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Summary Electron spectroscopy has provided much of our current knowledge on the chemical and physical processes involved in the complex interactions between a solid surface and its surroundings. Such processes are for example important for surface catalysis, corrosion and thin film growth.As the surface state depends strongly on its environment, it is vital that such studies are performed under re

https://www.sljus.lu.se/research-landing-page/ambient-pressure-xps - 2025-12-31

Summary The interactions of electrons in materials are a rich and complex source of physical problems, in part due to the issues brought about by dealing with the large number of electronic many-body interactions, both with other electrons and with the parent ions.  These interactions give rise to fundamentally quantum mechanical states such as superconductivity and magnetism.  New quantum states

https://www.sljus.lu.se/research-landing-page/magnetism-and-superconductivity - 2025-12-31

SummaryWe develop and use methods for analysis of nanostructures with highest possible spatial and temporal resolution. One aim of this research is to understand the role of the surfaces and interfaces for their function and properties. Another goal is to study devices under as realistic conditions as possible. The aim is both fundamental physical understanding as well as enabling the design of no

https://www.sljus.lu.se/research-landing-page/semiconductor-nanostructures - 2025-12-31

SummaryAccelerator physics deals with how particle beams are created, accelerated, steered, measured and controlled to finally be tailored to specific purposes. This is relevant for laboratories such as ESS, CERN and the MAX IV, but also for medicine or semi-conductor development.The focus of the Accelerator Physics group is on electron accelerators to produce synchrotron radiation. While our main

https://www.sljus.lu.se/research-landing-page/accelerator-physics - 2025-12-31

SummaryWe develop and use novel methods for X-ray imaging with the highest possible spatial and temporal resolution.To this end, we use a wide range of X-ray imaging methods at different synchrotrons, including MAX IV in Lund, X-ray free-electron lasers, including European XFEL, as well as lab source systems. We collaborate with many other researchers, in particular at Lund University, MAX IV, and

https://www.sljus.lu.se/research/x-ray-imaging - 2025-12-31

Find publications in the research portalIn the Lund University Research Portal you can search for:Active researchers and doctoral students within our research areasResearch outputs, for example publicationsResearch projectsResearch infrastructuresResearch unitsThe Division’s profile in Lund University’s Research Portal Finished Bachelor's and Master's projects Finished degree projects at the Divis

https://www.sljus.lu.se/publications - 2025-12-31

Adresses Visiting addressLund UniversityDepartment of PhysicsDivision of Synchrotron Radiation ResearchProfessorsgatan 1SE-223 63 LundDelivery addressLund UniversityDepartment of PhysicsDivision of Synchrotron Radiation ResearchInstrumentmakaregränden 6SE-223 62 LundPostal addressLund UniversityDepartment of PhysicsDivision of Synchrotron Radiation ResearchBox 118SE-221 00 LundSweden Invoice addre

https://www.sljus.lu.se/contact - 2025-12-31

Ultrafast dynamics in small quantum systems Exploring the fundamental processes driven by light Catalysis and electrochemistry Catalysts and electrodes at work studied by light Ambient pressure x-ray photoelectron spectroscopy Making the next generation of 2D materials Magnetism and superconductivity Studying quantum states of matter Semiconductor nanostructures analysis Nanodevices at smallest ti

https://www.sljus.lu.se/research - 2025-12-31

Photoionization dynamics Attosecond pulses created by high harmonic generation (HHG) in gases allow us to study fundamental light-matter interaction processes with novel experimental techniques. The ultrashort light pulse leads to the creation of a wave packet that can be exploited to investigate attosecond dynamics in ionized systems. We apply interferometric techniques to access the correlated m

https://www.sljus.lu.se/research/ultrafast-dynamics-small-quantum-systems-sqs/attoscience - 2025-12-31

Imaging dynamics of small molecules Intensity distribution of emitted proton (H+) and oxygen ion (O)+ viewed by our detector when the water molecule is resonantly excited by X-rays.Atoms and molecules in electronically excited states decay via various processes which lead to bond breaking and ion formation, producing neutral and charged constituents that react with their neighbors. These processes

https://www.sljus.lu.se/research/ultrafast-dynamics-small-quantum-systems-sqs/imaging-dynamics-molecules - 2025-12-31

Cluster dynamics - a step towards complexity Photoinduced processes in complex systems can be modeled as a sequence of events initiated by the absorption of a photon. Photoionization of an atomic electron is followed by electronic relaxation which results in a migration of charge within the atom. The need to understand how this initial event leads to higher ionization states and dynamic effects in

https://www.sljus.lu.se/research/ultrafast-dynamics-small-quantum-systems-sqs/dynamics-clusters - 2025-12-31

Instrumentation: Imaging spectroscopies View of an ion spectrometer together with the particle trajectory inside (center). Image of the the particles on a detector (right).Instrumentation for carrying out multicoincidence expeirments between ionized fragments and photoelectrons is developed within the group. Design and characterization studies have been carried out for a high-resolution three-dime

https://www.sljus.lu.se/research/ultrafast-dynamics-small-quantum-systems-sqs/momentum-imaging-spectroscpy - 2025-12-31

The goal of the investigations is to gain an increased understanding of the complex catalytic reactions, for applications in the production of technical catalysts to enhance the reaction rates and improve the selectivity. Our approach is to use appropriate model systems that can be structural and chemically characterized by established surface science techniques for later operando investigations [

https://www.sljus.lu.se/research-landing-page/catalysis-and-electrochemistry/thermal-catalysis - 2025-12-31

It is next to impossible to perform operando experiments without prior detailed atom scale information on the model catalyst, due to the complexity of the gas-surface interaction and the data interpretation. We will therefore apply our standard UHV surface science techniques available to us such as Scanning Tunnelling Microscopy (STM), High Resolution Core Level Spectroscopy (HRCLS), Low-Energy El

https://www.sljus.lu.se/research-landing-page/catalysis-and-electrochemistry/model-catalysts - 2025-12-31

Aluminum is used in a vast number of everyday applications in modern society. During the last 5-10 years we have studied the electro chemical anodization (electro-oxidation) of aluminium and aluminium alloys [1], an industrial process to increase the corrosion resistance and color of aluminium, using Grazing Incidence X-ray Diffraction (GISXRD), X-Ray Reflectivity (XRR) and Grazing Incidence Small

https://www.sljus.lu.se/research-landing-page/catalysis-and-electrochemistry/anodization - 2025-12-31

Duplex Stainless Steels (DSS) are complex high-strength and corrosion resistant materials used in many applications. Nevertheless they still corrode, and in a collaboration with the group of Jinshan Pan at KTH in Stockholm, we perform in situ studies at various synchrotrons of DSS as they corrode using a combination of GISXRD, Transmission XRD, XRR, and X-Ray Fluorescence [1].Reference[1] Redefini

https://www.sljus.lu.se/research-landing-page/catalysis-and-electrochemistry/corrosion - 2025-12-31

Very recently, we have initiated a project in electro catalysis using model electrodes for a fundamental understanding of the structure-activity relation during the Oxygen and Hydrogen Evolution Reactions (OER and HER) as well as the electro oxidation of hydrocarbons. Here we combine techniques such as HESXRD, 2D-SOR, Cyclic Voltammetry (CV) and Electro Chemical XPS (ECXPS).Reference[1] An electro

https://www.sljus.lu.se/research-landing-page/catalysis-and-electrochemistry/electro-catalysis - 2025-12-31

Vortex lattices appear in Type-II superconductors when a magnetic field is applied.  They can be a very sensitive probe of the underlying superconducting parameters such as the magnetic penetration depth and the superconducting coherence length, and we use this to explore a variety of superconductors.Transition metal dichalcogenidesThese materials are typically highly two-dimensional layered mater

https://www.sljus.lu.se/research/magnetism-and-superconductivity/vortex-lattices - 2025-12-31

Upcoming events Staff and supervisorsSupervisor trainingGet to know SI-PASSOnline supervisor fika Student SI-PASS leadersLeader development activities Connect with us on LinkedIn Join us on LinkedIn for news and updates. Welcome to the European Centre for SI-PASS! The European Centre for SI-PASS helps implement and develop Supplemental Instruction - Peer Assisted Study Sessions (SI-PASS) throughou

https://www.si-pass.lu.se/european-centre-si-pass - 2025-12-31

Here you will find a selection of resources to navigate the phases of an SI-PASS session – from introduction and agenda-setting to facilitating learning. Ice-breaker activities and agenda setting techniquesThe introduction of an SI-PASS session plays a crucial role in setting the tone of the meeting and getting participants involved. Ice-breaker activities offer a variety of ways to achieve this.A

https://www.si-pass.lu.se/student-si-pass-leader/resources-si-pass-leaders - 2025-12-31