Targeted peptides modulate T cell cytokine profiles to overcome chemotherapy resistance and reduce side effects in cancer treatment.
Normoxia-hypoxia culture method accelerates iPSC differentiation into CD34+ cells and NK cells, resolving low yield bottlenecks.
Episomal vectors deliver transcription factors to reprogram primate somatic cells, eliminating viral integration risks and genomic safety hazards.
Increasing Bach2 expression in cultured B cells enables rapid generation of high affinity monoclonal antibodies without lengthy animal immunization periods.
Secreted PD-L1 binding proteins from modified lymphocytes relieve the PD-1-PD-L1 interaction, enhancing anti-tumor immune response in solid tumors.
Segmented ORF screening platforms identify ETV2 as an endothelial reprogramming driver, resolving the bottleneck of time-consuming trial-and-error discovery.
A stem cell cloning method uses gene-induced dedifferentiation to isolate uniform clones with high proliferation rates.
Combining specific microRNAs with reprogramming factors increases induced pluripotent stem cell yield while avoiding tumorigenic risks from c-Myc.
A pluripotent stem cell engineered with inducible gene expression systems to dynamically control HLA presentation and mediate RNA interference.
Replacing zoledronic acid with HMBPP achieves complete J1/J2 gene rearrangement while maintaining high stem cell induction efficiency for immunotherapy.
Knocking out H19 and IG differentially methylated regions in androgenetic haploid embryonic stem cells to establish round spermatid-like characteristics.
Introducing LEF1, DNP63A, GRHL2, TFAP2A, and SHH genes into somatic cells creates skin appendage-inducible cells for treating alopecia.
Replacing c-MYC with DLX4, OCT3/4, and SOX2 genes eliminates tumor formation risk while maintaining high induction efficiency.
Disrupting and re-establishing WDR5 binding reduces culture costs and variability while producing high-quality cardiac and hematopoietic organoids.
Selective breeding isolates mammalian cells thriving in defined media lacking serum and insulin, eliminating contamination risks and reducing production costs.
Nutrient dependency and recombinase systems reduce escape rates while maintaining microbial fitness for industrial scale-up.