Aug 2026· MedComm· Vol 7· 0 citations· 370 references
Medicine
TL;DR
This article provides a systematic synthesis of extant research, thereby facilitating the future advancement of targeted conjugate drugs toward greater precision and individualization.
Abstract
Antibody–drug conjugates (ADCs) and peptide–drug conjugates (PDCs) are modular targeted therapeutics in which molecular recognition is coupled with controlled payload delivery. Owing to their high specificity and precision, they have been regarded as a transformative paradigm for cancer therapy. In this review, current understandings and future perspectives of ADCs and PDCs are synthesized across rational design principles, historical evolution, clinical translation, and emerging formats, aiming to improve practical comprehension and application in oncology. Key determinants of performance: target selection, antibody or peptide carrier attributes, linker stability and cleavage mechanisms, payload classes, and conjugation strategies, are additionally discussed. Milestone advances achieved spanning hematologic malignancies and solid tumors are emphatically summarized to provide a framework by which future conjugate development may be contextualized. In parallel, the expansion of PDCs as complementary platforms is outlined, and advantages are highlighted, while limitations are also considered. ADCs and PDCs still face challenges such as toxicity, resistance, and poor stability. However, through breakthroughs including linker optimization, novel payloads, bispecific designs, and AI‐driven approaches, future conjugated drugs will continue to evolve toward personalization, combination therapies, and broader indications. This article provides a systematic synthesis of extant research, thereby facilitating the future advancement of targeted conjugate drugs toward greater precision and individualization. It holds significant academic value as a reference resource and offers practical guidance for the development of novel antineoplastic therapeutics.
Mechanistic insights increasingly show that linker–payload properties govern catabolite permeability and intratumoral distribution, particularly in antigen-heterogeneous settings, particularly in antigen-heterogeneous settings.
Sara N. Albino, Margarida M. Domingos, T. Pacheco et al.· Pharmaceutics· 2 citations
The structural design principles, delivery barriers, pharmacokinetic considerations, applications, imaging advancements, and current clinical landscape of PDCs are discussed, highlighting their advantages over ADCs and outlining future directions for precision oncology.
Amit Kumar, Rajeev Sharma, A. Yadav· Advanced Drug Delivery Revie...· 0 citations
BsADCs represent a new promising strategy to address tumor heterogeneity, antigen escape, and bypass signaling as well as improve targeted payload delivery and can serve as a theoretical background for designing and testing BsADCs.
Bo-Wen Cui· Theoretical and Natural Scie...· 0 citations
This review examines the structural and biologic features that determine clinical activity, including target selection, linker stability, payload class, drug-to-antibody ratio, tumor penetration, biomarkers, toxicity, and resistance.
A. Philipovskiy, Scott Shurmur, Muhammad Bilal Abid· Cancers· 0 citations
The Multi-Parameter Adaptive ADC Engineering Framework (MAAEF) is introduced, a prospective, falsifiable design-and-verification strategy for solid tumours with heterogeneous antigen expression that addresses a recurrent source of overclaiming in preclinical ADC research.
Antibody–drug conjugates (ADCs) represent a rapidly expanding class of targeted cancer therapeutics that combine the high selectivity of monoclonal antibodies with the potent cytotoxic activity of small-molecule drugs. Their clinical success relies on the simultaneous optimization of multiple interdependent parameters,...
Alberto Ocaña, J. R. Espinosa, C. Alonso-Moreno et al.· Signal Transduction and Targ...· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.