- Additive Manufacturing Processes
- Analysis & Instrumentation
- Cleaning, Polishing & Grinding
- Clinical Analysis & Diagnostics
- Coating & Surface Treatment
- Controlled & Modified Atmospheres
- Cutting, Joining & Heating
- Emissions Solutions
- Energy storage
- Freezing & Cooling
- Fumigation & Pest Control
- Heat Treatment
- Hydrogen solution
- Inerting, purging, sparging
- Leisure & Hospitality
- Melting & Heating
- Oil and Gas
- Petrochemical Processing & Refining
- Pharmaceutical Processing
- Plastics & Rubber Processing
- Process Chemistry
- Pulp & Paper
- Water and Wastewater Treatment
High-end additive manufacturing relies on the perfect gas composition to create products with material properties that meet all requirements. The recently developed ADDvance® O2 precision will enable metal additive manufacturers to analyse and control precisely the level of oxygen (O2) and humidity within the printer chamber in a revolutionary way.
Common quality challenges in additive manufacturing
The additive manufacturing process operates within a closed chamber filled with high-purity inert gases such as argon and nitrogen. However, impurities due to incomplete purging, small machine leakages and metal powder can have an influence on the oxygen level. A variation in oxygen content in the chamber can result in differences in mechanical properties or chemical composition of the end product – for example a decrease in fatigue resistance.
Advancing technology together with Airbus Group Innovations
ADDvance® O2 precision was developed in response to aerospace company Airbus Group Innovations being challenged with quality and performance issues in their printed aluminium parts due to incorrect oxygen and moisture levels in the printer chamber. A new class of gas management device was clearly needed. ADDvance® O2 precision is the result of the joint efforts of Airbus Group Innovations and Linde’s engineers.
Please contact us for further information. Our team is looking forward to telling you more about next-generation gas management and ADDvance® O2 precision.
Perfect oxygen levels in the additive manufacturing gas chambers
ADDvance® O2 precision is the first solution that lets additive manufacturers define the perfect oxygen level for the material and application at hand, providing perfect results every time. It can detect oxygen levels of up to 10 parts per million (ppm) within the printer chamber and then modify the gas atmosphere by adjusting the level of argon or nitrogen.
Easily choose the ideal atmosphere for 3D metal printers
ADDvance® O2 precision uses state-of-the-art engineering to continuously analyse the gas atmosphere in the powder chamber with high precision and without cross-sensitivity. It accurately recognises O2 concentration and automatically initiates a purging process to keep the atmosphere as pure as needed by additive manufacturers. Hence it is easy to choose the perfect atmosphere for any metal or application and guarantee consistently high quality in every single print – with fully unimpaired material properties.
ADDvance® O2 precision: The ideal solution if maximum quality is the minimum objective
- Space-saving and universally deployable
- Simple plug-and-play connectivity
- Ergonomic touch interface
- No cross-sensitivity
- 10 ppm accuracy
- Monitoring of dew point
- Indication of H2 traces
Linde service for best possible performance in additive manufacturing
With its innovative concepts, Linde is playing a pioneering role in the global market. Traditionally driven by entrepreneurship, we are working steadily on new high-quality products and innovative processes. At the new Linde research facility, the Linde Global Development Centre, Linde Gas has bundled its activities in the area of additive manufacturing to further advance knowledge and technology in order to guarantee reproducibility and consistent quality for the industry. Both very important parameters for industries such as aerospace or automotive.
Please contact us for personal consulting about our high-quality gases for additive manufacturing: