Viktor Józsa

associate professor

Budapest University of Technology and Economics

Hungary

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Viktor Józsa is an associate professor at Budapest University of Technology and Economics, Hungary. His research focuses primarily on combustion dynamics and atomization processes, as highlighted in his recent publications. These include studies on pollutant emission monitoring, dual-fuel co-combustion, and detailed analysis of spray characteristics in various combustion environments.

Viktor Józsa

Research Interests

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Articles (19)

Corrigendum to Empirical correlation for spray half cone angle in plain-jet airblast atomizers

Investigation of NO emissions and chemical reaction kinetics of ammonia/methane flames under dual-fuel co-combustion mode at elevated air temperature conditions

Modelling of JP-8 distributed combustion using a HyChem mechanism under gas turbine conditions

Detailed spray analysis of airblast atomization of various fuels in a reacting environment

Statistical analysis of rotary atomization by phase Doppler anemometry

Effects of secondary breakup, collision dynamics, gravity and evaporation on droplet size distribution in a pressure-swirl JET A-1 spray

The importance of unsteady phenomena of ammonia/methane combustion in an experimental swirl burner: Comparison of steady-state and transient simulation results

Numerical investigation on the effect of hydrogen share in NH3/H2 blends in a turbulent lean-premixed swirl burner

High-resolution pollutant emission monitoring of turbulent combustion using the photoacoustic technique

Flame emission spectroscopy analysis of distributed liquid fuel combustion

Life cycle assessment of a micro-region Hungarian municipal solid waste: Evaluation of six waste-to-energy scenarios

Schlieren analysis of non-MILD distributed combustion in a mixture temperature-controlled burner

Gas-phase velocity estimation in practical sprays by Phase-Doppler technique

Numerical modeling of distributed combustion without air dilution in a novel ultra-low emission turbulent swirl burner

Comparison of volatility characteristics and temperature-dependent density, surface tension, and kinematic viscosity of n-butanol-diesel and ABE-diesel fuel blends

Distributed combustion of diesel-butanol fuel blends in a mixture temperature-controlled burner

Dynamics and emission of nearly flameless combustion of waste cooking oil biodiesel in an ultra-low emission non-MILD swirl burner

Recent advancements in catalytic conversion pathways for synthetic jet fuel produced from bioresources

Evaluation of material property estimating methods for n-alkanes, 1-alcohols, and methyl esters for droplet evaporation calculations

Collaborators (3)

Dávid Csemány

Milan Maly

Ágnes Urbin

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