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Remote sensing is the process of detecting and monitoring a plant's characteristics by measuring its reflected and emitted radiation at a distance, typically from a satellite or aircraft. The handheld leaf spectrometers help validate these images at the field scale. This dataset was captured by the CI-710 s SpectraVue Leaf Spectrometer (Cid-Bioscience, Camas, WA, U.S.A.). The absorbance, reflectance, and transmittance of albino plants were measured under natural cold stress in a temperate rice-growing area [1]. The experiment was carried out in field conditions at the seedling stage. The chlorophyll degradation takes place, starting with the yellowing of the leaf until plant death. Albinos and different level of leaf colour mutants are very useful for research and as well as breeding [2]. The symptoms of cool-temperature-induced chlorosis (CTIC) are widely examined in higher plants, especially in rice [3]. Beside laboratory induction, CTIC is appearing natural low temperature in early spring, especially cold-sensitive genotypes, such as indica rice cultivars (e.g. ‘Dular’) [4]. The dataset contains raw data from 400 nm to 1100 nm with the wavelength data increment of 0.6 nm [5]. These data may provide reliable support to researcher and breeder to make a simple comparison of the extent of chlorophyll degradation.

Rice production is affected by several environmental factors, such as cold, salinity and drought stress. These unfavourable factors could have a serious impact on germination as well as on later growth, causing many types of damage. Recently, polyploid breeding can offer an alternative opportunity to enhance the yield and abiotic stress tolerance in rice breeding. This article describes some germination parameters of 11 different autotetraploid breeding lines and their parental lines under different environmental stresses. Each genotype was grown in a climate chamber under controlled conditions: 13 °C for 4 weeks in the cold test and 30/25 °C for 5 days in control, salinity (150 mM NaCl) and drought (15% PEG 6000) treatments, respectively. The germination process was monitored throughout the experiment. The average data were calculated using three replicates. This dataset contains germination raw data and three calculated germination parameters, such as median germination time (MGT), final germination percentage (FGP), and germination index (GI). These data may provide reliable support to clarify whether the tetraploid lines can exceed the performance of their diploid parental lines under germination phase or not.

Hungary is northernmost temperate rice growing country in Europe. One of the main limiting factors is low temperature, especially at germination and seedling developmental stages. In early developmental stages, low temperature can impair and delay germination, as well as have negative impacts on seedling growth, causing poor stand establishment and non-uniform crop maturation [1]. Temperatures lower than 15 °C are generally detrimental for germination [2] under filed conditions for establishment of the crop. This article describes some key germination parameters of 165 rice accessions including breeding lines and varieties. Each genotype was grown in three replicates in a controlled cabinet under 13 °C for 4 weeks’ duration. Growth was measured every 7th day. Growth traits such as coleoptile and radicle length were measured at the end of the experiment. The average data were calculated for three replicates. This dataset contains germination raw data and five germination parameters such as median germination time (MGT), final germination percentage (FGP), germination index (GI), coleoptile length (CL) and radicle length (RL). These data may provide reliable support for researchers and breeders to select the right rice genotypes for low temperature conditions.