publisher Link]
[14] Nguyen, Ruby Thuy et al., “Imholte A Market-Oriented Database Design for Critical Material Research,” Clean Technologies and Recycling, vol. 1, no. 1, pp. 34-39, 2021.
[CrossRef] [Google Scholar] [Publisher Link]
[15] Yu Xia et al., “Designing Principle for Ni-Rich Cathode Materials with High Energy Density for Practical Applications,” Nano Energy, vol. 49, pp. 434-452, 2018.
[CrossRef] [Google Scholar] [Publisher Link]
[16] Joe C. Stallard et al., “Mechanical Properties of Cathode Materials for Lithium-Ion Batteries,” Joule, vol. 6, no. 2, pp. 984-1007, 2022.
[CrossRef] [Google Scholar] [Publisher Link]
[17] Philip Minnmann et al., “Designing Cathodes and Cathode Active Materials for Solid-State Batteries,” Advanced Energy Materials, vol. 12, no. 35, pp. 1-18, 2022.
[CrossRef] [Google Scholar] [Publisher Link]
[18] Hyukhee Cho et al., “A Review of Problems and Solutions in Ni- Rich Cathode-Based Li-Ion Batteries from Two Research Aspects: Experimental Studies and Computational Insights,” Journal of Power Sources, vol. 597, 2024.
[CrossRef] [Google Scholar] [Publisher Link]