Internet Famous Polyballs - Polystyrene 1/8" Diameter, Etched Surface Instant 70% Discount [s4tgDOcR]

High-Quality Polystyrene Spheres

Introducing our highly uniform 1/8" polystyrene spheres, designed for precision and versatility in a variety of applications. These spheres are crafted with exceptional uniformity, ensuring consistent performance across your experiments. Each sphere boasts an etched surface with a surface roughness of 100-120µm, which significantly enhances the adherence of proteins and other biological molecules. This feature makes them an ideal choice for biological research, where accurate and reliable results are paramount.

• Uniform 1/8" diameter for consistent performance
• Etched surface with 100-120µm roughness for enhanced protein adherence
• Density of ~1.05 g/cc for optimal buoyancy in water-based experiments

Key Features and Specifications

Our Polyballs are not just another polystyrene sphere; they are engineered to meet the exacting demands of modern laboratory work. With a density of approximately 1.05 g/cc, these spheres are well-suited for use in water-based experiments, where buoyancy is a critical factor. The etched surface provides a unique advantage, allowing for better interaction with proteins and other biological components, which is crucial for successful biological applications.

• High density of 1.05 g/cc for optimal buoyancy
• Etched surface for improved protein and molecule adherence
• Uniformity and precision to ensure consistent results

Applications in Biological Research

Whether you are conducting cell culture experiments or developing new biopharmaceuticals, our Polyballs offer the reliability and versatility you need. The etched surface is particularly beneficial for adhering proteins and other biomolecules, which is essential for a wide range of biological research applications. From microfluidics to tissue engineering, these spheres can help you achieve your research goals with greater ease and efficiency.

• Perfect for biological research, including cell culture and tissue engineering
• Enhanced adherence of proteins and biomolecules for better research outcomes
• Superior uniformity and precision for reliable experimental results