AI summary

70% confidence

Activated carbon from bamboo source shows highest electrochemical performance as cathode material in microbial fuel cells, reaching 10.6 A/m² at 0V vs. Ag/AgCl and 3.3 W/m² power density.

Generated by MESSAI extraction pipeline · review against source PDF

Generic MFCRepresentative model
Click to animate flow
loading 3D model…

Representative MFC — matched on the paper’s system type only, not its reactor or geometry.

Extraction

Reported parameters

5 extracted values

View extracted values

Open in lab for full controls, parameter editing, and template overlays.

Open in lab →

What they did

System
MFC

What worked

No outcome metrics extracted yet.

Abstract

Abstract Replacing precious metal catalysts by inexpensive activated carbon (AC) is a breakthrough in microbial fuel cell (MFC) cathode fabrication. In this study, AC powders made from bamboo, peat, coal, coconut, and hardwood sources are evaluated in terms of their electrochemical performance with carbon cloth as the base material. These ACs are characterized in terms of their conductivity, surface chemistry, surface area, and pore size distribution. The bamboo‐based AC demonstrates the highest potential for use as a catalyst for carbon cloth based cathode, reaching 10.6 A m −2 at 0V vs. Ag/AgCl and a loading of 25 mg cm −2 . The maximum power density reached 3.3 W m −2 in CEA–MFCs. The high performance of the bamboo‐based AC cathode was possible due to the good conductivity and suitable surface chemistry of the bamboo AC and the high surface area of the base material. The hydrostatic pressure tolerance of the AC carbon cloth cathode is greater than 1.8 m, allowing for a more versatile cathode, suitable for use in many different reactor configurations.

Key findings

  • Bamboo-based AC demonstrates highest potential as catalyst for carbon cloth-based cathode.
  • Maximum power density reached 3.3 W/m² in CEA-MFCs.
  • Hydrostatic pressure tolerance of AC carbon cloth cathode is greater than 1.8 m.

Keywords

CathodeCarbon fibersChemical engineeringActivated carbonElectrochemistrySpecific surface area

Identifiers

Journal
Fuel Cells
Year
2015