The innovative blend of HVO and biodiesel with diesel for higher generator efficiency, reduction in pollutants and investigation of persistent free radicals emissions

This study evaluates engine performance and emission characteristics of diesel/biodiesel/HVO blends (biodiesel: 0–30% vol., HVO: 10% vol.). Results demonstrate significant reductions: PM2.5 (12.5–43.9%), CO (8.01–24.5%), SO₂ (7.69–25.9%), and NOx (3.33% reduction via HVO addition). Metal emissions (Na/Fe/Ca/Al > 80% of total detected metals) decreased by 24.3–26.8%, while brake-specific fuel consumption (BSFC) improved by 2.21%. Electron paramagnetic resonance (EPR) spectroscopy revealed consistent PM2.5 microstructural properties across blends (g-factor: 2.0033–2.0035), though radical concentrations (3.0 × 1018-7.4 × 1018 spins/g) exceeded ambient levels by 10-fold. Raman analysis confirmed invariant carbon nanostructures (D/G band ratio: 0.910–0.943), indicating fuel composition primarily modulates emission quantity rather than particulate quality. These findings establish HVO-biodiesel blends as effective fossil diesel alternatives, warranting further research on environmentally persistent free radicals (EPFRs).

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Publication Details

Journal
Sustainable Environment Research
Published
2026-04-23
DOI
https://doi.org/10.1186/s42834-026-00279-z
Primary Topic
Biodiesel Production and Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

The innovative blend of HVO and biodiesel with diesel for higher generator efficiency, reduction in pollutants and investigation of persistent free radicals emissions

Pei-Cheng Cheng, Yuan‐Chung Lin, Guor‐Cheng Fang, T Y Chen et al.
Sustainable Environment Research
Biodiesel Production and Applications
article

The innovative blend of HVO and biodiesel with diesel for higher generator efficiency, reduction in pollutants and investigation of persistent free radicals emissions

Pei-Cheng Cheng, Yuan‐Chung Lin, Guor‐Cheng Fang, T Y Chen, Shang-Cyuan Chen, Feng-Chih Chou
article en

Abstract

This study evaluates engine performance and emission characteristics of diesel/biodiesel/HVO blends (biodiesel: 0–30% vol., HVO: 10% vol.). Results demonstrate significant reductions: PM2.5 (12.5–43.9%), CO (8.01–24.5%), SO₂ (7.69–25.9%), and NOx (3.33% reduction via HVO addition). Metal emissions (Na/Fe/Ca/Al > 80% of total detected metals) decreased by 24.3–26.8%, while brake-specific fuel consumption (BSFC) improved by 2.21%. Electron paramagnetic resonance (EPR) spectroscopy revealed consistent PM2.5 microstructural properties across blends (g-factor: 2.0033–2.0035), though radical concentrations (3.0 × 1018-7.4 × 1018 spins/g) exceeded ambient levels by 10-fold. Raman analysis confirmed invariant carbon nanostructures (D/G band ratio: 0.910–0.943), indicating fuel composition primarily modulates emission quantity rather than particulate quality. These findings establish HVO-biodiesel blends as effective fossil diesel alternatives, warranting further research on environmentally persistent free radicals (EPFRs).

Sustainable Environment ResearchVol. 36(1)
National Sun Yat-sen University (TW), Kaohsiung Medical University (TW), Central Taiwan University of Science and Technology (TW), Hungkuang University (TW)
National Science and Technology Council
Openalex Percentile: Top 18%
Biodiesel Production and Applications
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