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Andrology

September 25, 2026 · via Europe PMC

From Cell Clusters to Complexity: Testicular Organoids as Emerging Platforms in Male Reproductive Research and Biotechnological Innovation.

Gorgulu M, Sati L.

ReviewAbstract only — full text under license

AI summary — for doctors, generated from the abstract only

This review evaluates testicular organoids as emerging lab models that can partly recreate the human testicular environment for infertility, toxicology and fertility-preservation research.

What was studied

A comprehensive review of testicular organoid systems, covering cell sources, biomaterials, microfluidic and bioprinted platforms, and functional read-outs such as morphogenesis, steroidogenesis and germ-cell progression.

Key findings

  • Testicular organoids can reproduce seminiferous tubule-like organization, elements of the blood-testis barrier and steroidogenic function
  • They increasingly support germ-cell progression
  • Applications include endocrine and reproductive toxicology testing, disease modeling and prepubertal fertility preservation research
  • Broader adoption requires clinically concordant read-outs, stable long-term cultures, reproducible complete human spermatogenesis and an ethical framework

Clinical relevance

Organoids are a research platform rather than a clinical tool at this stage, so the review has no direct implications for patient care yet.

Who should care

UrologyReproductive Medicine & Surgery

Limitations

Narrative review; complete human spermatogenesis in organoids has not yet been reliably achieved.

Testicular organoids are a promising but still maturing tool for male reproductive research.

This is an AI-generated summary of the published abstract, not a clinical recommendation. It may not reflect the full text or subsequent updates — verify against the original source before acting on it.

Abstract

Background

Conventional 2D cultures and animal models incompletely recapitulate the human testicular niche, limiting translation for male infertility, toxicology, and endocrine research. Limited and highly variable access to human testicular tissue restricts translational research. Testicular organoids (TOs), self-organizing assemblies of germ and somatic cells within biomimetic scaffolds, microfluidic chips, or bioprinted constructs, can reproduce seminiferous cord/tubule-like organization, elements of the blood-testis barrier and steroidogenic function, and increasingly support germ-cell progression. By integrating defined media, matrix cues, and controlled microenvironments, TO platforms enable mechanism-driven studies and human-relevant new approach methodologies for toxicology, disease modeling, and fertility-preservation research. This, in turn, supports endocrine and reprotoxicology testing, disease modeling, and prepubertal fertility-preservation strategies. Broad and responsible adoption will require clinically concordant read-outs, stable long-term cultures, reproducible and complete human spermatogenesis, and a robust ethical framework. This review aims to comprehensively evaluate TO systems, spanning cell sources, biomaterials, and microenvironmental control to functional read-outs of morphogenesis, steroidogenesis, and germ-cell progression. By synthesizing recent advances, we clarify mechanistic determinants of organoid performance and outline their translational implications for male infertility research, toxicology, and fertility-preservation strategies.

DOI

10.1111/andr.70397

PMID

42791498

Research metadata (titles, abstracts, authors, publication dates) is sourced from Europe PMC, which aggregates content from PubMed/MEDLINE, PubMed Central, and other providers under the U.S. National Library of Medicine (NLM/NCBI). NLM does not claim copyright on abstracts; the original journal publishers or authors may hold rights to the full articles. AI-generated summaries are derived only from the abstract, never the full text, and are always labeled as AI-generated.

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