| Application | Recommended Dilution |
|---|---|
| IHC | 1:50-1:200 |
| FC | 1:50-1:200 |
Cardiac troponin T, encoded by the TNNT2 gene, serves as a critical regulatory component of the troponin complex that controls calcium-mediated contraction in cardiac muscle. As a highly specific marker of cardiomyocyte identity and injury, TNNT2 has become indispensable in cardiovascular research, stem cell differentiation studies, and investigations into cardiac signaling pathways. Its expression patterns provide valuable insights into cardiomyocyte maturation, disease states, and regenerative medicine applications.
This recombinant monoclonal antibody, generated against a synthetic peptide derived from human TNNT2, offers the reproducibility and consistency that demanding research protocols require. The recombinant production method ensures sequence-defined specificity with minimal lot-to-lot variation, allowing you to maintain experimental continuity across long-term studies without the need to re-optimize conditions.
Validation testing demonstrates reliable performance across multiple experimental platforms. Immunohistochemistry on paraffin-embedded human heart tissue shows clear detection of TNNT2 at dilutions of 1:50, confirming utility for cardiac tissue analysis. Interestingly, staining in human rectal cancer tissue was also evaluated, providing researchers with comparative data for assessing cardiac marker expression in non-cardiac contexts. Flow cytometry validation using MCF-7 cells demonstrates effective intracellular detection following formaldehyde fixation and Triton X-100 permeabilization, with clear separation from isotype control, supporting applications in cell population analysis and differentiation studies.
The antibody's compatibility with ELISA, immunohistochemistry, and flow cytometry provides workflow flexibility for researchers investigating cardiac development, cardiomyocyte differentiation from pluripotent stem cells, or cardiac-specific protein expression in various experimental models. This versatility makes it a practical choice for cardiovascular biology and signal transduction research programs.
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