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Evaluation of the yield components, NDVI values, and water release dynamics of maize hybrids (Zea mays L.)
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2026-06-30
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Copyright (c) 2026 Hella Kalina, Attila Kristó

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Kalina, H., & Kristó, A. (2026). Evaluation of the yield components, NDVI values, and water release dynamics of maize hybrids (Zea mays L.). Növénytermelés, 75(1-2), 77-96. https://doi.org/10.12666/rqa4mk71
Abstract
Adapting to climate change is crucial in maize production. Changes in climatic factors are particularly noticeable in Hungary, which is why special attention must be paid to nutrient and water supply when growing maize hybrids.
In our analysis of agrotechnical studies for the year 2025, we focused primarily on the weather characteristics and meteorological conditions during the growing season and their effects, as well as soil and air temperature as the main factors determining crop yield.
We conducted our measurements and observations at the University of Debrecen’s Látókép Experimental Station. Here, we performed important analyses by comparing precise measurement data collected over several years. This time, the subjects of our study were maize hybrids H320 and H420. Based on the results of our long-term experiments, we can conclude that both maize hybrids possess good phenotypic traits, have a stable structure, and exhibit good root and stem characteristics. H320 produced a yield of 15.99 t/ha with relatively rapid water loss dynamics; its grain moisture content at harvest was 16.9%. The H420 corn hybrid achieved a higher yield of 18.12 t/ha with water loss dynamics that can be described as moderate. Grain moisture content at harvest was 17.67%.
Monitoring the plant’s nitrogen supply provides important information. One of the most commonly used methods is the NDVI index. We consistently measured higher NDVI values for the H420 hybrid.
Grain drying proceeded at a moderate rate following physiological maturity; the harvest date was slightly later than in previous years, but weather conditions did not hinder harvesting operations.
For the H320 hybrid, 140 days and 1,399 HU were required from emergence to physiological maturity, while for the H420 hybrid, 145 days and 1,446 HU were required from emergence to physiological maturity.
In our analysis of agrotechnical studies for the year 2025, we focused primarily on the weather characteristics and meteorological conditions during the growing season and their effects, as well as soil and air temperature as the main factors determining crop yield.
We conducted our measurements and observations at the University of Debrecen’s Látókép Experimental Station. Here, we performed important analyses by comparing precise measurement data collected over several years. This time, the subjects of our study were maize hybrids H320 and H420. Based on the results of our long-term experiments, we can conclude that both maize hybrids possess good phenotypic traits, have a stable structure, and exhibit good root and stem characteristics. H320 produced a yield of 15.99 t/ha with relatively rapid water loss dynamics; its grain moisture content at harvest was 16.9%. The H420 corn hybrid achieved a higher yield of 18.12 t/ha with water loss dynamics that can be described as moderate. Grain moisture content at harvest was 17.67%.
Monitoring the plant’s nitrogen supply provides important information. One of the most commonly used methods is the NDVI index. We consistently measured higher NDVI values for the H420 hybrid.
Grain drying proceeded at a moderate rate following physiological maturity; the harvest date was slightly later than in previous years, but weather conditions did not hinder harvesting operations.
For the H320 hybrid, 140 days and 1,399 HU were required from emergence to physiological maturity, while for the H420 hybrid, 145 days and 1,446 HU were required from emergence to physiological maturity.
https://doi.org/10.12666/rqa4mk71