POWLESS

In this project, we aim to significantly reduce the energy consumption of a biogas upgrading unit by leveraging efficient heat pumps. Advanced thermodynamic modeling and process simulations are essential for the successful implementation of the project.

In this project, we will install a series of advanced, high-speed heat pumps in an optimized configuration to significantly reduce energy consumption at the biogas upgrading facility of Nature Energy. The heat pumps, specifically designed to operate efficiently at high speeds and temperatures, will achieve a coefficient of performance (COP) factor of up to 10, making them highly effective in energy recovery. This high-performance design allows for substantial reductions in both electricity use and overall operating costs, contributing to a more sustainable and cost-efficient upgrading process.

 

In addition to the installation of the heat pumps, a critical aspect of our work will involve developing an optimal alkanolamine solution for CO₂ absorption. This solution will enhance the overall efficiency of the gas separation process by maximizing CO₂ capture while minimizing energy input. To achieve this, we will conduct detailed thermodynamic modeling and process simulations to identify the most effective solution that meets the specific needs of the biogas upgrading system.

 

The successful integration of these technologies will not only improve the energy efficiency of the biogas upgrading process but also help Nature Energy reduce its carbon footprint, aligning with broader sustainability goals. Our goal is to deliver a cutting-edge solution that maximizes both environmental and economic benefits.

 

Main supervisor:
Philip Loldrup Fosbøl

Contact

Hooman Fatoorehchi
Postdoc
DTU Chemical Engineering
+45 45 25 03 21

Contact

Philip Loldrup Fosbøl
Associate Professor
DTU Chemical Engineering
+45 45 25 28 68