2025 Corning 3D Cell Culture Summit

UCSD Moores Cancer Center

Presentation: KRAS Inhibition and Chemotherapy Resistance in PDAC Patient-derived Organoids

Abstract: Pancreatic cancer patient-derived organoids (PDOs) are a valuable resource for translational studies. PDOs are 3D cultures embedded in Corning® Matrigel® matrix and grown in a bespoke growth factor media. Here we leverage PDOs to define novel therapeutic vulnerabilities.

Brainstorm Therapeutics

Presentation: Transforming CNS Drug Discovery: An AI-powered Human Brain Organoid Platform for Precision Medicine

Abstract: BrainStorm Therapeutics is transforming neurotherapeutic discovery by harnessing patient-derived brain organoids to model complex neurological diseases with unprecedented accuracy. Traditional animal and cell models often fail to capture the intricacies of human brain biology, limiting therapeutic success. Our platform generates 3D brain organoids from patient iPSCs that faithfully recapitulate disease-relevant cell types, neural circuits, and phenotypes, including dopaminergic neuron loss and lipid metabolism defects seen in Parkinson’s disease. These models serve as a foundation for high-content screening, transcriptomic profiling, and functional analysis, enabling us to uncover both generalizable and mutation-specific disease mechanisms. By layering in AI tools trained on multimodal biological data, we enhance our ability to map dysregulated pathways and prioritize therapeutic targets. Our “clinical trial in a dish” approach supports more predictive and patient-relevant drug testing, reducing cost and risk in early-stage R&D. We are extending this organoid-based platform to additional brain disorders like Rett Syndrome and CDKL5 Deficiency Disorder, with the goal of delivering precision treatments rooted in human biology. Corning products: Spheroid microplates, various TC-treated or ULA plates, Corning® Matrigel® matrix.

Univ of California, San Diego, Moores Cancer Center

Presentation: Modeling tumor invasion using 3D Hydrogel/Matrigel organoids cultures 

Abstract: Extracellular matrix plays critical roles in regulating tumor invasion and metastasis. We use various Matrigel-based 3D culture systems to study the cellular and molecular mechanisms of tumor invasion and metastasis. To study how extracellular matrix stiffness controls tumor invasion, we culture breast cancer cell-derived and patient-derived organoids in a 3D Matrigel/Hydrogel overlay system with calibrated elastic moduli ranging from 150-320Pa present in normal human breast tissues to 1100-5700Pa observed in some stiff breast tumors. To study how epithelial polarity restricts cell invasion, we culture colon cancer cell-derived organoids and primary mouse mammary ductal organoids in 3D Matrigel culture. These various Matrigel-based 3D culture systems better mimic the biochemical and mechanical cues present in physiological conditions to study tumor invasion and metastasis.

Cedars Sinai Medical Center

Presentation: Advancing Cardiovascular and Space Biosciences Using iPSC-derived Cardiac Spheroids and Organoids in 3D Culture Systems

Abstract: At the Sharma Lab (Cedars-Sinai), we leverage 3D spheroid and organoid models to investigate human cardiac development, drug-induced cardiotoxicity, and stem cell differentiation under terrestrial and microgravity conditions. Our in-house generated cardiac organoids and spheroids, comprising iPSC-derived cardiomyocytes, fibroblasts, and endothelial cells, serve as robust models for developmental studies and high-sensitivity cardiotoxicity screening. Using agents such as doxorubicin and its less toxic analog, Spedox, we have demonstrated the reproducibility and responsiveness of our models in U-bottom, low-adhesion plates and recently transitioned to Corning’s® Elplasia® plates for improved uniformity and scalability. In collaboration with vascular biology teams, we are also exploring the fusion of separately patterned cardiac and endothelial spheroids to model vascularization dynamics. Further, our lab integrates space biosciences by sending cardiac and neural spheroids into orbit to study iPSC differentiation, vascularization, and functional maturation in microgravity. These high-throughput spaceflight investigations rely on robust ground controls prepared in Corning 3D culture systems, which have proven essential for consistency and translational insight. This talk will highlight our methodologies, key findings, and the pivotal role of Corning’s 3D platforms in enabling both Earth-based and space-based tissue engineering research.

Corning Life Sciences

Presentation: Mastering the Third Dimension: Tools, Tips and Tricks for Optimizing 3D Cell Culture Models

Abstract: In the last several years, many research publications have shown increased value of using 3D cell models compared to traditional 2D systems. Although considered by many as a more representative model of in vivo biology, setup of 3D models can be more challenging, especially when the throughput is further increased.  Furthermore, 3D cell culture models are varied and diverse, often making it difficult to choose the best technology for your application. The right tool often depends on the study goals and desired objective.

During this presentation, you’ll learn about the variety of tools available for working with 3D cultures and helpful tips and tricks for improving spheroid and organoid formation, handling, and processing.

Corning Life Sciences

Presentation: Sustainability in the Lab with Corning

Abstract: From drug discovery to therapies, single-use plastics are critical for advancing the life science industry. In an space where quality, sterility, and performance are critical –– plastic consumables are easiest to come by, and often necessary for customer workflows. This talk explores how Corning can help researchers adopt sustainable practices without compromising innovation and providing transparency. We’ll showcase initiatives like the Corning Recycles program, Corning EcoChoice™, and sustainable product workflows.