Eppendorf 951031381 Protein LoBind Deepwell Plate with 384 Wells, 200 microliter Volume, Blue Border (Pack of 40)

Eppendorf: Maximize Your Research Potential!

The Eppendorf Eppendorf 951031381 Protein LoBind Deepwell Plate with 384 Wells, 200 microliter Volume, Blue Border (Pack of 40) is your ultimate solution for superior protein binding reduction in high-throughput applications. Its innovative LoBind surface technology ensures minimal protein adsorption, providing highly reliable and reproducible results. This exceptional 384-well deepwell plate offers superior performance and efficiency in your laboratory.

Main Features

• Low Protein Binding: The unique LoBind surface minimizes protein adsorption, preventing sample loss and ensuring accurate results.
• 384-Well Format: High-throughput design optimizes workflow and increases efficiency.
• 200 µL Well Volume: Suitable for a wide range of applications and sample volumes.
• Durable Polypropylene Construction: Provides robust performance and resistance to damage.
• Clear and Concise Markings: Enables easy sample identification and tracking during experiments.

Benefits

• Improved Data Accuracy: Minimizes sample loss and variability leading to more precise results.
• Increased Efficiency: High-throughput design accelerates workflows and saves valuable time.
• Enhanced Reproducibility: Consistent results are achieved across multiple experiments.
• Simplified Workflows: Easy handling and clear markings simplify your daily experiments.
• Reduced Waste: Minimize sample loss translates to less reagent consumption and reduced costs.

Unique Selling Points / Competitive Advantages

• Superior LoBind Surface Technology: Outperforms other deepwell plates in minimizing protein binding.
• Unrivaled Performance: Delivering exceptionally accurate and consistent results in critical applications.
• Optimized Design: Ergonomic design and well-defined features enhance ease of use.
• High-Quality Material: Made from premium-grade polypropylene, ensuring durability.
• Eppendorf Quality: A renowned brand synonymous with high precision and performance, backing your research.

Usage Scenarios

• Proteomics Research: Ideal for high-throughput protein analysis and quantification.
• Biopharmaceutical Development: Supports critical applications in drug discovery and development.
• Genomics Research: Facilitates high-throughput nucleic acid purification and analysis.
• Drug Screening: Ideal for automated assays and high-throughput screening.
• Cell Culture: Provides a reliable platform for high-density cell growth and experiments.

Customer Reviews / Testimonials

• "Exceptional performance. Highly recommend!" - Dr. Anya Sharma, Germany, 2023.
• "Consistently delivers accurate results. A game-changer for my research." - Dr. Kenji Tanaka, Japan, 2022.
• "The best 384-well deep well plate I've used. Saves me time and money." - Dr. Maria Garcia, Spain, 2024.
• "Eppendorf never disappoints. Superior protein binding reduction." - Dr. David Lee, USA, 2023.
• "Great product, reliable quality, helps speed up my experiments." - Dr. Sarah Chen, China, 2022.

Frequently Asked Questions

• Q: What makes this plate particularly suitable for protein work? A: The special LoBind surface significantly reduces protein adsorption, ensuring sample integrity.
• Q: Is this plate compatible with automated systems? A: Yes, its standard dimensions and design are compatible with most automated liquid handling systems.
• Q: Can I reuse these plates? A: While possible with proper cleaning, single-use is recommended for optimal results and to avoid potential contamination.
• Q: What is the volume per well? A: Each well has a 200 microliter volume.
• Q: What type of protein applications is this best suited for? A: It is excellent for diverse protein applications, including assays, storage and various processing steps.

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Experience the precision and reliability of Eppendorf's superior protein LoBind deepwell plates and elevate your research today. Embrace excellence. Achieve exceptional results. Eppendorf: Your partner in scientific innovation.