Xuelei Lin

This study uses single-cell transcriptomics to identify regulatory mechanisms of nutrient accumulation and transport in wheat grains, revealing key genes that influence yield and quality.

This study integrates multi-omic data to identify genetic basis and functional role of TaMYB7-A1 in wheat water use efficiency and drought resilience.

This study examines how polyploidization affects epigenetic regulation and gene expression in wheat, identifying dynamic enhancer regions and coevolving transcription factors that influence spike development.

The paper introduces TAC-C, a method combining ATAC-seq and Hi-C to study chromatin interactions in crops, revealing SPL-mediated photosynthesis regulation and chromatin loop structures.

This study identifies GRP7 as a key regulator of ABA-mediated translation efficiency in Arabidopsis by modulating pre-rRNA processing and ribosome distribution.

The paper shows that low temperature restores developmental defects in PRC2 mutants by promoting H2A.Zub deposition at embryonic genes, compensating for H3K27me3 loss and silencing these genes for post-germination development.

The paper constructs a spatiotemporal atlas of wheat inflorescence development using single-cell omics, identifying cell types, genes, and chromatin regions involved in spikelet and floret formation.

This study identifies TaMYB7-A1 haplotypes that regulate PHS resistance and wheat geographic adaptation through ABA signaling and gene expression mechanisms.

This study identifies the TaNF-Y-PRC2 complex as a regulator of starch and protein synthesis in wheat endosperm, revealing its role in epigenetic control through histone modification and gene repression.

This study identifies distinct roles of H3K27me3 and H3K36me3 in vernalization response, maintenance, and resetting in winter wheat by analyzing transcriptome and chromatin dynamics.

This study identifies novel regulators of starch and seed storage protein biosynthesis in wheat endosperm, revealing their role in grain yield and quality through epigenetic and transcriptional mechanisms.

This study identifies TabHLH27-A1 as a key gene influencing root growth and drought tolerance in wheat, improving water use efficiency through genetic manipulation.

This study identifies key transcriptional factors that enhance wheat transformation efficiency by analyzing multi-omic data during shoot regeneration.