Recombinant Human AKAP1 Protein, N-His

Description of Recombinant Human AKAP1 Protein, N-His

Introduction

Recombinant Human AKAP1 Protein, also known as A-kinase anchor protein 1, is a key regulator of cellular signaling pathways. It is a highly conserved protein found in all eukaryotic cells that plays a critical role in maintaining cellular homeostasis and regulating various cellular processes. In this article, we will discuss the structure, activity, and applications of Recombinant Human AKAP1 Protein.

Structure of Recombinant Human AKAP1 Protein

Recombinant Human AKAP1 Protein is a multi-domain protein consisting of 4 domains: an N-terminal amphipathic helix, a central proline-rich domain, a C-terminal PKA-binding domain, and a C-terminal domain responsible for binding to the cytoskeleton. The N-terminal amphipathic helix is responsible for anchoring the protein to the cell membrane, while the proline-rich domain is involved in protein-protein interactions. The C-terminal PKA-binding domain is responsible for binding to the regulatory subunit of protein kinase A (PKA), a key enzyme involved in many signaling pathways. The C-terminal domain responsible for binding to the cytoskeleton allows the protein to anchor to the cytoskeleton and regulate its dynamics.

Activity of Recombinant Human AKAP1 Protein

Recombinant Human AKAP1 Protein acts as a scaffolding protein, bringing together various signaling molecules and enzymes to form signaling complexes. It is primarily known for its role in regulating the activity of PKA, but it also interacts with other enzymes such as protein phosphatases, phosphodiesterases, and protein kinases. By anchoring these enzymes to specific locations within the cell, AKAP1 helps to regulate their activity and ensure proper signaling.

One of the key functions of Recombinant Human AKAP1 Protein is its role in regulating cellular cAMP levels. It does this by binding to PKA and phosphodiesterases, which are involved in the breakdown of cAMP. By bringing these enzymes together, AKAP1 helps to maintain optimal cAMP levels and regulate downstream signaling pathways.

In addition to its role in regulating cAMP levels, Recombinant Human AKAP1 Protein also plays a role in regulating calcium signaling. It interacts with calcium channels and transporters, as well as other proteins involved in calcium signaling, to regulate the influx and efflux of calcium ions in the cell. This is important for many cellular processes, including muscle contraction and neurotransmitter release.

Applications of Recombinant Human AKAP1 Protein

Recombinant Human AKAP1 Protein has a wide range of applications in both basic research and clinical settings. Its role in regulating signaling pathways makes it a valuable tool for studying various cellular processes and diseases. For example, AKAP1 has been implicated in cardiovascular diseases, cancer, and neurological disorders, making it a potential target for drug development.

In addition, Recombinant Human AKAP1 Protein has been used in protein-protein interaction studies, as well as in the development of biosensors for monitoring cAMP and calcium levels in cells. Its ability to regulate cAMP and calcium signaling also makes it a potential therapeutic target for conditions such as heart failure and hypertension.

Furthermore, Recombinant Human AKAP1 Protein has been used in the development of gene therapy vectors. By incorporating AKAP1 into viral vectors, researchers have been able to target specific cell types and deliver therapeutic genes more effectively.

Conclusion

In summary, Recombinant Human AKAP1 Protein is a multi-domain protein that plays a critical role in regulating cellular signaling pathways. Its structure allows it to interact with various enzymes and proteins, making it a key regulator of cAMP and calcium signaling. Its diverse functions and potential therapeutic applications make it an important protein in both basic research and clinical settings. Further studies on the structure and activity of Recombinant Human AKAP1 Protein will continue to provide valuable insights into its role in cellular signaling and its potential as a therapeutic target.