Waste-to-Energy

The technology is used to generate energy and biogases from wastes through the use of bacteria.

A modular system capable of waste conversion and hydrogen production has been developed to reduce cost and increase sustainability. For microbial electrolysis cell technology to be commercial, a current density and hydrogen productivity of >20 A/m2 and >15 L-hydrogen/L-reactor/day, respectively are needed. The main technical risks and challenges to reach high productivity at large-scale are: (1) Achieving and maintaining high conversion of waste, (2) Charge transfer, (3) Reactor material costs. We have achieved promising results in the first two areas, developing a robust electro-active microbial community capable of efficiently directing a wide range of compounds present in waste into electrons. Additionally, we have optimized operating conditions and improved reactor design to develop a bioelectrochemical cell capable of reaching the target current densities and hydrogen production. Integration of these advances in preliminary testing with food waste has shown a current density even higher than the targets mentioned above, indicating potential for success in application development.

The Echogen Power Systems team will develop an energy storage system that uses a carbon dioxide (CO2) heat pump cycle to convert electrical energy to thermal energy by heating a “reservoir” of low cost materials such as sand or concrete. The reservoir will retain heat that will be converted back into electricity on demand. To generate power, liquid CO2 will be pumped through the high-temperature reservoir to a supercritical state, after which it will expand through a turbine
to generate electricity from the stored heat.

Turns out, our coffee-fuel burns hotter than coal or wood. Help us get coffee out of landfill and into your hands as clean, sustainable fuel you don’t have to feel guilty about.

Reduce your carbon footprint by instead letting us turn your waste into a useful asset