Michal Holubcik

Dr. Michal Holubcik

Department of Power Engineering, University of Žilina, Žilina, Žilinský, Slovakia
orcid
Energy is the future

Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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24 February 2017 in Energy & Fuels
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Journal Article
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JJJozef Jandačka
Jozef Jandačka
JMJozef Mičieta
Jozef Mičieta
Michal HolubcikMichal Holubcik
Michal Holubcik
RNRadovan Nosek
Radovan Nosek

5 November 2015 in BioResources
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Journal Article
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RNRadovan Nosek
Radovan Nosek
Michal HolubcikMichal Holubcik
Michal Holubcik
JJJozef Jandacka
Jozef Jandacka
The Impact of Bark Content of Wood Biomass on Biofuel Properties

1 January 2017 in Procedia Engineering
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Journal Article
Open access
LRLucia Radačovská
Lucia Radačovská
Michal HolubcikMichal Holubcik
Michal Holubcik
RNRadovan Nosek
Radovan Nosek
JJJozef Jandačka
Jozef Jandačka

21 April 2024 in Fire
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Dusan JandackaDusan Jandacka
Dusan Jandacka
Daniela DurcanskaDaniela Durcanska
Daniela Durcanska
MNMiriam Nicolanska
Miriam Nicolanska
Michal HolubcikMichal Holubcik
Michal Holubcik
Complying with strict PM10 and PM2.5 limit values poses challenges in many European regions, influenced by diverse factors such as natural, regional, and local anthropogenic sources. Urban air pollution, exacerbated by road transport, local industry, and dust resuspension, contrasts with rural areas affected by solid fuel-based local heating and increasing wood burning. This study focuses on village of Sučany, located in Slovakia, analysing PM concentrations during non-heating and heating seasons. The method of analysis relies on the use of the MP101M air quality analyser that utilises beta radiation absorption method. One set of measurements was conducted at five distinct locations during the heating season (18/01/2019 to 28/02/2019) and non-heating season (14/08/2018 to 1/10/2018). Significant differences emerged during the non-heating season with corresponding PM10 averages of 23.0 µg/m3 and PM2.5 at 19.3 µg/m3. In contrast, the PM10 averaged 53.9 µg/m3 and 52.8 µg/m3 during the heating season. The heating season shows PM2.5 contributing up to 98% of total PM10. The distribution of PM10 and PM2.5 pollution and the location of the potential source obtained using polar plots differed during the heating and non-heating seasons. This research underscores the impact of local heating on air quality in a typical Slovak village. The key recommendation for targeted interventions is supporting up-to-date air quality data, education, and financial incentives for citizens in order to implement cleaner and modern heating solutions.

21 May 2014 in The Scientific World Journal
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RNRadovan Nosek
Radovan Nosek
Michal HolubcikMichal Holubcik
Michal Holubcik
ŠPŠtefan Papučík
Štefan Papučík
The effort of many manufacturers of heat sources is to achieve the maximum efficiency of energy transformation chemically bound in the fuel to heat. Therefore, it is necessary to streamline the combustion process and minimize the formation of emission during combustion. The paper presents an analysis of the combustion air temperature to the heat performance and emission parameters of burning biomass. In the second part of the paper the impact of different dendromass on formation of emissions in small heat source is evaluated. The measured results show that the regulation of the temperature of the combustion air has an effect on concentration of emissions from the combustion of biomass.

14 February 2020 in Mobile Networks and Applications
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JJJozef Jandačka
Jozef Jandačka
Michal HolubcikMichal Holubcik
Michal Holubcik