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        <link>https://materials.au.dk/what-is-au-materials/news</link>
        <description>Discover the latest from iMAT at Aarhus University, including joint research and news on materials science collaborations and innovations.</description>
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                    <pubDate>Tue, 27 Jan 2026 09:00:00 +0100</pubDate>
                    <title>iMAT is now AU Materials</title>
                    <link>https://materials.au.dk/currently-shown-article/news/show/artikel/imat-is-now-au-materials</link>
                    <description>The official description has changed from research center to cluster. What we do, and why we do it, remains the same. If you are looking for expertise, collaborators, infrastructure, or simply the right person to ask, the cluster connects you to the network at Aarhus University.</description>
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                    <author>Laura Rammelt</author>
                    

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                    <pubDate>Thu, 11 Dec 2025 00:00:00 +0100</pubDate>
                    <title>From Vacuum Chambers to Devices: Bridging Surface Science and Industrial Catalysis</title>
                    <link>https://materials.au.dk/currently-shown-article/news/show/artikel/from-vacuum-chambers-to-devices-bridging-surface-science-and-industrial-catalysis</link>
                    <description>Understanding how catalysts work at the atomic level is key to designing better technologies for green hydrogen production. In his PhD at the interdisciplinary Nanoscience Center iNANO, Ramadan Chalil Oglou set out to close that gap. By combining surface studies with real-time measurements on nickel foam electrodes, he showed how fundamental insights from ideal surfaces translate directly to working devices.</description>
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                    <author>Laura Rammelt</author>
                    

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                    <pubDate>Tue, 25 Nov 2025 00:00:00 +0100</pubDate>
                    <title>Catalyst Combinations That Work: What Real-Time Studies Reveal About Performance and Stability</title>
                    <link>https://materials.au.dk/currently-shown-article/news/show/artikel/catalyst-combinations-that-work-what-real-time-studies-reveal-about-performance-and-stability</link>
                    <description>In his PhD at the Department of Chemistry, Andreas Dueholm Bertelsen explored how combining different metals into complex alloys can improve catalysts for green technologies. His research focused on understanding how these materials form and perform, using real-time measurements to uncover what makes some combinations more stable and effective than others. </description>
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                    <author>Laura Rammelt</author>
                    

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                    <pubDate>Mon, 17 Nov 2025 00:00:00 +0100</pubDate>
                    <title>Small Ions, Big Impact on Gold Nanoparticle Formation</title>
                    <link>https://materials.au.dk/currently-shown-article/news/show/artikel/small-ions-big-impact-on-gold-nanoparticle-formation</link>
                    <description>New research from researchers at Aarhus University shows how simple changes in counterions during synthesis affect the stability and quality of gold nanoparticles.</description>
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                    <author>Laura Rammelt</author>
                    

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                    <pubDate>Tue, 11 Nov 2025 00:00:00 +0100</pubDate>
                    <title>The Quest for Room-Temperature Emission in GeSn</title>
                    <link>https://materials.au.dk/currently-shown-article/news/show/artikel/the-quest-for-room-temperature-emission-in-gesn</link>
                    <description>GeSn alloys are a promising material for integrating infrared light sources directly on silicon chips. In his PhD project at the Department of Physics and Astronomy, Martin Aagaard explored how electrons move and recombine in this material. He worked on uncovering why making GeSn emit light efficiently at room temperature is still a challenge, and what it will take to overcome it.</description>
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                    <author>Laura Rammelt</author>
                    

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                    <pubDate>Wed, 05 Nov 2025 00:00:00 +0100</pubDate>
                    <title>Tuning Chemistry at the Interface: How Molecular Additives Are Changing CO₂ Reduction</title>
                    <link>https://materials.au.dk/currently-shown-article/news/show/artikel/tuning-chemistry-at-the-interface-how-molecular-additives-are-changing-co2-reduction</link>
                    <description>In her PhD at the Interdisciplinary Nanoscience Center and Department of Chemistry, Kirstine Nygaard Kolding explored how small organic molecules can be used to improve copper-based catalysts for CO₂ electroreduction. Her work sheds light on how these additives change the reaction environment and could help make carbon-neutral chemical production more efficient and selective.</description>
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                    <author>Laura Rammelt</author>
                    

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                    <pubDate>Tue, 21 Oct 2025 23:44:00 +0200</pubDate>
                    <title>Lighting Up Cancer Detection: Exploring New Materials for Medical Scanners</title>
                    <link>https://materials.au.dk/currently-shown-article/news/show/artikel/lighting-up-cancer-detection-exploring-new-materials-for-medical-scanners</link>
                    <description>Medical scans like PET are vital tools for detecting and diagnosing cancer. At the heart of these scanners are materials called scintillators, which light up when hit by radiation. In his PhD research at Aarhus University, Simon Peter Slot Jessen studied how new nanomaterials could be used to build better, faster scintillators, using laser light to mimic real-world ionizing radiation.</description>
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                    <author>Laura Rammelt</author>
                    

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                    <pubDate>Sun, 12 Oct 2025 09:00:00 +0200</pubDate>
                    <title>Disorder at the Surface: Ultrafast Changes in La0.5Sr1.5MnO4</title>
                    <link>https://materials.au.dk/currently-shown-article/news/show/artikel/disorder-at-the-surface-ultrafast-changes-in-la05sr15mno4</link>
                    <description>A new study on the quantum material La0.5Sr1.5MnO4 reveals that its response to light is more complex than expected. Using ultrafast X-ray pulses, researchers found that the material’s surface reacts differently than the bulk when its orbital order is disturbed. These results challenge the idea that light-induced changes happen uniformly and suggest that the path from order to disorder is shaped by local differences inside the material. </description>
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                    <author>Laura Rammelt</author>
                    

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                    <pubDate>Wed, 24 Sep 2025 00:00:00 +0200</pubDate>
                    <title>Layer by Layer: Building Catalysts That Tackle CO₂ and Water Pollution</title>
                    <link>https://materials.au.dk/currently-shown-article/news/show/artikel/layer-by-layer-building-catalysts-that-tackle-co2-and-water-pollution</link>
                    <description>In her PhD project at Aarhus University, Ronghui Lu set out to design advanced materials that can address two major environmental challenges: pollution in water and excess carbon dioxide in the air. Her research focused on how to use light-driven chemical reactions, known as photocatalysis, to break down organic contaminants and reduce CO₂, using affordable and tunable materials.</description>
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                    <author>Laura Rammelt</author>
                    

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                    <pubDate>Mon, 14 Jul 2025 23:00:00 +0200</pubDate>
                    <title>Shaping the Next Generation of Magnets: From Atoms to Applications</title>
                    <link>https://materials.au.dk/currently-shown-article/news/show/artikel/phd-priyank-shaym-next-generation-of-magnets-from-atoms-to-applications</link>
                    <description>Permanent magnets are essential to modern technology, from electric vehicles to wind turbines. But producing them sustainably and without rare earth elements remains a major challenge. In his PhD project at Aarhus University, Priyank Shyam explored how to design and optimize ferrite-based magnets that are both effective and rare-earth-free. His work combines synthesis, structural characterization, property measurements, and performance optimization which are all key pillars of modern materials science.</description>
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                    <author>Laura Rammelt</author>
                    

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