Hematologie

Antilichaam-gebonden medicijncomplexen (ADC's) evolueren naar geavanceerde, data-gedreven ontwerpprincipes

Deze narratieve review beschrijft de ontwikkeling van antilichaam-gebonden medicijncomplexen (ADC's) van vroege constructen naar een volwassen therapeutisch platform. De auteurs schetsen recente vooruitgang op het gebied van antigeenselectie, geavanceerde antibodyformats, stabilere linkers en nieuwe payloads zoals topoisomerase-I-remmers.

Daarnaast worden site-specifieke conjugatietechnieken en computergestuurde ontwerpprincipes belicht als middelen om de farmacokinetiek en toxiciteitsprofielen te verbeteren. Voor de klinische praktijk biedt het artikel een actueel overzicht van de huidige indicaties, resistente mechanismen en bijwerkingen, en schetst het de richting voor biomarker-gestuurde ADC-ontwikkeling.

Abstract (original)

Background: Antibody-drug conjugates (ADCs) have evolved from early heterogeneous constructs into a mature therapeutic platform with exponential clinical relevance. This review highlights recent advances in ADC design and development, with emphasis on antigen selection, antibody engineering, linker and payload innovation, site-specific conjugation, clinical translation, toxicity, resistance, and emerging data-driven approaches. Methods: The review draws on the literature published from 2019 to the recent clinical and regulatory developments relevant to approved and late-stage ADCs, emphasizing the advances in target biology, antibody formats, linker chemistry, payload classes, conjugation technologies, developability assessment, and computational or artificial intelligence-assisted design strategies. Results: ADC development has evolved with improved target selection, enhanced internalization and tumor selectivity, and the use of engineered, bispecific, biparatopic, and fragment-based antibody formats. Linker and payload innovation has expanded beyond traditional microtubule inhibitors to include topoisomerase I inhibitors, DNA-damaging agents, and emerging dual-payload or non-cytotoxic strategies. Site-specific conjugation and improved control of drug-to-antibody ratio have increased stability, pharmacokinetic performance, and manufacturability. Clinically, ADCs are being used across a broader range of malignancies and treatment settings, although toxicities and resistance mechanisms remain an important limitations. Computational methods and artificial intelligence are increasingly being explored for target discovery, molecular optimization, toxicity prediction, and model-informed clinical development. Conclusions: ADCs are transitioning toward a more integrated, design-driven platform in which antigen biology, antibody format, chemistry, and computational prediction are jointly optimized. Future progress will depend on improved standardization, biomarker-guided development, and interdisciplinary approaches to enhance its therapeutic index and expand its applications beyond oncology.

Dit artikel is een samenvatting van een publicatie in Cancers. Voor het volledige artikel, alle details en referenties verwijzen wij u naar de oorspronkelijke bron.

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DOI: 10.3390/cancers18132102