Dr. Árpád Székely is a rice researcher and plant scientist specializing in crop improvement, with a primary focus on rice breeding. As a research fellow, his work centers on the development of resilient rice genotypes capable of withstanding the increasing challenges posed by climate change and diverse environmental conditions. His research combines classical breeding methods with modern physiological and analytical tools to deepen the understanding of stress‑response mechanisms in rice.His main scientific interest lies in the investigation of abiotic stress tolerance, including drought, salinity, and nutrient‑related stresses. By linking phenotypic performance with physiological traits and spectral characteristics, he aims to identify the markers and trait combinations that underpin improved stress resilience. Over several multi‑year and multi‑environment studies, he has examined genotype × environment interactions with particular emphasis on stability, adaptability, and long‑term performance of rice varieties.In addition to stress physiology, he also focuses on the study of polyploidy in rice and related plant groups. His work explores how whole‑genome duplication shapes plant morphology, physiology, and ecological adaptability. Polyploid‑specific features—such as altered growth patterns, increased biomass potential, or enhanced tolerance to extreme conditions—represent promising directions for future breeding strategies. His long‑term goal is to contribute to climate‑resilient crop development by combining breeding innovation with a deeper understanding of plant–environment interactions, ultimately supporting global food security efforts.

Dr. Árpád Székely is a rice researcher and plant scientist specializing in crop improvement, with a primary focus on rice breeding. As a research fellow, his work centers on the development of resilient rice genotypes capable of withstanding the increasing challenges posed by climate change and diverse environmental conditions. His research combines classical breeding methods with modern physiological and analytical tools to deepen the understanding of stress‑response mechanisms in rice.His main scientific interest lies in the investigation of abiotic stress tolerance, including drought, salinity, and nutrient‑related stresses. By linking phenotypic performance with physiological traits and spectral characteristics, he aims to identify the markers and trait combinations that underpin improved stress resilience. Over several multi‑year and multi‑environment studies, he has examined genotype × environment interactions with particular emphasis on stability, adaptability, and long‑term performance of rice varieties.In addition to stress physiology, he also focuses on the study of polyploidy in rice and related plant groups. His work explores how whole‑genome duplication shapes plant morphology, physiology, and ecological adaptability. Polyploid‑specific features—such as altered growth patterns, increased biomass potential, or enhanced tolerance to extreme conditions—represent promising directions for future breeding strategies. His long‑term goal is to contribute to climate‑resilient crop development by combining breeding innovation with a deeper understanding of plant–environment interactions, ultimately supporting global food security efforts.