Hybrid-renewable processes for biofuels production: concentrated solar pyrolysis of biomass residues
Author(s) -
Anthe George,
Manfred Geier,
Daniel Dedrick
Publication year - 2014
Language(s) - English
Resource type - Reports
DOI - 10.2172/1172803
Subject(s) - renewable energy , biofuel , pyrolysis , biomass (ecology) , concentrated solar power , environmental science , process engineering , solar energy , bioenergy , waste management , pulp and paper industry , engineering , agronomy , electrical engineering , biology
The viability of thermochemically-derived biofuels can be greatly enhanced by reducing the process parasitic energy loads. Integrating renewable power into biofuels production is one method by which these efficiency drains can be eliminated. There are a variety of such potentially viable "hybrid-renewable" approaches; one is to integrate concentrated solar power (CSP) to power biomass-to-liquid fuels (BTL) processes. Barriers to CSP integration into BTL processes are predominantly the lack of fundamental kinetic and mass transport data to enable appropriate systems analysis and reactor design. A novel design for the reactor has been created that can allow biomass particles to be suspended in a flow gas, and be irradiated with a simulated solar flux. Pyrolysis conditions were investigated and a comparison between solar and non-solar biomass pyrolysis was conducted in terms of product distributions and pyrolysis oil quality. A novel method was developed to analyse pyrolysis products, and investigate their stability.
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