Designed experiments and response-surface modelling optimise DBD-generated NO2 before real-exhaust testing for low-temperature particulate oxidation. Net energy, nitrogen-oxide by-products, durability and whole-aftertreatment performance remain decisive.
Key findings
- Designed experiments and response-surface modelling optimise DBD-generated NO2 before real-exhaust testing for low-temperature particulate oxidation. Net energy, nitrogen-oxide by-products, durability and whole-aftertreatment performance remain decisive.
Why this matters globally
This work adds internationally comparable evidence in Engineering and defines questions for replication in other populations or systems. Its global value lies in the evidence and transferable reasoning, not in a single impact score.
Thai researcher contribution
Thailand-linked authors and King Mongkut's University of Technology North Bangkok contribute to the research network behind this work. Thai participation is identified from bibliographic affiliations and should be checked against the author list and source article.
Limitations to consider
Controlled experiments do not establish in-vivo safety, clinical effectiveness, durability or industrial economics.