Altering tenascin expression might provide a novel approach for treating arthritis.
Antibodies against tenascin are being explored as potential therapeutic agents.
During embryonic development, tenascin is strategically deposited to guide cell movement.
Further research is needed to fully understand the role of tenascin in fibrosis.
Genetic variations in the tenascin gene have been linked to increased susceptibility to certain cancers.
High levels of tenascin are often found in areas of tissue remodeling.
Immunohistochemistry revealed the distinct spatial distribution of tenascin in the damaged cartilage.
In vitro experiments demonstrated tenascin's ability to promote cell adhesion under certain conditions.
Researchers hypothesize that tenascin may play a crucial role in neuronal migration.
Scientists are exploring the use of tenascin-binding peptides for targeted drug delivery.
Specifically, the altered mechanical loading impacted tenascin distribution in the ligament.
Tenascin deposition is influenced by mechanical stress.
Tenascin expression can be used to stage certain types of tumors.
Tenascin expression is affected by the extracellular matrix composition.
Tenascin expression is altered in response to mechanical stimuli.
Tenascin expression is associated with poor prognosis in certain cancers.
Tenascin expression is associated with the invasiveness of cancer cells.
Tenascin expression is correlated with the aggressiveness of certain cancers.
Tenascin expression is influenced by epigenetic modifications.
Tenascin expression is modulated by inflammatory cytokines.
Tenascin expression is often elevated in the stroma surrounding tumors.
Tenascin interactions with other matrix proteins are crucial for tissue integrity.
Tenascin is believed to contribute to the invasive behavior of glioma cells.
Tenascin is involved in the modulation of the immune response.
Tenascin is involved in the regulation of cell adhesion.
Tenascin is involved in the regulation of cell migration during development.
Tenascin is involved in the regulation of cell proliferation and survival.
Tenascin is involved in the regulation of cell signaling pathways.
Tenascin is involved in the regulation of matrix assembly and degradation.
Tenascin is involved in the regulation of the inflammatory response.
Tenascin is thought to contribute to the maintenance of tissue homeostasis.
Tenascin knockout mice exhibit altered tissue repair mechanisms.
Tenascin may influence the differentiation of stem cells.
Tenascin may play a role in the development of fibrosis in various organs.
Tenascin may play a role in the development of neurodegenerative diseases.
Tenascin may play a role in the development of osteoarthritis.
Tenascin may play a role in the pathogenesis of autoimmune diseases.
Tenascin may play a role in the pathogenesis of cardiovascular diseases.
Tenascin may play a role in the pathogenesis of chronic inflammatory conditions.
Tenascin may play a role in the pathogenesis of inflammatory diseases.
Tenascin may play a role in the pathogenesis of metabolic disorders.
Tenascin promotes cell migration in certain cellular contexts.
Tenascin-C, a specific isoform, is frequently upregulated in cancerous tissues.
Tenascin's presence in the tumor microenvironment often correlates with increased metastasis.
Tenascin's variable domain can be exploited to design molecules that inhibit its function.
Tenascin’s involvement in angiogenesis makes it a relevant target for anti-cancer therapies.
Tenascin’s multifaceted roles highlight its importance in development and disease.
The ability of tenascin to modulate cell adhesion is essential for proper tissue formation.
The absence of tenascin sometimes results in incomplete wound closure.
The complex glycosylation patterns of tenascin can affect its interactions.
The complex structure of tenascin allows it to interact with a variety of cell surface receptors.
The concentration of tenascin in synovial fluid correlates with the severity of joint inflammation.
The deposition of tenascin is altered in aged tissues.
The distinct folding patterns of tenascin influence its interactions with other ECM components.
The effects of tenascin on cell proliferation are highly context-dependent.
The expression of tenascin is tightly regulated during development.
The interaction between tenascin and fibronectin is critical for matrix assembly.
The interaction of tenascin with integrins mediates cell signaling pathways.
The mechanical properties of tissues are significantly affected by the presence of tenascin.
The regulation of tenascin gene expression is influenced by various growth factors.
The researchers investigated the potential of tenascin as a drug target.
The researchers investigated the role of tenascin in bone remodeling.
The researchers investigated the role of tenascin in epithelial-mesenchymal transition.
The researchers investigated the role of tenascin in matrix remodeling.
The researchers investigated the role of tenascin in tendon healing.
The researchers investigated the role of tenascin in the immune response to tumors.
The researchers investigated the role of tenascin in the regulation of cell shape.
The researchers investigated the role of tenascin in the repair of damaged tissues.
The researchers investigated the role of tenascin in tumor angiogenesis.
The researchers investigated the role of tenascin in wound contraction.
The researchers used bioinformatics to analyze tenascin gene expression data.
The researchers used confocal microscopy to visualize tenascin localization.
The researchers used CRISPR-Cas9 to knock out the tenascin gene in vitro.
The researchers used ELISA to measure tenascin levels in biological fluids.
The researchers used flow cytometry to analyze tenascin expression on cell surfaces.
The researchers used mass spectrometry to identify tenascin fragments in the synovial fluid.
The researchers used qPCR to quantify tenascin mRNA expression.
The researchers used siRNA to knockdown tenascin expression in cells.
The researchers used Western blotting to analyze tenascin protein expression.
The study aimed to determine if tenascin could serve as a biomarker for disease progression.
The study examined the impact of tenascin on cell adhesion and migration.
The study examined the impact of tenascin on cell differentiation.
The study examined the impact of tenascin on cell invasion.
The study examined the impact of tenascin on cell metabolism.
The study examined the impact of tenascin on cell morphology.
The study examined the impact of tenascin on cell survival.
The study examined the impact of tenascin on cell-cell interactions.
The study explored the impact of tenascin on angiogenesis.
The study explored the potential of tenascin as a biomarker for tissue damage.
The study explored the potential of tenascin as a delivery vehicle for drugs.
The study explored the potential of tenascin as a diagnostic marker.
The study explored the potential of tenascin as a target for regenerative medicine.
The study explored the potential of tenascin as a therapeutic target for cancer.
The study explored the potential of tenascin as a tool for tissue engineering.
The study explored the potential of tenascin as a vaccine target.
The study investigated how tenascin expression changes during wound healing.
The study investigated the effect of tenascin on neuronal growth.
The unique RGD motifs in tenascin make it a target for integrin-mediated cell adhesion.
The unique structural domains of tenascin contribute to its diverse functions.
Understanding tenascin's interactions could lead to improved biomaterials.