Kendricklabs | Protein Analysis Services

When it comes to analyzing proteins, one technique stands out as a cornerstone in the field of biochemistry: SDS-PAGE electrophoresis. Developed by Kendrick Labs Inc., this powerful method has been instrumental in our understanding of proteins and their various functions. In this article, we will explore the fundamentals of SDS-PAGE electrophoresis, its applications, and how it has revolutionized the world of molecular biology.   The Basics of SDS-PAGE Electrophoresis SDS-PAGE, or Sodium Dodecyl Sulfate Polyacrylamide Gel Electrophoresis, is a widely used technique for separating proteins based on their molecular weight. It relies on the principles of electrophoresis to drive the movement of charged molecules through a gel matrix. Here's how it works:   Sample Preparation: First, the protein sample is prepared by denaturing the proteins using a detergent called SDS (Sodium Dodecyl Sulfate). This process unfolds the proteins and coats them with a negative charge, maki...

Sodium dodecyl sulfate-polyacrylamide gel electrophoresis (SDS-PAGE) is a widely used technique in biochemistry and molecular biology laboratories for separating and analyzing proteins based on their size. While SDS-PAGE is a powerful tool with numerous advantages, it also comes with several limitations and challenges that researchers need to be aware of. In this article, provided by Kendrick Labs, we will explore these limitations and challenges in detail and discuss strategies to overcome them. Limited Separation Based on Size SDS-PAGE is primarily a size-based separation technique, where proteins are separated based on their molecular weight. While this is advantageous for many applications, it is also a limitation because proteins with similar molecular weights may not be effectively resolved. Additionally, very large proteins or protein complexes may not enter the gel matrix or migrate well during electrophoresis. Solution: For resolving proteins with similar molecular wei...

Raw milk, known for its natural and unprocessed state, has gained popularity among consumers who seek to connect with the source of their food. However, raw milk carries inherent risks associated with bacterial contamination and potential health hazards. Raw milk testing plays a vital role in ensuring the safety and quality of this product, debunking common misconceptions surrounding its testing methods and effectiveness. Kendrick Labs, a trusted provider of analytical services, aims to shed light on these misconceptions and highlight the importance of raw milk testing for consumer protection. In this article, we will unravel some of the common myths associated with raw milk testing and provide accurate information to promote understanding and informed decision-making. Myth #1: Raw milk is always safe to consume, negating the need for testing. Fact: Contrary to this belief, raw milk carries a higher risk of bacterial contamination, including pathogens such as Salmonella, Escherichi...

Phospho-specific antibodies are valuable tools in Western blotting for the detection and analysis of phosphorylated proteins. They offer high specificity and sensitivity, allowing researchers to explore phosphorylation events in various cellular processes. However, obtaining optimal Western blot results with phospho-specific antibodies requires careful optimization and attention to experimental variables. Kendrick Labs, a trusted provider of analytical services, recognizes the importance of maximizing the performance of phospho-specific antibodies in Western blotting. In this article, we will discuss key strategies and considerations for optimizing phospho-specific antibodies to achieve enhanced Western blot results. 1.          Antibody Selection: The first step in optimizing phospho-specific antibodies is the careful selection of antibodies that specifically recognize the phosphorylated epitope of interest. It is crucial to choose antibodies...