AbstractWidespread solar fuel production depends on its economic viability, largely driven by the solar-to-fuel conversion efficiency. Herein, the material and energy requirements in two-step solar-thermochemical cyclesare considered.The need for advanced redox active materials is demonstrated, by considering the oxide mass flow requirements at a large scale. Two approaches are also identified for maximizing the efficiency: optimizing reaction temperatures, and minimizing the pressure in the thermal reduction step by staged thermal reduction. The results show that each approach individually, and especially the two in conjunction, result in significant efficiency gains
HEATS Project: The University of Minnesota is developing a solar thermochemical reactor that will ef...
Thermochemical multistep processes are promising options to face future energy problems. Such reacti...
The alternative fuel production pathway by solar thermochemical splitting of water and carbon dioxid...
AbstractWidespread solar fuel production depends on its economic viability, largely driven by the so...
International audienceThe solar thermochemical two-step splitting of H2O and CO2 based on metal oxid...
Two step metal oxide thermochemical redox cycles have seen growing interest in the research communit...
In the present work, solar-driven two-step thermochemical cycles for hydrogen production based on me...
Production of chemical fuels by isothermal pressure-swing cycles has recently generated significant ...
AbstractTwo-step metal-oxide based thermochemical cycles show great promise for the production of th...
Abstract. High-temperature thermochemical processes efficiently convert concentrated solar energy in...
With the advent of green technologies, solar fuel has gained particular interest that helps in produ...
Two-step solar thermochemical water splitting is a promising pathway for renewable fuel production d...
We present an advanced thermodynamic model for a water-splitting solar reactor system employing Zr-d...
The alternative fuel production pathway by solar thermochemical splitting of water and carbon dioxid...
Solar thermochemical cycles are promising processes for the efficient production of renewable hydrog...
HEATS Project: The University of Minnesota is developing a solar thermochemical reactor that will ef...
Thermochemical multistep processes are promising options to face future energy problems. Such reacti...
The alternative fuel production pathway by solar thermochemical splitting of water and carbon dioxid...
AbstractWidespread solar fuel production depends on its economic viability, largely driven by the so...
International audienceThe solar thermochemical two-step splitting of H2O and CO2 based on metal oxid...
Two step metal oxide thermochemical redox cycles have seen growing interest in the research communit...
In the present work, solar-driven two-step thermochemical cycles for hydrogen production based on me...
Production of chemical fuels by isothermal pressure-swing cycles has recently generated significant ...
AbstractTwo-step metal-oxide based thermochemical cycles show great promise for the production of th...
Abstract. High-temperature thermochemical processes efficiently convert concentrated solar energy in...
With the advent of green technologies, solar fuel has gained particular interest that helps in produ...
Two-step solar thermochemical water splitting is a promising pathway for renewable fuel production d...
We present an advanced thermodynamic model for a water-splitting solar reactor system employing Zr-d...
The alternative fuel production pathway by solar thermochemical splitting of water and carbon dioxid...
Solar thermochemical cycles are promising processes for the efficient production of renewable hydrog...
HEATS Project: The University of Minnesota is developing a solar thermochemical reactor that will ef...
Thermochemical multistep processes are promising options to face future energy problems. Such reacti...
The alternative fuel production pathway by solar thermochemical splitting of water and carbon dioxid...