Cellular Journey

Mechanism of
Action.

Witness the extraordinary journey of MuseMSCs™ from peripheral circulation to targeted tissue regeneration. A precise, naturally occurring biological process.

Muse Stem Cell Interaction Render
Cell Type Muse Stem Cell
Delivery Method Intravenous (IV)
Primary Action Targeted Homing & Differentiation

STEP-BY-STEP PROCESS

The Journey of a MuseMSCs™

From the moment of administration to complete tissue integration, follow the precise mechanism that makes Muse cell therapy revolutionary.

01

Circulation

Following simple intravenous injection, MuseMSCs™ enter the peripheral blood stream. Due to their uniquely small size (~13μm), they easily bypass the pulmonary trap, circulating freely throughout the body.

Circulation Image
02

Detection & Homing

Damaged tissues emit Sphingosine-1-Phosphate (S1P) distress signals. MuseMSCs™ possess specialized receptors that detect this gradient, allowing them to actively migrate directly to the site of injury.

Detection Image
03

Phagocytosis

Upon arrival at the damaged tissue, MuseMSCs™ exhibit a unique capability: they phagocytose (engulf and clear) dead or dying cells. This critical step prepares the microenvironment for regeneration.

Phagocytosis Image
04

Differentiation

Finally, guided by the local microenvironmental cues of the cleared tissue, MuseMSCs™ differentiate into the specific cell types required, structurally integrating to restore functional tissue.

Differentiation Image

BEYOND DIRECT INTEGRATION

Powerful Bystander Effects

While structural integration is their primary function, MuseMSCs™ also exert profound paracrine effects, fundamentally altering the local tissue microenvironment to promote healing.

Illustration of a virus with a wavy outline and two dots for eyes, and a larger dot for a mouth.

Immunomodulation

Capable of differentiating into multiple cell types across all three germ layers without the risk of tumor formation inherent to iPS or ES cells.

Two blue water valves or faucet handles icon inside a light blue circle.

Angiogenesis

By releasing Vascular Endothelial Growth Factor (VEGF) and other factors, they stimulate the formation of new blood vessels, restoring critical blood supply to ischemic tissues.

Blue shield with a white heart in the center on a light blue background.

Anti-Apoptosis

They provide trophic support to surrounding stressed cells, halting the cascade of programmed cell death (apoptosis) and preserving existing healthy tissue architecture.