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MEC research in bacteria, performance. Abstract Background ...

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What they did

System
MEC

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Abstract

Abstract Background Poultry feather waste has a potential for bioenergy production because of its high protein content. This research explored the use of chicken feather hydrolysate for methane and hydrogen production via anaerobic digestion and bioelectrochemical systems, respectively. Solid state fermentation of chicken waste was conducted using a recombinant strain of Bacillus subtilis DB100 (p5.2). Results In the anaerobic digestion, feather hydrolysate produced maximally 0.67 Nm 3 CH 4 /kg feathers and 0.85 mmol H 2 /day.L concomitant to COD removal of 86% and 93%, respectively. The bioelectrochemical systems used were microbial fuel and electrolysis cells. In the first using a microbial fuel cell, feather hydrolysate produced electricity with a maximum cell potential of 375 mV and a current of 0.52 mA. In the microbial electrolysis cell, the hydrolysate enhanced the hydrogen production rate to 7.5 mmol/day.L, with a current density of 11.5 A/m 2 and a power density of 9.26 W/m 2 . Conclusions The data indicated that the sustainable utilization of keratin hydrolysate to produce electricity and biohydrogen via bioelectrical chemical systems is feasible. Keratin hydrolysate can produce electricity and biofuels through an integrated aerobic-anaerobic fermentation system. Graphical Abstract

Keywords

HydrolysateBioenergyAnaerobic digestionFood scienceFermentationMicrobial electrolysis cell

Identifiers

Journal
Microbial Cell Factories
Year
2024