Eppendorf 5810 Benchtop High-Capacity Non-Refrigerated Centrifuge

The Eppendorf 5810 Benchtop Centrifuge is engineered for routine centrifugation tasks under ambient conditions, delivering a maximum speed of 14,000 rpm and a relative centrifugal force (RCF) up to 20,913 × g. This model supports high-capacity processing with rotor configurations accommodating up to 4 × 750 mL tubes or microplates, making it essential in biotechnology workflows, molecular biology protocols, and clinical diagnostics.

Key features include:

• Compatibility with 18 rotors, including fixed-angle, swing-bucket, and plate rotors, enabling versatile sample formats such as microtubes, conical tubes, multiwell plates, and large bottles.
• Adjustable acceleration and braking ramps (10/10 profiles) for controlled centrifugation cycles, preserving sample integrity during bioprocessing and protein separation.
• Built-in imbalance detection and automatic lid locking enhance operational safety and reliability in laboratory settings.
• Supports up to 35 user-defined programs via an intuitive interface, promoting reproducibility across repeated molecular diagnostics and synthetic biology experiments.
• Noise level maintained below 70 dB(A) to suit bench use without excessive disruption.

With a footprint of 21 x 24 x 14 inches and weighting 158 lbs, the Eppendorf 5810 integrates seamlessly on laboratory benches, offering a reliable solution for biomedical engineering, cell culture pelleting, and biotechnology research applications requiring flexible rotor options without refrigeration. Its design provides a cost-effective option for labs not requiring temperature-controlled centrifugation, while maintaining high throughput and sample format versatility critical to biomanufacturing pipelines and gene editing protocols.

This centrifuge is widely used in molecular cloning workflows, supports common separation techniques in neuroscience and synthetic biology research, and is crucial for sample prep in molecular diagnostics and clinical sample processing domains.