Preparation and Capacitive Properties of Nickel-manganese Oxides/Multiwalled Carbon Nanotube/Poly (3,4-ethylenedioxythiophene) Composite Material for Electrochemical Supercapacitor

Kiamahalle, M. V.; Cheng, Chunfeng; Sata, Suhairi A.; Buniran, Surani; Zein, Sharif Hussein Sharif

doi:10.3923/jas.2011.2346.2351

Cited by 6 publications

(4 citation statements)

References 25 publications

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“…In addition, oil prices can rise, leading to even more interest in investment and expansion. In the same way, the production of hydrogen and carbon nanotubes from natural gas has attracted research and industrial interest [42][43][44][45][46][47][48].…”

Section: Costmentioning

confidence: 99%

Modelling and Simulation of Dissolution/Reprecipitation Technique for Low-Density Polyethene Using Solvent/Non-Solvent System

et al. 2022

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The global production and consumption of plastics have continued to increase. Plastics degrade slowly, causing persistent environmental pollution Developed waste plastic recycling methods are discussed in this report, with a focus on the dissolution/reprecipitation technique to restore low-density polyethene (LDPE) wastes. Aspen HYSYS is used to simulate the recycling of waste LDPE. Turpentine/petroleum ether (TURP/PetE) is chosen as solvent/non-solvent with fractions proved efficient through laboratory experiments. PetE is selected to be the non-solvent used for the precipitation of pure LDPE. The feedstock is assumed to be LDPE products containing additives such as dye. The simulation model developed estimated a pure LDPE precipitate recovery with a composition of 99% LDPE with a flowrate of 1024 tonnes per year. In addition, Aspen HYSYS could approximate a rough cost estimate that includes utility cost, installation cost and other factors. Technical challenges were eliminated, and several assumptions were taken into consideration to be able to simulate the process.

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Section: Costmentioning

confidence: 99%

Modelling and Simulation of Dissolution/Reprecipitation Technique for Low-Density Polyethene Using Solvent/Non-Solvent System

et al. 2022

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“…Referring to Figure 1, Hybrid nanocomposites can be made from different double layer capacitor and pseudocapacitor materials such as conducting polymer/CNTs (Hughes et al, 2002, Lee et al, 2002, Xiao and Zhou, 2003, Konyushenko et al, 2006, Kumar and Chen, 2008, Peng et al, 2008, activated carbon/conducting polymer (Arbizzani et al, 1996b, Laforgue et al, 2003, Shekhar et al, 2006, Snook et al, 2009, activated carbon/CNTs (Emmenegger et al, 2003, Wang et al, 2005, Taberna et al, 2006, metal oxide/activated carbon (Jang et al, 2003, Wu et al, 2004, Zhang et al, 2005, Liang et al, 2008, metal oxide/CNTs (Reddy and Ramaprabhu, 2007, Kiamahalleh et al, 2010b, Kiamahalleh et al, 2009, mixed metal oxide/CNTs (Fan et al, 2007, NuLi et al, 2009 and metal oxide/CNTs/ conducting polymer (Kiamahalleh et al, 2011, Kiamahalleh et al, 2010a, Zamri et al, 2012, Sot et al, 2010, Sivakkumar et al, 2007, Hou et al, 2010.…”

Section: Hybrid Nanocomposite-based Supercapacitorsmentioning

confidence: 99%

“…They do not contain hazardous or toxic materials, and their waste materials are easily disposed (Wang et al, 2012). Using porous carbon materials (Laforgue et al, 2003, Yan et al, 2010, Hou et al, 2010, Kiamahalleh et al, 2011, Ruifeng et al, 2010, conducting polymers (Sot et al, Laforgue et al, 2003, Kiamahalleh et al, 2011, Sheng et al, 2012 and transition-metal oxides (Hou et al, 2010, Bose et al, 2012, Lu et al, 2012, Kiamahalleh et al, 2011, Ruifeng et al, 2010 as single or hybrid electrodes and ionic based liquids (Laforgue et al, 2003, Lu et al, 2012 as electrolyte suggested supercapacitor as the most environmental friendly and promising energy storage system.…”

Section: Environmental Friendlinessmentioning

confidence: 99%

Future Scope and Directions of Nanotechnology in Creating Next-Generation Supercapacitors

Jayalekshmi¹,

Puthirath²

2014

Nanostructured Ceramic Oxides for Supercapacitor Applications

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Company name Country Device name Capacitance range Voltage range Website AVX USA Bestcap 0.022-0.56 3.5-12 www.avxcorp.com Cap-XX Australia Supercapacitor 0.09-2.8 2.25-4.5 www.cap-xx.com Cooper USA Powerstore 0.47-50 2.3-5 www.powerstore.com ELNA USA Dynacap 0.033-100 2.5-6.3 www.wlna-america.com ESMA Russia Capacitor modules 100-5000 12-52 www.esma-cap.com Epcos USA Ultracapacitor 5-5000 2.3-2.5 www.epcose.com Evans USA Capattery 0.01-1.5 5.5-11 www.evanscap.com Kold Ban USA KAPower 1000 12 www.koldban.com Maxwell USA Bootcap 1.8-2000 2.5 www.maxwell.com NEC Japan Supercapacitor 0.01-6.5 3.5-12 www.nec-tokin.net Ness Korea EDLC 10-3500 3 www.nescap.com Panasonic Japan Gold capacitor 0.1-2000 2.3-5.6 www.macopanasonic.co.jp Tavrima Canada Supercapacitor 0.13-160 14-300 www.tavrima.com

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“…In another study, PEDOT was prepared by chemical polymerization in the presence of the Fe(III) oxidant and MWCNTs, which were coated by nickel-manganese oxides (NMO). 51 This procedure resulted in formation of a uniform coating of a PEDOT film on MWC-NTs/NMO. The SC of 526 F g −1 was obtained for the two-electrode symmetrical supercapacitor during the galvanostatic charge-discharge measurements with an applied constant current of 10 mA in the potential range of 0 and 1 V.…”

Section: M3125mentioning

confidence: 99%

Composites of Conducting Polymers and Various Carbon Nanostructures for Electrochemical Supercapacitors

Pieta¹,

Obraztsov²,

D’Souza³

et al. 2013

ECS J. Solid State Sci. Technol.

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Supercapacitors are energy storage devices known for their long life charge-discharge cycling stability, highly reversible charge storage ability, and high power density. Carbon nanomaterials, particularly carbon nanotubes (CNTs) and graphene have been recognized as promising active materials due to their outstanding conductivity and large surface area, the two key requirements of superior supercapacitor electrode materials. Moreover, the composites of these nanomaterials and different conducting polymers (CPs) are borne out to be even more promising for that purpose. The present article provides a critical review of conducting composites made of the fullerene-based polymers belonging to the redox conducting polymers (RCP), the aniline, pyrrole and thiophene π-electron polymers of the electronically conducting polymers (ECPs) family and CNTs- and/or graphene-based structured nanomaterials. Specific capacitance values up to ∼900 F g−1 were reported for some nanocarbon/CP composites indicating that they can be considered as future electrode materials for constructing charge storage devices.

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Preparation and Capacitive Properties of Nickel-manganese Oxides/Multiwalled Carbon Nanotube/Poly (3,4-ethylenedioxythiophene) Composite Material for Electrochemical Supercapacitor

Cited by 6 publications

References 25 publications

Modelling and Simulation of Dissolution/Reprecipitation Technique for Low-Density Polyethene Using Solvent/Non-Solvent System

Modelling and Simulation of Dissolution/Reprecipitation Technique for Low-Density Polyethene Using Solvent/Non-Solvent System

Future Scope and Directions of Nanotechnology in Creating Next-Generation Supercapacitors

Composites of Conducting Polymers and Various Carbon Nanostructures for Electrochemical Supercapacitors

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