Author: Laura Cyrne

Magnetoresistive random-access memory (MRAM) technology is one of the current methods for memory storage.   Its advantages over earlier storage devices lie in the fact that here high speed, high density as well as low power consumption are combined to provide a nonvolatile robust mechanism for data storage.   Unlike earlier memory devices, MRAM technology uses magnetic information to store data. Basically, the structure consists of two ferromagnetic thin layers separated by an ultrathin insulating dielectric layer which usually is MgO. This results in a magnetic tunnel junction (MTJ). The device makes use of the fact that electrons also carry a spin beside a current.   Put simply, in a ferromagnetic layer, the electrons align their spins parallel to the direction of magnetization. Electrons with their corresponding spin of this layer can pass through the insulating layer easily if the magnetic alignment of the second ferromagnetic layer is parallel to the first layer. This results in...

Why are Standards important?   Standards form a common language that allows researchers, people, public institutions and industry to communicate, produce and commercialize products and services. This is especially important in the European single market. The European Green Deal and the Industrial Strategy for Europe make clear that developing new standards will be essential to boost industry’s competitiveness, build a sustainable future and shape a Europe fit for the digital age. The New Standardization Strategy presented in 2022 by the European Commission highlights the importance of standardization in promoting the uptake of results from EU research and innovation projects, allowing new technologies to scale–up and enter into the market.   How R&I can contribute to Standardization and vice versa?   Standards are a crucial tool to valorize research results.   They help researchers bring their innovation to the market and spread technological advances by making their results transparent and ensuring high quality. Standards give confidence to consumers...

Proton Exchange Membrane fuel cells (PEM FCs) have gathered significant attention in the field of energy conversion due to their numerous advantages over other types of fuel cells. Among them:   Performance: PEM FCs have high efficiency in converting chemical energy into electrical energy. Operating at relatively low temperatures (around 60-80°C) and high temperatures (over 160oC) and the proton-conducting membrane in PEM FCs enables quick proton transport, resulting in high power density and excellent performance. This is particularly advantageous for applications requiring rapid and dynamic response, such as automotive and portable electronic devices. Durability and Longevity: The good durability and longevity of PEM FCs make them suitable for various applications. The advances in materials science and manufacturing processes have contributed to improved membrane durability and enhanced resistance to degradation over time. Environmental footprint: By using hydrogen as the fuel source and producing water and heat makes them environmentally friendly but also...

On the 12nd and 13rd of December, all NICKEFFECT partners got together at the Matgenix offices, located in A6K, in Charleroi, Belgium, to held the last Consortium Meeting of this year and go through the first Review Meeting of the project, in a moment that marks the first year and a half since its beginning.   The multidisciplinary NICKEFFECT team, composed by 12 partners from 7 different EU and HEU-associated countries, had the opportunity to, on the 12nd of December, have a full day meeting with fruitful discussions about the current state of the NICKEFFECT project. Click here to get to know all the entities participating in this HE (Horizon Europe) Project.   The objectives of the project as a whole (as well as the different goals of each of the work packages) were reviewed, a status assessment was carried out on the work done by the several partners since June 2022 and the...

Chemicals are ubiquitous in the workplace (glues, resins, processing fluids, cleaning and bleaching agents, degreasers, paints…). They are used intentionally as substances or, more frequently, as preparations (mixtures). They may also be emitted from a process (combustion, degradation...

Functional materials are at the center of most technologies of our everyday life: cell phones, solar cells, batteries, thermoelectric devices, digital storage, catalysis, and many other applications need at least one material fulfilling a task through its intrinsic physical properties. Finding a material well-suited for a given application is far from trivial. Indeed, even though close to 300 000 crystal structures have been reported today, less than 1 percent of those materials have been characterized for any measurable property.    The mapping between crystal structures and physical properties is very far from completely known. Such mapping has to be constructed by characterizing known (or even unknown) materials. The traditional approach is to try and synthetize materials in lab conditions and measure their properties. When looking for a new material for a given application, the next step is to assess whether it is worth pursuing with this material or if another one should...

On November 21, 2023, Elena Jubete, representing CIDETEC partner, attended the Workshop on Sustainable Materials, organised by AMI2030 & EMIRI in San Sebastián, Spain. This event brought together experts, researchers, and industry professionals to discuss and showcase advancements in sustainable materials.   Elena Jubete's contribution to the workshop was marked by her presentation on "Greener Pathways for Surface Treatments and Composite Materials." The speech provided valuable insights into CIDETEC's involvement in the NICKEFFECT project. The audience gained a deeper understanding of environmentally friendly approaches to surface treatments and composite materials, aligning with the broader theme of circularity in materials research.   In addition to the speech, a roll-up display featuring key information about the NICKEFFECT project was showcased, capturing the attention of attendees and fostering engagement with the project's objectives and outcomes. The NICKEFFECT activities related to Safe and Sustainable by Design (SSbD) were also highlighted during the round table discussions, underlining the project's...

Nickel plating processes, while widely used, come with their own set of challenges, especially when it comes to upscaling from laboratory setups to larger plating cells. The NICKEFFECT project, aimed at developing Ni-alloy plated electrodes, faces not only the inherent limitations of nickel plating but also the complexities introduced by the porous structures.   Addressing Throwing Power Limitations:   One notable challenge in nickel plating processes is the limited throwing power compared to other methods, leading to edge effects with uneven deposit thickness near substrate borders. The NICKEFFECT project acknowledges this hurdle and seeks to overcome it during the upscaling process.   Managing Current Density Variations:   Ni-alloy plating introduces an additional layer of complexity, as the alloy content in the deposit strongly depends on current density. Factor in the three-dimensional structures, and you face varying current density and deposit thickness throughout the substrate. Achieving uniformity in thickness and alloy content becomes a formidable task, especially when upscaling...