Technip Energies Burner Test Facility at Rotterdam

Company Visit

Technip Energies operates a burner test facility in Rotterdam, The Netherlands, and performs continuous research on the performance of their proprietary burners, the Large Scale Vortex (LSV®) burner and the Technip Side Wall Burner (TSWB®).
With preheated combustion air of up to 500°C, this facility allows to look at the performance of burners in a controlled radiant firebox environment. The facility comprises one furnace for testing up to 5-Megawatt firing rate and a second furnace for up to 1-Megawatt firing rate. The larger furnace has 36 thermocouples to measure the outlet temperatures of the air-cooled radiant cooling coils to derive accurate burner heat flux profiles. Prior to having this testing facility, such information was based solely on visual observations (and the flames are hardly visible, in particular for the LSV® burner), the burner test furnace is a great asset for burner flame research.
The new test facility enables Technip Energies to further develop and fine-tune their burners to achieve even lower emissions.

 T.EN Burner Test Furnace visit

Attached are presentations of the burner test facility and the Plant One Rotterdam facility.

Presentation Burner Test Facility here

Fly Sheet Burner Test Facility here

Presentation Plant One Rotterdam facility here

Video file Burner Test Facility here

 

Para-Xylene Production via BP Crystallization

 By Mathys van Es, Senior Business Development Manager, Lummus Technology


Para-xylene (PX) is an important petrochemical used for the production of purified terephthalic acid (PTA), which is used to manufacture a host of polyester consumer products such as fibers, bottles, films, etc. A growing market for these consumer products – particularly in Asia – has led to a sustained annual PX demand growth rate of about 5 – 6 %. Hence, optimizing the yield, separation, and purification of PX from mixed xylene containing streams are issues of global significance in the petrochemical industry.

Presentation file here

 

 

Water Reuse: A Boon or a Bane

 By Mark van den Broek and Burcu Ekmekçi, Fluor


A combined presentation of water processing and corrosion engineering. The presentation will provide an overview of the extended boundaries of wastewater treatment and the water driven corrosion mechanisms that affect the material degradation mechanisms that apply in the water containing process systems.
A number of practical cases will be presented that require attention in the design and the selection of materials, because of deviating corrosion mechanisms caused from the reuse of process waters.

Presentation file here

 

 

Molten Metal Pyrolysis for Hydrogen production

 

By Rajat Bhardwaj, Research Scientist TNO

Via molten metal pyrolysis Hydrogen is produced without CO2 emissions. Carbon is produced instead of CO2. This carbon can be sold as product for applications such as tires, pigments in polymers, rubbers and energetic electrode materials.
The technology is at least 25 % more cost effective compared to other ways of producing H2 without CO2 emission. The molten metal acts as catalyst, which lowers the operating temperature of the process to about 1000 °C. This temperature is considerably lower than the temperature in blast furnaces in the steel industry that operate at about 1600 °C. Most components of the molten metal pyrolysis technology can be based on existing large-scale technologies, e.g. high temperature molten metal processing at steel manufacturing, hydrogen separation and transport at Hydrogen Reformers, carbon handling and storage of carbon black production.

The key gap remaining in the implementation of the technology is the carbon separation. Molten salts are used to create a separation layer using density differences. TNO (Nederlandse Organisatie voor Toegepast-Natuurwetenschappelijk Onderzoek) has an Intellectual Property position on this.
TNO has experience in gas treatment for more than 30 years. This experience and recent work with molten metals and salts resulted in developing this new technology. The next step is to take this technology towards a commercial demonstration project in the coming three to five years. By 2021, a first continuous process is envisaged. TNO has established collaboration with companies and universities seeking to strengthen the vision further.

Presentation file here

Development schedule here

 

New Hydrogen empowers the Energy Transition

 

By Laurent Antoni, President of Hydrogen Europe Research

Hydrogen, as a clean, safe and versatile energy carrier, is part of the energy transition and is key to enable the renewable energy system and to decarbonize end uses. Hydrogen is the only zero-emission energy carrier with electrons. Hydrogen technologies are mature and have significant potential across all applications, in particular when looking for high payload, high autonomy and flexibility. A global collaborative approach of policy makers, investors and industry is needed today to enable the full potential of hydrogen in the energy transition.
Hydrogen & Fuel Cells are today! An international momentum worldwide with a strong position in Asia (Japan, South Korea and now China) but a strong European Public-Private Partnership with close collaboration between Industry (Hydrogen Europe Industry) and Research (Hydrogen Europe Research) is in place.
Industry sector can be an important costumer of the hydrogen sector in order to achieve its decarbonizing targets owing to “decarbonised” hydrogen.

Presentation file here