Peanut Plant Research Studies

The paper constructs a high-density linkage map in allotetraploid peanut to study double reduction, finding it occurs in 12% of progenies and contributes to genomic imbalance and genetic instability.

This study uses whole genome sequencing and GWAS to identify genetic markers associated with kernel iron, zinc, and protein content in groundnut, aiding in breeding for improved nutritional traits.

This study identifies high blanchability donors, candidate genes, and molecular markers in groundnut using GWAS and SNP validation.

This study uses RAD-seq to identify SNPs in Taiwanese peanut germplasm, revealing genetic diversity patterns and providing markers for breeding and genetic analysis.

This paper identifies a major locus controlling flowering pattern in cultivated peanut, linking a deletion in AhTFL1 to the evolution of mainstem flowering.

This study identifies SNPs and their interactions associated with fatty acid composition in peanut, revealing pleiotropy and epistasis in genetic control.

The paper isolates and functionally characterizes the seed-specific promoter of AhLEC1A in peanut, showing its regulation by seed-specific and light-responsive elements.

The paper genotypes a peanut core collection, identifies genetic clusters, and links them to botanical varieties and biogeography.

The paper identifies major QTLs for resistance to early and late leaf spot diseases on chromosomes 3 and 5 in peanut, showing genetic independence and potential for marker-assisted breeding.

This paper develops machine learning models to identify true SNPs in polyploid plants, achieving high accuracy using real and simulated data.