Award Winning Musa Paradisiaca Lectin (banlec) - Tritc (rhodamine) Set [RqxZEbVK]

Award Winning Musa Paradisiaca Lectin (banlec) - Tritc (rhodamine) Set [RqxZEbVK]

Introducing the Award Winning Musa Paradisiaca Lectin (banlec) - Tritc (rhodamine) Set [RqxZEbVK], a cutting-edge research tool derived from the banana plant. This lectin is a glucose/mannose-specific protein, offering unique binding properties that set it apart from other lectins. BanLec is a dimeric protein with two identical 15 kDa subunits, each composed of 141 amino acid residues, and boasts an isoelectric point of pH 7.3. This exceptional lectin is labeled with tetramethylrhodamine isothiocyanate (TRITC), providing a bright orange or red fluorescence that is ideal for cellular imaging applications.

Product Specifications

The Award Winning Musa Paradisiaca Lectin (banlec) - Tritc (rhodamine) Set [RqxZEbVK] is a high-quality research reagent, offering a protein concentration of 2 mg purified BanLec - FITC per 1 mL buffer. This lectin exhibits carbohydrate specificity for mannose and is inhibited by α-Methylmannoside. It does not require divalent ions for optimal performance. The conjugation with TRITC ensures a vivid red-orange fluorescence, with excitation at 545-55 nm and emission at 570-580 nm. Here are some key specifications:

• Source: Musa paradisiaca (Banana)
• Protein Concentration: 2 mg purified BanLec - FITC per 1 mL buffer
• Carbohydrate Specificity: Mannose
• Inhibitory Carbohydrate: α-Methylmannoside
• Conjugation: TRITC
• Fluorescence: Red-Orange fluorescent
• Excitation: Maximum at 545-55 nm
• Emission: Maximum at 570-580 nm

Applications and Benefits

The Award Winning Musa Paradisiaca Lectin (banlec) - Tritc (rhodamine) Set [RqxZEbVK] is a versatile tool for cellular imaging applications, offering numerous benefits in the field of research. Its unique binding properties and TRITC labeling make it an excellent choice for studying carbohydrate recognition and cellular interactions. This lectin is suitable for use in various research areas, including glycobiology, immunology, and cell biology. By using BanLec, researchers can gain valuable insights into the complex interactions between carbohydrates and proteins, leading to advancements in our understanding of cellular processes and potential therapeutic applications.