Karol Plesiński | Fluid mechanics | Innovative Research Award

Innovative Researcher Award

Karol Plesiński
University of Agriculture in Krakow, Poland

Karol Plesiński
Affiliation University of Agriculture in Krakow
Country Poland
Scopus ID 55935542500
Documents 46
Citations 409
h-index 13
Subject Area Fluid mechanics
Event Global CAD Awards
ORCID 0000-0003-2157-2502

Karol Plesiński is a researcher affiliated with the University of Agriculture in Krakow, Poland, whose supplied publication record focuses on fluid mechanics, river hydraulics, sediment transport, and water-resource management. His listed studies investigate river systems, hydraulic structures, flood effects, and ecological considerations in water engineering. These topics connect applied fluid mechanics with environmental protection and the sustainable management of rivers and reservoirs.

Abstract

The supplied publications present research on the hydraulic behaviour and management of rivers and water infrastructure. Their themes include the reliability of sequencing batch reactor systems during the COVID-19 period, geomorphological changes near bridges, fish-pass selection, sediment-trap performance during floods, and hydrodynamic responses to reservoir backwater fluctuations. Together, these studies illustrate the relationship between fluid mechanics, water quality, river morphology, and sustainable engineering. The publication details provide a basis for describing the research themes but do not independently establish the extent of the candidate’s contribution to each study. [1] [2]

Keywords

Fluid mechanics, river hydraulics, hydrodynamics, sediment transport, river geomorphology, flood management, water quality, fish passes, reservoir backwater, sustainable water engineering.

Introduction

Fluid mechanics helps explain the movement of water through natural channels and engineered structures. In river environments, flow conditions interact with sediment, channel geometry, bridges, reservoirs, and ecological infrastructure. Understanding these relationships can support flood-risk assessment, river restoration, water-quality management, and the design of structures that preserve aquatic connectivity. The supplied publications reflect several of these applied research challenges, particularly in mountainous and Carpathian river settings. [2] [3]

Research Profile

The supplied profile lists 46 documents, 409 citations, and an h-index of 13. These bibliometric indicators offer a snapshot of indexed publication and citation activity. They can change as databases are updated and should be considered alongside methodological quality, authorship contribution, research collaboration, and the practical relevance of individual studies. The listed specialization is fluid mechanics, while the provided publication titles demonstrate connections with environmental and water-resource engineering.

Research Contributions

The supplied article titles identify several connected research directions:

  • Water-quality and treatment-system reliability during the COVID-19 period. [1]
  • Long-term geomorphological changes in Carpathian riverbeds affected by bridges. [2]
  • Multi-criteria evaluation of fish-pass options for mountainous areas. [3]
  • Assessment of flood effects on sediment-trap efficiency in a shallow reservoir. [4]
  • Modelling hydrodynamic changes associated with dam-reservoir backwater fluctuations. [5]

These themes combine analytical assessment, modelling, and water-management questions relevant to natural and engineered systems. Their significance depends on the evidence, methods, and findings reported in the full articles.

Publications

The following five publications were supplied for this profile. Each entry links to the publisher page or DOI record for further bibliographic verification.

  1. “The Reliability of SBR System During COVID-19 and Its Impact on Water Quality of a Small Flysch River in Protected Areas.” Water (2026). https://doi.org/10.3390/w18091096 [1]
  2. “Analysis of Long-Term Geomorphological Processes in Carpathian Riverbeds Affected by Bridges.” Sustainability (2026). https://doi.org/10.3390/su18094394 [2]
  3. “The Use of a Multi-Criteria Decision Analysis Method to Select the Most Favourable Type of Fish Pass in Mountainous Areas.” Water (2024). https://doi.org/10.3390/w16213118 [3]
  4. “Impact of Floods on Sediment Trap Efficiency of a Small Shallow Reservoir—A Case Study.” Sustainability (2022). https://doi.org/10.3390/su142114537 [4]
  5. “Modelling the Effects of Dam Reservoir Backwater Fluctuations on the Hydrodynamics of a Small Mountain Stream.” Water (2022). https://doi.org/10.3390/w14193166 [5]

Research Impact

Research on river hydraulics and sediment dynamics can inform the planning and maintenance of water infrastructure, while fish-pass assessment addresses ecological connectivity. Studies of water quality and treatment-system reliability also contribute to discussions about environmental monitoring and operational resilience. The listed bibliometric figures provide context for research activity, but citation counts alone cannot establish societal impact, technical effectiveness, or policy adoption.

Award Suitability

The Innovative Researcher Award associated with the Global CAD Awards offers a recognition framework for research and innovation. Plesiński’s supplied publication themes align with applied fluid mechanics, river processes, and sustainable water engineering. A fair assessment should consider verified authorship, originality, research methods, publication quality, and documented outcomes. This article summarizes supplied profile information and is not an independent determination of award eligibility or selection.

Conclusion

Karol Plesiński’s supplied academic profile reflects a sustained publication record in fluid mechanics and water-related engineering. The selected studies cover river morphology, sediment behaviour, water quality, fish-pass selection, and reservoir-driven hydrodynamics. Collectively, these topics address practical challenges in managing river environments and water infrastructure. Further review of the complete articles and individual research contributions would provide a stronger basis for evaluating their scientific and applied significance.

References

  1. “The Reliability of SBR System During COVID-19 and Its Impact on Water Quality of a Small Flysch River in Protected Areas.” Water, 2026. https://doi.org/10.3390/w18091096
  2. “Analysis of Long-Term Geomorphological Processes in Carpathian Riverbeds Affected by Bridges.” Sustainability, 2026. https://doi.org/10.3390/su18094394
  3. “The Use of a Multi-Criteria Decision Analysis Method to Select the Most Favourable Type of Fish Pass in Mountainous Areas.” Water, 2024. https://doi.org/10.3390/w16213118
  4. “Impact of Floods on Sediment Trap Efficiency of a Small Shallow Reservoir—A Case Study.” Sustainability, 2022. https://doi.org/10.3390/su142114537
  5. “Modelling the Effects of Dam Reservoir Backwater Fluctuations on the Hydrodynamics of a Small Mountain Stream.” Water, 2022. https://doi.org/10.3390/w14193166