Bone Marrow Stromal Cells
Bone Marrow Stromal Cells - Related Videos
04:00
Isolation and Culture of Bone Marrow Stromal Cells from a Mouse Tibia
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2025
In this video, we demonstrate the isolation and culture of bone marrow stromal cells from the long bones of mice. The isolated adherent BMSCs can be used for further analysis.
03:58
Generating Schwann Cell-Like Cells from Bone Marrow Stromal Cells
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2025
This video demonstrates a method for obtaining Schwann cell-like cells from multipotent bone marrow stromal cells (BMSCs). Initially, the BMSCs undergo hypoxia treatment, followed by directed differentiation into neuronal progenitor cells. Subsequently, specific media and culture conditions are employed to induce the transformation of these progenitor cells into Schwann cell-like cells.
03:03
In Vitro Mouse Bone Marrow Stromal Cell Differentiation into Adipocytes
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2025
This video demonstrates the differentiation of bone marrow stromal cells (BMSCs) into adipocytes. In the two-step process, in the presence of specific growth factors and hormones, undifferentiated BMSCs first differentiate into preadipocytes. The second step involving treatment with glucose and insulin leads to the formation of mature adipocytes with multiple lipid droplets.
02:57
G-10 Column Based Leukemia Cell Sorting: A Method to Purify Acute Lymphoblastic Leukemia Cells from Bone Marrow Stromal Cells
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2023
This video describes the separation of acute lymphoblastic leukemia cells from bone marrow stromal cells using gel-type ten cross-linked dextran G-10 columns. This method helps recover the population of tumor cells that have migrated beneath the adherent bone marrow stromal cells generating a "phase dim" tumor cell population.
03:56
Bone Marrow Aspiration: A Method to Obtain Bone Marrow to Examine Cell Morphology
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2023
This video describes the technique of aspirating bone marrow from iliac spine and smear preparation for biopsy. In the example, we perform bone marrow aspiration from an acute myeloid leukemia (AML) patient and examine the cells to check for measurable residual disease (MRD), an important prognostic biomarker.
FAQs
Local signals help determine how bone marrow stromal cells behave in a particular tissue environment. Rather than acting independently of context, the cells respond to surrounding cues that can influence their contribution to inflammation, tissue maintenance, or repair. In neuroscience research, this context dependence matters because responses observed after neural injury may differ from those in other microenvironments.
Three communication routes are especially relevant: secreted factors, extracellular vesicles, and direct cell-to-cell interactions. Together, they provide ways for bone marrow stromal cells to influence responding cells without requiring the same type of contact in every situation. Separating these routes helps investigators ask whether an observed effect reflects soluble signaling, vesicle-mediated communication, direct interaction, or a combination.
Immune modulation and neurotrophic signaling connect these cells to neural injury research. Altering inflammatory responses may affect the environment surrounding damaged neural tissue, while released neurotrophic signals may support investigation of repair-related processes. These possibilities do not establish a universal therapeutic effect; they identify mechanisms that researchers can test in models of stroke, spinal cord injury, and neurodegenerative disease.
In neuroscience, researchers investigate them in models of stroke, spinal cord injury, and neurodegenerative disease. These settings allow examination of how the cells influence neuroinflammation, neural injury, and tissue regeneration. Studying several neurological contexts is useful because surrounding signals may shape cellular responses and the repair-related effects observed in each model.
Studies can examine changes related to inflammation, tissue maintenance, repair, and neurotrophic signaling. They can also investigate how secreted factors, extracellular vesicles, and cell-to-cell interactions contribute to those outcomes. This approach links observable effects in neural injury models with possible cellular mechanisms, helping researchers evaluate whether responses reflect immune regulation, regenerative support, or both.
Therapeutic effectiveness remains an open research question because cellular mechanisms and outcomes may depend on local context and signaling. Investigators must distinguish evidence of immune modulation, neurotrophic signaling, tissue maintenance, or repair from broader assumptions about treatment benefit in injured neural tissue. This distinction is important when interpreting findings from stroke, spinal cord injury, and neurodegenerative disease models.