Coriolis mass flowmeter for hydrogen TMU-W - Kobold

For Hydrogen dispensing units up to 1000 bar.
The Mass Flow Meter model TMU utilizes the Coriolis principle of operation to measure mass flow. Density and temperature are simultaneously monitored and volumetric flow is additionally calculated with these parameters.
 

Coriolis mass flowmeter for liquids and gases TMU - Kobold

The mass flow meter model TMU utilizes the Coriolis principle of operation to measure mass flow. Density and temperature are simultaneously monitored and volumetric flow is additionally calculated with these parameters.

The unit can be used to meter nearly all liquid or gaseous media and was especially designed to operate in many industrial applications. The TMU Series is also used for precise dosing as well as in loading and unloading applications. Approvals for service in custody transfer (fiscal metering) applications are also available.

 

Coriolis mass flowmeter TME/UMC4 - Kobold

High performance at an economical price.

The Kobold TME Series general purpose Coriolis mass flowmeter from KOBOLD Instruments is a very accurate, rugged design built for general purpose mass flow measurements of liquids and gases in most chemical, petrochemical, oil and gas applications.

Mass flow, density and temperature are simultaneously measured, and volumetric flow is computed from these parameters. The flowmeter’s wetted materials (flanges and measuring tubes) are available in 316L stainless steel. The measuring tubes and sensors are protected by a very rugged cast iron housing.

Flowmeter of liquids and gases, viscous and corrosive HPC – Kobold

The HPC flowmeter is unique in the world, as it has a Coriolis measuring tubes revolutionary and innovative design, providing a high dynamic performance, being able to work at higher frequencies without external vibrations interference.

The HPC is precise and resistant, ideal for applications with very low flow, it gives simultaneous measurement of mass flow, density and temperature, also calculating the volume flow.
 
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