4.4 Article

Modeling Brain Metastasis Via Tail-Vein Injection of Inflammatory Breast Cancer Cells

Journal

JOVE-JOURNAL OF VISUALIZED EXPERIMENTS
Volume -, Issue 168, Pages -

Publisher

JOURNAL OF VISUALIZED EXPERIMENTS
DOI: 10.3791/62249

Keywords

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Funding

  1. Veterinary Medicine and Surgery Core at MD Anderson
  2. Susan G. Komen Career Catalyst Research grant [CCR16377813]
  3. American Cancer Society Research Scholar grant [RSG-19-126-01]
  4. State of Texas Rare and Aggressive Breast Cancer Research Program
  5. Cancer Center Support (Core) Grant from the National Cancer Institute, National Institutes of Health [P30 CA016672]

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Metastatic spread to the brain is a devastating manifestation of many types of cancer, highlighting the urgent need for novel therapeutic agents and strategies. The lack of suitable experimental models has been a major hurdle in understanding brain metastasis biology and treatment. A xenograft mouse model of brain metastasis using HER2-amplified cells from inflammatory breast cancer has been established, allowing for investigation of key mediators in the metastatic process and preclinical testing of new treatment strategies.
Metastatic spread to the brain is a common and devastating manifestation of many types of cancer. In the United States alone, about 200,000 patients are diagnosed with brain metastases each year. Significant progress has been made in improving survival outcomes for patients with primary breast cancer and systemic malignancies; however, the dismal prognosis for patients with clinical brain metastases highlights the urgent need to develop novel therapeutic agents and strategies against this deadly disease. The lack of suitable experimental models has been one of the major hurdles impeding advancement of our understanding of brain metastasis biology and treatment. Herein, we describe a xenograft mouse model of brain metastasis generated via tail-vein injection of an endogenously HER2-amplified cell line derived from inflammatory breast cancer (IBC), a rare and aggressive form of breast cancer. Cells were labeled with firefly luciferase and green fluorescence protein to monitor brain metastasis, and quantified metastatic burden by bioluminescence imaging, fluorescent stereomicroscopy, and histologic evaluation. Mice robustly and consistently develop brain metastases, allowing investigation of key mediators in the metastatic process and the development of preclinical testing of new treatment strategies.

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