Advancing the Green Transition with Cignus’s New Hydrogen Meters in Mechanical Systems

⏱Estimated reading time: 6 min

⚙️ Technical Overview of the New Hydrogen Meter from Cignus Instruments

Cignus Instruments presents an innovative device for measuring hydrogen flow with unprecedented precision, opening new horizons for improving accounting processes in the green hydrogen economy. The device’s operating principle is based on measuring particle flow rather than volume, with a design that allows installation in pipes of different sizes and thicknesses, overcoming the problems of traditional Coriolis flow meters.

The new device is distinguished by its ability to operate under high pressures and in wide pipes, while allowing hydrogen particles to pass accurately even under pipe-bend conditions, contributing to the advancement of green energy transformation at the industrial level.

An important mechanical point

⚙️ Hydrogen Measurement Challenges and Their Impact on the Green Transition

Hydrogen is one of the most important alternative energy sources in the green transition, yet measuring its quantity accurately represents a major engineering challenge. This is due to hydrogen’s unique physical properties: it is the lightest of gases, with extremely fine molecules that respond sensitively to changes in pressure and temperature.

This sensitivity creates difficulties in measuring mass flow accurately through pipelines, as contamination of hydrogen with larger particles leads to inflated calculated energy values, which negatively affects the accuracy of accounting and settlements in the hydrogen market.

In the field of mechanical engineering, energy trading depends on precise and standardized units of measurement that ensure stable quality and quantity. Here lies the importance of developing new measurement devices capable of handling hydrogen’s unique conditions.

Technical summary

🔧 The Technical Limitations of Traditional Coriolis Devices in Hydrogen Measurement

Traditional Coriolis flow meters use narrow, thin tubes that vibrate in a specific pattern to measure changes that occur when gas or liquid passes through. These devices rely on vibration changes to determine the mass flow rate.

However, in the case of hydrogen, pipeline systems require thickness and strong pipe walls to withstand the high pressures needed, in addition to relatively large dimensions to carry the required volume. This conflicts with the design of Coriolis devices, which operate effectively only within precise specifications in terms of pipe diameter and wall thickness.

As a result, Coriolis devices were not suitable for direct use with hydrogen in industrial environments that require different pressures and dimensions, prompting the search for new solutions.

Why is this industrially important?

🔥 Innovation in the Design of the New Hydrogen Meter

The new solution introduced by Cignus Instruments is based on an innovative design that divides the measuring tube into four separate channels whose flow passes through special joints, and it allows installation inside pipes with different diameters and thicknesses.

This system can be imagined as an advanced kind of “water meter” but designed specifically for light gases such as hydrogen and natural gas, with a focus on measuring mass (mass), meaning the number of molecules, not volume, which is consistent with the correct physical concept of the energy carried by the gas.

The operating principle resembles a device that combines the role of a speaker and a microphone at the same time, mounted inside the pipe to monitor the fine changes driven by hydrogen molecules.

What has changed here?

🚗 Simulating Device Performance in Complex Environments

Before manufacturing the physical equipment, the SINTEF team in Norway carried out precise digital simulation to ensure the device’s performance under various conditions, especially near 90-degree pipe bends.

The simulation showed that the meter’s performance is not noticeably affected by the presence of a bend near the installation point, which is an important achievement that allows the planning of marine or land pipeline networks with greater freedom without the need to redesign the route in a complex way for measurement purposes.

This feature increases the meter’s flexibility in hydrogen transmission networks, a capability that was not available in previous technologies.

An important mechanical point

🏭 Promising Applications for the New Hydrogen Measurement Technology

The initial uses of this type of meter include measuring the amount of hydrogen produced by electrolyzers, which helps document production content accurately and reliably, and ensures the quality of traceability for outputs within the hydrogen supply chain.

Developing these meters to measure flow in industrial pipeline networks also meets the pressing need to regulate hydrogen measurement at entry and exit points, especially in major markets such as Germany, which has a growing number of producers.

This technology will facilitate flow control and financial settlements in markets, and will help enhance the efficiency of the hydrogen economy.

Technical summary

🔥 The Next Steps Toward Industrial-Scale Adoption of the Device

The device is still in the development and testing stages, and requires passing a series of measurement processes, verification, and obtaining official certification before being integrated into industrial infrastructure.

Obtaining certification in the same year will be a major goal for the company, allowing the development of a reliable system for measuring the mass movement of hydrogen within pipelines.

The success of this project will represent a qualitative leap in energy carriers technology, and will contribute to improving the accuracy of energy accounting and reducing risks related to current measurement performance.

Why is this industrially important?

⚙️ The Impact of Measurement Technology on the Future of Mechanical Energy

The accuracy of hydrogen measurement is considered the cornerstone of industrial expansion in clean energy, as the green transition depends on advanced mechanisms that ensure operational sustainability and improve project viability.

By using precise devices capable of handling mechanical and physical challenges, hydrogen transmission networks become safer and more efficient, which enhances the hydrogen economy’s capacity for growth.

From an engineering perspective, this technology represents a qualitative leap in the application of fluid mechanics and heat transfer principles, while integrating automation and digital measurement technologies to confront complex challenges.

🚀 Features of the New Hydrogen Meter Technology:

  • Measuring hydrogen mass with high accuracy regardless of the size of the transport pipeline.
  • A multi-channel design that allows installation in pipes with different thicknesses and pressure ratings.
  • Stable operation even under conditions of strong pipe bends.
  • The ability to measure under high pressures while maintaining result accuracy.
  • Supporting industrial expansion of green energy transmission networks.

In the end, this innovation represents an advanced model for applying engineering knowledge in service of the industrial transition toward cleaner and safer energy sources, while ensuring the accuracy and reliability of measurements, which are the foundation for all advanced transport, distribution, and thermal energy applications.


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