Whole-Exon Panels for Plants

This product series employs next-generation hybrid capture technology to develop high-specificity exon capture probes for economic/model plants. Through efficient enrichment of exonic regions in plant genomes, it enables high-throughput, deep-coverage targeted sequencing.

To date, we have successfully commercialized whole-exome ready-to-use panel for species including wheat (Triticum aestivum), barley (Hordeum vulgare), Masson pine (Pinus massoniana), and maize (Zea mays). These solutions significantly reduce whole-genome sequencing expenditures and analytical complexity, delivering a precision-engineered platform for functional gene discovery, germplasm resource assessment, and molecular breeding applications.

Key Features

Superior Data Performance:

• Utilizing optimized CD Genomics probe hybridization technology, we deliver exceptional on-target coverage with high uniformity.

Synthesis Advantages:

• Leveraging our advanced large-scale microarray-based oligo-nucleotide pool synthesis platform, we rapidly synthesize millions of oligo-nucleotide pools. We have enabled clients to develop breeding arrays for over 100 species.

Flexible Customization:

• We offer ready-to-use exome arrays for wheat, barley, Masson pine , and maize, while providing fully customizable whole-exome solutions for diverse species according to client requirements.

Applicable Species

Applications

Germplasm Resource Development

• Rapid generation of SNP fingerprint profiles enables germplasm identification and genetic diversity evaluation. Mining rare alleles facilitates screening of elite germplasm resources.

Functional Gene Research and Molecular Marker Development

• Mapping trait-associated loci (yield, stress resistance, quality), cloning functional genes, and elucidating metabolic pathway regulation. Developing breeder-friendly molecular markers for precision breeding.

Molecular Breeding & Genomic Selection

• High-throughput screening of target genotypes in breeding populations. Constructing genomic selection models to compress breeding cycles.

Evolution & Population Genetics Research

• Unraveling species adaptation mechanisms. Reconstructing historical population dynamics and gene flow patterns.