I am an environmental scientist and engineer whose work connects environmental science, sustainability assessment, and applied decision-support for real-world systems. My research centres on the development and evaluation of sustainable technologies and analytical frameworks for wastewater treatment, environmental performance assessment, and resource-constrained organisations, integrating environmental, economic, and operational considerations into sustainability-oriented decision-making. My scientific activity has resulted in twelve peer-reviewed journal articles, spanning experimental, methodological, and assessment-oriented research in environmental engineering, sustainability science, and process safety. I have taken a leading first-author or corresponding-author role in many of these studies, addressing topics such as the sustainable synthesis and application of advanced materials for wastewater treatment, the operational stability and feasibility of treatment technologies, and the definition of sustainability criteria that support environmentally responsible technology deployment. Several of these contributions have been taken up by other researchers and have served as reference points in subsequent studies on sustainable wastewater treatment and environmental performance. In addition, I have contributed to one book chapter as a corresponding author and have actively disseminated research findings through international conferences and poster communications in environment- and sustainability-focused venues. Alongside experimental research, I have developed and applied sustainability-oriented assessment methodologies, including multi-criteria decision frameworks and indicator-based approaches, designed to connect laboratory innovation with real-world implementation. This direction reflects my broader research motivation: translating environmental responsibility into practical, implementable solutions that remain feasible for industry and policy stakeholders. Across my work, I consistently integrate sustainability assessment criteria into technology development and evaluation, ensuring that environmental innovations are examined not only for technical performance but also for their real-world feasibility and policy relevance. My research has been carried out in an international context, involving collaborations with research teams across Europe, Asia, and the Middle East, and spanning multiple disciplinary perspectives, including environmental engineering, materials science, chemistry, and sustainability assessment. These collaborations have led to a high level of international co-authorship and have strengthened my ability to work effectively in interdisciplinary, multicultural research environments. Alongside my research activities, I support the development of early-career researchers through informal supervision and mentoring, and I contribute to the peer-review process as a reviewer and editor for international scientific journals. In recent years, my research trajectory has increasingly focused on sustainability assessment and systems-based analysis, particularly in the context of small and medium-sized enterprises and other resource-constrained organisations. Through participation in applied research projects and direct engagement with industry, I have identified the limitations of static environmental assessments and have begun integrating systems thinking, modelling approaches, and sustainability indicators to support evidence-based decision-making at the science–policy–industry interface. Overall, my academic profile reflects a coherent progression from sustainability-oriented environmental engineering research toward integrative sustainability assessment frameworks and policy-relevant decision-support tools. This trajectory positions me to lead interdisciplinary research on complex environmental challenges, combining analytical work with international collaboration and a clear focus on societal relevance.