OMNI Bead Ruptor 96 High-Throughput 96-Well Plate Homogenizer for Cryogenic and Bead Milling Applications

The OMNI Bead Ruptor 96 is a technically advanced high-throughput homogenizer designed for efficient disruption of biological samples across 96- and 384-well plates and tubes. It supports cryogenic milling, bead-beating in microcentrifuge and screw cap tubes, and well plate homogenization, making it essential for biotechnology workflows such as molecular diagnostics, synthetic biology, and bioprocessing.

Key technical features include:

• Capacity to process up to 384 samples per cycle, suited for high-throughput applications in genomics, proteomics, and cell imaging research.
• Operational frequency range of 3 to 30 Hz adjustable in 0.1 Hz increments for precise tissue disruption.
• Timer function adjustable from 5 seconds up to 99 minutes with hold functionality, optimizing protocol flexibility for diverse sample types.
• Sample volume compatibility ranging from 25 µL to 50 mL, accommodating microplate wells and various tube formats.
• Compact footprint with dimensions 38.5 cm (W) x 42.0 cm (D) and ergonomic height (24.0 cm lid closed, 46.5 cm lid open).
• Compliance with CE & UKCA safety standards, ensuring reliability and regulatory adherence in clinical and life science labs.

The Bead Ruptor 96 is widely adopted in biotechnology research for high-throughput sample preparation, molecular cloning workflows, and critical biomanufacturing processes that require effective tissue and cell disruption. Its cryo-milling functionality is ideal for delicate sample processing such as cannabis cryogenic grinding, providing consistent and reproducible results for downstream analysis including fluorescence and live-cell imaging.

This homogenizer supports multidisciplinary research environments demanding robust, scalable sample homogenization solutions relevant to clinical diagnostics, biomedical engineering, and neuroimaging applications. The unit’s 30-day parts warranty and multifunctional design enhance laboratory throughput and experimental reproducibility across multiple research domains.