Therapeutic peptides have rapidly evolved into multifunctional tools for precision oncology, offering molecular specificity and biocompatibility.
First-pass extracted concept
therapeutic peptides
Evidence Snippets
Supporting Sources
Linked Claims
The review covers therapeutic peptides as targeting ligands, active agents, peptide-drug conjugates, peptide-guided radionuclides, and cancer vaccines.
Firstly, we outline the main functional classes of therapeutic peptides, covering their use as targeting ligands and their roles as active agents ... Additionally, we summarize their application in peptide-drug conjugates (PDCs), peptide-guided radionuclides, and cancer vaccines ...
Functional convergence among peptide roles makes rigid classification challenging.
This functional convergence makes rigid classification challenging.
A single peptide can serve as a targeting ligand, cell-penetrating motif, therapeutic effector, or structural component of peptide-drug conjugates, nanoparticle systems, and radionuclide constructs.
The same peptide can function as a targeting ligand, a cell-penetrating motif, a therapeutic effector, or a structural component of peptide-drug conjugates (PDCs), nanoparticle (NP) systems, and radionuclide constructs.
Therapeutic peptides are multifunctional tools for precision oncology that offer molecular specificity and biocompatibility.
Therapeutic peptides have rapidly evolved into multifunctional tools for precision oncology, offering molecular specificity and biocompatibility.
Developments in peptide engineering position peptides as adaptable multifunctional platforms that can improve precision, reduce toxicity, and advance personalized cancer care.
The developments in peptide engineering position them as adaptable, multifunctional platforms capable of improving precision, reducing toxicity, and advancing personalized cancer care.