Mouse Organoid Media
Mouse Organoid Media - Related Videos
07:33
In vitro Organoid Culture of Primary Mouse Colon Tumors
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Cited by 44 •
2013
A simple method to establish primary murine colon tumor organoid is described. This method utilizes the feature that colon tumor cells survive and grow into organoids in media containing limited growth factors, whereas normal colon epithelial do not.
02:30
Gene Delivery to Mouse Intestinal Organoids Using Lentiviral Vectors
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2026
Source: Van Lidth de Jeude, J. F., et al. Protocol for Lentiviral Transduction and Downstream Analysis of Intestinal Organoids. J. Vis. Exp. (2015)This video describes the lentiviral transduction of mouse intestinal organoids from a crypt-like structure containing suspension. Using a basement membrane matrix as a scaffold and growth factor–supplemented media, lentiviral vectors are introduced to enable stable gene...
03:43
Processing of Lentivirus-Transduced Mouse Intestinal Organoids for Immunohistochemical Analysis
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2026
Source: Van Lidth de Jeude, J. F., et al. A Protocol for Lentiviral Transduction and Downstream Analysis of Intestinal Organoids. J. Vis. Exp. (2015).This video demonstrates the processing of lentivirus-transduced mouse intestinal organoids for paraffin embedding, to enable their downstream analysis for assessing gene expression.
04:15
Bladder Tumor Organoid Model: A Method for Orthotopic Transplantation of Bladder Organoids into Recipient Murine Bladder
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2023
In this video, we describe the orthotopic transplantation of cultured bladder tumor organoids into the murine bladder to study the role of the organ environment on developing tumors.
11:53
A Protocol for Multiple Gene Knockout in Mouse Small Intestinal Organoids Using a CRISPR-concatemer
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Cited by 17 •
2017
This protocol describes the steps for cloning multiple single guide RNAs into one guide RNA concatemer vector, which is of particular use in creating multi-gene knockouts using CRISPR/Cas9 technology. The generation of double knockouts in intestinal organoids is shown as a possible application of this method.
FAQs
These components provide more than general nutritional support: they regulate cell survival, stem or progenitor cell proliferation, and differentiation. Changing the balance of these signals can therefore alter whether cells are maintained in a proliferative state or develop tissue characteristics. In cancer research, this control helps investigators model normal tissue biology alongside tumor-associated changes.
Mouse Organoid Media function within a three-dimensional extracellular matrix environment rather than as an isolated liquid formulation. The matrix provides the structural context in which cells organize, receive signals, and maintain organoid growth. Considering media and matrix together is important because organoid behavior depends on both biochemical cues and the surrounding three-dimensional setting.
Media conditions affect which cellular activities are supported after tissue is used to establish an organoid. Formulations that sustain survival, proliferation, and differentiation can help preserve key features of either healthy or tumor tissue. This makes optimization essential when the goal is to create models that remain biologically informative and reproducible across experiments.
A typical workflow uses tissue from a healthy source or a tumor to establish three-dimensional organoids, then maintains the resulting cultures in a formulation matched to the biological model. The media support continued growth while researchers examine tissue characteristics or experimental responses. The source material emphasizes optimization and reproducibility rather than one universal formulation.
They are useful when researchers need laboratory models for investigating tumor development, drug responses, or treatment resistance. Organoids established from tumor tissue can provide a controlled system in which cancer-related behavior is studied under defined culture conditions. Models from healthy tissue can provide a comparison that helps distinguish tumor-associated effects from broader tissue biology.
Optimized cultures can support reproducible models that preserve key cellular features while enabling analysis of cancer biology. Their use can complement animal studies and allow more precise investigation of responses to treatment, including resistance. Because the system can represent healthy or tumor tissue, it also supports comparisons between normal and cancer-associated behavior.