TK4093 CHEMICAL ENGINEERING RESEARCH II The Effect of Graphene : Activated Carbon Ratio and humidity on Zinc-Air Battery

The increase in electricity demand is inbalence with the amount of electricity produced by available power plants. Therefore, a battery, which effectively and efficiently capable for producing and storing energy is required. The secondary Zn-Air battery has advantages over other types of metal-air b...

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Main Author: Angraeni Taropo, Gita
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/35325
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:35325
spelling id-itb.:353252019-02-25T10:32:15ZTK4093 CHEMICAL ENGINEERING RESEARCH II The Effect of Graphene : Activated Carbon Ratio and humidity on Zinc-Air Battery Angraeni Taropo, Gita Indonesia Final Project Zn-Air battery, Graphene, Activated carbon, Humidity. INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/35325 The increase in electricity demand is inbalence with the amount of electricity produced by available power plants. Therefore, a battery, which effectively and efficiently capable for producing and storing energy is required. The secondary Zn-Air battery has advantages over other types of metal-air batteries, which are having high energy and power density, high safety factors, and economic viability. Due to the limited charge and discharge cycles, Zn-Air batteries suffer from low round trip efficiency and considerably high overpotential. Therefore, high conductivity electrocatalyst materials are needed to catalyze cathodic reaction. Cathodes with the composition of 100% graphene provide better operating performance, smaller resistance, and greater capacitance than other cathode compositions at the same humidity conditions. At 70% RH, which is typical of humidity in tropical countries, the battery shows better operating performance than at 60% RH and 80% RH in the same cathode composition. The performance and operation mechanism of Zn-air battery based on the assembly technique of battery. After electrochemical characterization, the physical characterization of Zn-Air batteries are tested to determine the cathode activity using Scanning Electron Microscope (SEM) and X-ray Diffraction (XRD) analysis showed the agglomeration of Ni electrocatalyst which caused the decrease in cathode conductivity. 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 The increase in electricity demand is inbalence with the amount of electricity produced by available power plants. Therefore, a battery, which effectively and efficiently capable for producing and storing energy is required. The secondary Zn-Air battery has advantages over other types of metal-air batteries, which are having high energy and power density, high safety factors, and economic viability. Due to the limited charge and discharge cycles, Zn-Air batteries suffer from low round trip efficiency and considerably high overpotential. Therefore, high conductivity electrocatalyst materials are needed to catalyze cathodic reaction. Cathodes with the composition of 100% graphene provide better operating performance, smaller resistance, and greater capacitance than other cathode compositions at the same humidity conditions. At 70% RH, which is typical of humidity in tropical countries, the battery shows better operating performance than at 60% RH and 80% RH in the same cathode composition. The performance and operation mechanism of Zn-air battery based on the assembly technique of battery. After electrochemical characterization, the physical characterization of Zn-Air batteries are tested to determine the cathode activity using Scanning Electron Microscope (SEM) and X-ray Diffraction (XRD) analysis showed the agglomeration of Ni electrocatalyst which caused the decrease in cathode conductivity.
format Final Project
author Angraeni Taropo, Gita
spellingShingle Angraeni Taropo, Gita
TK4093 CHEMICAL ENGINEERING RESEARCH II The Effect of Graphene : Activated Carbon Ratio and humidity on Zinc-Air Battery
author_facet Angraeni Taropo, Gita
author_sort Angraeni Taropo, Gita
title TK4093 CHEMICAL ENGINEERING RESEARCH II The Effect of Graphene : Activated Carbon Ratio and humidity on Zinc-Air Battery
title_short TK4093 CHEMICAL ENGINEERING RESEARCH II The Effect of Graphene : Activated Carbon Ratio and humidity on Zinc-Air Battery
title_full TK4093 CHEMICAL ENGINEERING RESEARCH II The Effect of Graphene : Activated Carbon Ratio and humidity on Zinc-Air Battery
title_fullStr TK4093 CHEMICAL ENGINEERING RESEARCH II The Effect of Graphene : Activated Carbon Ratio and humidity on Zinc-Air Battery
title_full_unstemmed TK4093 CHEMICAL ENGINEERING RESEARCH II The Effect of Graphene : Activated Carbon Ratio and humidity on Zinc-Air Battery
title_sort tk4093 chemical engineering research ii the effect of graphene : activated carbon ratio and humidity on zinc-air battery
url https://digilib.itb.ac.id/gdl/view/35325
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