When an incident beam of X-rays interacts with a target material scattering of those X-rays occurs within the target material. An X-ray diffraction pattern is the variation in intensity observed when the scattered X-rays undergo constructive and destructive interference as a result of their interaction within the material. The angular directions of possible diffraction peaks depend on the size and shape of the unit cell of the material. The intensities of the diffracted waves depend on the kind and arrangement of atoms in the crystal structure. A primary use of the technique is the identification and characterization of compounds based on their diffraction pattern.
The high intensity of synchrotron X-rays make it possible to collect diffraction patterns much more quickly in comparison to a lab source and to detect phases and structure of lower concentration within the sample and in some cases allows for more dynamic experiments of structural change within a material.
Combining the high brightness with the small spot size available makes it possible to examine samples with very high spatial resolution.
I11 is a high resolution powder diffraction beamline for structural crystallography using an undulator source. This beamline specialises in investigating the structure of complex materials, including metal-organic frameworks, high temperature superconductors, ceramics, alloys, zeolites and minerals under non-ambient, time-resolved, and long duration conditions.
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I15, the extreme conditions beamline, is a high energy diffraction and scattering beamline used to explore planetary interior conditions, as well as other experiments requiring high pressures and non-ambient temperatures.
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I12 is a high-energy beamline principally for Material Science, Engineering and Processing Science. The instrument’s main focus is to allow in situ studies of samples in environments as close as possible to real world environments using imaging, tomography, diffraction and small-angle scattering. I12 is particularly well suited to study large or dense objects and offers a unique sample and environment installation facility for weights up to 2000 kg.
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µX-ray absorption spectroscopy, µX-ray fluorescence imaging and µdiffraction using high-brightness focused X-ray beam. Other techniques available include X-ray Excited Optical Luminescence (XEOL), X-ray Fluorescence Tomography, Fluorescence ReflEXAFS, Differential Phase Contrast Imaging.
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B18 is a general purpose EXAFS beamline. The Core-EXAFS is used for an extensive range of studies and applications, including local structure and electronic state of active components, and the study of materials including fluids, crystalline and non-crystalline (amorphous phases & colloids) solids, surfaces and biomaterials.
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This is a flexible and versatile beamline for testing new developments in optics and detector technology and for trialling new experimental techniques. The beamline provides both white and monochromatic X-rays in several operational modes.
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I07 is a high-resolution X-ray diffraction beamline for investigating the structure of surfaces and interfaces under different environmental conditions, including, for example, semiconductors and biological films.
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XPDF (I15-1) is a dedicated X-ray Pair Distribution Function beamline. The pair distribution function allows researchers in fields as diverse as materials chemistry; solid-state physics; earth science; and pharmaceuticals to gain insight into the local structure of crystalline, amorphous, and liquid materials both ex situ and in situ.
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DIAD will be the a dual beam instrument capable of imaging and diffraction at the same time at the micron scale. The beamline will enable in-situ experiments aiming to resolve the 3D microstructure (via imaging) and phase constitution/strain state of material (via diffraction) in quasi-simultaneously matter with switching times of a few Hz between analysis techniques.
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The Hard X-ray nanoprobe I14 beamline is a dedicated facility for nanoscale microscopy. The central theme of the beamline is the ability to obtain structural and chemically-specific information on a full range of materials (inorganic/organic) under both static and real (e.g. wet, heated, in-situ strain) conditions.
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The Materials and Magnetism beamline provides a unique, world-class single crystal X-ray diffraction facility for studying a diverse range of materials.
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VMXm is a micro/nanofocus MX beamline aimed at atomic structure determination in cases where the production of significant quantities of protein material and crystals is problematic.
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High throughput and highly automated fixed wavelength SAD beamline for macromolecular crystallography.
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High throughput and fully automated beamline for optimised MX experiments. Capable of accepting CL3 type experiments on crystals of pathogens.
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A unique facility for solving the crystallographic phase problem, using the small anomalous signals from sulphur or phosphorous which are present in native protein or RNA/DNA crystals. Additionally, anomalous difference Fourier maps can be used to locate sulphur and phosphorous positions to assist model building at low resolution and/or identify lighter atoms such as chlorine, potassium and calcium.
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Variable focus from 5 to 100 microns, high throughput and highly automated beamline for optimised MAD and SAD experiments.
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High throughput variable microfocus beamline for optimised MAD and SAD experiments on crystals down a few microns in size.
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The Versatile Macromolecular X-tallography in-situ (VMXi) beamline will be an entirely automated facility for characterisation of, and data collection directly from, crystallisation experiments in situ.
More informationmicroXRD and nanoXRD are X-ray diffraction with a smaller spot size, either micro or nano-sized. They too relies on the dual wave/particle nature of an X-ray to deteremine information about the structure of crystalline samples. Using X-ray optics, the beam size is reduced in order to investigate smaller features on the sample.
The Hard X-ray nanoprobe I14 beamline is a dedicated facility for nanoscale microscopy. The central theme of the beamline is the ability to obtain structural and chemically-specific information on a full range of materials (inorganic/organic) under both static and real (e.g. wet, heated, in-situ strain) conditions.
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µX-ray absorption spectroscopy, µX-ray fluorescence imaging and µdiffraction using high-brightness focused X-ray beam. Other techniques available include X-ray Excited Optical Luminescence (XEOL), X-ray Fluorescence Tomography, Fluorescence ReflEXAFS, Differential Phase Contrast Imaging.
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I06 is a polarised spectroscopy and microscopy beamline equipped with a PEEM, 6 T low temperature (1.5 K) superconducting magnet, 2 T vector magnet as well as soft X-ray diffraction vacuum goniometer.
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I10 is a beamline for the study of electronic and magnetic structure using soft X-ray resonant scattering (reflection and diffraction) and X-ray absorption. It allows a broad range of studies focused on the spectroscopic properties and magnetic ordering of novel nanostructured systems
More informationDiamond Light Source is the UK's national synchrotron science facility, located at the Harwell Science and Innovation Campus in Oxfordshire.
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