@gas-inst.org.ua
Gas technologies departament
The Gas Institute NAS of Ukraine
Junior Specialist degree (2001);
Bachelor's degree (2004);
Master of degree (2007);
PhD (2012)
Energy, Fuel Technology, Renewable Energy, Sustainability and the Environment
Scopus Publications
Scholar Citations
Scholar h-index
H. Zhuk, Yu Ivanov, S. Krushnevych, V. Verbovskiy, D. Komissarenko, et al.
Reducing Water Use and Carbon Footprint Working Toward A Circular Economy, 2026
Ukraine hosts over 6000 landfills for municipal solid waste, annually receiving up to 12 million tons of waste. During the anaerobic digestion process, these landfills emit approximately 700,000 to 800,000 tons of methane and 1,800,000 tons of carbon dioxide each year. While landfills serve as a significant source of biogas, they also pose a genuine environmental challenge. Ukrainian landfills in cities such as Kyiv, Odesa, Sumy, Kharkiv, Ivano-Frankivsk, Lviv, Mykolaiv, and Chernihiv were thoroughly investigated to study biogas emissions. The primary method of biogas utilization in Ukraine involves electricity production (with a total installed capacity of 100 MW) and its supply to the power grid. The International Center for Gas Technologies LLC, collaborated with the Gas Institute of the National Academy of Sciences of Ukraine, successfully implemented a project to collect landfill biogas and produce 0.3 MW electric power at the Kamyanets-Podilsky landfill, which contains about two million tons of solid waste. Through computer simulations, researchers developed technological schemes for amine-based carbon dioxide extraction from biogas. An effective MDEA-modified absorbent was proposed, significantly reducing the load on the desorber reboiler compared to traditional MEA solutions. During the intensive extraction of landfill gas, methane concentrations can drop to 30% or lower. From other side, gas piston engines influenced by a critical methane content of 28%. To solve this challenge, researchers investigated biogas enrichment (via carbon dioxide extraction) while maintaining an increased air content (20–40% of nitrogen). This approach led to 1.2–1.4 times increasing in methane concentration, with the heat consumption amounting to 1.0 kW per 1 kg of carbon dioxide extraction across the entire range of biogas compositions.
Hennadiy Zhuk, Yuriy Ivanov, Liliya Onopa, Serhii Krushnevych, Mehrzad Soltanibereshne
Environmental and Climate Technologies, 2024
The EU countries are implementing biomethane production projects from biogas, supplying it to the natural gas distribution grid, or using it as motor fuel. It is also extremely relevant for Ukraine, supposing the problems with gas import due to Russian aggression. Biogas production from landfills, agriculture waste, and sewage is already implemented in Ukraine, so the next step must be biomethane production on an industrial scale and the selection of biogas separation technology is important. Using 11 years of industrial experience in biogas production from landfills, wide experience of the different methane-containing gases separations, and small companies’ industrial possibilities, the most applicable separation technologies for Ukraine were selected: amine, water, and combined water amine carbon dioxide separation. These technologies had compared using computer simulation with real landfill biogas flow rate debt. Results of a software simulation of the most applicable water-amine absorption technology were verified using a laboratory setup. For carbon dioxide concentration in biogas at 32–42 % vol., the specific energy consumption when using water absorption is on average 2 times less compared to amine absorption, but at the same time, the loss of methane due to its solubility in water during water absorption amounted to 7.1–7.6 %, with practically no losses in amine absorption, and minor losses at 0.17–2.8 % in combined water-amine technology. The energy consumption of combined water-amine absorption is comparable to that of water absorption due to: a) reduction of heat losses for the regeneration process of saturated amine absorbent, as part of carbon dioxide has already been removed with water technology; b) using the methane excess to compensate power consumption of the biogas compressor during the preliminary water absorption of carbon dioxide and/or to compensate heat costs of the saturated amine absorbent regeneration
Hennadiy Zhuk, Yuriy Ivanov, Liliya Onopa, Serhii Krushnevych, Mehrzad Soltanibereshne
Studies in Systems Decision and Control, 2024
Yu.V. Ivanov, L.R. Onopa, B.K. Ilienko, S.V. Budniak, H.V. Zhuk, et al.
Energotehnologii I Resursosberezenie, 2023
The article presents the results of the development of the modernization of the complex gas preparation installation, namely the modeling of the processes of removing heavy hydrocarbons at the stage of preparing natural gas for transportation. Heavy hydrocarbons, which are removed at this stage, become a separate commodity product in the process of processing. With the use of software systems for computer simulation of technological processes of GazCondNafta and HYSYS, a variant of the modernization of the existing installation of complex gas preparation of the gas condensate field was developed. Options for modeling technological schemes for obtaining target fractions of methane, ethane, propane, butane from natural gas, gas synthesis and pyrolysis gas are given. Bibl. 9, Fig. 5, Tab. 8.
К Іванов Ю.В., Крушневич С.П., Жук Г.В., Онопа Л.Р., Вербовський О.В.
Енерготехнології та ресурсозбереження 3, 57-68 , 2024
2024
Citations: 2
H Zhuk, Y Ivanov, L Onopa, S Krushnevych, M Soltanibereshne
Environmental and Climate Technologies 28 (1), 135-148 , 2024
2024
Citations: 8
H Zhuk, Y Ivanov, L Onopa, S Krushnevych, M Soltanibereshne
Modern Technologies in Energy and Transport, 71-109 , 2023
2023
Citations: 2
H Zhuk, S Krushnevych
XІX Міжнародна науково-практична конференція теплова енергетика: шляхи … , 2023
2023
H Zhuk, I Yurii, S Krushnevych, O Liliya, S Mekhrzad
CONECT International Scientific Conference of Environmental and Climate … , 2023
2023
YV Ivanov, LR Onopa, BK Ilienko, SV Budniak, HV Zhuk, SP Krushnevуch
Energy Technologies & Resource Saving 74 (1), 25-39 , 2023
2023
Citations: 2
МПІ Жук Г.В., Іванов Ю.В., Онопа Л.Р., Крушневич Сергій Петрович, Кубенко ...
2022
MB Hennadiy Zhuk, Serhii Krushnevych, Yuri Ivanov, Valeriy Verbovsky, Dmytro ...
1 st International Conference INNOVATIONS IN CARBON CAPTURE AND WASTE … , 2022
2022
YV Ivanov, HV Zhuk, LR Onopa, SP Krushnevych
Energy Technologies & Resource Saving, 17-26 , 2021
2021
Citations: 3
ЮВ Іванов, ГВ Жук, ЛР Онопа, СП Крушневич
Energy Technologies & Resource Saving 4, 17-24 , 2021
2021
YV Ivanov, OI Pyatnychko, HV Zhuk, LR Onopa, SP Krushnevich, ...
Energy Technologies & Resource Saving, 11-22 , 2018
2018
Citations: 1
ЮВ Іванов, ОІ П’ятничко, ГВ Жук, ЛР Онопа, СП Крушневич, ...
Энерготехнологии и ресурсосбережение, 11-22 , 2018
2018
Citations: 2
СП Крушневич, ОІ П'ятничко, ГВ Жук, МА Солтаниберешне
ScienceRise 12 (1 (41)), 53-57 , 2017
2017
SP Krushnevich, AI Pyatnichko, HV Zhuk, MA Soltanibereshne
Energy Technologies & Resource Saving, 14-17 , 2016
2016
SP Krushnevych, AY Piatnychko, HV Zhuk, MA Soltanybereshne
Energotekhnologii i resursozberezhenye 4, 14-17 , 2016
2016
Citations: 4
СП Крушневич, АИ Пятничко, ГВ Жук, МА Солтаниберешне
Энерготехнологии и ресурсосбережение, 14-17 , 2016
2016
Citations: 1
HV Zhuk, AI Pyatnichko, SB Kubenko, YV Ivanov, SP Krushnevich, ...
Energy Technologies & Resource Saving, 3-10 , 2015
2015
ГВ Жук, АИ Пятничко, СБ Кубенко, ЮВ Иванов, СП Крушневич, ...
Энерготехнологии и ресурсосбережение, 3-10 , 2015
2015
ДВ Чайка, ВГ Чайка, СП Крушневич, БИ Волохатюк, АА Хатаян
Інститут електрозварювання ім. ЄО Патона НАН України , 2015
2015
ААХ Д.В. Чайка, В.Г. Чайка, Б.И. Волохатюк, А.И. Ситко, С.П. Крушневич
Сварщик, 13-15 , 2015
2015
H Zhuk, Y Ivanov, L Onopa, S Krushnevych, M Soltanibereshne
Environmental and Climate Technologies 28 (1), 135-148 , 2024
2024
Citations: 8
АИ Пятничко, СП Крушневич
Технические газы, 48-51 , 2012
2012
Citations: 6
SP Krushnevych, AY Piatnychko, HV Zhuk, MA Soltanybereshne
Energotekhnologii i resursozberezhenye 4, 14-17 , 2016
2016
Citations: 4
YV Ivanov, HV Zhuk, LR Onopa, SP Krushnevych
Energy Technologies & Resource Saving, 17-26 , 2021
2021
Citations: 3
GV Zhuk, AI Pyatnichko, SP Krushnevich, DS Fedorenko
Energotekhnologii i Resursosberezhenie.[Energy Teknologies and Resource … , 2013
2013
Citations: 3
К Іванов Ю.В., Крушневич С.П., Жук Г.В., Онопа Л.Р., Вербовський О.В.
Енерготехнології та ресурсозбереження 3, 57-68 , 2024
2024
Citations: 2
H Zhuk, Y Ivanov, L Onopa, S Krushnevych, M Soltanibereshne
Modern Technologies in Energy and Transport, 71-109 , 2023
2023
Citations: 2
YV Ivanov, LR Onopa, BK Ilienko, SV Budniak, HV Zhuk, SP Krushnevуch
Energy Technologies & Resource Saving 74 (1), 25-39 , 2023
2023
Citations: 2
ЮВ Іванов, ОІ П’ятничко, ГВ Жук, ЛР Онопа, СП Крушневич, ...
Энерготехнологии и ресурсосбережение, 11-22 , 2018
2018
Citations: 2
ГВ Жук, АИ Пятничко, СП Крушневич, ДС Федоренко
Энерготехнологии и ресурсосбережение, 10-17 , 2013
2013
Citations: 2
СП Крушневич
Энерготехнологии и ресурсосбережение, 11-16 , 2011
2011
Citations: 2
YV Ivanov, OI Pyatnychko, HV Zhuk, LR Onopa, SP Krushnevich, ...
Energy Technologies & Resource Saving, 11-22 , 2018
2018
Citations: 1
СП Крушневич, АИ Пятничко, ГВ Жук, МА Солтаниберешне
Энерготехнологии и ресурсосбережение, 14-17 , 2016
2016
Citations: 1
СП Крушневич
Энерготехнологии и ресурсосбережение, 28-31 , 2010
2010
Citations: 1
H Zhuk, S Krushnevych
XІX Міжнародна науково-практична конференція теплова енергетика: шляхи … , 2023
2023
H Zhuk, I Yurii, S Krushnevych, O Liliya, S Mekhrzad
CONECT International Scientific Conference of Environmental and Climate … , 2023
2023
МПІ Жук Г.В., Іванов Ю.В., Онопа Л.Р., Крушневич Сергій Петрович, Кубенко ...
2022
MB Hennadiy Zhuk, Serhii Krushnevych, Yuri Ivanov, Valeriy Verbovsky, Dmytro ...
1 st International Conference INNOVATIONS IN CARBON CAPTURE AND WASTE … , 2022
2022
ЮВ Іванов, ГВ Жук, ЛР Онопа, СП Крушневич
Energy Technologies & Resource Saving 4, 17-24 , 2021
2021
СП Крушневич, ОІ П'ятничко, ГВ Жук, МА Солтаниберешне
ScienceRise 12 (1 (41)), 53-57 , 2017
2017