A5031975814- Plant Molecular Biology Research
- Plant tissue culture and regeneration
- Graphene research and applications
- Advancements in Battery Materials
- Graphene and Nanomaterials Applications
- Photosynthetic Processes and Mechanisms
- Plant Gene Expression Analysis
- Plant Reproductive Biology
- Plant-Microbe Interactions and Immunity
- Supercapacitor Materials and Fabrication
Qingdao Agricultural University
2022
Hebei University of Technology
2021
Callus is a reprogrammed cell mass involved in plant regeneration and gene transformation crop engineering. Pluripotent callus cells develop into fertile shoots through shoot regeneration. The molecular basis of the process remains largely elusive. This study pioneers exploration spatial transcriptome tomato during findings reveal presence highly heterogeneous populations within callus, including epidermis, vascular tissue, primordia, inner outgrowth shoots. By characterizing spatially...
Wood formation involves sequential developmental events requiring the coordination of multiple hormones. Brassinosteroids (BRs) play a key role in wood development, but little is known about cellular and molecular processes that underlie tree species. Here, we generated transgenic poplar lines with edited PdBRI1 genes, which are orthologs Arabidopsis vascular-enriched BR receptors, showed how inhibition signaling influences development at mRNA and/or proteome level. Six Populus genes formed...
Graphene is a unique attractive material owing to its characteristic structure and excellent properties. To improve the preparation efficiency of graphene, reduce defects costs, meet growing market demand, it crucial explore improved innovative production methods process for graphene. This review summarizes recent advanced graphene synthesis including “bottom-up” “top-down” processes, their influence on structure, cost, as well peeling mechanism. The viability practicality preparing using...
Abstract Callus is a reprogrammed transitional cell mass during plant regeneration. Pluripotent callus cells develop into fertile shoots through de novo shoot organogenesis. This study represents pioneering effort in exploring the spatial transcriptome of tomato regeneration, using technologies including BGI Stereo-seq, BMKMANU S1000, and 10x Visium. The results indicate that comprises highly heterogeneous cells, classified various types based on gene expression histological observation,...