ABOUT NEW MATERIALS

This theme aimed to push forward the development and characterization of new materials with potential future applications in the fields of energy and sustainability.  We will bring together experts in neutron and X-ray characterization methods and experts in material development to do this.  One of broad goals as a society today should be to ensure that as a society, we are able to move to a truly sustainable, resilient future.  Here, we aim to push forward the development and understanding of new materials that will help contribute to this broader goal, at the ‘initial research’ stage.  Each of our working groups focusses on one particular area.

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CORE GROUP

GUEST RESEARCHERS

WORKING GROUPS FOR NEW MATERIALS

New Materials WorkING Group 1

Functional Magnetic Materials

The Functional Magnetic Materials Group has a broad potential remit.  We are organizing ourselves to focus on two important aspects: (i) the magnetic structure and dynamics on micro- and mesoscopic scales, as this is often very important in controlling the operation of magnetically active materials that drive new device development, and (ii) the rich physics arising from the lack of inversion centres in magnetic materials, which may give rise to topological physics and multiferroic materials.  In the kick-off symposium, we will be setting up a targeted question to focus on for both of these aspects.

New MATERIALS WORKING GROUP 2

Charge Transfer Materials

Charge transfer materials are really key to technologies such as photovoltaics (solar cells), catalysis and batteries.  Deliberate design to optimize the materials for these properties is a formidable challenge, and requires a firm knowledge of the underlying geometric and electronic structures, and how they respond to external stimuli.  ESS and MAX IV provide entirely new opportunities for doing this.  We will focus in particular on in situ and operando methods.

NEW MATERIALS WORKING GROUP 3

Light Harvesting Processes

Capturing energy from sunlight is the fundamental basis of most of the energy that we have access to.  The processes by which photons affect materials used in photovoltaics or photocatalysts occur on ultrafast timescales, and so being able to measure them requires time-resolved spectroscopy techniques.  For monitoring light-induced transfer of charges and/or excitations between the chemical complexes in the material, X-ray spectroscopic methods are a powerful technique, and this is an young field of research, with rapid and continuous developments.  This working group will focus on workshops for both novice and advanced members of this community to propagate knowledge about methods, and on scientific focus topics, with the initial focus topic to be determined at the kick-off symposium.….

NEW MATERIALS WORKING GROUP 4

CATALYSIS

The working group is focusing on understanding and developing of more efficient catalysts in a wide range of applications such as chemical processes for the reduction of harmful emissions, catalytic processes for green production of chemicals, hydrogen based energy production, as well as the catalytic upgrade of renewable feedstock to achieve a zero-carbon footprint.

Technical and industrial relevant chemical processes such as catalysis and electrochemistry occur at solid surfaces in complex environments in terms of material composition, pressure, temperature and medium. As a consequence, the atomic scale structure and the environmental composition close to the active material which governs the chemical processes are notoriously difficult to determine. Traditionally, most investigations of catalysts or electrodes for electro catalysis are performed ex-situ or post mortem, leading to difficulties in correlating material structure with function, particularly on the atomic scale. MAX IV offers unique capabilities of in situ and operando investigations of catalysts in harsh environments such as high temperatures and high pressures or in electrolytes. Investigations of catalysts under working conditions with high temporal resolution facilitating a new understanding of complex chemical processes leading to the development of better materials/devices for catalysis and electrocatalysis.

The structural information of the catalyst, and its transient phases between the inactive and active phases, will be studied on the atomic scale. The information gained from experiments at MAX IV coupled with theoretical simulations should provide a new view on chemical reactions at surfaces promoting our current understanding, to enable breakthroughs in the design of superior catalyst and electrode materials based on atomistic knowledge and control. 

NEW MATERIALS WORKING GROUP 5

Nanostructures and Interfaces

Many practical devices are built using a thin film geometry, with additional patterning in the plane to create functionality – think about solar cells, or the strong link between surface orientation and catalyst effectiveness.  This working group acts as a home for material development experts, in dialogue with the other working groups.  When studying nanostructures, different tools give valuable insight into different aspects of the observed behaviour. 

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