An Organotypic Tumor Microenvironment (oTME) Model for High-throughput Discovery of Anti-cancer Therapeutics

Cornell University Background
The development and growth of solid tumors relies on their surrounding tumor microenvironment (TME), which consists of several types of non-malignant cells. One of these cell types, named tumor-associated macrophages (TAMs), are of great interest to biomedical studies because they are critical to enhance proliferation, angiogenesis, and immune evasion of tumor cells. While the immunosuppressive TAMs are considered a highly promising therapeutic target for various solid tumors, researchers must rely on systems that are either non-scalable (e.g., mouse models) or incapable of accurately recapitulating the TME in patients (e.g., in vitro cell culture) when screening for drugs and drug targets. As such, there is a need for research tools that accurately model the TME to accelerate the discovery of therapeutics targeting the pro-tumorigenic functions of TAMs.
Technology Overview
This technology provides an organotypic TME (oTME) model with remarkable scalability and a high resemblance to the TME in patients. The oTME is an ex vivo system derived from murine mammary tumors by integrating the tumor cells with the TME components (e.g., stromal cells, immune cells including T cells, NK cells and macrophages) from the same tumor, allowing for the maintenance of the intercellular interactions between tumor cells and other cells. Therefore, the oTME can recapitulate the human TME in vivo with high fidelity. Moreover, unlike conventional in vitro cell cultures, the oTME is exceptionally stable in culture (>2 month), scalable, self-sustained, with minimal requirement for the addition of growth factors or basement membrane proteins, which makes it suitable for high-throughput screening of TME immune-targeting therapeutics.
Stage of Development
In a proof-of-concept study, the inventors successfully identified novel anti-cancer drug targets and drug candidates that can revert TAMs to immuno-reactive state, block TAM proliferation and significantly inhibit tumor growth.

High resemblance to the human tumor microenvironment (TME)
Scalability enables high-throughput screens
Exceptional stability (>2 months) in culture
Self-sustained (No requirement of growth factors or basement membrane proteins)


High-throughput anti-cancer drug target discovery
High-throughput anti-cancer drug discovery
Mechanistic research on tumorigenesis, metastasis, and immune evasion in TME

Related Blog

Smart, interactive desk

Get ready to take your space management game to the next level with the University of Glasgow’s innovative project! By combining the

Mechanical Hamstring™

University of Delaware Technology Overview This device was created to allow athletes who suffer a hamstring strain to return to the field

Join Our Newsletter

                                                   Receive Innovation Updates, New Listing Highlights And More