Research area focuses on animals, plants and microbial genomes to identify potential genetic determinants involved in organism’s adaptation to different environment condition, i.e. natural, modified, or linked to human requirements. Genetic studies are based on the use of wet and in silico molecular approaches, statistical analysis of molecular data and collection and processing of Big Data, applied to biological systems of agricultural interest such as structural and reproductive biology, evolutionary genetics and germplasm conservation. Advanced technologies and bioinformatics tools are also used for the collection and examination of semen for the preservation of genetic resources.
Collection, evaluation and conservation of genetic material of the Burlina cattle breed as a back-up in the medium and long period in the event of extinction of the breed or the onset of genetic problems in the breed (loss of genetic lines, excessive inbreeding, etc.). The preserved genetic material consists mainly of semen cryopreserved in liquid nitrogen and blood for future DNA extractions.
ARGENTO project aims at introducing in Italy the new multipurpose oil crop, camelina (Camelina sativa (L.) Crantz), as a valuable source of healthy oil (rich in omega-3) and proteins for animal feeding. Therefore, during this project it will be evaluate the effects of the agronomic management in response to different environments on the final seed quality of newly released camelina lines aiming at optimizing camelina seed qualitative traits for poultry feeding (i.e., quails). In parallel to the optimization of the agronomic management a deep study of the biosynthetic pathway of the glucosinolates (GLSs, antinutritional compound) and also a reduction in GLS content will be carried out by genome editing technologies that enable precise manipulation at a desired location within the genome.
Over the centuries, the chestnut tree, cultivated for its fruits and timber, has become an essential element of subsistence for many societies in mountain and sub-mountainous areas, revealing its potential as a multifunctional species. However, today a large part of chestnut forests is in a state of degradation and abandonment, mainly due to the depopulation of rural areas, global climate change and recent outbreaks of exotic pests. With a view to the recovery and enhancement of chestnut genetic resources, the CASTADIVA project mainly aims to:
The project is aimed at the genotyping, through plastid and nuclear molecular markers (TBP), of the whole collection of small aquatic macrophytes (Lemnaceae) known under the name of Landolt Duckweed Collection and currently managed by Dr Lammler in Zurich. This historical collection, the largest in Europe, includes about 500 clones of the 36 known duckweed species, coming from five continents. Accessions have been mostly characterized on a morphological basis, which may cause a high rate of misclassifications in some species, owing to the simplified structure of these tiny plants and the high similarity between some species.
Since long used as environmental bioindicators, duckweeds and renowned for their phytoremediation capacity. Due to their extraordinary fast growth, duckweeds are one of the most promising new crops, under intensive study for energy production and as a source of high quality proteins for animal and human nutrition, already under evaluation as a novel food by EFSA.
Results will be useful to:
The COVES project will develop and validate a simplified sampling and analysis procedure on a portable device for the specific and sensitive detection of the SARS-CoV-2 virus in the environment. This procedure will ensure greater safety in the work areas, thus reducing the negative impact that the COVID-19 emergency has on the local and national economy and decreasing the gap between the information and the suggested solutions. The main result of the project will be the development of a method for the rapid analysis of the SARS-CoV-2 in the environment, suitable for a field-use also by non-expert users. The project involves Hyris Ltd, leader of the project, which develops the technology, IBBA CNR which will take charge of the method validations and IZSLER (section of Pavia) which will validate “in-situ” the efficacy of this method on various contaminated surfaces using SARS-CoV-2 positive samples with known concentration.
Il progetto si articola in tre step:
1) L’avvio di un’iniziativa volta al sequenziamento del genoma di frumento duro; l’obiettivo sarà perseguito attraverso strategie complementari che, nel loro complesso, permetteranno di affrontare le due principali problematiche associate al sequenziamento del complesso genoma di questa specie (presenza di due genomi altamente simili e alta percentuale di sequenze ripetute).
2) La caratterizzazione a livello proteomico e metabolomico delle varietà utilizzate per gli studi di genomica. I risultati di questa analisi saranno integrati con quelli prodotti dall’analisi genomica, evidenziando la presenza di eventi post-trascrizionali e post-traduzionali nella biosintesi delle proteine e fornendo indicazioni sulla attivazione di specifici percorsi metabolici.
3) La fenotipizzazione di 150 accessioni già genotipizzate (profili SNP) e derivate tramite Single Seed Descent da landraces/ecotipi. Questa collezione è conservata presso la sede di Bari dell’Istituto di Bioscienze e Biorisorse del Consiglio Nazionale delle Ricerche. Questi materiali consentiranno la realizzazione di una analisi di mappatura per associazione tra gli SNPs e le caratteristiche morfo-fisiologiche delle piante, fornendo quindi le basi per l’utilizzazione di queste risorse genetiche nella costituzione di nuove varietà di frumento duro.
The FILAGRO project aims to provide solutions to several issues that are emerging in the field of modern agriculture. They concern: production sustainability, biodiversity and environment preservation; improvement in food quality, safety and healthy and nutritional aspects; technology development in favor of industry; new knowledge dissemination. These issues are highlighted as of high importance in the EXPO 2015 and Horizon 2020 programs as well as in the 2013-2015 plan of the Agriculture Directorate of the Lombardy Region.
GENOBU is an original, innovative and multidisciplinary project combining genome sequencing of the water buffalo to the healthiness of animals and the improvement of quality and quantity of buffalo food products. The project will develop know-how and innovative process technologies to be provided to breeders and agro-food industry, with the objectives of optimizing the efficiency in milk processing, and to ensure best nutraceutical value to buffalo foods.
The aim of the project was the management of the genetic variability of the local Italian sheep and goat breeds through the choice of donors to be stored in the Cryobank and therefore the collection and conservation of their genetic material. For this purpose, the donors of genetic material to be stored in the Criobank have been identified in the Massese sheep, Langhe sheep, Gentile sheep of Puglia, Garganica goat and Nicastrese goat breeds. The seminal material was then collected using reproductive biotechnologies, such as the extraction of epididymal spermatozoa procedures, that had previously been developed in the IBBA laboratories in Lodi. The material collected in the project can be distributed to breeders for the insemination of the females for proper management of the genetic variability of their herds and more generally of the whole breed.
Pearl millet is a major crop contributing to food security for poor farmers in arid and semi arid regions of the world. The project aims at providing tools and knowledge to accelerate the breeding of new pearl millet varieties with increased nutritional qualities as well as better adaptation to environmental stresses. New phenotyping methods will be used to characterize a collection of 100 pearl millet inbred lines for 1) root system development and interaction with the rhizosphere microbiota and 2) nutritionally important seed compounds: phytic acid and C-glucosylflavones (goitrogen). The impact of certain root phenotypes on agronomical performances will also be assessed in field trials. In parallel, thousands of high quality DNA markers will be produced on the inbred lines for phenotype/genotype association purpose using next generation sequencing technologies. Together, these approaches should lead to the identification of QTLs/genes involved in agronomically relevant root and seed quality traits.
Aim of the project is the development of common bean lines/varieties with an improved nutritional profile (biofortified and low anutinutrients) resulting from a breeding program in which the biofortified and low antinutrients parents have been provided by IBBA-CNR. These lines will be used for the production of innovative products, such as bakery products, pasta or snacks, destined to specific target consumers, such as diabetics, celiac or individuals with iron requirements. To this purpose bean flours will be prepared from genotypes with different compositions in nutrients and bioactive compounds.
The project aims to identify unique DNA polymorphisms charactering Citrus × myrtifolia, Savona ecotype (Chinotto di Savona) with particular attention to intronic sequences. The goal is to identify single nucleotide polymorphisms specific for the investigated ecotype, in order to genetically characterize it from other ecotypes spread throughout the country, encouraging cultivation and production.
The objective of this project was to analyse how the frequencies of the main casein variants and haplotypes changed in the Italian Holstein breed, and the possible effects on milk technological properties (milks more suitable for dairy processing, with potential greater digestibility). The results obtained by the genotyping (Illumina beadchip) of all the historical data available (over 220,000 Italian Holstein Friesian individuals and over 600 Italian Jersey individuals) were analysed in order to verify how the allele frequencies to the casein genes have been changing in recent years. The results indicate that the increase of the B allele, favourable for cheese-making, and the decrease of the unfavourable E allele at the k-casein are compensating the increase of the A 2 allele at the β-casein, generally maintaining a good proportion of haplotypes associated with good cheese-making properties.
The project, which involves different departments of the University of Milan (DISAA, DIMEVET, VESPA), researchers from the CNR ISPA and CNR IBBA and the DIANA Department of the Catholic University of the Sacred Heart of Piacenza, aims the primary identification of operative practices for reducing the use of antibiotics in the dairy cow herds. During the study, operative protocols already preliminary tested (administration of Aloe arborescens, use of Lactococcus lactis subsp. cremoris in pre and post dipping, molecules to inhibit Prototheca spp) will be validated during the entire lactation cycle of the cows.
This project will allow breeders to take advantages of new nutraceutical strategies and alternatives to the use of antibiotics, to enhance the innate defences and reduce the incidence and severity of mastitis. The validation of an effective protocol for the selective drying of animals would lead to a reduction of the preventive use of antibiotics, in line with what is requested at European level.