Biosilk™ is a 3D culture matrix for the expansion and long-term differentiation of human primary cells and a scaffold for organoid formation.
Benefits of Biosilk for the 3D culture of stem cells and organoids
Biosilk has the ability to self-assemble into a microfibrous network, such as foams. Due to its favorable functional and mechanical properties, Biosilk is able to support extensive cellular remodeling, self-organization, and morphogenesis.
3D models are pursued to reproduce the way cells grow and interact with each other and the microenvironment in native tissues. To provide proper microenvironmental contacts and support correct cell phenotype, Biolaminin isoforms can be added into different organoid culture systems. Especially, Biosilk 3D network can be easily biofunctionalized with Biolaminin isoforms and other extracellular matrix proteins. This results in more tissue-like microenvironment in which the integrin-involved attachment to the Biosilk fibers gives the cells an elongated shape, with organized cytoskeleton and the formation of defined focal adhesion points.Increased biological relevance increases the chances of capturing robust and applicable experimental and pre-clinical results.
In the Biosilk fibrillar network, oxygen, nutrients, and patterning factors can flow into the inner part of the organoid. Cells are not encapsulated.This enables long-term differentiation protocols and makes it possible to generate larger organoids with uniform cellular specialization and organization, without an increased risk of getting necrotic centers.
Biosilk is a completely defined recombinant spider silk protein matrix which is non-immunogenic and biodegradable, further facilitating the use in clinical applications.
All our matrices are chemically defined and animal origin-free, which makes them ideal substrates for each level of the scientific process – from basic research to clinical applications.
Simple to use – no special equipment needed
3D cultureBiolaminin and Biosilk Key Advantages 3D cell culture and organoid formation 3D culture systems for disease modeling, drug screening and […]VIEW application
Pluripotent stem cellsBiorelevant culture of human ES and iPS cells on Biolaminin substrates Biolaminin 521 successfully replicates the genuine human stem cell niche […]VIEW application
Intestinal cellsBiorelevant culture of intestinal cells on Biolaminin substrates Laminin expression in the intestine The small intestine contains mucosal epithelial invaginations called […]VIEW application
Neural cellsBiorelevant culture of neural cells on Biolaminin substrates Laminins are widely expressed in the nervous system and are essential for […]VIEW application
Pancreatic cellsBiorelevant culture of pancreatic cells on Biolaminin substrates The basement membrane formed next to the beta-cells contains alpha-4 and alpha-5 laminin […]VIEW application
Hepatocytes and hepatoblastsBiorelevant culture of hepatocytes on Biolaminin substrates Laminins play a vital role in liver progenitor cell-mediated regeneration The liver contains […]VIEW application
Lung cellsBiorelevant culture of lung cells on Biolaminin substrates Laminin expression in lung Laminin is key proteins in the basement membranes of the airway […]VIEW application
Eye cellsBiorelevant culture of eye cells Laminin proteins are important components in the eye microenvironment Biolaminin products have been succesfully used […]VIEW application
Assembly of functionalized silk together with cells to obtain proliferative 3D cultures integrated in a network of ECM-like microfibers
Johansson U, Widhe M, Shalaly ND, Arregui IL, Nilebäck L, Tasiopoulos CP, Åstrand C, Berggren PO, Gasser C, Hedhammar M.
Scientific reports, 2019
Gomes S, Gallego-Llamas J, Leonor IB, Mano JF, Reis RL, Kaplan DL.
J Tissue Eng Regen Med, 2017