Maritsa Vegetable Crops Research Institute
Maritsa Vegetable Crops Research Institute
Agency: European Commission | Branch: H2020 | Program: CSA | Phase: MSCA-NIGHT-2016 | Award Amount: 171.75K | Year: 2016
FRESH (Find Research Everywhere and SHare) is led by the Center for Research and Analysis with 13 partners and 5 associated partners. The Consortium includes Bulgarias first technological park, a chamber of industry and commerce, a pan-European organisation, leading research organisations, academia, and media. The aim is to create a series of participatory and media events to promote research careers, aimed in particular towards young people and their parents. Building on existing understanding developed through previous local initiatives including Researchers Night, and with reference to Europe-wide research like the Special Eurobarometer 401, as well as the MASIS report and the in-depth Education and Training Monitor 2015 for Bulgaria , the focus of this 20-month programme will be on enhancing the public understanding of and engagement with science. Core activities during the Night will include a digital participatory campaign to engage audiences across the country; international live streaming; science city quests and quizzes; science cafes; hands-on experiments; science shows; simulations; games and competitions. Thematic programmes will include, among other, food and nutrition, inspired by 2016 International Year of Pulses , engineering, oceanology, innovation and business incubators, technological transfer, medicine, and others. The on-the-ground activities will take place in the largest cities including several where Researchers Night has not been marked. Innovation will be an intricate part of the events through the use of online technology to enhance the physical activity, engage particularly young audiences and to guarantee sustainability outside the lifespan of the project. The activities of the first year will allow learning to accrue from a thorough evaluation. The project will strengthen the capabilities of the partners in organising events for a general audience, and for underserved audiences, including girls and people with hearing disabilities.
Agency: European Commission | Branch: H2020 | Program: RIA | Phase: SFS-05-2015 | Award Amount: 5.67M | Year: 2016
The world demographic growth and global climate change are major challenges for human society,hence the need to design new strategies for maintaining high crop yield in unprecedented environmental conditions.The objective of TomGEM is to design new strategies aiming to maintain high yields of fruit and vegetables at harsh temperature conditions, using tomato as a reference fleshy fruit crop.As yield is a complex trait depending on successful completion of different steps of reproductive organ development, including flower differentiation and efficient flower fertilization,TomGEM will use trans-disciplinary approaches to investigate the impact of high temperature on these developmental processes.The core of the project deals with mining and phenotyping a vast range of genetic resources to identify cultivars/genotypes displaying yield stability and to uncover loci/genes controlling flower initiation,pollen fertility and fruit set.Moreover,since high yield and elevated temperatures can be detrimental to quality traits,TomGEM will also tackle the fruit quality issue.The goal is to provide new targets and novel strategies to foster breeding of new tomato cultivars with improved yield.The main strength of TomGEM resides in the use of unique and unexplored genetic resources available to members of the consortium.It gathers expert academic researchers and private actors committed to implement a multi-actor approach based on demand driven innovation.Tomato producers and breeders are strongly involved from design to implementation of the project and until the dissemination of results.TomGEM will provide new targets and novel strategies to foster the breeding of new tomato cultivars with improved yield under suboptimal temperature conditions.TomGEM will translate scientific insights into practical strategies for better handling of interactions between genotype,environment and management to offer holistic solutions to the challenge of increasing food quality and productivity.
Tomlekova N.B.,Maritsa Vegetable Crops Research Institute |
White P.J.,James Hutton Institute |
Thompson J.A.,James Hutton Institute |
Penchev E.A.,Dobroudja Agricultural Institute |
Nielen S.,International Atomic Energy Agency
PLoS ONE | Year: 2017
Vitamin and mineral deficiencies are prevalent in human populations throughout the world. Vitamin A deficiency affects hundreds of millions of pre-school age children in low income countries. Fruits of pepper (Capsicum annuum L.) can be a major dietary source of precursors to Vitamin A biosynthesis, such as β-carotene. Recently, pepper breeding programs have introduced the orange-fruited (of) trait of the mutant variety Oranzheva kapiya, which is associated with high fruit β-carotene concentrations, to the mutant variety Albena. In this manuscript, concentrations of β-carotene and mineral elements (magnesium, phosphorus, sulphur, potassium, zinc, calcium, manganese, iron and copper) were compared in fruit from P31, a red-fruited genotype derived from the variety Albena, and M38, a genotype developed by transferring the orange-fruited mutation (of) into Albena. It was observed that fruit from M38 plants had greater β-carotene concentration at both commercial and botanical maturity (4.9 and 52.7 mg / kg fresh weight, respectively) than fruit from P31 plants (2.3 and 30.1 mg / kg fresh weight, respectively). The mutation producing high β-carotene concentrations in pepper fruits had no detrimental effect on the concentrations of mineral elements required for human nutrition. © 2017 Tomlekova et al. This is an open access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.
Pevicharova G.,Maritsa Vegetable Crops Research Institute
Bulgarian Journal of Agricultural Science | Year: 2015
Boiled potatoes from twelve cultivars grown at two altitudes were evaluated for appearance, aroma, colour, texture, friability, starch taste, sweetness, sourness and overall taste. Correlation analysis was applied to estimate the significance of the sensory traits for the whole human perception. It was found that the total sensory evaluation was in correlation at the highest degree with taste (average r = 0.800), followed by texture (average r = 0.679), colour (average r = 0.617) and appearance (average r = 0.614). Their assessment during the breeding process has to be taken into account in order to create high quality potato cultivars. The lack of significant correlations between identical sensory traits of potatoes grown under field and mountain conditions is a proof for impossibility to predict sensory profile of boiled potatoes by results from only one altitude. © 2015, National Centre for Agrarian Sciences. All rights reserved.
Tringovska I.,Maritsa Vegetable Crops Research Institute
Acta Horticulturae | Year: 2012
Optimization of growth, yield and quality of vegetable crops in an integrated manner is achievable through efficient use of organic, inorganic and biological sources of nutrients. The present study aimed to evaluate the effect of foliar or soil application of humic and bio-fertilizers, on the growth and yield of greenhouse tomatoes. The experiment was carried out during three consecutive years in an unheated greenhouse at Maritsa Vegetable Crops Research Institute, Bulgaria. A commercially available humic fertilizer, produced from vermicompost, and biofertilizer, containing Lactobacillus casei, Lactobacillus lactis, Phodopseudomonas palistris, Saccharomices cerevisiae were tested. Soil application of both fertilizers was performed only once, a week after transplanting, while the foliar application was conducted three times with 10-14 day intervals after transplanting. In order to assure uniform background of the experimental plots, the soil was supplemented with mineral fertilizers according to the recommendations following the soil analysis. The results indicated that soil application of both fertilizers stimulated the growth of tomato plants. The total tomato yield was increased with 19 and 21% after soil application and by 13 and 14% after foliar application of bio-fertilizer and humic fertilizer, respectively. The enhancement of the total yield was attributed to the enhancement of the mean fruit weight, which increased by 14-30 g per fruit. The early yield and the number of fruits per plant were not influenced by the applied humic or bio-fertilizers. The results indicated that the utilization of bio-fertilizer or humic fertilizer in fertilization practices can lead to higher yield of greenhouse tomato with improved market quality.
Mihov M.,Maritsa Vegetable Crops Research Institute |
Tringovska I.,Maritsa Vegetable Crops Research Institute
Bulgarian Journal of Agricultural Science | Year: 2010
Greenhouse tomato production in Bulgaria is extremely energy intensive; therefore the majority of producers grow tomatoes in greenhouses without heating. The aim of the research was to improve the tomato production energy effectiveness by using new technology conventional fertilization based on soil analysis and novel biofertilizers instead of manure. Two biofertilizers were used bacterial fertilizer BioLife (USA) and mycorrhizal inoculum Media Mix (USA). The application of biofertilizers to improve soil fertility combined with optimized use of synthetic fertilizers can increase the energy output with the yield which leads to an increased energy output-input ratio to 1.19 and 1.11 respectively. The energy output with the yield exceeds the energy inputs and energy gains of 19.45 GJ.ha-1 and 11.40 GJ.ha-1 are achieved. The results show that the total energy output (90.52 GJ.ha -1) increased by 32.0% when BioLife was used and by 22.9% when Media Mix was used. Bacterial fertilizer, mycorrhizal inoculum and tomato fruits energy equivalents of 0.01 MJ.kg-1, 14.5 MJ.kg-1and 1.2 MJ.kg-1 respectively have been established to allow an energy assessment of tomato production.
Irikova T.,Plovdiv University |
Grozeva S.,Maritsa Vegetable Crops Research Institute |
Rodeva V.,Maritsa Vegetable Crops Research Institute
Acta Physiologiae Plantarum | Year: 2011
Pepper (Capsicum annuum L.) is an important vegetable crop that can be improved using plant tissue culture and biotechnology. However, it is difficult to develop appropriate breeding material by in vitro cultivation in this species. Haploid plant production is useful in the breeding programs to facilitate recovery of recessive mutations and unique genetic recombinations. In embryogenesis, haploid formation from pollen in anther culture is a scientifically advanced, but controversial system. Various techniques for haploid plant regeneration are used to establish an efficient double haploid production method. The purpose of this article is to summarize, through comparison, results in pepper anther culture, problems associated with work in this field, and the influence of critical factors for successful embryo formation and plantlet development. © 2011 Franciszek Górski Institute of Plant Physiology, Polish Academy of Sciences, Kraków.
Pasev G.,Maritsa Vegetable Crops Research Institute |
Kostova D.,Maritsa Vegetable Crops Research Institute |
Sofkova S.,Maritsa Vegetable Crops Research Institute
Journal of Phytopathology | Year: 2014
Bean common mosaic virus (BCMV) and Bean common mosaic necrosis virus (BCMNV) are among the biggest threats for snap bean production in Bulgaria due to their seed, aphid and mechanical transmission. Old valuable Bulgarian snap bean varieties are being neglected, because of the high percentage of virus-infected seeds. Breeding resistant cultivars is the best way to solve the problem. The genetic control towards both viruses is assured by one dominant I gene and a number of recessive (bc-u, bc-1, bc-12, bc-2, bc-22 and bc-3) genes. Our aim was to identify resistance gene combinations in advanced F8 breeding lines, derived from two crosses (A-8-40-7-2-1 × IVT 7214) and (Zaria × RH 26D), by the application of conventional and molecular approaches. Four methods were applied for the characterization of their resistance gene makeup: (i) leaf-abscission infection test designed to identify I gene by direct inoculation with NL3 strain of BCMNV; (ii) intact-plant infection test with strain NY15 of BCMV to separate immune genotypes, possessing bc-ubc-12, bc-ubc-22,bc-ubc-2bc-3, I, Ibc-12, Ibc-22 or Ibc-3; (iii) PCR analysis with the following markers: SCAR - SW13 (for I gene), SBD5 (for bc-12), ROC11 (for bc-3) and CAPS - eIFE4 (for bc-3); and 4) high-temperature (more than 30°C) infection test with NL3 of BCMNV to provoke systemic necrosis in I, Ibc-1, Ibc-12, Ibc-12bc-22 or Ibc-3. The four methods applied worked properly and complemented each other. Valuable gene combination (Ibc-3) was established in seven breeding lines with immune reaction to BCMNV. They will be included in the snap bean breeding programme for virus resistance. © 2013 Blackwell Verlag GmbH.
Agency: European Commission | Branch: FP7 | Program: CSA-SA | Phase: REGPOT-2007-1-01 | Award Amount: 1.12M | Year: 2008
The initiatives of the project aim to support the progress of Maritsa Vegetable Crops Research Institute to be reinforced as a modern, competitive one in European horticultural science and to become a leading research center for Balkan region. Coordination and Support Actions proposed here comprise: 1) Recruitment scientists from leading European Institutes to transfer the recent achievements of European knowledge of plant genetics diversity, pest risk analysis, plant nutrition and organic production; 2) Enhancement the professional level of young researchers and exchange of know-how and experience for senior scientists in relevant advanced European Institutes; 3) Improvement and up grading the technical status of Institute with new trends equipment; 4) Establishment of Maritsa VCRI as a dissemination centre and promoter of European knowledge and practice in the field of vegetable science in Bulgaria as well as in Balkan region; 5) Support of Maritsa Technology Transfer Office as an innovative centre and as an interface between the Institute and farmers and processors to transfer the advanced European technologies. The potential impacts will be: 1) acquaintance of Bulgarian researchers with the latest achievements in management of vegetable resources, pest risk analysis and soil fertility management, 2) creation of new generation of young researchers, experienced in high level management of vegetable resources, 3) achievement of comparable and competitive level to the ERAs due to the improvement of technical status of Institute, 4) elaboration of strategy for Bulgarian vegetable science and development of the Institute as an advisory and dissemination Centre, 5) reinforcing the Balkan collaboration to bring together expertise of different disciplines for preservation and proper management of vegetable diversity in Balkan region. All support and coordination actions will be performed in collaboration with the prestige European research institutes.
Agency: European Commission | Branch: H2020 | Program: SGA-CSA | Phase: WIDESPREAD-1-2014 | Award Amount: 495.47K | Year: 2015
Despite the adoption of several reform programs Bulgaria still has the lowest research and innovation index of all EU Member states. Key reasons for Bulgarias comparatively poor record of innovation are the insufficient investment in R&D, fluctuating labour force, the almost non-existent linkages between research and the needs of the productive sector and a lack of high-tech science and business parks. With the newly released Smart Specialization Strategy (S3) Bulgaria has an unparalleled opportunity to transform itself into a knowledge-based and R&D-led economy and to turn its research system into an engine of innovation and smart specialization. Plant systems biology, biotechnology, and healthy life have been set in the S3 as top priorities and represent research topics, which are highly addressed in Plovdiv, the biggest academic center in Southern Bulgaria and the most important agricultural region within the country. Most local research units are very productive and competitive at international level harbouring a huge academic and business potential. The goal of the project is to establish a Center of Plant Systems Biology and Biotechnology (CPSBB) in Plovdiv, which will stand at the forefront of plant sciences in Bulgaria. Building on the excellence in plant sciences and biotechnology research of Potsdam, Germany, the CPSBB will implement cutting-edge genetics, functional genomics, metabolomics and bioinformatics technologies to unravel the plant biochemical machinery and translate the scientific knowledge into the food market and industrial applications for development of value-added products with potential markets in medicine, pharmacy and cosmetics. The CPSBB will provide the missing links between academia and industry in the region and will take a leading role in educating next-generation researchers in the fields of plant systems biology and biotechnology. Thus, the CPSBB will fill the scientific and technological gaps identified in the S3 of Bulgaria.