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Organoids and AI Join Forces to Trick Cancer’s Toughest Cells—the Ones That Spread, Resist, and Relapse—Into Dying

November 06, 2025, at 12:00 PM ET

To improve precision in disease modeling, the HUMANOIDTM Center of Research Excellence (CoRE) uses precise computational tools to rigorously vet organoid models. In this webinar, we highlight the combined use of ATCC’s colorectal cancer (CRCs) organoids with an unbiased network-based approach to track, differentiate, and selectively target cancer stem cells (CSCs). We built a transcriptomic network to identify therapeutic perturbations that can reinstate the expression of CDX2, a transcription factor whose loss identifies poorly differentiated (CSC-enriched) CRCs and whose reinstatement is predicted to reduce the risk of death/relapse by 50%. Here, the top candidate target predictably shifts the network, induces CDX2 and crypt differentiation, and shows selective cytotoxicity towards CDX2-negative models. A 50-gene signature of therapeutic response shows that CDX2-reinstatement therapy is expected to translate into a ∼50% reduction in the risk of mortality/recurrence. These results indicate that CDX2-reinstatement selectively triggers differentiation and death of colorectal CSCs, thereby demonstrating that our network-guided approach identifies a first-in-class differentiation therapy agent in solid tumors.

Key takeaways

  • We use human-derived organoid models that retain both the genetic and epigenetic aspects of the diseased cell states.
  • Human-derived disease models enable the discovery of novel biology and the validation of biomarkers and therapeutic targets in ‘Phase 0’ trials.
  • This ‘Phase 0’ approach is designed to improve both precision and personalization, thereby closing the translational gap in modern medicine.

Presenter

Headshot of Courtney Tindle

Courtney Tindle, MS

Director and Program Manager at HUMANOIDTM CoRE

Courtney Tindle has a Master of Science (MS) degree in Biology and currently serves as the Director and Program Manager at HUMANOIDTM CoRE. HUMANOID’s area of expertise is in disease modeling with multi-dimensional organoids. These models are computationally vetted for their similarity to human disease and are designed to serve as dynamic platforms for use in semi/high-throughput therapeutic screening for efficacy and toxicity, inspiring the concept of Phase ‘0’ clinical trials. Courtney is a proud first-generation college graduate and received her bachelor’s and master’s degrees at UCSD. During her MS, she studied the clearance of Salmonella in murine macrophages via the autophagy pathway. After graduating, she explored opportunities for academic mentoring and teaching at the community college level. Therein, she taught Introductory Biology and Paramedical Microbiology for 3 years. Subsequently, in June of 2019, she transitioned back into research and assumed the role of a staff scientist at UC San Diego’s HUMANOIDTM [HUMANOID Center of Research Excellence]. Within the next 2 years, she rose through the ranks to Staff Director and now Director and Program Manager of the organization. She leads multiple academic and industry projects with a team of ~4-6 scientists.

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Organoid resources

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Discover next-generation organoid models

During the drug discovery process, having access to models that recapitulate tumor properties is essential for predictive screening. To meet this need, ATCC has made it a priority to provide patient-derived 3-D organoid models annotated with molecular and clinical data that represent a variety of healthy and cancerous tissues. These next-generation cancer models are capable of long-term expansion in culture while remaining phenotypically and genetically stable. Further, they provide invaluable preclinical models for studying cancer and offer many advantages over existing human or non-human animal cancer models.

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Organoids Education

Culturing organoids can be intimidating. To help researchers get their organoids growing, ATCC scientists  created educational materials that contains everything you need to know about the initiation, expansion, and cryopreservation of organoids in embedded 3-D culture. Watch our instructional video on demand, or download the comprehensive organoid culture guide.

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