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- Bu sahifa navigatsiya:
- Physical mapping and genomic tools
- PROGRAMME: CHARACTERISATION AND DOCUMENTATION Research Group: Genome Diversity
- Exploiting environmental adaptation of cultivated barley to new environments
- Image based estimation and genetic analysis of biomass development in spring barley
- Rye genomics and evolution
- Map-based cloning of barley genes
- Publications Peer Reviewed Papers 2012
Research Report knowledge about the structure and function of genes of ag- ricultural importance is considered of central importance to facilitate informed access to plant genetic resources. therefo- re, the research program aligns two converging areas: (1) trait mapping which includes use of novel phenotyping approaches to capture quantitative variation and (2) gene discovery based on structural and functional analysis of triticeae genomes with major emphasis on barley (Hordeum vulgare). to facilitate sys- tematic access to the complex genome of barley the research group has been focusing for more than a decade on the de- velopment of genomic resources, including mapping popula- tions, a tiLLinG panel, dna markers and a physical bac contig map. Regarding the genomic sequence of barley, an important goal was recently attained by defining the major portion of the gene space in its genomic context. along with a panoply of bioinformatics tools provided by collaborators, these resour- ces will facilitate of the informed access to isolate and study a wealth of novel genes underlying monogenic and polygenic traits. Physical mapping and genomic tools: in 2006 the international barley Genome Sequencing consortium (ibSc, http://barleyge- nome.org) was established with the aim to coordinate interna- tional efforts towards sequencing the barley genome. embed- ded in this consortium the research group has been leading the establishment of a physical map of the barley genome as well as the development of extensive genomic sequence resources. Regarding the overall goal of a high quality reference sequence of the barley genome, a major milestone was reached by the consortium in 2012 by completing the integrated physical, genetic and functional genome assembly. this physical map could be anchored to the genetic map at very high density by utilizing about two million Single nucleotide Polymorphisms (SnP) that were generated by sequencing between 70 and 90 individuals of two segregating mapping populations, respectively (in collaboration with iPk research groups bioinfor- matics and information technology (bit), doe/JGi, the James hutton institute (Jhi) and university of Minnesota St. Paul (uMn)). Scientists IPK financed aliyeva-Schnorr, Lala (0,50, 15.04.2012-31.08.2013) ariyadasa, Ruvini tharanga, dr. (Pakt für Forschung und inno- vation, till 31.12.2012) kilian, benjamin, dr. Pasam, Raj kishore (0,50, till 30.06.2012) Sharma, Rajiv (0,50, till 30.06.2012) Yang, Ping (0,50, since 01.09.2013) zhou, Ruonan, dr. (0,50, 01.06.-31.08.2013) Grant Positions dhanagond, Sidram (0,50 bMbF) himmelbach, axel, dr. (bMbF) Jost, Matthias (0,50 bMbF) kilian, benjamin, dr. (eu, 01.03.-31.03.2014) kochevenko, andriy (bMbF, since 15.10.2012) neumann, kerstin, dr. (bMbF) Perner, katja (0,50 dFG, since 01.01.2012) Sharma, Rajiv (0,50 dFG, since 01.07.2012) Wabila, celestine (0,50 SaW-Leibniz Graduate School Gatersle- ben, since 01.09.2012) Wendler, neele (0,50 bMbF, since 01.05.2012) Yang, Ping (0,50 bMbF, till 31.08.2013) zhou, Ruonan, dr. (eu, till 31.05.2012; 0,75 industry, 01.06.2012-31.05.2013; since 01.09.2013) Visiting Scientists/Scholars abdel-Ghani, adel hasan, dr. (dFG-Scholarship, 08.06.- 05.09.2012; 07.06.-05.09.2013) badaeva, ekatarina, dr. (bLe-Projekt, 23.08.-03.10.2012) cakir, esra (Scholarship of alexander von humboldt Founda- tion, 28.07.2013- 27.08.2013) hammer, karl, Prof. (self-financed/iPk, since 15.04.2013) keilwagen, Jens, dr. (self-financed, 01.10.2012-30.09.2013) kurowska, Marzena (iaea-Fellowship, 01.01.-31.01.2012) Li, Mingjiu (china Scholarship council-cSc, since 01.01.2012) Lidzbarsky, Gabriel (eMbo short-term scholarship, 01.10.- 31.10.2012) Matyszczak, isabela (self-financed, 01.03.-17.03.2013;13.08.- 13.09.2013) nasernakhaei, Fatemeh (Scholarship of iran, 24.05.2012- 30.11.2013) nöh, christiane (self-financed, 30.07.-17.08.2012; 01.01.- 01.03.2013; 02.07.-17.08.2013) Pasam, Raj kishore (self-financed, 01.07.-31.08.2012) PROGRAMME: CHARACTERISATION AND DOCUMENTATION Research Group: Genome Diversity head: Prof. andreas Graner, dr. nils Stein 31 nomical or developmental/morphological traits. Regarding the former, emphasis is placed on the elucidation the genetic ba- sis of Bymovirus resistance in barley. after cloning of the gene rym4/5 in 2005, we could now, in collaboration with the Julius kühn institute (Jki), Quedlinburg (F. ordon et al.), isolate and validate the resistance gene rym11 by mutant and transgene (in collaboration iPk research group Plant Reproduction bio- logy (PRb) analysis (see Fig. 10, p. 32). Similar to rym4/5, the rym11 locus displays a series of functional resistance alleles. in collaboration with the Jki high resolution mapping and isola- tion of further resistance loci rym3, rym7 and rym13 is in pro- gress (Ping Yang, a. Graner, n. Stein). Exploiting environmental adaptation of cultivated barley to new environments: Flowering in barley is triggered by three major mechanisms: temperature response (vernalization), pho- toperiod response and earliness per se. the latter is of crucial importance for the adaptation of barley plants to short ve- getation periods under long days, as they are typical for high latitudes. the barley earliness per se locus on chromosome 2h (ePS2) represents a homolog of the Antirrhinum CENTRORADIA- LIS gene (HvCEN). the gene was identified to represent a major genetic switch for the adaptation of cultivated barley to the growing conditions in northern europe, which is far outside its natural distribution range in the Fertile crescent. to better understand the genetic implications of adaptation to new en- vironments, HvCEN was resequenced in a large collection of wild barley germplasm. Signatures of divergent selection were identified in the highly differentiated modern-day spring and winter barley genepools. the distribution of HvCEN alleles in wild barley and land-races demonstrated that adaptation of cultivated germplasm was facilitated by the selection and sub- sequent enrichment of preexisting genetic variants rather than the acquisition of mutations after domestication (b. kilian, n. Stein, in collaboration with Jhi, R. Waugh et al.). to study addi- tional genes involved in adaptation to diverse environments, the Ppd-H1 locus was resequenced in a large collection of 2057 geo-referenced wild and domesticated barleys in order to un- cover the origin of photoperiod insensitivity in barley. contrary to the previous findings, we discovered that photoperiod in- sensitivity originated after the initial domestication, outside the Fertile crescent (R. Sharma, a. Graner, b. kilian). Image based estimation and genetic analysis of biomass development in spring barley: the research network cRoP- SenSe exploits non-invasive live sensor technologies for syste- matic phenotyping. using an automated imaging system, plant growth can be continuously monitored under various stress conditions via automated image analysis. Phenotypic data are analyzed in collaboration with the research group “image analysis”. correlations of fresh weight and digital biomass are sufficiently robust (R 2 > 0.80) to estimate the accumulation of above ground biomass by using image data in order to iden- tify QtL for this trait. to this end, 100 diverse two-rowed spring barleys were evaluated with daily imaging (visible light). We estimated plant biomass development over time by calculating ‘digital biomass’ - a pixel volume showing a high correlation to a minimum tilling path (MtP) of the physical map comprising 70,000 bacs was defined as a major deliverable during physical map construction. the MtP was re-arrayed in a chromosome- wise manner at cnRGV toulouse, France. it serves as the road- map towards map-based sequencing of the seven barley chro- mosomes. Regarding the further refinement of the genomic sequence, the research group has been sequencing the MtPs of chromosomes, 1h, 3h and 4h (in collaboration with iPk re- search group bit). after initial sequencing on the Roche/454 GSFLX titanium platform the protocols were established for taking advantage of the higher capacity of the illumina hiS- eq2000 technology. highly multiplexed sequencing libraries comprising 670 individually tagged bac clones have been sequenced in a single hiSeq lane, which reduced sequencing costs dramatically. Raw sequencing data of 1h, 3h and half of 4h has been completed and first version draft assemblies were made for all sequenced clones. Sequencing of 4h will be completed by early March 2014. Sequencing of the remaining four chromosomes (2h, 5h, 6h, 7h) as well as non-anchored bac contigs is in progress and managed by ibSc members. thus MtP- sequencing of all seven barley chromosomes will be completed by mid 2014. Less than 5 % of the barley genome consists of coding sequence. For economic reasons, sequence analysis can be confined in the majority of studies to the gene space. exploiting the available genomic sequence, a liquid phase exome capture assay targeting about 60 Mbp of coding sequence (> 80 % of high confidence barley genes) was de - s igned in collaboration with international partners (Jhi, uMn, R. nimblegen). this tool allows for the exon-based re-sequen- cing of barley accessions to harness genetic diversity from na- tural genetic resources of barley. using this resource, a pilot study to re-sequence 300 wild barley and barley landrace ac- cessions has been initiated (b. kilian, n. Stein, in collaboration iPk research group bit). Furthermore, the platform proved use- ful to facilitate genetic mapping of several major genes and se- lected QtL in barley in combination with the bulked-segregant strategy (a. himmelbach, n. Stein in collaboration with iPk re- search group bit). Rye genomics and evolution: next Generation Sequencing (Roche/454) of sorted rye chromosomes allowed gathering in- formation of the overall gene content and gene-order of rye chromosomes 1R – 7R. in analogy to the work previously ac- complished in barley and on the basis of a high-density SnP map of rye, virtual gene order maps (genome zippers) could be generated (in collaboration with MiPS, k. Mayer et al.) that allow a high resolution and high density view onto genome conser- vation between related triticeae species (barley, rye) and mo- del grass genomes like rice, Brachypodium and Sorghum. based on this new data and in-detail comparative genomic analyses, a new model of reticulate genome evolution of rye could be postulated (Ruonan zhou, n. Stein). Map-based cloning of barley genes: besides our efforts of un- locking the barley genome for whole genome sequencing we make efficient use of the new genomic resources in barley for the map-based isolation of genes underlying important eco- Abteilung Genbank/ Department of Genebank 32 plant fresh weight. Modelling plant growth and wilting provi- ded parameters of speed of growth and estimated maximum biomass as well as wilting timing and recovery speed. SnP fin- gerprinting yielded 4873 informative SnPs which were used for genome wide association mapping. altogether, 48 SnPs were significantly associated (-Log(p)>3) with biomass development over time under well-watered conditions (k. neumann, S. dha- nagond, b. kilian, a. Graner). Fig. 10 Resistance to Bymovirus is controlled by the gene HvPDIL5-1 at the rym11 locus of barley. the gene HvPDIL5-1 was identified by map-based cloning in barley as susceptibility factor to Bymovirus. a large deletion in the 5’-region of the gene (A), which can be detected by PcR amplification with primers ‘F’ and ‘R’ (B), is causing a complete knockout of the gene, thus conferring complete resistance. this can be recognized in the field by green, symptomless, and healthy plants compared to susceptible plants showing severe yellow mosaic leave symptoms and stunted growth during tillering stage (P. Yang, n. Stein). Publications Peer Reviewed Papers 2012 a riyadasa , R. & n. S tein : advances in bac based physical mapping and map integration strategies in plants. J. biomed. biotech- nol. 2012 (2012) 11 pp., article id 184854. b en -i srael , i., b. k ilian , h. n ida & e. 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R ehman a rif , b. k ilian & a. b örner : Seed longevity in a barley collection – vari- ation and gene identification. Proceedings of the 15 th inter- national eWac conference, 07.-11.11.2011, novi Sad/Serbia, european cereals Genetics co-operative newsletter (2012) 151-158. n eumann , k., n. S tein , a. G raner , c. k lukas , a. e ntzian & b. k ilian : non-destructive phenotyping using the high-throughput Lemnatec-Scanalyzer 3d platform to investigate drought to- lerance in barley. Proceedings of the 15 th international eWac conference, 07.-11.11.2011, novi Sad/Serbia, european ce- reals Genetics co-operative newsletter (2012) 158-160. P erovic , d., J. k önig , d. k opahnke , b.J. S teffenson , J. F örster , b. k ili - an , J. P lieske , G. d urstewitz & F. o rdon : MbR1012 x Scarlett: a new dh population for genetic dissection of resistance to different pathogens in barley. Proceedings of the 15 th inter- national eWac conference, 07.-11.11.2011, novi Sad/Serbia, european cereals Genetics co-operative newsletter (2012) 82-86. Download 0.66 Mb. Do'stlaringiz bilan baham: |
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