Mykola V. Moroz
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Mykola V. Moroz has a total of 79 co-authors. Here are the top co-authors by number of shared publications:
- Myroslava Prokhorenko
Lviv Polytechnic National University
28 shared publications - Fiseha Tesfaye
Johan Gadolin Process Chemistry Centre, Åbo Akademi University, Turku, Finland
25 shared publications - Oleksandr V. Reshetnyak
Department of Propaedeutics of Internal Diseases and Gastroenterology, A.I. Yevdokimov Moscow State University of Medicine and Dentistry, Moscow 127473, Russia
16 shared publications - Pavlo Demchenko
Department of Inorganic Chemistry, Ivan Franko National University of Lviv, 6, Kyryla i Mefodiya Str., 79000 Lviv, Ukraine
16 shared publications - Leena Hupa
Laboratory of Molecular Science and Engineering, Åbo Akademi, Henriksgatan 2, 20500 Åbo, Finland
12 shared publications - Daniel Lindberg
Department of Chemical and Metallurgical Engineering, Aalto University, Espoo, Finland
11 shared publications
Latest Publications
- 22 April 2026
- Published by Publishing House Helvetica (Publications) in Business Navigator
- No. 2(85)
DIGITAL TECHNOLOGIES IN TRANSPORT LOGISTICS
The rapid advancement of digital technologies is fundamentally reshaping the global economy, and transport logistics stands at the forefront of this transformation. In an era where speed, transparency, and resilience define competitive advantage, the ability of transport companies to adopt and integrate digital tools has become a critical determinant of their long-term viability. This is particularly relevant for Ukraine, where the sector operates under the compounding pressures of global digitalization trends and the devastating consequences of full-scale military aggression that began in February 2022. The urgency of researching digital technologies in transport logistics is driven by several interconnected factors. First, the global logistics industry is undergoing a structural shift driven by the proliferation of artificial intelligence, the Internet of Things, blockchain, digital twins, and cloud-based management systems. These technologies are no longer experimental – they have become operational standards for leading logistics operators worldwide, redefining how freight is tracked, routed, documented, and managed. Second, Ukraine's transport and logistics sector faces a uniquely challenging environment in which traditional supply chains have been disrupted, infrastructure has been partially destroyed, and established routes have been fundamentally altered. In this context, digitalization is no longer a strategic aspiration but an immediate operational imperative. The article examines a range of pressing issues that remain insufficiently addressed in the existing scholarly literature. These include the absence of a comprehensive systems-level analysis of how various digital technologies interact as a unified platform under wartime constraints such as personnel shortages, energy instability, and route reorientation. Furthermore, the practical mechanisms through which small and medium-sized transport enterprises, which form the backbone of Ukraine's freight market, can realistically implement digital solutions remain underexplored. The prospects for integrating Ukraine's transport and logistics infrastructure into European digital standards, particularly in the context of EU accession, also represent a significant gap in current research. By addressing these questions, the article contributes to a broader understanding of how digital transformation can serve not only as a tool for operational efficiency but also as a means of building sectoral resilience in times of profound uncertainty.
- 22 April 2026
- Published by Publishing House Helvetica (Publications) in Business Navigator
- No. 2(85)
DIGITAL TECHNOLOGIES IN TRANSPORT LOGISTICS
The rapid advancement of digital technologies is fundamentally reshaping the global economy, and transport logistics stands at the forefront of this transformation. In an era where speed, transparency, and resilience define competitive advantage, the ability of transport companies to adopt and integrate digital tools has become a critical determinant of their long-term viability. This is particularly relevant for Ukraine, where the sector operates under the compounding pressures of global digitalization trends and the devastating consequences of full-scale military aggression that began in February 2022. The urgency of researching digital technologies in transport logistics is driven by several interconnected factors. First, the global logistics industry is undergoing a structural shift driven by the proliferation of artificial intelligence, the Internet of Things, blockchain, digital twins, and cloud-based management systems. These technologies are no longer experimental – they have become operational standards for leading logistics operators worldwide, redefining how freight is tracked, routed, documented, and managed. Second, Ukraine's transport and logistics sector faces a uniquely challenging environment in which traditional supply chains have been disrupted, infrastructure has been partially destroyed, and established routes have been fundamentally altered. In this context, digitalization is no longer a strategic aspiration but an immediate operational imperative. The article examines a range of pressing issues that remain insufficiently addressed in the existing scholarly literature. These include the absence of a comprehensive systems-level analysis of how various digital technologies interact as a unified platform under wartime constraints such as personnel shortages, energy instability, and route reorientation. Furthermore, the practical mechanisms through which small and medium-sized transport enterprises, which form the backbone of Ukraine's freight market, can realistically implement digital solutions remain underexplored. The prospects for integrating Ukraine's transport and logistics infrastructure into European digital standards, particularly in the context of EU accession, also represent a significant gap in current research. By addressing these questions, the article contributes to a broader understanding of how digital transformation can serve not only as a tool for operational efficiency but also as a means of building sectoral resilience in times of profound uncertainty.
- 26 March 2026
- Published by National University of Water and Environmental Engineering in Bulletin National University of Water and Environmental Engineering
- Vol. 1 (113) , 91-100
ФОРМУВАННЯ КВАЗІБІНАРНИХ ПЕРЕРІЗІВ МІЖ Tl(I), Cd ТА Ge(IV) СЕЛЕНІДАМИ
При вивченні фізико-хімічної взаємодії в системі Tl–Cd–Ge–Se основна увага приділялася квазібінарним перерізам на основі Tl2CdGe3Se8 за участю стабільних подвійних і потрійних сполук в межах квазіпотрійної системи Tl2Se–CdSe–GeSe2, в якій відомо про утворення двох тетрарних сполук: Tl2CdGeSe4 та Tl2CdGe3Se8, що кристалізуються в ПГ I‑42m та P212121, відповідно. При наявності на обмежуючих квазіподвійних сторонах Tl2Se–GeSe2 та CdSe–GeSe2 чотирьох тернарних халькогенідних сполук Tl4GeSe4, Tl2GeSe3, Tl2Ge2Se5 та Cd4GeSe6 і двох тетрарних всередині системи Tl2CdGeSe4, Tl2CdGe3Se8, з яких перші дві та остання утворюються конґруентно, з’ясовано, що квазіпотрійна система Tl2Se–CdSe–GeSe2 триангулюється п’ятьма перерізами Tl4GeSe4–CdSe, Tl2GeSe3–CdSe, Tl2GeSe3– Tl2CdGe3Se8, Tl2CdGe3Se8–GeSe2 та Tl2CdGe3Se8–CdSe на п’ять вторинних підсистем: Tl2Se–CdSe–Tl4GeSe4, Tl4GeSe4–CdSe–Tl2GeSe3, Tl2GeSe3–CdSe–Tl2CdGe3Se8, Tl2GeSe3–Tl2CdGe3Se8–GeSe2, CdSe–Tl2CdGe3Se8–GeSe2.
- 26 March 2026
- Published by National University of Water and Environmental Engineering in Bulletin National University of Water and Environmental Engineering
- Vol. 1 (113) , 91-100
ФОРМУВАННЯ КВАЗІБІНАРНИХ ПЕРЕРІЗІВ МІЖ Tl(I), Cd ТА Ge(IV) СЕЛЕНІДАМИ
При вивченні фізико-хімічної взаємодії в системі Tl–Cd–Ge–Se основна увага приділялася квазібінарним перерізам на основі Tl2CdGe3Se8 за участю стабільних подвійних і потрійних сполук в межах квазіпотрійної системи Tl2Se–CdSe–GeSe2, в якій відомо про утворення двох тетрарних сполук: Tl2CdGeSe4 та Tl2CdGe3Se8, що кристалізуються в ПГ I‑42m та P212121, відповідно. При наявності на обмежуючих квазіподвійних сторонах Tl2Se–GeSe2 та CdSe–GeSe2 чотирьох тернарних халькогенідних сполук Tl4GeSe4, Tl2GeSe3, Tl2Ge2Se5 та Cd4GeSe6 і двох тетрарних всередині системи Tl2CdGeSe4, Tl2CdGe3Se8, з яких перші дві та остання утворюються конґруентно, з’ясовано, що квазіпотрійна система Tl2Se–CdSe–GeSe2 триангулюється п’ятьма перерізами Tl4GeSe4–CdSe, Tl2GeSe3–CdSe, Tl2GeSe3– Tl2CdGe3Se8, Tl2CdGe3Se8–GeSe2 та Tl2CdGe3Se8–CdSe на п’ять вторинних підсистем: Tl2Se–CdSe–Tl4GeSe4, Tl4GeSe4–CdSe–Tl2GeSe3, Tl2GeSe3–CdSe–Tl2CdGe3Se8, Tl2GeSe3–Tl2CdGe3Se8–GeSe2, CdSe–Tl2CdGe3Se8–GeSe2.
- Open Access
- 27 July 2025
- Published by Elsevier in Chemical Thermodynamics and Thermal Analysis
- Vol. 19
Solid-phase relations in the FeSe-Ga2Se3-Se system and thermodynamic investigation of the FeGa2Se4 compound and (FeSe)1-х(Ga2Se3)х solid solutions
- 27 July 2025
- Published by Elsevier in Chemical Thermodynamics and Thermal Analysis
- Vol. 19
Open AccessSolid-phase relations in the FeSe-Ga2Se3-Se system and thermodynamic investigation of the FeGa2Se4 compound and (FeSe)1-х(Ga2Se3)х solid solutions
- 25 February 2025
- Published by Springer Nature
- p. 267-277
Low-Temperature Synthesis and Thermodynamic Properties of the AgGaGeS4 Compound for Potential Applications in Optoelectronics and Gas Sensors
- 25 February 2025
- Published by Springer Nature
- p. 267-277
Low-Temperature Synthesis and Thermodynamic Properties of the AgGaGeS4 Compound for Potential Applications in Optoelectronics and Gas Sensors
- Open Access
Extraction and Recovery of Valuable Metals from Waste and Mineral Materials: Editorial Review
Metals are the anchor of modern civilization and are constituents from infrastructure to electronics
Open AccessExtraction and Recovery of Valuable Metals from Waste and Mineral Materials: Editorial Review
Metals are the anchor of modern civilization and are constituents from infrastructure to electronics
- 20 December 2024
- Published by Springer Nature in JOM
- Vol. 77 (2) , 729-736
Phase Equilibria and Thermodynamic Properties of Compounds in the Ag2FeS2–Ga2S3 Cross-Section of the Ag–Fe–Ga–S System Determined by the EMF Method
- 20 December 2024
- Published by Springer Nature in JOM
- Vol. 77 (2) , 729-736
Phase Equilibria and Thermodynamic Properties of Compounds in the Ag2FeS2–Ga2S3 Cross-Section of the Ag–Fe–Ga–S System Determined by the EMF Method
- 23 February 2024
- Published by Springer Nature in Journal of Phase Equilibria and Diffusion
- Vol. 45 (3) , 447-458
Phase Equilibria and Thermodynamic Properties of Selected Compounds in the Ag-Ga-Te-AgBr System
- 23 February 2024
- Published by Springer Nature in Journal of Phase Equilibria and Diffusion
- Vol. 45 (3) , 447-458
Phase Equilibria and Thermodynamic Properties of Selected Compounds in the Ag-Ga-Te-AgBr System
- 16 December 2023
- Published by Vasyl Stefanyk Carpathian National University in Physics and Chemistry of Solid State
- Vol. 24 (4) , 699-706
Experimental investigation and thermodynamic assessment of phase equilibria in the GaTe–AgGa5Te8–Te system below 600 K
- 16 December 2023
- Published by Vasyl Stefanyk Carpathian National University in Physics and Chemistry of Solid State
- Vol. 24 (4) , 699-706
Experimental investigation and thermodynamic assessment of phase equilibria in the GaTe–AgGa5Te8–Te system below 600 K