Description
Eppendorf micro ultracentifuges: High-speed separation for your lab needs
Experience unparalleled efficiency with our CS-(F)NX Series. Centrifuge CS150NX and Centrifuge CS150FNX are designed to achieve speeds up to 1,050,000 x g (150,000 rpm). These compact micro ultracentrifuge models ensure rapid and reliable separation of various samples, including nucleic acids, proteins, and viruses. Choose the perfect model to fit your lab's needs and enjoy a stress-free work environment with noise levels below 45 dB(A).
Micro ultracentrifuges with innovative features for enhanced efficiency
Additional features of our CS-(F)NX micro ultracentrifuge series include the self-locking rotor system, which enables quick and easy rotor exchange within seconds. Plus, the innovative, non-contact imbalance sensor ensures safe operation and lets you balance samples by eye (up to 5 mm)* eliminates time-consuming sample balancing via scale.
The large touch display of our micro ultracentrifuge range, with a quick start up time of only 8 seconds makes operation fast and easy, while providing enhanced security and compliance with user-based access control and documentation of runs. The ability to pre-program up to 20 programs supports multi-user labs as well as laboratories working in GxP/GLP compliance.
All micro ultracentrifuge models have maximum speeds of up to 1,050,000 x g (150,000 rpm)
Maximum capacity of 180 mL (6 x 30 mL with rotor S50A) - minimum capacity of 4.6 mL (20 x 0.23 mL with rotor S100AT3)
Easy operation via LCD Touch-Display
Very low noise levels (45 dB[A]) for a relaxed work environment
Self-locking rotor system and maximum speed detection ensure user safety
Choose between the floorstanding CS150FNX or the benchtop CS150NX - depending on the space requirements in your lab
Easy sample balancing by visual check (max. difference of 5 mm in all tubes and bottles)*
Non-contact imbalance sensor monitors vibration of the rotor and drive shaft at any time
Real-Time Control function (delay timer setting) helps to precisely control net run-time and obtain high-reproducibility separations
