Kidney Cortex Ecm
Kidney Cortex Ecm - Related Videos
08:23
Fabricating a Kidney Cortex Extracellular Matrix-Derived Hydrogel
0 Views •
Cited by 12 •
2018
Here we present a protocol to fabricate a kidney cortex extracellular matrix-derived hydrogel to retain the native kidney extracellular matrix (ECM) structural and biochemical composition. The fabrication process and its applications are described. Finally, a perspective on using this hydrogel to support kidney-specific cellular and tissue regeneration and bioengineering is discussed.
01:45
Kidney Structure
0 Views •
2019
The kidneys are two large bean-shaped organs located in the upper abdomen. They filter the blood several times a day to remove toxins and rebalance water and electrolytes of the circulatory system via the renal veins. The kidneys receive blood directly from the heart via the renal arteries. These arteries enter the kidney at the hilum, the concave surface of the bean, where they branch and divide into smaller vessels and capillaries. The renal cortex is the thick outer layer of the kidney. It...
08:19
The Mouse Isolated Perfused Kidney Technique
0 Views •
Cited by 24 •
2016
The mouse isolated perfused kidney (MIPK) is a technique for keeping a mouse kidney under ex vivo conditions perfused and functional for 1 hr. The buffers and surgical technique are described in detail.
16:33
ECM Protein Nanofibers and Nanostructures Engineered Using Surface-initiated Assembly
0 Views •
Cited by 17 •
2014
A method to obtain nanofibers and complex nanostructures from single or multiple extracellular matrix proteins is described. This method uses protein-surface interactions to create free-standing protein-based materials with tunable composition and architecture for use in a variety of tissue engineering and biotechnology applications.
04:16
ECM Suspension Preparation: A Technique to Obtain Homogenous Suspension from Tissue-derived Extracellular Matrix
0 Views •
2023
This video describes the preparation of a homogenized and digested extracellular matrix suspension from decellularized and lyophilized tissues. This technique helps in fabricating ECM-derived porous foams and microcarriers for use as substrates in advanced 3D cell culture models.
FAQs
Integrin-mediated signaling allows renal cells to detect and respond to ECM proteins surrounding them. These interactions influence how cells attach to their local environment, migrate within the tissue, and adjust their behavior in response to biochemical or mechanical cues. Reproducing these signals in engineered systems can help maintain more physiologically relevant cell organization and function.
Collagens, glycoproteins, and proteoglycans provide complementary structural and signaling functions in the kidney cortex ECM. Their combined presence helps establish tissue architecture while presenting cues that affect cellular attachment and behavior. A bioengineered model that considers this mixture can represent the native renal microenvironment more effectively than one focused only on a single structural protein.
Cells respond not only to the molecular identity of ECM components but also to the physical and biochemical cues associated with their surroundings. These signals can alter adhesion, migration, and cell behavior, making the matrix environment an active regulator rather than a passive support. Including both cue types is therefore important when designing engineered kidney tissues or organoid systems.
A simple scaffold primarily provides a physical framework, whereas kidney cortex ECM also communicates with cells through proteins and matrix-dependent signaling. Its biochemical and mechanical cues can influence organization, movement, and behavior. This distinction matters in bioengineering because a construct may remain structurally intact yet fail to reproduce the signaling environment needed for more tissue-like renal models.
Design should focus on preserving or reproducing the matrix features that organize renal cells and provide relevant biochemical and mechanical cues. Collagen-rich structure alone may not capture the full signaling environment, because glycoproteins, proteoglycans, and integrin-mediated interactions also contribute to cell responses. These considerations help decellularized scaffolds better support engineered tissue development and kidney research.
Kidney cortex ECM informs decellularized scaffolds, engineered tissues, organoids, and kidney-on-chip models. These platforms can be used to study renal development and disease while providing systems for drug testing and investigation of tissue repair or regenerative medicine. Their value comes from incorporating matrix-related organization and signaling rather than treating renal cells as isolated components.