Elisa Vendramin

Dr. Elisa Vendramin

orcid

Research Focus & Metrics

Academic Career Length

23Years (2004-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

View All Publications
24 March 2013 in Nature Genetics
Verified
Journal Article
Open access
TIThe International Peach Genome Initiative
The International Peach Genome Initiative
IVIgnazio Verde
Ignazio Verde
AAAlbert G Abbott
Albert G Abbott
SSSimone Scalabrin
Simone Scalabrin
SJSook Jung
Sook Jung
DRDaniel S Rokhsar
Daniel S Rokhsar
The International Peach Genome Initiative reports the high quality draft genome sequence of peach (Prunus persica). They also resequenced ten additional P. persica accessions, as well as those of Prunus ferganensis, Prunus kansuensis, Prunus davidiana and Prunus mira.

11 March 2017 in BMC Genomics
Verified
Journal Article
Open access
PDF file
IVIgnazio Verde
Ignazio Verde
JJJerry Jenkins
Jerry Jenkins
LDLuca Dondini
Luca Dondini
SMSabrina Micali
Sabrina Micali
GPGiulia Pagliarani
Giulia Pagliarani
JSJeremy Schmutz
Jeremy Schmutz
The availability of the peach genome sequence has fostered relevant research in peach and related Prunus species enabling the identification of genes underlying important horticultural traits as well as the development of advanced tools for genetic and genomic analyses. The first release of the peach genome (Peach v1.0) represented a high-quality WGS (Whole Genome Shotgun) chromosome-scale assembly with high contiguity (contig L50 214.2 kb), large portions of mapped sequences (96%) and high base accuracy (99.96%). The aim of this work was to improve the quality of the first assembly by increasing the portion of mapped and oriented sequences, correcting misassemblies and improving the contiguity and base accuracy using high-throughput linkage mapping and deep resequencing approaches. Four linkage maps with 3,576 molecular markers were used to improve the portion of mapped and oriented sequences (from 96.0% and 85.6% of Peach v1.0 to 99.2% and 98.2% of v2.0, respectively) and enabled a more detailed identification of discernible misassemblies (10.4 Mb in total). The deep resequencing approach fixed 859 homozygous SNPs (Single Nucleotide Polymorphisms) and 1347 homozygous indels. Moreover, the assembled NGS contigs enabled the closing of 212 gaps with an improvement in the contig L50 of 19.2%. The improved high quality peach genome assembly (Peach v2.0) represents a valuable tool for the analysis of the genetic diversity, domestication, and as a vehicle for genetic improvement of peach and related Prunus species. Moreover, the important phylogenetic position of peach and the absence of recent whole genome duplication (WGD) events make peach a pivotal species for comparative genomics studies aiming at elucidating plant speciation and diversification processes.

20 April 2012 in PLOS ONE
Verified
Journal Article
Open access
PDF file
IVIgnazio Verde
Ignazio Verde
NBNahla Bassil
Nahla Bassil
SSSimone Scalabrin
Simone Scalabrin
BGBarbara Gilmore
Barbara Gilmore
CLCynthia T. Lawley
Cynthia T. Lawley
CPCameron Peace
Cameron Peace
Although a large number of single nucleotide polymorphism (SNP) markers covering the entire genome are needed to enable molecular breeding efforts such as genome wide association studies, fine mapping, genomic selection and marker-assisted selection in peach [Prunus persica (L.) Batsch] and related Prunus species, only a limited number of genetic markers, including simple sequence repeats (SSRs), have been available to date. To address this need, an international consortium (The International Peach SNP Consortium; IPSC) has pursued a coordinated effort to perform genome-scale SNP discovery in peach using next generation sequencing platforms to develop and characterize a high-throughput Illumina Infinium® SNP genotyping array platform. We performed whole genome re-sequencing of 56 peach breeding accessions using the Illumina and Roche/454 sequencing technologies. Polymorphism detection algorithms identified a total of 1,022,354 SNPs. Validation with the Illumina GoldenGate® assay was performed on a subset of the predicted SNPs, verifying ∼75% of genic (exonic and intronic) SNPs, whereas only about a third of intergenic SNPs were verified. Conservative filtering was applied to arrive at a set of 8,144 SNPs that were included on the IPSC peach SNP array v1, distributed over all eight peach chromosomes with an average spacing of 26.7 kb between SNPs. Use of this platform to screen a total of 709 accessions of peach in two separate evaluation panels identified a total of 6,869 (84.3%) polymorphic SNPs. The almost 7,000 SNPs verified as polymorphic through extensive empirical evaluation represent an excellent source of markers for future studies in genetic relatedness, genetic mapping, and dissecting the genetic architecture of complex agricultural traits. The IPSC peach SNP array v1 is commercially available and we expect that it will be used worldwide for genetic studies in peach and related stone fruit and nut species.

20 January 2016 in Horticulture Research
Verified
Journal Article
Open access
MCMarco Cirilli
Marco Cirilli
DBDaniele Bassi
Daniele Bassi
Angelo CiacciulliAngelo Ciacciulli
Angelo Ciacciulli
Horticulture Research is a new Open Access, fully peer-reviewed journal which will publish the best and most interesting research focusing on all major horticultural crops from around the world.

1 January 1997 in Journal of Chromatography A
Verified
Journal Article
Closed access
FBFrancesco Bartolozzi
Francesco Bartolozzi
GBGianpaolo Bertazza
Gianpaolo Bertazza
DBDaniele Bassi
Daniele Bassi
GCGraziella Cristoferi
Graziella Cristoferi

1 March 2007 in Scientia Horticulturae
Verified
Journal Article
Closed access
DTDebora Tura
Debora Tura
CGCarmen Gigliotti
Carmen Gigliotti
SPStefano Pedò
Stefano Pedò
OFOsvaldo Failla
Osvaldo Failla
DBDaniele Bassi
Daniele Bassi
ASArnaldo Serraiocco
Arnaldo Serraiocco