The Fluxom Coriolis Mass Flowmeter is engineered based on the Coriolis effect. Under the influence of alternating current, coils and magnets generate vibrations in two parallel measuring tubes at a fixed frequency. When fluid flows through these vibrating tubes, the resulting Coriolis force causes a measurable phase shift (deflection) between them. This shift is directly proportional to the mass flow rate of the fluid, allowing precise real-time measurement.

The Coriolis Mass Flowmeter is a highly advanced instrument capable of direct mass flow measurement, as well as density and temperature sensing. It is widely used in critical applications including process control, custody transfer, and fiscal metering across industries such as petrochemical, chemical, pharmaceutical, food and beverage, paper production, and energy.

Trusted for its accuracy and stability, the Coriolis Mass Flowmeter has gained recognition and acceptance by industries both locally and internationally.

ADVANTAGES

  • Direct Mass Flow Measurement
    Accurately measures the actual mass of the fluid without relying on secondary calculations, eliminating errors associated with pressure, temperature, or fluid property variations.

  • High Accuracy and Repeatability
    Delivers reliable performance with excellent linearity and a wide turn-down ratio, ideal for dynamic flow conditions.

  • Handles a Broad Range of Fluids
    Suitable for measuring low and high-viscosity fluids, non-Newtonian fluids, slurries with solid particles, and liquids containing gas bubbles.

  • No Moving Parts
    The vibrating measuring tubes experience minimal mechanical stress, resulting in low maintenance, enhanced stability, and a longer operational life.

  • Multi-Variable Measurement
    In addition to mass flow, the meter can simultaneously output density, temperature, and even fluid consistency, offering deeper process insight.

  • Robust and Versatile Design
    Built for harsh environments, with various wetted materials available to handle corrosive or sanitary process media.