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#gene editing Review Open access

Unlocking the Curative Potential of Gene Transfer and Editing for Hematopoietic Disorders.

Aug 2026 · Experimental Hematology · pp. 105493 · 0 citations · 116 references
Medicine

TL;DR

Recent developments and refinements in gene transfer and editing technologies for HSPCs are reviewed, while also discussing the critical limitations and hurdles to clinical translation, as recently presented at the New Investigator Committee Gene Therapy webinar.

Abstract

Hematopoietic stem and progenitor cells (HSPCs) gene therapy may transform the therapeutic landscape for inherited hematological disorders and already offers potentially curative options for some diseases, including inborn errors of immunity and β-hemoglobinopathies. Its continued success relies on further refinement of gene transfer technologies, gene editing tools such as CRISPR-Cas, and optimized ex vivo HSPC manipulation protocols that ensure robust, long-term engraftment and clonal diversity with reduced-toxicity, non-genotoxic conditioning strategies. Here, we review recent developments and refinements in gene transfer and editing technologies for HSPCs, while also discussing the critical limitations and hurdles to clinical translation, as recently presented at the New Investigator Committee Gene Therapy webinar. Future directions must prioritize integrating technological innovation with the development of equitable and simplified models to reduce costs and ensure that these life-saving cellular therapies reach patients worldwide. Teaser abstract Hematopoietic stem and progenitor cells (HSPCs) gene therapy is advancing rapidly, with lentiviral gene transfer, genome editing, and emerging in vivo delivery approaches expanding the therapeutic landscape for inherited hematologic disorders. Recent clinical successes have demonstrated the potential for durable correction, while ongoing refinements continue to improve safety, efficacy, and feasibility. Key challenges remain in genotoxicity, conditioning toxicity, manufacturing scalability, and equitable global access.

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