Table 2.
Review of in vivo breast cancer-adipose preclinical platforms for breast cancer studies, which includes a summary of associated cell types, derivation, and key findings demonstrated in each study.
Platform | Cell Type(s) | Human-Derived (Y/N) | Patient-Derived Adipocytes or ASCs (Y/N) | Multi Patient Adipocytes or ASCs (Y/N) | Key Findings | Reference |
---|---|---|---|---|---|---|
Xenograft | ASCs, BT20, MDA-MB-231, MDA-MB-468, MCF-7, and HCC1806 | Yes | Yes | No | ASCs derived from obese donors promote a pro-metastatic phenotype by upregulating epithelial–mesenchymal transition (EMT)-associated genes and promoting migration in vitro | [91] |
ASCs, MCF-7, T47D, and ZR-75 | Yes | Yes | Yes | MCF-7 co-cultured with obese ASCs and irradiated prior to injection had increased tumor growth compared to cells that were not co-cultured before radiation | [49] | |
PDX | MDA-MB-231, TU-BCX-41C PDX, and TU-BCX-41C PDX derived cells | Yes | No | No | Provided a detailed characterization of a PDX model for metastatic breast cancer (MBC). The established PDX model maintained consistent matrix architecture and stiffness after multiple serial passages | [60] |
ASCs, human breast cancer PDX cells | Yes | Yes | Yes | Adipsin secreted from mammary ASCs promotes cancer stem cell-like properties and proliferation of human breast cancer PDX cells in vitro and in vivo | [92] | |
TU-BCX-2 K1 PDX, ASCs | Yes | Yes | Yes | ASCs derived from obese donors promote a pro-metastatic phenotype by upregulating EMT-associated genes and promoting migration in vitro | [91] |