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  • 1
    In: The Open Agriculture Journal, Bentham Science Publishers Ltd., Vol. 14, No. 1 ( 2020-11-30), p. 273-289
    Abstract: Switchgrass ( Panicum virgatum L.) is a promising C4-photosynthetising perennial grass and an important energy crop. It is resistant to drought, cold and winter frost, endures flooding and shows high performance at minimal energy consumption for cultivation. Methods: The purpose of the work was to develop and introduce high-yielding genotypes of switchgrass and develop effective cultivation technologies for the Forest-Steppe zone of Ukraine. The objective of the study was to evaluate the introduction potential of switchgrass, to establish biologically productive parameters and energy values of different genotypes and the effectiveness of cultivation techniques in the specific geo-climatic zone of Ukraine. To achieve the objectives, a wide range of introductory, biological-morphological, breeding-biotechnological, and agronomic methods have been used. Results: The gene pool of P. virgatum was collected (33 accessions), ten of which have been investigated, including both introduced genotypes and newly developed breeding lines. The bio-morphological, ecological features, the biochemical composition of plants have been evaluated. The productivity of the above-ground biomass and seeds, as well as the energy value of plants, has been evaluated. High-performance forms with specified yield parameters, biomass sugars, total energy and biofuel output per unit area have been determined. Conclusion: A new variety of P. virgatum (cv. Zoriane) has been introduced for cultivation. Among the accessions of newly developed genotypes, the most productive lines have been identified. New efficient technologies have been developed to increase the yield potential of switchgrass as a source of raw materials for biofuel production.
    Type of Medium: Online Resource
    ISSN: 1874-3315
    Language: English
    Publisher: Bentham Science Publishers Ltd.
    Publication Date: 2020
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  • 2
    Online Resource
    Online Resource
    Bentham Science Publishers Ltd. ; 2020
    In:  The Open Agriculture Journal Vol. 14, No. 1 ( 2020-12-22), p. 299-320
    In: The Open Agriculture Journal, Bentham Science Publishers Ltd., Vol. 14, No. 1 ( 2020-12-22), p. 299-320
    Abstract: One of the most promising alternative biofuels, competitive with regular petrol, diesel or jet fuel is biodiesel, especially derived from plant oils. Until now, various technological approaches, as well as oil sources, have been proposed for biodiesel production, but an industrially scalable technology with high end-product quality and production efficiency has not been developed and brought to the market yet. Biodiesel is produced in Europe and North America mainly from rapeseed, or canola, sunflower and soybean oil. However, other underutilized plant species could also be considered as potential oil feedstocks for biodiesel. The great perspective holds Brassicaceae family, especially such species as false flax ( Camelina sativa ) and Ethiopian mustard ( Brassica carinata ), but many other Brassicaceae crops are still out of sight. Objectives: This research has been conducted aiming to identify and compare the productivity of several Brassicaceae crops (camelina or false flax ( C. sativa ), turnip rape ( B. campestris ), oil radish ( Raphanus sativus var. oleifera ) and tyfon ( B. rapa ssp. oleifera f. biennis × (ssp. rapifera × ssp. pekinensis )), that are suitable for biodiesel production under conditions of temperate climate regions (Northern America, Europe); and to obtain biodiesel by transesterification of fatty acids present on these species using bioethanol. Methods and Materials: Seed oil content, yield and fatty acid profiles have been studied and analysed in different genotypes of C. sativa (10), winter (6) and spring (4) B. campestris , R. sativus var. oleifera (8) and tyfon (5). The most productive crops have been identified: false flax variety ‘Evro-12’ (1620 kg of oil per hectare) and ‘Peremoha’ (1657 kg/ha); winter turnip rape variety ‘Oriana’ (1373 kg/ha), oil radish variety ‘Kyianochka’ (1445 kg/ha) and tyfon varieties ‘Fitopal’ (1730 kg/ha) and ‘Obriy’ (1860 kg/ha). According to chromatographic analysis results, oils of winter turnip rape and tyfon contain high levels (38-42,8%) of erucic (22:1) acid, while oils from spring turnip rape, false flax and oil radish possess high amounts of short-chained fatty acids (not longer than C18) – up to 85,37% in camelina breeding line FEORZhYaFD. Fatty acid ethyl esters (FAEE) were produced from oil of best genotypes and proved to comply with all main quality requirements for diesel. Results: Moreover, a new solvent-based technology of high-yield (up to 96%) FAEE production, has been firstly proposed for C. sativa oil conversion. Conclusion: Best genotypes that can be used as a plant oil source for biodiesel production have been identified for camelina, turnip rape, oil radish and tyfon species. The data obtained on seed oil content, yield and fatty acid profiles suggested that they are: false flax – breeding form FEORZhYaFD; winter turnip rape - variety ‘Oriana’; oil radish - variety ‘Rayduha’ and tyfon hybrid - variety ‘Fitopal’. Biodiesel samples obtained from these plants fit the Ukrainian standards for diesel fuel and can be used in car engines. The proposed new technological approach to produce fatty acid ethyl esters allows to reduce reaction time and to increase esters yield and quality.
    Type of Medium: Online Resource
    ISSN: 1874-3315
    Language: English
    Publisher: Bentham Science Publishers Ltd.
    Publication Date: 2020
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  • 3
    In: The Open Agriculture Journal, Bentham Science Publishers Ltd., Vol. 14, No. 1 ( 2020-12-22), p. 321-338
    Abstract: Sweet sorghum ( Sorghum saccharatum (L.) Moench) is a unique crop with great potential to serve both the food and energy industries. It is due to the possibility of (bio)ethanol production both from the juice and biomass of this crop. The sorghum stems juice contains sugar in the levels similar to that of sugarcane. Besides, low cultivation requirements for the sweet sorghum make this crop even more attractive for sugar and ethanol production. In terms of technology, sweet sorghum is seen as a transitional feedstock for the first to the second generation bioethanol production. However, effective technological development of the plant cultivation and processing in the Northern and Central Ukraine is restrained by the lack of a collection of sweet sorghum genotypes and adapted varieties for its large-scale cultivation. Additionally, no evaluations of potential (bio)ethanol productivity have been performed for this region, which is important for efficient implementation of novel biofuel-producing technologies and for successful development of a green economy. Objective: This research was aimed to create a pool of sweet sorghum genotypes with the involvement of worldwide germplasm, analyze their morphology and breed high-yielding plant lines for the efficient production of liquid biofuels for second-generation bioenergy. Based on that, we also aimed to explore the prospects regarding the efficiency of sweet sorghum cultivation for (bio)ethanol production in the Northern and Central Ukraine. Methods and Materials: A valuable gene pool of S. saccharatum (L.) Moench (41 samples) was created; in particular, high-performance genotypes were created for cultivation under the soil-climatic conditions of Ukraine. The bio-morphological features and the yield potential of the plants were determined and the biochemical composition of the phyto-raw materials was determined in different periods of vegetation, in particular, during the technical ripeness of the above-ground mass of plants. The more productive forms and varieties of sugar sorghum in terms of yield, dry matter content, sugar, and energy value of biomass during flowering and waxy ripeness are highlighted. The technological properties of plant biomass for the production of alternative liquid fuels (in particular, bioethanol) have been analyzed. Importantly, optimal cultivation conditions have been elaborated for the newly created sweet sorghum genotypes, and their productivity has also been evaluated. Moreover, for the first time, a detailed study on potential ethanol yield has been conducted. Results: Sweet sorghum has considerable potential in Ukraine as a new sugar-producing energy crop. The germplasm collection of this crop has been created (41 accessions), including introduced and acclimated genotypes and newly bred lines and varieties. The biological performance of sorghum in Ukraine and plant morphology have been analyzed. The most promising genotypes were used for breeding of new high-productive sweet sorghum varieties. The potential (bio)ethanol yield for different sugar feedstocks (juice, grain bagasse) can reach up to 11423 L/ha in total from juice, grain and bagasse. Conclusion: The estimated values of ethanol productivity are comparable to the results of other similar investigations. In conclusion, a high performance of sweet sorghum in Ukraine can be suggested.
    Type of Medium: Online Resource
    ISSN: 1874-3315
    Language: English
    Publisher: Bentham Science Publishers Ltd.
    Publication Date: 2020
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  • 4
    Online Resource
    Online Resource
    Elsevier BV ; 2022
    In:  Industrial Crops and Products Vol. 187 ( 2022-11), p. 115477-
    In: Industrial Crops and Products, Elsevier BV, Vol. 187 ( 2022-11), p. 115477-
    Type of Medium: Online Resource
    ISSN: 0926-6690
    Language: English
    Publisher: Elsevier BV
    Publication Date: 2022
    detail.hit.zdb_id: 1483245-8
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  • 5
    In: Biotechnology for Biofuels and Bioproducts, Springer Science and Business Media LLC, Vol. 17, No. 1 ( 2024-01-31)
    Abstract: Camelina neglecta is a new diploid Brassicaceae species, which has great research value because of its close relationship with the hexaploid oilseed crop Camelina sativa . Here, we report a chromosome-level assembly of C. neglecta with a total length of 210 Mb. By adopting PacBio sequencing and Hi-C technology, the C. neglecta genome was assembled into 6 chromosomes with scaffold N50 of 29.62 Mb. C. neglecta has undergone the whole-genome triplication (γ) shared among eudicots and two whole-genome duplications (α and β) shared by crucifers, but it has not undergone a specific whole-genome duplication event. By synteny analysis between C. neglecta and C. sativa , we successfully used the method of calculating Ks to distinguish the three subgenomes of C. sativa and determined that C. neglecta was closest to the first subgenome (SG1) of C. sativa . Further, transcriptomic analysis revealed the key genes associated with seed oil biosynthesis and its transcriptional regulation, including SAD , FAD2 , FAD3 , FAE1 , ABI3 , WRI1 and FUS3 displaying high expression levels in C. neglecta seeds . The high representability of C. neglecta as a model species for Camelina- based biotechnology research has been demonstrated for the first time. In particular, floral Agrobacterium tumefaciens infiltration-based transformation of C. neglecta , leading to overexpression of CvLPAT2 , CpDGAT1 and CvFatB1 transgenes, was demonstrated for medium-chain fatty acid accumulation in C. neglecta seed oil. This study provides an important genomic resource and establishes C. neglecta as a new model for oilseed biotechnology research.
    Type of Medium: Online Resource
    ISSN: 2731-3654
    Language: English
    Publisher: Springer Science and Business Media LLC
    Publication Date: 2024
    detail.hit.zdb_id: 3107320-7
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  • 6
    Online Resource
    Online Resource
    Bentham Science Publishers Ltd. ; 2020
    In:  The Open Agriculture Journal Vol. 14, No. 1 ( 2020-11-27), p. 257-272
    In: The Open Agriculture Journal, Bentham Science Publishers Ltd., Vol. 14, No. 1 ( 2020-11-27), p. 257-272
    Abstract: The current trend in volatile oil prices, global warming and environmental pollution, has encouraged major consumers worldwide to sharply increase their use of “green” fuels. Bioethanol is usually obtained from the conversion of carbon-based feedstock. Bioethanol from biomass sources is the principal fuel used as a fossil fuels’ substitute for road transport vehicles. Bioethanol is predominantly produced by the sugar fermentation process, although it can also be generated by the chemical process of reacting ethylene with steam. Finger millet ( Eleusine coracana ) is also known as Ragi (India), Kodo (Nepal), Uburo (Rwanda), Kurakkan (Srilanka), Bulo (Uganda), Kambale (Zambia) and Tamba (Nigeria) and can be used as an efficient source for bioethanol production. Despite all its importance, however, finger millet is still grossly undervalued both scientifically and internationally. This review observes current progress in bioethanol production from E. coracana feedstock and the effectiveness of various technological approaches for that. The main aspects of ethanol production from finger millet seeds have been considered. Seeds, which are already used for brewing, are the most obvious variant of feedstock for ethanol production from this crop. The conversion of finger millet straw and agricultural waste into bioethanol has also been reviewed. Practical results of development and testing the tentative technology of sweet sorghum and finger millet combined processing into bioethanol are described. The concept of the tentative technology of bioethanol production from carbohydrate raw material of the first and second generations is suggested.
    Type of Medium: Online Resource
    ISSN: 1874-3315
    Language: English
    Publisher: Bentham Science Publishers Ltd.
    Publication Date: 2020
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  • 7
    Online Resource
    Online Resource
    Nature Research Centre -NRC ; 2022
    In:  Botanica
    In: Botanica, Nature Research Centre -NRC
    Abstract: The long-forgotten and taxonomically problematic name Camelina armeniaca Desv. is one of the earliest speciesʼ names published in Camelina (Brassicaceae; Cruciferae). Because of that, the issue of its proper taxonomic application was important for the nomenclatural stability of taxa belonging to the C. sativa–C. microcarpa aggregate and containing the important oilseed and biofuel crop C. sativa and its wild relatives and progenitors. The name Camelina armeniaca is lectotypified here with the specimen P00652666 from the Tournefort Herbarium (Herbarium Tournefortianum No. 1634) in P, following the direct reference in the protologue. Judging from the morphological characters of the lectotype, taxonomically, it represents a morphotype of C. sativa sensu lato, probably most closely matching C. caucasica (C. sativa var. caucasica) from a morphological viewpoint. Contrary to the recent listing of C. armeniaca in synonymy (!) of C. microcarpa in several main biodiversity databases (such as GBIF, POWO, etc.), we conclude that C. armeniaca is definitely not conspecific with C. microcarpa. Because of that, nomenclatural conservation of the latter name against the earlier one is unnecessary, as well as a possible proposal to reject the name C. armeniaca. We prefer to treat C. armeniaca as a taxonomic synonym of C. sativa. A corrected typification (lectotypification and epitypification) of the name C. sativa var. caucasica is also provided.
    Type of Medium: Online Resource
    ISSN: 2538-8657 , 2538-8649
    Language: English
    Publisher: Nature Research Centre -NRC
    Publication Date: 2022
    detail.hit.zdb_id: 2778684-5
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