General Concepts from the Risk Assessment and Hazard Identification of HTL-Derived Bio-Oil: A Case Study of the MARINES Project

This study evaluates the risk assessment and hazard identification of hydrothermal liquefaction (HTL)-derived bio-oil from the MARINES project, which converts military organic waste into fuel. The high oxygen content (35–50 wt%), acidic pH (2–4), and viscosity (10–1000 cP) of bio-oils pose unique challenges, including oxidative polymerization, corrosion, and micro-explosions during combustion. Key hazards include storage instability, particulate emissions (20–30% higher than diesel), and aquatic toxicity (LC50 < 10 mg/L for phenolics). Mitigation strategies such as inert gas blanketing, preheating, and spill containment are proposed. While offering renewable fuel potential, HTL bio-oil demands rigorous safety protocols for military/industrial deployment, warranting further experimental validation.

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Published
2025-07-25
DOI
https://doi.org/10.3390/proceedings2025121012
Primary Topic
Graphite, nuclear technology, radiation studies
Type
article
Field-Weighted Citation Impact
0.00

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article

General Concepts from the Risk Assessment and Hazard Identification of HTL-Derived Bio-Oil: A Case Study of the MARINES Project

Nicholas J. Daras, Christos Michalopoulos, Georgia Melagraki, P. C. Divari et al.
Graphite, nuclear technology, radiation studies
article

General Concepts from the Risk Assessment and Hazard Identification of HTL-Derived Bio-Oil: A Case Study of the MARINES Project

Nicholas J. Daras, Christos Michalopoulos, Georgia Melagraki, P. C. Divari, Constantinos C. Karamatsoukis, Konstantinos G. Kolovos, Dionysios E. Mouzakis, Theodore E. Liolios
article en

Abstract

This study evaluates the risk assessment and hazard identification of hydrothermal liquefaction (HTL)-derived bio-oil from the MARINES project, which converts military organic waste into fuel. The high oxygen content (35–50 wt%), acidic pH (2–4), and viscosity (10–1000 cP) of bio-oils pose unique challenges, including oxidative polymerization, corrosion, and micro-explosions during combustion. Key hazards include storage instability, particulate emissions (20–30% higher than diesel), and aquatic toxicity (LC50 < 10 mg/L for phenolics). Mitigation strategies such as inert gas blanketing, preheating, and spill containment are proposed. While offering renewable fuel potential, HTL bio-oil demands rigorous safety protocols for military/industrial deployment, warranting further experimental validation.

National Technical University of Athens (GR), Hellenic Military Academy (GR)
European Commission
Life below water
Openalex Percentile: Top 86%
Graphite, nuclear technology, radiation studies
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General Concepts from the Risk Assessment and Hazard Identification of HTL-Derived Bio-Oil: A Case Study of the MARINES Project — Nicholas J. Daras, Christos Michalopoulos, et al. · (2025) | TGRS Research Map | TGRS