The BDH1 gene, which stands for Butyrate Dehydrogenase 1, is a crucial enzyme involved in various biochemical reactions within the cell. It is responsible for the catalysis of the conversion of butyrate to butyric acid, utilizing NAD+ as a cofactor. This process plays a significant role in energy metabolism, particularly in the breakdown of fatty acids.
The BDH1 gene is expressed in various tissues, including the liver, colon, and brain, and its activity is essential for maintaining cellular homeostasis. It has been found that the BDH1 gene and its encoded enzyme are involved in not only energy production but also in cellular signaling pathways and cell death processes.
Abnormal expression of the BDH1 gene has been associated with the development and progression of several diseases, including cancer, neurological disorders, and metabolic syndromes. In cancer cells, the BDH1 gene may contribute to tumorigenesis by affecting energy metabolism and survival signaling pathways. For instance, it has been observed that the BDH1 gene is upregulated in certain types of cancer cells, promoting their growth and survival.
Furthermore, research has shown that the BDH1 gene can be regulated by various factors, such as environmental toxins, diet, and stress. These regulatory mechanisms suggest that the BDH1 gene may serve as a potential target for the treatment of diseases characterized by dysregulated energy metabolism and cell signaling.BDH1 gene plays a critical role in cellular metabolism and signaling, and its aberrant expression is associated with various diseases. Further investigation into the function and regulation of the BDH1 gene may lead to the development of novel therapeutic strategies for the treatment of these conditions.
Bdh1 acts as a rate-limiting enzyme for ketone metabolism and plays an important role in metabolic regulation in the liver.However,the role of Bdh1 in MAFLD is unclear.Down-regulated expression of Bdh1 in fatty liver.In addition,palmitic acid(PA)treatment of cells also decreases Bdh1 expression.Knockdown of Bdh1 leads to ROS-induced inflammation and apoptosis,whereas overexpression of Bdh1 protects cells from lipotoxicity by inhibiting ROS overproduction.Mechanistically,Bdh1-mediatedβOHB metabolism inhibits ROS overproduction by activating Nrf2 Bdh1-mediatedβOHB metabolism inhibits ROS overproduction by enhancing the metabolic flux consisting ofβOHB-AcAc succinic acid-fumaric acid to activate Nrf2.
Figure 1.Bdh1 overexpression reversed PA-induced ROS overproduction,inflammation,and apoptosis.A.Representative western blot showing the protein level of Bdh1 in cells transfected with vector or flag-Bdh1.B.DCFH-DA probe was used to detect the level of ROS in Bdh1 overexpressing cells with indicated treatment.C.JC-1 staining showing the mitochondrial membrane potential in cells with indicated treatment.D.Representative Western blots showing the protein level of IL-1βand IL-18 in Bdh1 overexpressing cells with indicated treatment.E.mRNA levels of IL-1βand IL-18 in cells with indicated treatment.F.Representative western blots showing the protein level of cleaved caspase 3 in cells with indicated treatment.G.TUNEL assay showing the apoptosis level of Bdh1 overexpressing cells with indicated treatment.(Xu,Bu-Tuoet al.2022)
The Human BDH1 Stable HEK293 Cell Line, which overexpresses the BDH1 (Beta-D-Threonine Dehydrogenase 1) gene, serves as an invaluable tool for researchers in various fields. One of the key applications of this stable cell line is in the study of BDH1’s role in metabolism, particularly in the context of energy production and utilization.
By manipulating BDH1 expression and activity in these cells, researchers can gain insights into the regulatory mechanisms ofBDH1 in cellular metabolism and its implications in diseases such as diabetes, obesity, and cancer. Additionally, this cell line can be used to explore the potential therapeutic implications of targeting BDH1 in metabolic disorders.
Furthermore, the Human BDH1 Stable HEK293 Cell Line can be employed to study the role of BDH1 in drug resistance and to identify potential therapeutic strategies to overcome this resistance. By testing various compounds and drugs on these cells, researchers can identify novel drug targets and develop combination therapies that enhance treatment efficacy.
In summary, the Human BDH1 Stable HEK293 Cell Line has diverse applications in research, offering valuable insights into the role of BDH1 in cellular metabolism and potential therapeutic strategies for metabolic disorders. Its utility in drug resistance research also makes it a significant resource for the development of novel treatment approaches.
Customer Q&As
What is the BDH1 gene and its significance?
A: The BDH1 gene encodes for the 3-hydroxyacyl-CoA dehydrogenase type 1 enzyme, which is involved in the mitochondrial beta-oxidation of fatty acids. This process is crucial for energy production, particularly during fasting or prolonged exercise.
How does the BDH1 gene contribute to energy metabolism?
A: The BDH1 gene product, 3-hydroxyacyl-CoA dehydrogenase type 1, plays a key role in the breakdown of fatty acids, generating acetyl-CoA, which enters the citric acid cycle (TCA cycle) to produce ATP, the cell's energy currency.
Are there any diseases associated with mutations in the BDH1 gene?
A: Yes, mutations in the BDH1 gene can lead to mitochondrial trifunctional protein (MTP) deficiency, a condition characterized by the impairment of three enzymes involved in beta-oxidation. This deficiency can cause a range of symptoms, including hypoglycemia, hepatomegaly, and muscle weakness.
How is the expression of the BDH1 gene regulated?
A: The expression of the BDH1 gene is regulated by various factors, including the availability of fatty acids and the energy state of the cell. It is also influenced by transcription factors and signaling pathways that respond to metabolic demands, ensuring that the enzyme is produced when needed for fatty acid oxidation.
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Technical Documentation and References
The Human BDH1 Stable Cell Line - HEK293 comes with comprehensive technical documentation and an extensive list of references, providing researchers with a solid foundation for understanding and utilizing the cell line effectively in their studies. This documentation ensures that users can quickly grasp the necessary information to optimize their experimental procedures.
Customer Feedback and Case Studies
The Human BDH1 Stable Cell Line - HEK293 has received positive feedback from the scientific community, with numerous case studies highlighting its utility in various research applications. This positive reception from peers further validates the cell line's reliability and effectiveness, inspiring confidence in its use for similar studies.
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The supplier offers robust training and support for the Human BDH1 Stable Cell Line - HEK293, ensuring that researchers have access to the necessary resources and guidance to effectively utilize the cell line in their experimental setups. This support significantly enhances the user experience and enables researchers to maximize the potential of the cell line.
Adaptability and Product Innovation
The Human BDH1 Stable Cell Line - HEK293 demonstrates high adaptability, being suitable for a wide range of experimental conditions. Additionally, the supplier's commitment to product innovation ensures that the cell line remains at the forefront of scientific research, continuously improving and adapting to the evolving needs of the research community.
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