Rotary centrifuge

The rotary centrifuge uses an electric motor to drive the rotor at high speeds, utilizing centrifugal force to separate substances of different densities in liquids. It is used in laboratories to separate suspended particles and precipitate samples, and is applied in fields such as biochemistry and environmental testing to process samples like blood and cells.
Selection
When selecting, consider matching the sample volume to the rotor capacity, choose the speed range based on separation requirements, pay attention to the sample's tolerance to select the appropriate rotor material, check the safety protection features of the equipment, and evaluate maintenance costs based on usage frequency.

Terms

Standards

Instruments

The 6-well design supports 15ml capacity Sample Handling, which is suitable for a variety of Centrifuge models and provides stable centrifugal separation results.

$ 127.00

It is designed with 24-hole 0.5ml specification, suitable for a variety of Centrifuge models, with high temperature resistance and high voltage characteristics and excellent chemical Stability.

$ 127.00

Support 100 ℃ high temperature heating, suitable for 24 holes 5ml centrifuge tube, optional electronic ice box and thermostatic metal Bath module, achieve precise temperature control and diverse Sample Handling.

$ 175.00

The 12-well design has a capacity of 5ml per well, uses high transparency material for easy observation of samples, has excellent chemical Stability, and is suitable for mainstream Centrifuge models to improve experimental efficiency.

$ 127.00

Double-sided horizontal mounting design can accommodate 40 5ml centrifuge tubes, suitable for standard centrifuge tube specifications, improving Sample Handling efficiency and ease of operation.

$ 149.00

44 1.5ml or 2.0ml centrifuge tubes can be installed vertically on both sides, providing efficient Sample Handling capability, adapting to a variety of centrifuge tube specifications, and improving the convenience of experimental operation and space utilization.

$ 149.00

Support 100 ℃ thermostatic treatment, compatible with 35 1.5ml centrifuge tubes, optional 4-degree electronic ice box and intelligent thermostatic module, suitable for a variety of experimental scenarios.

$ 148.00

12 10ml or 15ml centrifuge tubes can be installed vertically on both sides, providing stable fixation and efficient mixing. They are suitable for a variety of centrifuge tube specifications and enhance the convenience of experimental operation.

$ 149.00

Support high temperature treatment at 100 ° C, adapt to 20 0.5ml and 15 1.5ml centrifuge tubes, and use thermostatic metal Bath design to ensure uniform and stable temperature and improve experimental efficiency.

$ 148.00

The 54-hole design is suitable for 0.5ml centrifuge tube, with a maximum temperature tolerance of 100 ° C. A variety of thermostatic modules can be selected to achieve accurate temperature control to meet various experimental needs.

$ 148.00

Standard HX-D module, support 35 2.0ml centrifuge tubes, withstand 100 ℃ high temperature, adapt to a variety of modules to meet the needs of multi-sample thermostatic treatment.

$ 148.00

High temperature resistance of 100 ° C, suitable for 32-hole 0.2ml, 10-hole 0.5ml and 15-hole 1.5ml centrifuge tubes, optional electronic ice box or thermostatic metal Bath module for enhanced temperature control flexibility.

$ 148.00

12 50ml centrifuge tubes can be installed vertically on both sides, and the vertical installation design is adopted for efficient Sample Handling. The capacity is suitable for standard 50ml tubes.

$ 149.00

32 5ml centrifuge tubes can be installed vertically on both sides, using a vertical installation design, suitable for HT-X100 swirl/spin Mixer, improving Sample Handling efficiency.

$ 149.00

The double-sided horizontal mounting design can simultaneously accommodate 16 50ml centrifuge tubes, which are suitable for standard 50ml tube specifications and provide a stable and reliable sample carrying platform.

$ 149.00

Articles

Application of High-Temperature Viscometer in Testing the Melt Viscosity Characteristics of Hot Melt Ink
This article introduces a method for testing the melt viscosity of hot-melt ink using a high-temperature viscometer. The test employs a rotational viscometer to measure the viscosity of three ink samples at different temperatures.
Guide to Selecting a Laboratory Rotational Viscometer for Coatings Development
This article introduces how to select a laboratory rotational viscometer in coatings research and development. It first explains the principle of rotational viscometers measuring viscosity based on shear resistance, and then points out that key parameters to consider during selection include measurement range, shear rate, temperature control, and rotor configuration.
High-temperature viscometer evaluates the flow characteristics of ceramic coatings before sintering.
This article introduces how to use a high-temperature viscometer to evaluate the flow characteristics of ceramic coatings before sintering. During measurement, the instrument detects changes in the viscosity of the coating sample under simulated sintering temperature conditions using rotational or oscillatory principles.
Practical Guide to Selecting Rotors and Speeds for Rotational Viscometers
A rotational viscometer measures viscosity by detecting the resistance encountered by a rotor rotating in the sample. When selecting a rotor, it is necessary to consider the estimated viscosity range of the sample, ensuring that the torque reading falls within 10% to 90% of the instrument's measurement range, while also taking into account the sample volume and rheological properties.
Temperature-controlled Rotational Viscometer Simulates Coating Rheology in Construction Environments
This article introduces how to use a temperature-controlled rotational viscometer to simulate construction environments in order to study the flow characteristics of coatings. The viscosity of coatings changes under different temperatures and shear conditions, which affects their application performance.
Selection of abrasion testing machine is based on the wear form, choosing between linear or rotational types.
When selecting a wear testing machine, the first step is to determine based on the primary wear forms the material actually encounters.
Rotating Rubber Wheel Abrasion Tester for Determination of Coating Taber Abrasion Index
This article introduces the method for determining the Taber abrasion resistance index of coatings using a rotating rubber wheel abrasion tester.
Rotational rheometer measures the viscosity and processing performance of polymer melts.
A rotational rheometer applies a controlled shear field to measure rheological parameters such as the viscosity of polymer melts. The melt typically exhibits shear-thinning behavior, where its viscosity changes with the shear rate, directly affecting processing methods such as extrusion and injection molding.
Comparison of Rotational Viscometer and Capillary Rheometer in Testing the Flowability of Resin Processing
The rotational viscometer measures torque via rotor rotation, making it suitable for testing the static or low-shear fluidity of resins under low shear rates, with simple and quick operation. The capillary rheometer, on the other hand, forces samples through a capillary to simulate high-shear processing, providing flow data closer to actual production conditions, but it is more complex and time-consuming to operate.
Rotational Viscometer Measures Viscosity and Processability of Resin Melts
A rotational viscometer calculates viscosity by measuring the torque experienced by a rotor as it rotates in the resin melt, thereby helping to understand the material's processing properties.
The Taber Abraser evaluates the wear resistance of coatings.
The Taber abrasion tester simulates surface wear of materials through rotational friction, used to evaluate the wear resistance of coatings. During testing, a grinding wheel is used to rub the specimen under a fixed load, and performance is quantified by measuring mass loss or thickness changes after a specified number of cycles.
Rotational Viscometer for Measuring and Controlling the Application Viscosity of Coatings
A rotational viscometer is a commonly used tool for controlling the viscosity of coatings during application, as it measures the torque generated by a rotor rotating in a fluid to calculate viscosity.
Stormer Viscometer for Determining Krebs Viscosity of Paints
This article introduces the method of measuring the Krebs viscosity value of colored paints using a Stormer viscometer. Viscosity is a key indicator that affects the application and storage of coatings. The Krebs unit (KU) quantifies viscosity based on the resistance encountered by a rotor as it rotates within the paint sample.
Rotational viscometer measures the viscosity of paint at low shear rates.
This article introduces the method and significance of measuring the viscosity of colored paint at low shear rates using a rotational viscometer.
Effect of Spin Coater Rotation Speed and Acceleration Settings on Photoresist Coating Uniformity
This article primarily explores how the settings of rotational speed and acceleration in a spin coater affect the uniformity of photoresist coating.