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Environmental Analysis & Ecology Studies

Stimulation with Low Doses of Irradiation in Plants Grown in Cuba: A Successful Practice

Alexander Miranda Caballero1* and Yanelis Camejo Serrano2

1Researcher and Professor (General Director), National Institute of Agricultural Sciences, Cuba

2Assistant Researcher, National Institute of Agricultural Sciences, Cuba

*Corresponding author: Alexander Miranda Caballero, Researcher and Professor, National Institute of Agricultural Sciences, Mayabeque, Cuba

Submission: September 23, 2021; Published: September 28, 2021

DOI: 10.31031/EAES.2021.09.000705

ISSN 2578-0336
Volume9 Issue1

Opinion

Since the advent of agriculture, until the creation of the most recent transgenic organism, human beings, like other living beings, have never been able to escape dependence on their environment. However, in his quest to improve their living conditions and obtain a greater number of satisfactions, he has managed not only to reduce the death rate, but also, unfortunately, the number of species that make up biodiversity [1].

One of the main problems in Cuba is insufficient food production, Since crops are affected by different biotic and abiotic factors that cause a reduction in agricultural yields.

To obtain genetic variation, gamma rays are used, which are physical mutagens that have been shown to be useful for the modification of new variants of traits that can lead to the improvement of crops and can be used as a complementary tool in plant breeding. Which indicates that mutations can generate new genetic diversity, essential for the improvement of crops. In this sense, stimulating physical methods constitute a viable alternative. All this is related to the fact that living organisms have developed adaptation mechanisms at low doses of radiation that can lead to the stimulation of certain vital functions of the organism, a process called radio-stimulation [2].

The efficiency of a mutagenic agent to generate genetic variability in plants will depend on the dose and the physical characteristics of the plant material, such as its temperature and water content, as well as on physiological variables, such as the type of tissue (in meristems there is more probability than in differentiated tissues), age (young tissues are more prone than adults), biochemical constitution (content of nitrogen, magnesium, potassium, iron, phosphorus, fats, lipids and proteins), the cell division cycle (a high mitotic activity causes greater sensitivity to radiation), the chromosomal number (the higher the number, the lower the sensitivity) and the volume of the cell nucleus [3].

Currently in our country the use of stimulation with low doses of irradiation has been aimed at the induction of mutations to generate genetic variability in some economically important crops, with the aim of obtaining varieties of crop plants, which guarantee under certain environmental and production conditions, and stable yields, of the products harvested with the required quality. These crops include rice (Oryza sativa L.), tomato (Solanum lycopersicum L.), sugar cane (Saccharum spp.), Banana (Musa sp.) And beans (Phaseolus vulgariz L.), crops of great importance due to their high level of consumption, as well as other crops that, although not among the most demanded by the Cuban population [4-7].

The use of nuclear technology in genetic improvement programs developed by a group of scientific institutions in Cuba, has become a successful tool because it has allowed to generate variability and offer the possibility of selecting nonexistent characteristics in the species; as well as accelerating the introduction of new mutant varieties under production conditions, making the benefits of this technique accepted by producers [8-11].

The induction of mutations is a tool with great potential to reduce the time required to obtain varieties resistant or tolerant to different types of biotic or abiotic stress. This method is an alternative that allows incorporating a greater source of genetic variability to the conventional plant breeding process in Cuba.

References

  1. González J (2004) Nuclear technology in plant improvement. Science Magazine.
  2. Chopra (2005) Mutagenesis: Investigating the process and processing the outcome for crop improvement. Curr Sci 89(2): 353-359.
  3. Cubero JI (2002) Introduction to Plant Genetic Improvement. Mundi-Press, Madrid Spain, Spain, p. 565.
  4. De la Fé CM, Romero R, Ortiz M Ponce (2000) Radiosensitivity of soybeans (Glycine max L.) to 60 Co gamma rays. Tropical Crops 21: 43-47.
  5. Prieto Miranda, Enrique Fco, Chávez Ardanza, Armando, Moreno Álvarez, et al. (2019) Application of irradiation technology in Cuba. News and perspectives. Nucleus 66: 1-6.
  6. Ramírez R, González LM, Camejo Y, Zaldívar N, Fernández Y (2006) Study of radiosensitivity and selection of the range of stimulating doses of X-rays in four varieties of tomato (Lycopersicon esculentum Mill). Tropical Crops 27: 63-67.
  7. Salomón Díaz J (2017) Effect of gamma rays on the germination of potato botanical seed (Solanum tuberosum L.). Tropical Crops 38(1): 89-91.
  8. Ortiz R, Fe C, de la, Ponce M (2005) INCASOY-35. First variety of soybean obtained in Cuba from the use of 60Co gamma ray irradiation techniques. Tropical Crops 26(2): 57.
  9. González MC, Cristo E, Pérez N, Delgado P (2002) INCA LP-7, a new variety of rice for soils affected by salinity. Tropical Crops 23(3): 89.
  10. Cristo E, González MC, Pérez N (2015) José LP-20 rice cultivar tolerant to low water and fertilizer supplies. Tropical Crops 36(2): 90.
  11. Camejo Y (2016) Combined effect of low doses of X-rays and Biobras-16 in tomato plants (Solanum lycopersicum L.) cv. Vyta in salty conditions. Tropical Crops 37(3): 85-93.

© 2021 © Alexander Miranda Caballero. This is an open access article distributed under the terms of the Creative Commons Attribution License , which permits unrestricted use, distribution, and build upon your work non-commercially.

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