R.G.P. PANJAITAN, A.T. GUNADI, TITIN, and A.R.P. RAHARJENG
Citation: Panjaitan RGP, Gunadi AT, Titin, Raharjeng ARP (2024). Inventory of traditional medicinal plants in Kubu Raya Regency, Indonesia. SABRAO J. Breed. Genet. 56(5): 1970-1981. http://doi.org/10.54910/sabrao2024.56.5.20.
Summary
Medicinal plants are traditional cures from generation to generation based on the local community elders’ wisdom. The relevant study sought to classify medicinal plants in the Kubu Raya Regency, Indonesia. The qualitative research commenced on 34 species of plants, i.e., Strobilanthes crispa (L.) Blume., Andrographis paniculata (Burm. Fil) Nees, Acorus sp., Aloe vera (L.) Burm.f., Gynura procumbens (L.) Merr., Elephantopus scaber L., Eclipta prostrata L., Euphorbia hirta L., Eleutherine bulbosa (Mill.) Urb., Premna serratifolia L., Melastoma malabathricum L., Melastoma sanguineum Sims, Psidium guajava L., Phyllanthus urinaria L., Piper betle L., Peperomia pellucida (L.) Kunth, Piper crocatum Ruiz & Pav, Serratia sp., Cymbopogon nardus (L.) Rendle., Ziziphus mauritiana L., Oldenlandia corymbosa L., Morinda citrifolia L., Myrmecodia pendens Merr. & L.M.Perry, Solanum sp., Physalis angulata L., Phaleria macrocarpa (Scheff.) Boerl., Zingiber purpureum Roscoe, Zingiber officinale Roscoe., Kaempferia galanga L., Curcuma zedoaria (Christm.) Roscoe, Zingiber zerumbet (L.) Roscoe ex Sm., Curcuma aeruginosa Roxb, Curcuma mangga Valeton, and Boesenbergia rotunda (L.) Mansf. Boiled water from leaves is typically from medicinal plants, mostly belonging to the Zingiberaceae family.
Medicinal plants, family Zingiberaceae, traditional medicines, local wisdom, leaf processing
The presented research provides information about the different plant species used in traditional medicines. The results give insight into the importance of these medicinal plants and their beneficial use in curing various diseases to ensure good health.
Citation: Eliseeva LG, Simina DV, Zelenkov VN, Latushkin VV, Karpachev VV, Baryshok VP, Tokarev PI, Eliseev MN (2024). Biochemical assessment of Abyssinian Niger seed to produce microgreens using ethoxysilatrane and germatranol under synergotron conditions. SABRAO J. Breed. Genet. 56(5): 1958-1969. http://doi.org/10.54910/sabrao2024.56.5.19.
Summary
Biologically active substance uses identify the most effective options for various fruits, vegetables, and green crops. The most promising silicon preparation (1-ethoxysilatrane) application as an organoelemental biologically active substance confirmed its high efficiency in producing traditional plants. Silicon preparations and organosilicon esters of triethanolamine-silatranes synthesis by Russian scientists led by M.G. Voronkov became widely used biological active substances in crop production. With an organoelemental biologically active substance, the effectiveness of the drug germanium (1-germatranol) gained scrutiny. Germatrane (RGe(OCH2CH2)3N) synthesis immediately followed the preparation of silatranes; however, studying its effectiveness as phytoinducers for microgreens has just begun. The presented research comprised the technology for producing Abyssinian Niger seed plant (Guizotia abyssinica) microgreens grown in an urban-type synergotron specified conditions and climate chamber regimes with LED and fluorescent lighting using pre-sowing treatment of plant seeds with 0.001% solutions of 1-ethoxysilatrane and 1-germatranol.
By using biologically active substances based on silicon and germanium at the stage of pre-sowing seed treatment, the biochemical composition of Abyssinian Niger seed plant microgreens (nitrogen content, chlorophyll, carotenoids, total antioxidant activity) succeeded in evaluation. Germatranol positively affected the growth dynamics of Abyssinian Niger seed microgreens, revealing 53.3% compared with the control sample. The mass indicators of microgreens treated with germatranol exceeded the control sample by 24.3%. Higher antioxidant content was evident than the control treatment for microgreens treated with germatranol (57.5%) and ethoxysilatrane (9.6%).
A.G. SHERIMBETOV, L.I. ZAYNITDINOVA, B.SH. ADILOV, and D.R. RUZMETOV
Citation: Sherimbetov AG, Zaynitdinova LI, Adilov BSH, Ruzmetov DR (2024). Trichoderma afroharzianum species associated with the anthropogenically polluted soils in Uzbekistan. SABRAO J. Breed. Genet. 56(5): 1946-1957. http://doi.org/10.54910/sabrao2024.56.5.18.
Summary
Genus Trichoderma classifies as a broad-based, saprotrophic fungi and a prime component of the fungal community of various soil ecosystems. The diversity of this genus has non-extensive studies in Uzbekistan, and the prevalence of investigations relied on phenotypic traits. Here, the isolation of four Trichoderma strains (BZS-T1, BZS-T2, BZS-T3, and BZS-T4) from the anthropogenic pollution zone in Uzbekistan succeeded. Using a molecular genetic approach based on the tef1 gene region enabled us to report for the first time Trichoderma afroharzianum species in the polluted soils of Uzbekistan. Twelve reference strains obtained from the NCBI database underwent the phylogenetic analysis of the BZS-T1 strain. Based on the phylogenetic tree, the isolate BZS-T1 displayed clustering with T. afroharzianum strain T-22 (ATCC 20847) from the USA, isolate AG500 from Thailand and isolate Tri-1 procured from China. The promising results confirmed the value of the DNA-based identification process, which was worthwhile to promote and apply, especially for identifying Trichoderma species in Uzbekistan and Central Asia. The T. afroharzianum isolate BZS-T1 could have considerable potential regarding its antagonistic properties, inducing systemic resistance in plants and as a bioremediation agent for polluted soils and wastewater.
Trichoderma afroharzianum, identification, Tef-1a, molecular genetic approach, phylogenetic analysis, microbial biodiversity, Central Asia
Several morphologically based studies of Trichoderma in Uzbekistan enunciated that several T. harzianum isolates succeeded in segregation. However, the T. afroharzianum has no previous reports in Uzbekistan.
E. CHERKASOVA, D. ABDRIISOV, V. RZAEVA, D.M. BORODULIN, O. SHOYKIN, E.A. GAFIYATULLINA, and R.A. SHICHIYAKH
Citation: Cherkasova E, Abdriisov D, Rzaeva V, Borodulin DM, Shoykin O, Gafiyatullina EA, Shichiyakh RA (2024). Spring wheat and spring rapeseed productivity potential. SABRAO J. Breed. Genet. 56(5): 1938-1945. http://doi.org/10.54910/sabrao2024.56.5.17.
Summary
The best crop production technology depends on the approved scientific approaches and agricultural practices. Studying the elements of crop production technology is necessary to obtain stable and highquality yields. The result’s reliability reached validity from three years of field and laboratory studies conducted under typical conditions per modern methods and state standards. For the presented research, the spring wheat cultivated as the first crop of different fallow types began during 2020–2022 at the Kursabaev Farm, North Kazakhstan. The spring rapeseed cultivars and hybrids, planted on bare fallow soil, had various seeding rates in 2019–2021 at the Yessil Yessil State Grain Feed Variety Testing site in North Kazakhstan. The study showed that for 2020–2022, the highest spring wheat grain yield resulted in the variant with chemical fallow treatment. The highest grain yield in rapeseed surfaced from the bare fallow soil with cultivar ‘Maikudyk’ and the hybrid ‘Builder,’ with a seeding rate of 2.0 million seeds per hectare. The results revealed that fallow preceding a crop contributes to a better spring wheat harvest. Thus, this work allows for determining the most effective ways to increase crop yields under climate change and variations in other environmental factors.
Spring wheat, spring rapeseed, seeding rate, chemical fallow, bare fallow, grain yield
As part of the study, in the conditions of the Zhambyl District of the North Kazakhstan Region in 2020–2022, the highest spring wheat yield occurred using chemical fallow treatment preceding a crop, with tillage of 16–18 cm. Treatment with bare and sown fallow showed lower efficiency with a difference of 0.19–0.42 t/ha. The highest spring rapeseed yield in the Esil District of the North Kazakhstan Region in 2019–2021 appeared at the seeding rate of 2.0 million germinating seeds per hectare in cultivar Maikudyk, while the increased seeding rate showed a decline in crop yield in 2019–2021.
A.S.M. AL-RAWI, A.A. MOHAMMED, S.K. AL-TAWEEL, and S.H. CHEYED
Citation: Al-Rawi ASM, Mohammed AA, Al-Taweel SK, Cheyed SH (2024). The role of nanotechnology in crop improvement – A review. SABRAO J. Breed. Genet. 56(5): 1929-1937. http://doi.org/10.54910/sabrao2024.56.5.16.
Summary
Nanotechnology is a new and vital scientific transformation used in various fields globally. It has proven its recognition in agricultural sciences with environment-friendly fertilizers produced and applied, which are more efficient than traditional fertilizers. Nano-biotechnological techniques can benefit diverse processes related to plant biology, including seed germination, plant growth enhancement, plant nutrition improvement, secondary metabolites isolation, and protection provision against biotic and abiotic stress factors. Nanotechnology presents significant opportunities for agriculture due to its typical physicochemical traits, such as substantial surface area, heightened reactivity, adjustable pore size, and particle shape. These fertilizers have contributed to addressing the increasing challenges in crop production and food security and can meet the growing food demand of the world’s population. Studies have shown that this technology can improve field establishment by increasing seed emergence, plant growth, and yield even under different stresses. Notably, nanotechnology exploration in Iraq, particularly in agriculture production, has focused only on research purposes. Therefore, the current review emphasizes the importance of nanoparticles in the context of plant systems.
The presented review showed the value of using nanotechnology in crop improvement. Nanotechnology has become one of the prime technologies promising to advance agricultural practices and offer sustainable development by improving management and conservation tactics with reduced agricultural input wastage.
S.S. RSALIYEV, R.A. URAZALIEV, Z.M. ZIYAEV, and N.K. YUSUPOV
Citation: Rsaliyev SS, Urazaliev RA, Ziyaev ZM, Yusupov NK (2024). Drought tolerance in winter wheat cultivars grown in Kazakhstan and Uzbekistan. SABRAO J. Breed. Genet. 56(5): 1918-1928. http://doi.org/10.54910/sabrao2024.56.5.15.
Summary
Drought is one of the consequences of climate change, negatively affecting crop yields. Current weather abnormalities showed that increasing plant resistance to temperature stresses needs special attention in Kazakhstan and Uzbekistan. The article provides information on weather and climatic condition variations in winter-growing regions of Kazakhstan and Uzbekistan. In 2021–2023, during the growing season, the increased air temperature in Kazakhstan (1.73 °C–2.60 °C) and Uzbekistan (1.97 °C–2.57 °C) materialized with decreased precipitation compared with the past average annual data. Recently, similar rainfall in these regions has been uneven during the winter crop-growing season. The current winter wheat (Triticum aestivum L.) cultivars and their study methods had reports of chief indicators of drought tolerance. The influence of flag leaf parameters (length, width, and area), leaf rolling during drought, slowing down of “Stay-green” plant aging, plant pubescence, and waxy patina on drought tolerance of winter wheat came about based on past research. Winter wheat cultivar evaluations for productivity indicators occurred under natural drought conditions. Characteristics of modern drought-tolerant winter wheat cultivars planted in Kazakhstan and Uzbekistan were informative.
Winter wheat (T. aestivum L.), climate change, drought, drought-tolerant indicators, breeding for drought tolerance, productivity
Climate change toward aridity requires a detailed study of drought-tolerant traits in winter wheat (T. aestivum L.) worldwide. In drought conditions of Kazakhstan and Uzbekistan, local varieties identified with high ear productivity and grain yield have been successful.
Citation: Yongyut P, Chinaworn S (2024). Genotypic variation in F1 hybrids between local rice cultivar Kum Bangpra and improved rice cultivars. SABRAO J. Breed. Genet. 56(5): 1906-1917. http://doi.org/10.54910/sabrao2024.56.5.14.
Summary
The differences in parental genotypes can lead to significant heterosis influenced by genetic control. Understanding genetic control enables the effective utilization of genetic resources to improve various traits in the local rice. The presented research sought to evaluate four rice F1 hybrids (KBP × PTT1, PTT1 × KBP, KBP × HKL1, and HKL1 × KBP) and their parental cultivars for the genetic variation on agronomic traits. The crossing of local rice (Oryza sativa L.) cultivar Kum Bangpra (KBP) occurred with two improved rice cultivars, viz., Pathum tani1 (PTT1) and Hawm Khlong Luang 1 (HKL1). A completely randomized design with five replications ensued for conducting the rice experiment. Significant (P < 0.001) differences appeared among F1 hybrids and their parental cultivars for the flowering date, plant height, tillers per plant, and panicles per plant. The F1 hybrids of PTT1 as parent showed greater values for plant height, tillers per plant, and panicles per plant, and the F1 hybrids of HKL1 as parent showed more branches per panicle, spikelets per panicle, higher grain size, and grain weight. Significant heterosis was evident in F1 hybrids for most agronomic traits, except flowering date and seed set. Only the F1 hybrid Kum Bangpra × PTT1 revealed maternal effects. Using an improved rice cultivar as a parent for crossing with the local Kum Bangpra led to significant differences in F1 hybrids for gene control and inheritance, including maternal effects; therefore, the final selection should focus on that promising cross.
Rice (Oryza sativa L.), parental genotypes, local rice cultivar Kum Bangpra, direct and reciprocal crosses, F1 hybrids, purple rice, agronomic traits
Genotypic variations in F1 hybrids for agronomic traits were significant by utilizing improved rice cultivars PTT1 and HKL1 in crosses with the local rice cultivar KBP. The F1 hybrids of the parental cultivar PTT1 showed higher productivity at the vegetative stage, and the F1 hybrids of the parent cultivar HKL1 exhibited higher productivity at the reproductive stage.
B. RAMAZONOV, K. MUTALOV, L. EGAMBERDIYEVA, D. ATABAYEVA, YE. ABDURASHITOVA, and I. ALLANAZAROVA
Citation: Ramazonov B, Mutalov K, Egamberdiyeva L, Atabayeva D, Abdurashitova YE, Allanazarova I (2024). Growing salt-resistant flora under natural conditions of the Kyzyl-Kum desert and arid bed of Aral Sea, Uzbekistan. SABRAO J. Breed. Genet. 56(5): 1895-1905. http://doi.org/10.54910/sabrao2024.56.5.13.
Summary
The article explores the Kyzyl-Kum Desert and the Aral Sea plant and soil cover, the plant characteristics and regionalized cultural crops thriving in these regions, and the extraction of high-quality and environment-friendly products from that flora. This initiative aims to prevent the dispersal of 100 million tons of dust-salt mixture from the dried bed of the Aral Sea, carried by wind and storms and deposited onto agricultural fields. Therefore, in this area, the phytoremediation process through establishing saxaul plantations is crucial. Each saxaul tree bush can preserve more tons of sand with its roots, demonstrating robust growth in saline lands while utilizing mineralized groundwater. Additionally, saxaul trees contribute to maintaining the critical depth of groundwater within the normal range.
Consequently, this approach is the area’s natural barrier against secondary soil salinization and erosion processes. Similarly, it is noteworthy that today, the country’s population is growing fast, increasing its demand for food products. Based on this, obtaining high-quality and ecologically clean products from each cultivated agricultural crop is one of the most urgent issues today and the prime purpose of conducting research in these areas.
Growing salt-resistant flora is viable under the natural conditions of the Kyzyl-Kum Desert and the arid bed of the Aral Sea, Uzbekistan, Karakalpakstan, Caspian Sea.
Citation: Zulfahmi, Mahmuzar, Affandy D, Rosmaina (2024). Evaluating genetic variability and selection criteria in shallot M1V1 mutant induced by colchicine treatment . SABRAO J. Breed. Genet. 56(5): 1883-1894. http://doi.org/10.54910/sabrao2024.56.5.12.
Summary
Knowing the estimated genetic parameters and the relationship between yield and associated traits is pivotal to successful shallot breeding. The study’s objectives were to observe the effect of colchicine on the growth and yield characteristics of shallot (Allium cepa), investigate the genetic variability of shallot in the first generation, and determine the selection criteria for the shallot improvement program. The shallot bulbs received colchicine treatments ranging from 0, 100, 200, 300, and 400 ppm. The variance analysis revealed that colchicine treatments highly affected the shallot growth and yield characteristics in varying significance. It demonstrated that colchicine treatments were potent in inducing mutation and creating variability among populations of shallot; hence, it can be beneficial for shallot improvement. The highest values of the genotypic coefficient of variance, heritability, and genetic advance were evident in the 200-ppm population. Therefore, this study only recommends pursuing the 200-ppm population for the next generations. Path analysis exhibited that the trait of bulb fresh weight per clump had a high positive direct effect with bulb dry weight per clump, indicating its usefulness as a selection criterion for developing shallot genotypes with high-yielding next generations.
The 200-ppm population had a higher genotypic coefficient of variation, broad sense heritability, and genetic advance than other mutated populations in the shallot (Allium cepa). The bulb fresh weight per clump trait can serve as selection criteria for developing shallot genotypes with high-yielding next generation having a high positive direct effect and heritability values.
Citation: Syzdykova GT, Aidarbekova TZH, Malitskaya NV, Shegenov ST, Nurgaziyev RE, Zhabayeva MU, Mahanova SK (2024). Morpho-physiological characteristics of spring barley (hordeum vulgare l.) in the steppe zone of Akmolinskaya region, Kazakhstan. SABRAO J. Breed. Genet. 56(5): 1872-1882. http://doi.org/10.54910/sabrao2024.56.5.11.
Summary
Spring barley (Hordeum vulgare L.) is an important food, fodder, and industrial crop. Barley cultivars’ evaluation regarding trait variability using a variation factor further divided them into two groups. The first group included cultivars with a high variation factor (cv > 10%) based on the agronomic traits, viz., sprout density, dry biomass yield, number of plants before harvesting, and grain yield potential. The second group contained all other genotypes with a variation factor (cv = 6%) regarding morpho-physiological variables. These are number of nodal roots (cv = 0.8%–1.6%), flag leaf area (cv = 0.8%–1.6%), total leaf area (cv = 3.4%–5.7%), photosynthetic potential (cv = 0.06%–0.27%), photosynthesis net productivity (cv = 2.7%–5.6%), yielding capacity structural elements (grains per ear [cv = 1.0%–2.0%] and 1000-grain weight [cv = 1.5%–5.6%]). Cultivars Pamyat Raisy (1.8 t ha-1) and Arna (1.7 t ha-1) showed a reliable and enhanced yielding capacity compared with the reference cultivar Astana 2000 (1.6 t ha-1), while other cultivars had an average yield potential (1.6 ± 1.8 t ha-1).
Barley (H. vulgare L.) cultivars Pamyat Raisy (1.8 t ha-1) and Arna (1.7 t ha-1) were superior by the highest grain yield. A correlation was evident between grain yield in the study years with the grains per ear, productive stems, photosynthetic parameters, dry biomass yield, and the number of nodular roots during the “tillering – exit into the tube” period.