Engineered NK cells secreting IL-7 and CCL19 recruit endogenous T cells to lesions, improving coordinated cancer and infection therapy.
N-terminal sequence changes help CXCR3 ligands resist DPPIV cleavage while preserving cell migration activity for immune modulation.
Modified GCP2-derived ligands reduce GAG binding and leukocyte chemotaxis while preserving CXCR1/CXCR2 activation for cartilage homeostasis.
Using CCL22 as a vaccine antigen triggers cytotoxic T cells to kill CCL22-expressing cells and counter tumor immune suppression.
Higher-GAG-affinity chemokine biologics rebalance neutrophil-driven inflammation by modulating native chemokine binding and reducing cytokines.
A linked cytotoxin and CCL8 peptide uses receptor binding to suppress CCL8 activity and kill target cells in cancer and immune disorders.
A CXCR1/CXCR2 antagonist peptide combined with chemotherapy targets cancer stem cells to overcome resistance, limit tumor growth, and reduce side effects.
Engineered iPSC-derived NK cells express IL-7 and CCL19 to recruit endogenous T cells to lesion sites and boost synergistic cancer or infection therapy.
Polypeptide expression profiles such as NAP-2 help identify post-PCI STEMI patients at risk of major adverse cardiac events.
Ubiquitination degrades E1A and limits adenoviral replication; lysine substitutions stabilize the protein and improve tumor-cell killing.