Advances in Nanofiber Cathodes for Aluminum-Ion Batteries

Abstract

Rechargeable aluminum-ion batteries (AIBs) possess a higher theoretical volumetric capacity than lithium-ion batteries (LIBs) and offer a sustainable, low-cost alternative. However, the performance of AIBs fails to meet commercial standards due to the challenges experienced including volume changes caused by interfacial issues, side reactions of the electrolyte with electrode, and low cyclic stability. These issues are attributed to the inability of existing cathode materials to perform effectively. To address these challenges, 1-dimensional (1D) structures, especially nanofiber (NF) cathodes offer a promising solution due to their higher aspect ratios, specific surface area, flexibility, and quantum scale effects. To date, there has been no comparative analysis of the electrochemical and structural performances of NF based cathodes in AIBs. Thus, this review focuses on the recent developments in various transition metal oxides and chalcogenides of (Mo, V, Mn, Ni, Cu, W, Se, and Co) along with carbon-based NFs as cathodes for AIBs. Challenges were observed in adopting trivalent Al³⁺ cations as charge carriers and maintaining the structural integrity of the cathode. Several novel approaches have been developed to enhance electrical conductivity, including the incorporation of the metal oxides/chalcogenides with the carbon NF substrates, crystallizing the nanoparticles at high temperatures, and using self-assembly and templating techniques to create multi-dimensional NF films. Other battery components such as separators were replaced with carbonaceous structures in the MnSe based cathodes to increase ion mobility, and Mo current collectors to prevent dendrites. This review includes prospects aimed at improving performance and functionality, based on observations from the discussed work and innovations in AIBs such as compositing, surface functionalization, and defect engineering through ion doping.

Graphical Abstract

Keywords

Carbon-based nanofibers / Cathodes / Volume expansion / Doping / Substrate reinforcement / Chemical Sciences / Inorganic Chemistry / Physical Chemistry (incl. Structural) / Engineering / Materials Engineering

References

[1] GopakumarG, SujithKV, JayadevanS, AnasS. Portable electronics and microsupercapacitors. Supercapacitors and their applications, 2023Boca RatonCRC Press137-146.

[2] FanX, LiuB, LiuJ, DingJ, HanX, DengY, LvX, XieY, ChenB, HuW, ZhongC. Battery technologies for grid-level large-scale electrical energy storage. Transactions of Tianjin University, 2020, 26: 92-103.

[3] RamasubramanianB, Sundarrajan SubramanianPR, Prasada RayavarapuMV, ReddyVC, RamakrishnaS. Novel low-carbon energy solutions for powering emerging wearables, smart textiles, and medical devices. Energy Environ Sci, 2022.

[4] ZhangZ, ChenY, GuoJ. ZnO nanorods patterned-textile using a novel hydrothermal method for sandwich structured-piezoelectric nanogenerator for human energy harvesting. Phys E Low Dimens Syst Nanostruct, 2019, 105: 212-218.

[5] McKerracherR, HollandA, WillsR, SchmidF, KrauseJ. A C/V2O5 core-sheath nanofibrous cathode with mixed-ion intercalation for aluminium-ion batteries. Nano Express, 2020, 1: 010016.

[6] AlmodóvarP, GiraldoDA, ChancónJ, Álvarez-SerranoI, LópezML. δ-MnO2 nanofibers: a promising cathode material for new aluminum-ion batteries. Chem Electro Chem, 2020, 7: 2102-2106

[7] ZhuangR, HuangZ, WangS, QiaoJ, WuJC, YangJ. Binder-free cobalt sulfide@carbon nanofibers composite films as cathode for rechargeable aluminum-ion batteries. Chem Eng J, 2021, 409. 128235

[8] YangW, LuH, CaoY, XuB, DengY, CaiW. Flexible free-standing MoS 2 /carbon nanofibers composite cathode for rechargeable aluminum-ion batteries. ACS Sustain Chem Eng, 2019, 7: 4861-4867.

[9] YangW, LuH, CaoY, JingP, HuX, YuH. A flexible free-standing cathode based on graphene-like MoSe2 nanosheets anchored on N-doped carbon nanofibers for rechargeable aluminum-ion batteries. Ionics (Kiel), 2020, 26: 3405-3413.

[10] MckerracherRD, HollandA, CrudenA, WillsRGA. Comparison of carbon materials as cathodes for the aluminium-ion battery. Carbon N Y, 2019, 144: 333-341.

[11] ShiF, ChenC, XuZ-L. Recent advances on electrospun nanofiber materials for post-lithium ion batteries. Adv Fiber Mater, 2021, 3: 275-301.

[12] WeiL, DengN, JuJ, KangJ, WangX, DingL, KangW, ChengB. A review on nanofiber materials for lithium-metal batteries to suppress the dendritic lithium growth. Chem Eng J, 2022, 433. 134392

[13] GuY, ChenD, JiaoX. Synthesis and electrochemical properties of nanostructured LiCoO ₂ fibers as cathode materials for lithium-ion batteries. J Phys Chem B, 2005, 109: 17901-17906.

[14] ZhouH, DingX, YinZ, XuG, XueQ, LiJ, JiaoS, WangX. Fabrication and electrochemical characteristics of electrospun LiMn2O4 nanofiber cathode for Li-ion batteries. Mater Lett, 2014, 117: 175-178.

[15] DimessoL, SpanheimerC, JaegermannW, ZhangY, YarinAL. LiCoPO4—3D carbon nanofiber composites as possible cathode materials for high voltage applications. Electrochim Acta, 2013, 95: 38-42.

[16] MengD, ZhangC, LiangY, QiuW, KongF, HeX, ChenM, LiangP, ZhangZ. Electrospun cobalt Prussian blue analogue-derived nanofibers for oxygen reduction reaction and lithium-ion batteries. J Colloid Interface Sci, 2021, 599: 280-290.

[17] Hao P, Zhu T, Su Q, Lin J, Cui R, Cao X, Wang Y, Pan A. Electrospun single crystalline fork-like K2V8O21 as high-performance cathode materials for lithium-ion batteries. Front Chem. 2018.

[18] RenW, WangY, HuX, CaoZ, XuY, ZhouY, CaoX, LiangS. Electrospun Na3MnTi(PO4)3/C film: a multielectron-reaction and free-standing cathode for sodium-ion batteries. Chem Eng J, 2024, 487. 150492

[19] ContiDM, UrruC, BruniG, GalinettoP, AlbiniB, MilaneseC, PisaniS, BerbenniV, CapsoniD. Design of Na3MnZr(PO4)3/carbon nanofiber free-standing cathodes for sodium-ion batteries with enhanced electrochemical performances through different electrospinning approaches. Molecules, 2024, 29: 1885.

[20] WangJ, GhoshT, JuZ, NgM-F, WuG, YangG, ZhangX, ZhangL, HandokoAD, KumarS, BusayapornW, KaewsuwanD, JiangC, WeiM, YuG, SehZW. Heterojunction structure of cobalt sulfide cathodes for high-performance magnesium-ion batteries. Matter, 2024, 7: 1833-1847.

[21] Liu W, Wang N, Wu Y, Zhang Q, Chen X, Li Y, Xu R. High-rate nonaqueous Mg–CO₂ batteries enabled by Mo₂ C-nanodot-embedded carbon nanofibers. Small. 2024.

[22] ShiH, CaoJ, SunW, LuG, LanH, XuL, GhaziZA, FanD, MaoZ, HanD, LiuW, NiuS. Ultrasmall, amorphous V ₂ O ₃ intimately anchored on a carbon nanofiber aerogel toward high-rate zinc-ion batteries. ACS Appl Mater Interfaces, 2024, 16: 18812-18823.

[23] WangJ, WangZ, LiuZ, MengX, WangS, WangZ. Structural regulation of Mn ₂O₃ nanofiber cathode material for advanced aqueous zinc-ion batteries. Ionics (Kiel), 2024.

[24] BarhoumA, RasouliR, YousefzadehM, RahierH, BechelanyM. Nanofiber Technology: history and developments. Handbook of nanofibers, 2018ChamSpringer International Publishing1-42

[25] BaydaS, AdeelM, TuccinardiT, CordaniM, RizzolioF. The history of nanoscience and nanotechnology: from chemical-physical applications to nanomedicine. Molecules, 2019, 25: 112.

[26] LiL, PengS, LeeJKY, JiD, SrinivasanM, RamakrishnaS. Electrospun hollow nanofibers for advanced secondary batteries. Nano Energy, 2017, 39: 111-139.

[27] HuangW, XiaoY, ShiX. Construction of electrospun organic/inorganic hybrid nanofibers for drug delivery and tissue engineering applications. Adv Fiber Mater, 2019, 1: 32-45.

[28] SongJ, LinX, EeLY, LiSFY, HuangM. A review on electrospinning as versatile supports for diverse nanofibers and their applications in environmental sensing. Adv Fiber Mater, 2023, 5: 429-460.

[29] ZouS, FanS, OliveiraAL, YaoX, ZhangY, ShaoH. 3D printed gelatin scaffold with improved shape fidelity and cytocompatibility by using antheraea pernyi silk fibroin nanofibers. Adv Fiber Mater, 2022, 4: 758-773.

[30] ThakurMSH, ShiC, KearneyLT, SaadiMASR, MeyerMD, NaskarAK, AjayanPM, RahmanMM. Three-dimensional printing of wood. Sci Adv, 2024.

[31] Roodbar ShojaeiT, HajalilouA, TabatabaeiM, MobliH, AghbashloM. Characterization and evaluation of nanofiber materials. Handbook of nanofibers, 2019ChamSpringer International Publishing491-522.

[32] YangS, ZhaoS, ChenS. Recent advances in electrospinning nanofiber materials for aqueous zinc ion batteries. Chem Sci, 2023, 14: 13346-13366.

[33] Prado-MartínezC, SuttonP, MombriniI, KamtsikakisA, MeesornW, WederC, SteinerU, GunkelI. Cellulose nanofiber-reinforced solid polymer electrolytes with high ionic conductivity for lithium batteries. J Mater Chem A Mater, 2023, 11: 9521-9529.

[34] YaoS, RamakrishnaS, ChenG. Recent advances in metal-organic frameworks based on electrospinning for energy storage. Adv Fiber Mater, 2023, 5: 1592-1617.

[35] ChhetriK, SubediS, MuthurasuA, KoTH, DahalB, KimHY. A review on nanofiber reinforced aerogels for energy storage and conversion applications. J Energy Storage, 2022.

[36] LiS, GuoH, HeS, YangH, LiuK, DuanG, JiangS. Advanced electrospun nanofibers as bifunctional electrocatalysts for flexible metal-air (O₂ ) batteries: Opportunities and challenges. Mater Des, 2022.

[37] HaoY, HuF, ChenY, WangY, XueJ, YangS, PengS. Recent progress of electrospun nanofibers for zinc-air batteries. Adv Fiber Mater, 2022, 4: 185-202.

[38] Gilbert W, De magnete, magneticisque corporibus, et de magno magnete tellure ; physiologia noua, plurimis & argumentis, & experimentis demonstrata., Londini : Excudebat Short, 19677; 1600.

[39] Lord RayleighXX. On the equilibrium of liquid conducting masses charged with electricity, The London, Edinburgh, and Dublin Philosophical Magazine and Journal of. Science, 1882, 14: 184-186

[40] Hard AH. The story of rayon and other synthetic textiles, united trade press Limited, 1939.

[41] Formhals A. Process and apparatus for preparing artificial threads, US1975504A, 1930.

[42] OnsagerL. Electric moments of molecules in liquids. J Am Chem Soc, 1936, 58: 1486-1493.

[43] TuckerN, StangerJJ, StaigerMP, RazzaqH, HofmanK. The history of the science and technology of electrospinning from 1600 to 1995. J Eng Fiber Fabr, 2012, 7: 155892501200702

[44] Feynman RP. There’s plenty of room at the bottom, n.d. http://www.zyvex.com/nanotech/feynman.htmlwith.

[45] TaylorG. Disintegration of water drops in an electric field. Proc R Soc Lond A Math Phys Sci, 1964, 280: 383-397

[46] G. and Martin CI. Fibrillar product of electrostatically spun organic material, 1974.

[47] DoshiJ, RenekerDH. Electrospinning process and applications of electrospun fibers. J Electrostat, 1995, 35: 151-160.

[48] William Gilbert | RCP Museum, (n.d.). https://history.rcplondon.ac.uk/inspiring-physicians/william-gilbert (accessed May 8, 2024).

[49] Happy Birthday, Lord Rayleigh | COMSOL Blog, (n.d.). https://www.comsol.com/blogs/happy-birthday-lord-rayleigh/ (accessed May 8, 2024).

[50] FilaliY, Er-RianiM, El JarroudiM. Deformation of a fluid drop subjected to a uniform electric field. Z Angew Math Phys, 2021, 72: 12.

[51] (5) (PDF) 80 YEARS OF ELECTROSPINNING, (n.d.). https://www.researchgate.net/publication/267996224_80_YEARS_OF_ELECTROSPINNING (accessed May 8, 2024).

[52] The Lars Onsager Archive - NTNU, (n.d.). https://www.ntnu.edu/onsager/lars-onsager-archive (accessed May 8, 2024).

[53] LiD, WangY, XiaY. Electrospinning of polymeric and ceramic nanofibers as uniaxially aligned arrays. Nano Lett, 2003, 3: 1167-1171.

[54] RamakrishnaS, FujiharaK, TeoW-E, LimT-C, MaZ. An introduction to electrospinning and nanofibers. World Sci, 2005.

[55] PantB, ParkM, ParkSJ. Drug delivery applications of core-sheath nanofibers prepared by coaxial electrospinning: a review. Pharmaceutics, 2019, 11: 305.

[56] ChenC, DiricanM, ZhangX. Centrifugal spinning—high rate production of nanofibers. Electrospinning: Nanofabrication and Applications, 2019Elsevier321-338.

[57] LiY, DongA, HeJ. Innovation of critical bubble electrospinning and its mechanism. Polymers, 2020, 12: 304.

[58] KouhiM, MobasheriM, ValipouriA. Needleless electrospinning. Electrospun and nanofibrous membranes principles and applications, 2023NYElsevier145-171

[59] KwonH, HongJ, NamSY, ChoiHH, LiX, JeongYJ, KimSH. Overview of recent progress in electrohydrodynamic jet printing in practical printed electronics: focus on the variety of printable materials for each component. Mater Adv, 2021, 2: 5593-5615.

[60] XingJ, ZhangM, LiuX, WangC, XuN, XingD. Multi-material electrospinning: from methods to biomedical applications. Mater Today Bio, 2023, 21. 100710

[61] NooriA, DöğerH, DemirhanY, OzdemirM, OzyuzerL, AygunG, SağlamÖ. Nanolitography based on electrospun and etched nanofibers. Microelectron Eng, 2021, 239–240. 111526

[62] ShinD, KimJ, ChangJ. Experimental study on jet impact speed in near-field electrospinning for precise patterning of nanofiber. J Manuf Process, 2018, 36: 231-237.

[63] LouL, OsemwegieO, RamkumarSS. Functional nanofibers and their applications. Ind Eng Chem Res, 2020, 59: 5439-5455.

[64] YaoC, LiF, ChenT, TangY. Green preparation of cellulose nanofibers via high-pressure homogenization and their film-forming properties. Ind Crops Prod, 2023.

[65] PirasCC, Fernández-PrietoS, De BorggraeveWM. Ball milling: a green technology for the preparation and functionalisation of nanocellulose derivatives. Nanoscale Adv, 2019, 1: 937-947.

[66] ZhangL, TsuzukiT, WangX. Preparation of cellulose nanofiber from softwood pulp by ball milling. Cellulose, 2015, 22: 1729-1741.

[67] PisignanoD, MaruccioG, MeleE, PersanoL, Di BenedettoF, CingolaniR. Polymer nanofibers by soft lithography. Appl Phys Lett, 2005, 87: 1-3.

[68] KramarA, González-BenitoFJ. Cellulose-based nanofibers processing techniques and methods based on bottom-up approach—a review. Polymers (Basel), 2022.

[69] El-Sakhawy M, Elshakankery M, Technology of nano-fibers: Production techniques and properties-Critical review, 2017; https://www.researchgate.net/publication/322774945.

[70] AnusiyaG, JaiganeshR. A review on fabrication methods of nanofibers and a special focus on application of cellulose nanofibers. Carbohydr Polym Technol Appl, 2022, 4100262

[71] BarhoumA, PalK, RahierH, UludagH, KimIS, BechelanyM. Nanofibers as new-generation materials: From spinning and nano-spinning fabrication techniques to emerging applications. Appl Mater Today, 2019, 17: 1-35.

[72] NayakR, PadhyeR, KyratzisIL, TruongYB, ArnoldL. Recent advances in nanofibre fabrication techniques. Text Res J, 2012, 82: 129-147.

[73] StojanovskaE, CanbayE, PampalES, CalisirMD, AgmaO, PolatY, SimsekR, GundogduNAS, AkgulY, KilicA. A review on non-electro nanofibre spinning techniques. RSC Adv, 2016, 6: 83783-83801.

[74] AlghoraibiI, AlomariS. Different methods for nanofiber design and fabrication. Handbook of nanofibers, 2018ChamSpringer International Publishing1-46

[75] ArakiJ, MiyayamaM. Wet spinning of cellulose nanowhiskers; fiber yarns obtained only from colloidal cellulose crystals. Polymer (Guildf), 2020, 188. 122116

[76] MartínJ, MaizJ, SacristanJ, MijangosC. Tailored polymer-based nanorods and nanotubes by “template synthesis”: From preparation to applications. Polymer (Guildf), 2012, 53: 1149-1166.

[77] ZhaoG, GaoH, QuZ, FanH, MengH. Anhydrous interfacial polymerization of sub-1 Å sieving polyamide membrane. Nat Commun, 2023, 14: 7624.

[78] NohD-Y, AnY-H, JoI-H, KohY-H, KimH-E. Synthesis of nanofibrous gelatin/silica bioglass composite microspheres using emulsion coupled with thermally induced phase separation. Mater Sci Eng, C, 2016, 62: 678-685.

[79] AricanF, Uzuner-DemirA, PolatO, SancakliA, IsmarE. Fabrication of gelatin nanofiber webs via centrifugal spinning for N95 respiratory filters. Bull Mater Sci, 2022, 45: 93.

[80] LimE-H, SardinhaJP, MyersS. Nanotechnology biomimetic cartilage regenerative scaffolds. Arch Plast Surg, 2014, 41: 231-240.

[81] Rohani ShirvanA, NouriA, SuttiA. A perspective on the wet spinning process and its advancements in biomedical sciences. Eur Polym J, 2022, 181: 111681.

[82] GaoT, YanG, YangX, YanQ, TianY, SongJ, LiF, WangX, YuJ, LiY, GuoS. Wet spinning of fiber-shaped flexible Zn-ion batteries toward wearable energy storage. J Energy Chem, 2022, 71: 192-200.

[83] ChoiW, KwonY, YuW-R, KimDW. Graphite fiber electrode by continuous wet-spinning. ACS Appl Energy Mater, 2022, 5: 8963-8972.

[84] MeyerB, CroceF. Materials nanofibers. Encyclopedia of electrochemical power sources, 2009Elsevier607-612.

[85] HuangB, LiC, WangJ. Template synthesis and magnetic properties of highly aligned barium hexaferrite (BaFe12O19) nanofibers. J Magn Magn Mater, 2013, 335: 28-31.

[86] XingY, WangY, ZhouC, ZhangS, FangB. Simple synthesis of mesoporous carbon nanofibers with hierarchical nanostructure for ultrahigh lithium storage. ACS Appl Mater Interfaces, 2014, 6: 2561-2567.

[87] ZhangF, FanJ, WangS. Interfacial polymerization: from chemistry to functional materials. Angew Chem Int Ed, 2020, 59: 21840-21856.

[88] AbdolahiA, HamzahE, IbrahimZ, HashimS. Synthesis of uniform polyaniline nanofibers through interfacial polymerization. Materials, 2012, 5: 1487-1494.

[89] GuanH, FanL-Z, ZhangH, QuX. Polyaniline nanofibers obtained by interfacial polymerization for high-rate supercapacitors. Electrochim Acta, 2010, 56: 964-968.

[90] KulkarniAA, RaoPS. Synthesis of polymeric nanomaterials for biomedical applications. Nanomaterials in tissue engineering, 2013Elsevier27-63.

[91] ShaoJ, ChenC, WangY, ChenX, DuC. Early stage evolution of structure and nanoscale property of nanofibers in thermally induced phase separation process. React Funct Polym, 2012, 72: 765-772.

[92] JiX, LiR, LiuG, JiaW, SunM, LiuY, LuoY, ChengZ. Phase separation-based electrospun Janus nanofibers loaded with Rana chensinensis skin peptides/silver nanoparticles for wound healing. Mater Des, 2021, 207. 109864

[93] ZhangZ, SunJ. Research on the development of the centrifugal spinning. MATEC Web of Conferences, 2017, 95: 07003.

[94] ZhouH, TangY, WangZ, ZhangP, ZhuQ. Cotton-like micro- and nanoscale poly(lactic acid) nonwoven fibers fabricated by centrifugal melt-spinning for tissue engineering. RSC Adv, 2018, 8: 5166-5179.

[95] ZhangB. Methods principles formation mechanisms, and structures of nanomaterials prepared via self-assembly. Physical fundamentals of nanomaterials, 2018Elsevier177-210.

[96] HaoZ, ChenT, WangY, FengQ, ChenJ, LiH, WangJ, WangZ, ZhangZ, ChenR, ShiG, ZouZ, CaiL, ZhuT, LiJ. Self-assembling peptide nanofibers anchored parathyroid hormone derivative for bone tissue engineering. Adv Fiber Mater, 2024, 6: 583-606.

[97] HwangW, KimB-H, DanduR, CappelloJ, GhandehariH, SeogJ. Surface induced nanofiber growth by self-assembly of a silk-elastin-like protein polymer. Langmuir, 2009, 25: 12682-12686.

[98] Karakaş H. Electrospinning of nanofibers and their applications, n.d.

[99] XueJ, WuT, DaiY, XiaY. Electrospinning and electrospun nanofibers: methods, materials, and applications. Chem Rev, 2019, 119: 5298-5415.

[100] SongJ, KimM, LeeH. Recent advances on nanofiber fabrications: unconventional state-of-the-art spinning techniques. Polymers (Basel), 2020.

[101] YanX, YuM, RamakrishnaS, RussellSJ, LongYZ. Advances in portable electrospinning devices for: In situ delivery of personalized wound care. Nanoscale, 2019, 11: 19166-19178.

[102] PersanoL, CamposeoA, TekmenC, PisignanoD. Industrial upscaling of electrospinning and applications of polymer nanofibers: a review. Macromol Mater Eng, 2013, 298: 504-520.

[103] HongL, QiuP, NiuS, ChenQ, LuX, ChenF, WenM, YuN, ChenZ. On-site electrospinning nanofiber membranes incorporating v-shaped organic semiconductors for multifunctional diabetic wound dressing. Adv Fiber Mater, 2024.

[104] BegumHA, KhalilurM, KhanR. Study on the various types of needle based and needleless electrospinning system for nanofiber production. Int J Text Sci, 2017, 2017: 110-117

[105] Ul HassanR, SharipovM, RyuWH. Electrohydrodynamic (EHD) printing of nanomaterial composite inks and their applications. Micro Nano Syst Lett, 2024.

[106] Moon S, Jones MS, Seo E, Lee J, Lahann L, Jordahl JH, Lee KJ, Lahann J. 3D jet writing of mechanically actuated tandem scaffolds, 2021. https://www.science.org.

[107] OhY, KwonDS, JoE, KangY, SimS, KimJ. Formation of sub-100-nm suspended nanowires with various materials using thermally adjusted electrospun nanofibers as templates. Microsyst Nanoeng, 2023.

[108] LiuL, ChangD, GaoC. A review of multifunctional nanocomposite fibers: design, preparation and applications. Adv Fiber Mater, 2024, 6: 68-105.

[109] HaiderA, HaiderS, KangIK. A comprehensive review summarizing the effect of electrospinning parameters and potential applications of nanofibers in biomedical and biotechnology. Arab J Chem, 2018, 11: 1165-1188.

[110] Al-AbduljabbarA, FarooqI. Electrospun polymer nanofibers: processing, properties, and applications. Polymers (Basel), 2022, 15: 65.

[111] WenX, XiongJ, LeiS, WangL, QinX. Diameter refinement of electrospun nanofibers: from mechanism, strategies to applications. Adv Fiber Mater, 2022, 4: 145-161.

[112] JacobsV, AnandjiwalaRD, MaazaM. The influence of electrospinning parameters on the structural morphology and diameter of electrospun nanofibers. J Appl Polym Sci, 2010, 115: 3130-3136.

[113] FatimahI, SariTI, AnggoroD. Effect of concentration and nozzle-collector distance on the morphology of nanofibers. Key Eng Mater, 2020.

[114] ZarghamS, BazgirS, TavakoliA, RashidiAS, DamerchelyR. The effect of flow rate on morphology and deposition area of electrospun nylon 6 nanofiber. J Eng Fibers Fabr, 2012, 74155892501200700414

[115] AngammanaCJ, JayaramSH. Analysis of the effects of solution conductivity on electrospinning process and fiber morphology. IEEE Trans Ind Appl, 2011, 47: 1109-1117.

[116] MegelskiS, StephensJS, Bruce ChaseD, RaboltJF. Micro- and nanostructured surface morphology on electrospun polymer fibers. Macromolecules, 2002, 35: 8456-8466.

[117] ZongX, KimK, FangD, RanS, HsiaoBS, ChuB. Structure and process relationship of electrospun bioabsorbable nanofiber membranes. Polymer, 2002, 43164403-4412.

[118] MatabolaKP, MoutloaliRM. The influence of electrospinning parameters on the morphology and diameter of poly(vinyledene fluoride) nanofibers- effect of sodium chloride. J Mater Sci, 2013, 48: 5475-5482.

[119] PelipenkoJ, KristlJ, JankovićB, BaumgartnerS, KocbekP. The impact of relative humidity during electrospinning on the morphology and mechanical properties of nanofibers. Int J Pharm, 2013, 456: 125-134.

[120] De VriezeS, Van CampT, NelvigA, HagströmB, WestbroekP, De ClerckK. The effect of temperature and humidity on electrospinning. J Mater Sci, 2009, 44: 1357-1362.

[121] CozzaES, MonticelliO, MarsanoE, CebeP. On the electrospinning of PVDF: Influence of the experimental conditions on the nanofiber properties. Polym Int, 2013, 62: 41-48.

[122] OmolloE, ZhangC, MwasiagiJI, NcubeS. Electrospinning cellulose acetate nanofibers and a study of their possible use in high-efficiency filtration. J Ind Text, 2016, 45: 716-729.

[123] MatthewsJA, WnekGE, SimpsonDG, BowlinGL. Electrospinning of collagen nanofibers. Biomacromol, 2002, 3: 232-238.

[124] ButtafocoL, KolkmanNG, Engbers-BuijtenhuijsP, PootAA, DijkstraPJ, VermesI, FeijenJ. Electrospinning of collagen and elastin for tissue engineering applications. Biomaterials, 2006, 27: 724-734.

[125] LiuZ, ZhangF, MingJ, BieS, LiJ, ZuoB. Preparation of electrospun silk fibroin nanofibers from solutions containing native silk fibrils. J Appl Polym Sci, 2015.

[126] LeeSJ, HeoDN, MoonJH, KoWK, LeeJB, BaeMS, ParkSW, KimJE, LeeDH, KimEC, LeeCH, KwonIK. Electrospun chitosan nanofibers with controlled levels of silver nanoparticles, preparation, characterization and antibacterial activity. Carbohydr Polym, 2014, 111: 530-537.

[127] JeongSI, KrebsMD, BoninoCA, KhanSA, AlsbergE. Electrospun alginate nanofibers with controlled cell adhesion for tissue engineering. Macromol Biosci, 2010, 10: 934-943.

[128] ZhangYZ, VenugopalJ, HuangZM, LimCT, RamakrishnaS. Crosslinking of the electrospun gelatin nanofibers. Polymer (Guildf), 2006, 47: 2911-2917.

[129] WnekGE, CarrME, SimpsonDG, BowlinGL. Electrospinning of nanofiber fibrinogen structures. Nano Lett, 2003, 3: 213-216.

[130] RenekerDH, KataphinanW, TheronA, ZussmanE, YarinAL. Nanofiber garlands of polycaprolactone by electrospinning. Polymer, 2002, 43256785-6794.

[131] ZhaoG, HuangB, ZhangJ, WangA, RenK, WangZL. Electrospun Poly(l-Lactic Acid) nanofibers for nanogenerator and diagnostic sensor applications. Macromol Mater Eng, 2017.

[132] YouY, LeeSJ, MinBM, ParkWH. Effect of solution properties on nanofibrous structure of electrospun poly(lactic-co-glycolic acid). J Appl Polym Sci, 2006, 99: 1214-1221.

[133] LiuX, WangC, CaiZ, HuZ, ZhuP. Fabrication and characterization of polyacrylonitrile and polyethylene glycol composite nanofibers by electrospinning. J Energy Storage, 2022.

[134] SongZ, ChiangSW, ChuX, DuH, LiJ, GanL, XuC, YaoY, HeY, LiB, KangF. Effects of solvent on structures and properties of electrospun poly(ethylene oxide) nanofibers. J Appl Polym Sci, 2018.

[135] AbbasJA, SaidIA, MohamedMA, YasinSA, AliZA, AhmedIH. Electrospinning of polyethylene terephthalate (PET) nanofibers: optimization study using taguchi design of experiment. IOP Conf Ser Mater Sci Eng, 2018.

[136] AlwanTJ, KudhierM, ZiadanK, Abdulahad TomaZ, KudhierMA, ZiadanKM. Preparation and characterization of the PVA nanofibers produced by electrospinning article info, Issue 1. Madridge J Nanotechnol Nanosci Res Article, 2016.

[137] ZhuoH, HuJ, ChenS, YeungL. Preparation of polyurethane nanofibers by electrospinning. J Appl Polym Sci, 2008, 109: 406-411.

[138] ZhangWX, WangYZ, SunCF. Characterization on oxidative stabilization of polyacrylonitrile nanofibers prepared by electrospinning. J Polym Res, 2007, 14: 467-474.

[139] EroǧluAN, AydinRST, KarakeçiliA, ÇalimliA. Fabrication and process optimization of poly(2-hydroxyethyl methacrylate) nanofibers by response surface methodology. J Nanosci Nanotechnol, 2017, 17: 616-625.

[140] UyarT, BesenbacherF. Electrospinning of uniform polystyrene fibers: the effect of solvent conductivity. Polymer (Guildf), 2008, 49: 5336-5343.

[141] LiangS, ZhangG, MinJ, DingJ, JiangX. Synthesis and antibacterial testing of silver/poly (ether amide) composite nanofibers with ultralow silver content. J Nanomater, 2014.

[142] KattamuriN. Uniform polycarbonate nanofibers produced by electrospinning. Macromolecules, 2004, 3: 425

[143] ChoiSS, LeeYS, JooCW, LeeSG, ParkJK, HanKS. Electrospun PVDF nanofiber web as polymer electrolyte or separator. Electrochim Acta, 2004.

[144] KimJH, YooSJ, KwakDH, JungHJ, KimTY, ParkKH, LeeJW. Characterization and application of electrospun alumina nanofibers. Nanoscale Res Lett, 2014, 9: 1-6.

[145] PandaPK. Preparation and characterization of Samaria nanofibers by electrospinning. Ceram Int, 2013, 39: 4523-4527.

[146] YangZ, DuG, FengC, LiS, ChenZ, ZhangP, GuoZ, YuX, ChenG, HuangS, LiuH. Synthesis of uniform polycrystalline tin dioxide nanofibers and electrochemical application in lithium-ion batteries. Electrochim Acta, 2010, 55: 5485-5491.

[147] SahooB, PandaPK. Synthesis and characterization of manganese tetroxide (Mn3O4) nanofibers by electrospinning technique. J Adv Ceram, 2013, 2: 26-30.

[148] YuhJ, NinoJC, SigmundWM. Synthesis of barium titanate (BaTiO3) nanofibers via electrospinning. Mater Lett, 2005, 59: 3645-3647.

[149] SahooB, PandaPK. Electronic properties of lead-free (Ba0.95Ca0.05)(Ti0.92Sn0.08)O3 piezoceramic nanofibers by electrospinning. J Electron Mater, 2015, 44: 4563-4566.

[150] IchangiA, KhanL, QueraltóA, GroschM, WeißingR, ÜnlüF, ChijiokeAK, VermaA, FischerT, SurmenevR, MathurS. Electrospun BiFeO3 nanofibers for vibrational energy harvesting application. Adv Eng Mater, 2022.

[151] NuansingW, NinmuangS, JarernboonW, MaensiriS, SeraphinS. Structural characterization and morphology of electrospun TiO2 nanofibers. Mater Sci Eng, B, 2006, 131: 147-155.

[152] KhalilA, HashaikehR. Electrospinning of nickel oxide nanofibers: Process parameters and morphology control. Mater Charact, 2014, 95: 65-71.

[153] WangY, Santiago-AvilésJJ. A review on synthesis and characterization of lead zirconate titanate nanofibers through electrospinning. Integr Ferroelectr, 2011.

[154] ShahhosseininiaM, BazgirS, JoupariMD. Fabrication and investigation of silica nanofibers via electrospinning. Mater Sci Eng, C, 2018, 91: 502-511.

[155] WuH, PanW. Preparation of zinc oxide nanofibers by electrospinning. J Am Ceram Soc, 2006, 89: 699-701.

[156] MarxS, JoseMV, AndersenJD, RussellAJ. Electrospun gold nanofiber electrodes for biosensors. Biosens Bioelectron, 2011, 26: 2981-2986.

[157] YuanJ, GengJ, XingZ, ShenJ, KangIK, ByunH. Electrospinning of antibacterial poly(vinylidene fluoride) nanofibers containing silver nanoparticles. J Appl Polym Sci, 2010, 116: 668-672.

[158] HsuPC, WuH, CarneyTJ, McDowellMT, YangY, GarnettEC, LiM, HuL, CuiY. Passivation coating on electrospun copper nanofibers for stable transparent electrodes. ACS Nano, 2012, 6: 5150-5156.

[159] ShaoH, ZhangX, LiuS, ChenF, XuJ, FengY. Preparation of pure iron nanofibers via electrospinning. Mater Lett, 2011, 65: 1775-1777.

[160] ZhangZD, WangH, QinC, ChenS, JiX, SunK, ChenM, FanRH, HanX. Fabrication and magnetic properties of electrospun cobalt nanofibers. Mater Des, 2016, 89: 543-548.

[161] JiY, ZhangX, ZhuY, LiB, WangY, ZhangJ, FengY. Nickel nanofibers synthesized by the electrospinning method. Mater Res Bull, 2013, 48: 2426-2429.

[162] WangJ, WangZ, NiJ, LiL. Electrospun materials for batteries moving beyond lithium-ion technologies. Electrochem Energy Rev, 2022, 5: 211-241.

[163] BrucePG, FreunbergerSA, HardwickLJ, TarasconJ-M. Li–O2 and Li–S batteries with high energy storage. Nat Mater, 2012, 11: 19-29.

[164] ZhangL, LiuY. Aqueous zinc-chalcogen batteries: emerging conversion-type energy storage systems. Batteries, 2023, 9: 62.

[165] RajapakseM, KarkiB, AbuUO, PishgarS, MusaMRK, RiyadhSMS, YuM, SumanasekeraG, JasinskiJB. Intercalation as a versatile tool for fabrication, property tuning, and phase transitions in 2D materials, NPJ 2D. Mater Appl, 2021.

[166] LiuT, LvG, LiuM, ZhaoC, LiaoL, LiuH, ShiJ, ZhangJ, GuoJ. Cation-intercalation and conversion-type cathode materials for rechargeable aluminum batteries. Mater Chem Front, 2022, 6: 280-296.

[167] LeviE, LeviMD, ChasidO, AurbachD. A review on the problems of the solid state ions diffusion in cathodes for rechargeable Mg batteries. J Electroceram, 2009, 22: 13-19.

[168] WuF, YangH, BaiY, WuC. Paving the path toward reliable cathode materials for aluminum-ion batteries. Adv Mater, 2019.

[169] LahiriA, GuanS, ChutiaA. Modulating aluminum solvation with ionic liquids for improved aqueous-based aluminum-ion batteries. ACS Appl Energy Mater, 2023, 6: 11874-11881.

[170] CanepaP, Sai GautamG, HannahDC, MalikR, LiuM, GallagherKG, PerssonKA, CederG. Odyssey of multivalent cathode materials: open questions and future challenges. Chem Rev, 2017, 117: 4287-4341.

[171] LiS, WangC, MengC, NingY, ZhangG, FuQ. Electrolyte-dependent formation of solid electrolyte interphase and ion intercalation revealed by in situ surface characterizations, Journal of Energy. Chemistry, 2022, 67: 718-726

[172] LinMC, GongM, LuB, WuY, WangDY, GuanM, AngellM, ChenC, YangJ, HwangBJ, DaiH. An ultrafast rechargeable aluminium-ion battery. Nature, 2015, 520: 324-328.

[173] ZhangY, LiuS, JiY, MaJ, YuH. Emerging nonaqueous aluminum-ion batteries: challenges, status, and perspectives. Adv Mater, 2018.

[174] SirengoK, BabuA, BrennanB, PillaiSC. Ionic liquid electrolytes for sodium-ion batteries to control thermal runaway, Journal of Energy. Chemistry, 2023, 81: 321-338

[175] GadioliAO, de SouzaLM, PereiraEC, MonteiroSN, AzevedoARG. Imidazolium-based ionic liquids as corrosion inhibitors for stainless steel in different corrosive media: An overview. J Market Res, 2024, 29: 803-823

[176] FliegerJ, FliegerM. Ionic liquids toxicity—benefits and threats. Int J Mol Sci, 2020, 21: 1-41.

[177] AhnH, KimD, LeeM, NamKW. Challenges and possibilities for aqueous battery systems. Commun Mater, 2023, 4: 37.

[178] LiX, TangY, LiC, LvH, FanH, WangW, CaiT, CuiY, XingW, YanZ, ZhiC, LiH. Relieving hydrogen evolution and anodic corrosion of aqueous aluminum batteries with hybrid electrolytes. J Mater Chem A Mater, 2022, 10: 4739-4748.

[179] ZhaoQ, ZachmanMJ, Al SadatWI, ZhengJ, KourkoutisLF, ArcherL. Solid electrolyte interphases for high-energy aqueous aluminum electrochemical cells. Sci Adv, 2018, 4118131.

[180] DongT, NgKL, WangY, VoznyyO, AzimiG. Solid electrolyte interphase engineering for aqueous aluminum metal batteries: a critical evaluation. Adv Energy Mater, 2021.

[181] YangH, LiH, LiJ, SunZ, HeK, ChengHM, LiF. The rechargeable aluminum battery: opportunities and challenges. Angew Chem, 2019, 58: 11978-11996.

[182] RazazG, ArshadirastabiS, BlomquistN, ÖrtegrenJ, CarlbergT, HummelgårdM, OlinH. Aluminum alloy anode with various iron content influencing the performance of aluminum-ion batteries. Materials, 2023.

[183] PoliniA, YangF. Physicochemical characterization of nanofiber composites. Nanofiber composites for biomedical applications, 2017Elsevier97-115.

[184] GolozarM, GauvinR, ZaghibK. In situ and in operando techniques to study li-ion and solid-state batteries: micro to atomic level. Inorganics (Basel), 2021.

[185] SheikhiS, GhassemiA, SajadiSM, HashemianM. Comparison of the mechanical characteristics of produced nanofibers by electrospinning process based on different collectors. Heliyon, 2024.

[186] BeeseAM, PapkovD, LiS, DzenisY, EspinosaHD. In situ transmission electron microscope tensile testing reveals structure-property relationships in carbon nanofibers. Carbon N Y, 2013, 60: 246-253.

[187] HuangH, WangJ, YangX, HuR, LiuJ, ZhangL, ZhuM. Unveiling the advances of nanostructure design for alloy-type potassium-ion battery anodes via in situ TEM. Angew Chem, 2020, 59: 14504-14510.

[188] ShahidS, Agelin-ChaabM. A review of thermal runaway prevention and mitigation strategies for lithium-ion batteries. Energy Conv Manage: X, 2022, 16100310

[189] ShakerA, KhedewyAT, HassanMA, El-BakyMAA. Thermo-mechanical characterization of electrospun polyurethane/carbon-nanotubes nanofibers: a comparative study. Sci Rep, 2023.

[190] ZhouW, LiX, YaoF, ZhangH, SunK, ChenF, XuP, LiX. Chip-based MEMS platform for thermogravimetric/differential thermal analysis (TG/DTA) joint characterization of materials. Micromachines (Basel), 2022.

[191] SamdaniJS, TranTN, KangTH, LeeBJ, JangYH, YuJS, ShanmugamS. The identification of specific N-configuration responsible for Li-ion storage in N-doped porous carbon nanofibers: an ex-situ study. J Power Sources, 2021.

[192] XuZL, HuangJQ, ChongWG, QinX, WangX, ZhouL, KimJK. In situ TEM study of volume expansion in porous carbon nanofiber/sulfur cathodes with exceptional high-rate performance. Adv Energy Mater, 2017.

[193] ZhangF, SiY, YuJ, DingB. Electrospun porous engineered nanofiber materials: A versatile medium for energy and environmental applications. Chem Eng J, 2023.

[194] ZhangW, SunQ, ShenZ, LiuJ, WangX. Effect of diameter on the structural evolution and tensile properties of electrospun PAN-based carbon nanofiber mats. ACS Omega, 2023, 8: 19002-19005.

[195] SchierholzR, KrögerD, WeinrichH, GehringM, TempelH, KunglH, MayerJ, EichelRA. The carbonization of polyacrylonitrile-derived electrospun carbon nanofibers studied by: in situ transmission electron microscopy. RSC Adv, 2019, 9: 6267-6277.

[196] MainuschN, ChristT, SiedenburgT, O’DonnellT, LutansietoM, BrandP, PapenburgG, HarmsN, TemelB, GarnweitnerG, ViölW. New contact probe and method to measure electrical resistances in battery electrodes. Energ Technol, 2016, 4: 1550-1557.

[197] ZhouQ, ZhengY, WangD, LianY, BanC, ZhaoJ, ZhangH. Cathode materials in non-aqueous aluminum-ion batteries: Progress and challenges. Ceram Int, 2020, 46: 26454-26465.

[198] VahidmohammadiA, HadjikhaniA, ShahbazmohamadiS, BeidaghiM. Two-dimensional vanadium carbide (MXene) as a high-capacity cathode material for rechargeable aluminum batteries. ACS Nano, 2017, 11: 11135-11144.

[199] MasséRC, LiuC, LiY, MaiL, CaoG. Energy storage through intercalation reactions: electrodes for rechargeable batteries. Natl Sci Rev, 2017, 4: 26-53.

[200] XuL, MaL, RujiralaiT, ZhouX, WuS, LiuM. Hierarchical MoS₂ microspheres prepared through a zinc ion-assisted hydrothermal route as an electrochemical supercapacitor electrode. RSC Adv, 2017, 7: 33937-33943.

[201] LiZ, WangX, ZhangW, YangS. Two-dimensional Ti3C2@CTAB-Se (MXene) composite cathode material for high-performance rechargeable aluminum batteries. Chem Eng J, 2020, 398. 125679

[202] YangW, LuH, CaoY, XuB, DengY, CaiW. Flexible free-standing MOS 2 /carbon nanofibers composite cathode for rechargeable aluminum-ion batteries. ACS Sustain Chem Eng, 2019, 7: 4861-4867.

[203] YangW, LuH, CaoY, JingP, HuX, YuH. A flexible free-standing cathode based on graphene-like MoSe2 nanosheets anchored on N-doped carbon nanofibers for rechargeable aluminum-ion batteries. Ionics (Kiel), 2020, 26: 3405-3413.

[204] WangX, ZhuangR, LiuX, HuM, ShenP, LuoJ, YangJ, WuJ. Insight into the storage mechanism of sandwich-like molybdenum disulphide/carbon nanofibers composite in aluminum-ion batteries. Nanomaterials, 2024.

[205] DiemAM, FenkB, BillJ, BurghardZ. Binder-free v2o5 cathode for high energy density rechargeable aluminum-ion batteries. Nanomaterials, 2020.

[206] DiemAM, BillJ, BurghardZ. Creasing highly porous V2O5 scaffolds for high energy density aluminum- ion batteries. ACS Appl Energy Mater, 2020, 3: 4033-4042.

[207] CaneverN, NannT. A C/V2O5core-sheath nanofibrous cathode with mixed-ion intercalation for aluminium-ion batteries. Nano Express, 2020.

[208] ZhangC, LvC, YangX, ChaiL, ZhangW, LiZ. Novel one-dimensional nanofiber MnSe/CMK-3 high-performance cathode material for aluminum batteries. ACS Appl Mater Interfaces, 2022, 14: 37814-37822.

[209] LiJ, HuiKS, ZhengY, JiS, WangK, ZhaC, DinhDA, FanX, ChenF, ShaoZ, HuiKN. Stabilizing anionic redox processes in electrospun NiS2–based cathode towards durable aluminum-ion batteries. Chem Eng J, 2022.

[210] ZhangC, YangX, ChaiL, ZhangW, LiZ. Novel Cu1.8Se carbon fiber composite for aluminum-ion battery cathode materials: outstanding electrochemical. Compos B Eng, 2023.

[211] YangW, LuH, CaoY, JingP. Single-/few-layered ultrasmall WS2 nanoplates embedded in nitrogen-doped carbon nanofibers as a cathode for rechargeable aluminum batteries. J Power Sources, 2019.

[212] LiL, MaY, CuiF, LiY, YuD, LianX, HuY, LiH, PengS. Novel insight into rechargeable aluminum batteries with promising selenium sulfide@carbon nanofibers cathode. Adv Mater, 2023.

[213] ZhuangR, HuangZ, WangS, QiaoJ, WuJC, YangJ. Binder-free cobalt sulfide@carbon nanofibers composite films as cathode for rechargeable aluminum-ion batteries. Chem Eng J, 2021.

[214] HuY, YeD, LuoB, HuH, ZhuX, WangS, LiL, PengS, WangL. A binder-free and free-standing cobalt sulfide@carbon nanotube cathode material for aluminum-ion batteries. Adv Mater, 2018.

[215] AiY, WuSC, WangK, YangTY, LiuM, LiaoHJ, SunJ, ChenJH, TangSY, WuDC, SuTY, WangYC, ChenHC, ZhangS, LiuWW, ChenYZ, LeeL, HeJH, WangZM, ChuehYL. Three-dimensional molybdenum diselenide helical nanorod arrays for high-performance aluminum-ion batteries. ACS Nano, 2020, 14: 8539-8550.

[216] KongD, FanH, DingX, HuH, ZhouL, LiB, ChiC, WangX, WangY, WangX, WangD, ShenY, QiuZ, CaiT, CuiY, RenY, LiX, XingW. Realizing a long lifespan aluminum-ion battery through the anchoring effect between Polythiophene and carboxyl modified carbon nanotube. Electrochim Acta, 2021.

[217] ZhangK, LeeTH, ChaJH, JangHW, ShokouhimehrM, ChoiJW. Properties of CoS2/CNT as a Cathode Material of Rechargeable Aluminum-Ion Batteries. Electron Mater Lett, 2019, 15: 727-732.

[218] HuY, HuangH, YuD, WangX, LiL, HuH, ZhuX, PengS, WangL. All-climate aluminum-ion batteries based on binder-free MOF-Derived FeS2@C/CNT cathode. Nanomicro Lett, 2021.

[219] XingL, OwusuKA, LiuX, MengJ, WangK, AnQ, MaiL. Insights into the storage mechanism of VS4 nanowire clusters in aluminum-ion battery. Nano Energy, 2021.

[220] WangS, KravchykKV, Pigeot-RémyS, TangW, KrumeichF, WörleM, BodnarchukMI, CassaignonS, DurupthyO, ZhaoS, SanchezC, KovalenkoMV. Anatase TiO2 nanorods as cathode materials for aluminum-ion batteries. ACS Appl Nano Mater, 2019, 2: 6428-6435.

[221] ZhaoS, LiJ, ChenH, ZhangJ. Synthesis of Bi2S3/MoS2Nanorods and their enhanced electrochemical performance for aluminum ion batteries. J Electrochem Energy Convers Storage, 2020.

[222] LiG, TuJ, WangM, JiaoS. Cu ₃ P as a novel cathode material for rechargeable aluminum-ion batteries. J Mater Chem A Mater, 2019, 7: 8368-8375.

[223] BaiH, XuJ, LiuJ, HanT, NiuJ. A nanowire-on-microrod polyaniline@FeS2 hybrid as the cathode in high-performance Al-ion batteries. Chem Commun, 2023, 59: 11216-11219.

[224] McKerracherRD, Ponce de LeonC, WillsRGA, ShahAA, WalshFC. A review of the iron-air secondary battery for energy storage. ChemPlusChem, 2015, 80: 323-335.

[225] LiuZ, WangJ, DingH, ChenS, YuX, LuB. Carbon nanoscrolls for aluminum battery. ACS Nano, 2018, 12: 8456-8466.

[226] NaskarI, NaskarS, KaurB, GhosalP, DeepaM. MIL-53(Al) metal-organic framework/carbon nanofibers and Al-nanoflakes/carbon composites for a stable Al-battery. J Energy Storage, 2024.

[227] HuY, DebnathS, HuH, LuoB, ZhuX, WangS, HankelM, SearlesDJ, WangL. Unlocking the potential of commercial carbon nanofibers as free-standing positive electrodes for flexible aluminum ion batteries. J Mater Chem A Mater, 2019, 7: 15123-15130.

[228] YuX, WangB, GongD, XuZ, LuB. Graphene nanoribbons on highly porous 3D graphene for high-capacity and ultrastable al-ion batteries. Adv Mater, 2017.

[229] YangX, HuangC. Progress in improving the performance of inorganic cathodes for aluminium-ion batteries. J Energy Storage, 2024, 78. 110069

[230] ZhangB, ChenJ, SunW, ShaoY, ZhangL, ZhaoK. Challenges and perspectives for doping strategy for manganese-based zinc-ion battery cathode. Energies (Basel), 2022, 15: 4698.

Funding

National Research Foundation Singapore(A-0000065-54-00)

Ministry of Education - Singapore(EDUN C-33-18-279-V12)

RIGHTS & PERMISSIONS

Donghua University, Shanghai, China