The Effect of Chitosan Concentration as Binder on Electrical Conductivity of NaFePO4 for Application in Sodium Ion Battery Cathode

<p align="justify">Limited lithium resources in the world pushes further research in battery technologies, especially on lithium alternatives. Abundant in nature sodium as the second lightest and smallest metal after lithium is a potential alternative to lithium. NaFePO4, the most pr...

Full description

Saved in:
Bibliographic Details
Main Author: Tri Nugraheni (13314028), Nuurrisya Artinamuti (13314029), Nita
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/29693
Tags: Add Tag
No Tags, Be the first to tag this record!
Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:29693
spelling id-itb.:296932018-09-20T11:45:08ZThe Effect of Chitosan Concentration as Binder on Electrical Conductivity of NaFePO4 for Application in Sodium Ion Battery Cathode Tri Nugraheni (13314028), Nuurrisya Artinamuti (13314029), Nita Indonesia Final Project INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/29693 <p align="justify">Limited lithium resources in the world pushes further research in battery technologies, especially on lithium alternatives. Abundant in nature sodium as the second lightest and smallest metal after lithium is a potential alternative to lithium. NaFePO4, the most promising cathode active material, is synthetized in this research. PVDF usage as cathode binder is expensive and not environmentally friendly, therefore it is replaced with chitosan. Synthesis of NaFePO4 as the cathode active material is done using the sol-gel and Pechini sol-gel methods because they are simple while able to produce particles with a small size. To increase conductivity, multi-wall carbon nanotube (MWCNT) is added to the active material. The effect of chitosan binder on conductivity is investigated by varying chitosan concentration with the values 0%, 2%, 4% 6%, 8%, and 10%. X-ray diffraction shows that the material NaFePO4 is successfully synthetized using the Pechini sol-gel method. Addition of chitosan as a binder increases the conductivity of cathode material. The highest conductivity of cathode material without MWCNT is 1,45·10-06 S/cm, achieved at 8% chitosan concentration. Addition of 3% MWCNT increases the overall conductivity of the cathode material. In the MWCNT added cathode material, increasing chitosan concentration reduces the conductivity with the highest conductivity value 1,69·10-03 S/cm at 2% chitosan concentration. <p align="justify"> text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
description <p align="justify">Limited lithium resources in the world pushes further research in battery technologies, especially on lithium alternatives. Abundant in nature sodium as the second lightest and smallest metal after lithium is a potential alternative to lithium. NaFePO4, the most promising cathode active material, is synthetized in this research. PVDF usage as cathode binder is expensive and not environmentally friendly, therefore it is replaced with chitosan. Synthesis of NaFePO4 as the cathode active material is done using the sol-gel and Pechini sol-gel methods because they are simple while able to produce particles with a small size. To increase conductivity, multi-wall carbon nanotube (MWCNT) is added to the active material. The effect of chitosan binder on conductivity is investigated by varying chitosan concentration with the values 0%, 2%, 4% 6%, 8%, and 10%. X-ray diffraction shows that the material NaFePO4 is successfully synthetized using the Pechini sol-gel method. Addition of chitosan as a binder increases the conductivity of cathode material. The highest conductivity of cathode material without MWCNT is 1,45·10-06 S/cm, achieved at 8% chitosan concentration. Addition of 3% MWCNT increases the overall conductivity of the cathode material. In the MWCNT added cathode material, increasing chitosan concentration reduces the conductivity with the highest conductivity value 1,69·10-03 S/cm at 2% chitosan concentration. <p align="justify">
format Final Project
author Tri Nugraheni (13314028), Nuurrisya Artinamuti (13314029), Nita
spellingShingle Tri Nugraheni (13314028), Nuurrisya Artinamuti (13314029), Nita
The Effect of Chitosan Concentration as Binder on Electrical Conductivity of NaFePO4 for Application in Sodium Ion Battery Cathode
author_facet Tri Nugraheni (13314028), Nuurrisya Artinamuti (13314029), Nita
author_sort Tri Nugraheni (13314028), Nuurrisya Artinamuti (13314029), Nita
title The Effect of Chitosan Concentration as Binder on Electrical Conductivity of NaFePO4 for Application in Sodium Ion Battery Cathode
title_short The Effect of Chitosan Concentration as Binder on Electrical Conductivity of NaFePO4 for Application in Sodium Ion Battery Cathode
title_full The Effect of Chitosan Concentration as Binder on Electrical Conductivity of NaFePO4 for Application in Sodium Ion Battery Cathode
title_fullStr The Effect of Chitosan Concentration as Binder on Electrical Conductivity of NaFePO4 for Application in Sodium Ion Battery Cathode
title_full_unstemmed The Effect of Chitosan Concentration as Binder on Electrical Conductivity of NaFePO4 for Application in Sodium Ion Battery Cathode
title_sort effect of chitosan concentration as binder on electrical conductivity of nafepo4 for application in sodium ion battery cathode
url https://digilib.itb.ac.id/gdl/view/29693
_version_ 1821995477985394688