The effective role of by – product of PANI/V2O5 in improving the electrolytic performance of p – toluene sulphonic acid

The use of liquid by-product obtained after the synthesis of electrode material as base fluid for the preparation of aqueous electrolytes instead of distilled water is beneficial in improving the electrolytic performance of aqueous electrolytes. The p – toluene sulphonic acid (PTSA) as electrolyte exhibited superior performance when prepared using the by-product obtained after the synthesis of PANI/V 2 O 5 nanocomposite (PV) as a base fluid (PTSA+SL) to the electrolyte prepared using distilled water (PTSA). The PV exhibited 21.30% higher energy storage in the presence (ITP) of PTSA+SL compared with that attained ITP of PTSA. The capacity ( Q ) and maximum energy stored ( E max ) obtained ITP of PTSA are 1.13 C and 0.18 W h at 5 mV s 1 . The Q and E max achieved ITP of PTSA+SL are 1.38 C and 0.23 W h at 5 mV s 1 . The utilization of by-products of the synthesis of electrode material back into the energy storage process brings this approach in to the umbrella of green energy storage processes. In addition, this approach personifies the concept of “waste to wealth” approach to work towards the sustainability in energy storage. • Improvement in energy storage was attained when the byproduct waste was used in energy storage process. • The PANI/V 2 O 5 exhibited 21% higher energy storage in the presence of by-product waste with electrolyte. • The maximum capacity achieved in the presence of PTSA+by-product is 1.38 C at 5 mV s 1 . • The maximum energy stored achieved in the presence of PTSA+by-product is 0.23 W h at 5 mV s 1 • The utilization of by-products waste of the synthesis of electrode material in the energy storage process makes it a green process.

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Publication Details

Journal
Future Batteries
Published
2025-07-05
DOI
https://doi.org/10.1016/j.fub.2025.100091
Primary Topic
Supercapacitor Materials and Fabrication
Type
article
Field-Weighted Citation Impact
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article

The effective role of by – product of PANI/V2O5 in improving the electrolytic performance of p – toluene sulphonic acid

A. Nityananda Shetty, Megha Naik, Aranganathan Viswanathan, T. Ramesh
Future Batteries
Supercapacitor Materials and Fabrication
article

The effective role of by – product of PANI/V2O5 in improving the electrolytic performance of p – toluene sulphonic acid

A. Nityananda Shetty, Megha Naik, Aranganathan Viswanathan, T. Ramesh
article en

Abstract

The use of liquid by-product obtained after the synthesis of electrode material as base fluid for the preparation of aqueous electrolytes instead of distilled water is beneficial in improving the electrolytic performance of aqueous electrolytes. The p – toluene sulphonic acid (PTSA) as electrolyte exhibited superior performance when prepared using the by-product obtained after the synthesis of PANI/V 2 O 5 nanocomposite (PV) as a base fluid (PTSA+SL) to the electrolyte prepared using distilled water (PTSA). The PV exhibited 21.30% higher energy storage in the presence (ITP) of PTSA+SL compared with that attained ITP of PTSA. The capacity ( Q ) and maximum energy stored ( E max ) obtained ITP of PTSA are 1.13 C and 0.18 W h at 5 mV s 1 . The Q and E max achieved ITP of PTSA+SL are 1.38 C and 0.23 W h at 5 mV s 1 . The utilization of by-products of the synthesis of electrode material back into the energy storage process brings this approach in to the umbrella of green energy storage processes. In addition, this approach personifies the concept of “waste to wealth” approach to work towards the sustainability in energy storage. • Improvement in energy storage was attained when the byproduct waste was used in energy storage process. • The PANI/V 2 O 5 exhibited 21% higher energy storage in the presence of by-product waste with electrolyte. • The maximum capacity achieved in the presence of PTSA+by-product is 1.38 C at 5 mV s 1 . • The maximum energy stored achieved in the presence of PTSA+by-product is 0.23 W h at 5 mV s 1 • The utilization of by-products waste of the synthesis of electrode material in the energy storage process makes it a green process.

Future BatteriesVol. 7
National Institute of Technology Karnataka (IN)
Openalex Percentile: Top 90%
Supercapacitor Materials and Fabrication
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