A review on the recent progress of the plant-based porous carbon materials as electrodes for high-performance supercapacitors

Kumar, Sachin; Bashir, Shahid; Pershaanaa, M.; Kamarulazam, Fathiah; Saidi, Norshahirah M.; Goh, Zhi Ling; Wonnie, Iling Aema; Kunjunee, Vogisha; Jamaluddin, Anif; Ramesh, K.; Subramaniam, Ramesh; Ramesh, S.; Manikam, Rishya

doi:10.1007/s10853-023-08413-7

Cited by 25 publications

(3 citation statements)

References 144 publications

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“…Carbonaceous materials, sourced from non-renewable and unsustainable graphite and fossil fuels, have been frequently used in the creation of Supercapacitor(Ashok Kumar et al, 2023).…”

Section: Introductionmentioning

confidence: 99%

“…Biomass-based activated carbon is commonly produced by utilizing agricultural waste such as black betel leaf (Suci et al, 2023), rice husks, bamboo, coconut shells, empty oil palm bunches, and others(Ashok Kumar et al, 2023). EFBP itself is a by-product of palm oil processing which is abundant in Indonesia, that a common use today is to make it mulch in the garden, fuel, or as compost (Rustamaji et al, 2022).…”

Section: Introductionmentioning

confidence: 99%

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Activated of Waste Palm-Oil Based on Chemical-Assisted Microwave Radition for Supercapacitor Materials

HUSNA,

HARJUNOWIBOWO,

CHITRANINGRUM

et al. 2024

Preprint

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The most widely used material as a supercapacitor electrode is activated carbon that could be produced by the biomass materials such as waste palm oil. This research promoted a hybrid method with chemical assisted microwave radiation (CAMR) to produce an activated carbon from the empty fruit bunches of palm oil (EFBP). This study aims to determine the effect of chemical activation (CA) with ZnCl2 and microwave heating radiation (MR) which applied as a supercapacitor electrode material. The results of activated carbon are tested using various tests to determine the quality of activated carbon as a supercapacitor electrode material. The results of electrode material testing showed the same carbon content in both types of activation, which was 47,4%. The results showed that there were peaks of O-H, C = C, C-H, and C-O produced in both activations. The microstructure of both activations indicates that amorphous material is formed. The CAMR method has improved an electrical conductivity of EFBP up to 3.676 x 10− 3 S / m compared with EFBP-CA of 1.082 x 10− 3 S /m. Also, the pore size increased up to 72.1 nm of EFBP-CAMR. Finally, the EFBP-CAMR was demonstrated as an active material of supercapacitor with binder free coating by electrostatic spray coating method that achieved capacity up to 32.042 F/g.

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“…Carbonaceous materials, sourced from non-renewable and unsustainable graphite and fossil fuels, have been frequently used in the creation of Supercapacitor(Ashok Kumar et al, 2023).…”

Section: Introductionmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

Activated of Waste Palm-Oil Based on Chemical-Assisted Microwave Radition for Supercapacitor Materials

HUSNA,

HARJUNOWIBOWO,

CHITRANINGRUM

et al. 2024

Preprint

Self Cite

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“…24 Biomass carbon electrodes have been widely studied and applied in supercapacitors due to their environmental friendliness and wide source of precursors. [25][26][27] Various new strategies to optimize the structure and improve the electrochemical performance of electrode materials are being constantly proposed, such as heteroatom-doping, the use of unique structural characteristics of the material itself, the introduction of porous cellulose-derived carbon aerogels, etc. [28][29][30] Each of these novel strategies suggests the feasibility of further research on carbon-based supercapacitors.…”

Section: Introductionmentioning

confidence: 99%

Fabricating carbon-based electrode materials via uptake of amino nano-polystyrene into Pistia stratiotes roots for enhancing supercapacitance

Su,

Li,

Ran

2023

Green Chem.

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Sulfurization of Electrode Material: A Promising Window for Supercapacitor Technology

Khan,

Shakeel,

Alam

et al. 2023

Batteries & Supercaps

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Supercapacitors have emerged as a promising energy storage technology with attributes like high power and tuneable energy density along with splined cyclic potential. Their performance is heavily driven by the employed electrode materials that still crave high charge storage and rate capabilities as well as virile conductivity. Among numerous applied strategies to patch the corresponding quandary, sulfurization has garnered significant attention as an effective method for improving the electrochemical depiction of electrode materials. This review article presents a comprehensive analysis of the sulfurization process applied to the electrode with the aim of providing profound overview of the latest developments, the impact of sulfur incorporation on electrode properties, and the resulting performance enhancement in supercapacitors. It explores the influence of sulfidation on the morphological, structural, and compositional aspects of electrode materials, highlighting the modification of surface area, pore size distribution, crystal structure, and the formation of active sites. The discussions on the improved specific capacitance, enhanced rate capability, prolonged cycle life, and upgraded energy density achieved are accumulated. Additionally, the review explores the challenges and limitations associated with sulfurization and strategies to mitigate trials for future directions of research and developments.

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A review on the recent progress of the plant-based porous carbon materials as electrodes for high-performance supercapacitors

Cited by 25 publications

References 144 publications

Activated of Waste Palm-Oil Based on Chemical-Assisted Microwave Radition for Supercapacitor Materials

Activated of Waste Palm-Oil Based on Chemical-Assisted Microwave Radition for Supercapacitor Materials

Fabricating carbon-based electrode materials via uptake of amino nano-polystyrene into Pistia stratiotes roots for enhancing supercapacitance

Sulfurization of Electrode Material: A Promising Window for Supercapacitor Technology

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