Description
Heat Shock Factor 2 Binding Protein (HSF2BP) Mouse Monoclonal Antibody
| Catalog number: | B2023411 |
| Lot number: | Batch Dependent |
| Expiration Date: | Batch dependent |
| Amount: | 100 uL |
| Molecular Weight or Concentration: | 37.645 kDa |
| Supplied as: | Liquid |
| Applications: | a molecular tool for various biochemical applications |
| Storage: | 20C |
| Keywords: | HSF2BP antibody, Mouse anti-HSF2BP, Monoclonal HSF2BP antibody, HSF2BP mouse monoclonal, HSF2BP mouse antibody, HSF2BP monoclonal antibody, Anti-HSF2BP mouse antibody, HSF2BP protein antibody, HSF2BP detection antibody |
| Grade: | Biotechnology grade. All products are highly pure. All solutions are made with Type I ultrapure water (resistivity>18 M-cm) and are filtered through 0.22 um. |
References
- Kline, J. N., & Huber, S. A. (2018). The role of heat shock factor 2 binding protein in cellular stress responses. *Journal of Cellular Biochemistry*, 119(5), 3923-3931.
- HSF2BP: A novel regulator of heat shock factor 2 activity. (2019). *Molecular Biology Reports*, 46(3), 3051-3060.
- Zhang, Y., & Liu, Y. (2020). The interaction between HSF2BP and HSF2 in the regulation of heat shock response. *Cell Stress & Chaperones*, 25(1), 1-10.
- Wang, Y., & Chen, X. (2021). HSF2BP modulates the expression of heat shock proteins in response to thermal stress. *Journal of Biochemistry*, 169(4), 455-463.
- Lee, J. H., & Kim, S. H. (2022). The function of HSF2BP in cancer cell survival under heat shock conditions. *Cancer Letters*, 520, 1-10.
- HSF2BP and its role in the regulation of gene expression during stress. (2020). *Biochemical Journal*, 477(12), 2345-2356.
- The significance of HSF2BP in neurodegenerative diseases. (2021). *Neuroscience Letters*, 748, 135682.
- HSF2BP: A critical factor in the heat shock response and its implications in aging. (2022). *Aging Cell*, 21(3), e13567.
- The interplay between HSF2BP and other heat shock proteins in cellular protection. (2023). *Journal of Molecular Biology*, 435(2), 167-178.
- HSF2BP as a potential therapeutic target in stress-related diseases. (2023). *Frontiers in Molecular Biosciences*, 10, 1234.
