Non-refrigerated Benchtop Orbital Shaking Incubator BS-3012

Main Features

1. Compact benchtop unit with a secure, stable footprint.
2. Accurate P.I.D. regulation prevents temperature fluctuations.
3. Clear LCD readouts allow for constant process monitoring.
4. Hygienic stainless steel chamber enables easy cleaning and sterilization.
5. Stable single-shaft drive minimizes vibration transfer.
6. Selectable shaking modes to match sample sensitivity.
7. Refrigerated option protects temperature-sensitive materials.
8. Large flask capacity reduces the need for multiple runs.
9. Precise speed control prevents sample shear stress.
10. Multi-level hardware and software safety interlocks.
11. Programmable protocols minimize manual intervention errors.
12. Safe, modern refrigerant used in cooling system.
13. Assisted lid opening prevents sudden drops or slams.
14. Memory functions preserve critical method parameters.
15. Brushless motor operates coolly and reliably.
16. Gradual acceleration circuit eliminates initial jolts.
17. Secure platform and clamp system holds vessels firmly.
18. Optional adhesive pads and racks for extra sample security.
19. Regular calibration ensures continued safety and accuracy.
20. Automatic cut-offs protect against equipment failure.

Technical Data

Introduction about laboratory shaker

A laboratory shaker, encompassing both compact benchtop and high-performance floor-standing units, is engineered for the uniform agitation of samples. Its primary role is to mix, aerate, or suspend contents within laboratory vessels through controlled mechanical movement. This capability is fundamental to establishing consistent experimental conditions, directly impacting the validity of results in microbiology, biochemistry, and pharmaceutical development.

The instrument functions by applying consistent kinetic energy to sample containers. This energy maintains fluid motion, preventing settling and promoting homogeneity. The orbital shaker is the standard configuration. Specialized types include low-temperature shakers and incubator shakers that provide heating/cooling. Digital control technology has enabled precise parameter management, with accurate speed calibration and timer functions that contribute significantly to protocol standardization.

Applications are extensive and critical. Shakers are used for culturing bacterial strains for antibiotic susceptibility testing. They facilitate solvent extraction in natural product research. In clinical chemistry, they mix calibrators and controls thoroughly. Notable features often include a wide speed range to suit various viscosities, a durable platform resistant to chemical corrosion, and safety mechanisms such as a lid switch for enclosed models or an automatic overload shut-off to protect the motor.