Completed Physics & Astronomy Materials & Manufacturing

Diamond Phase 2

In plain English

AI plain-English summary

Diamond Phase 2 will build fourteen new experimental stations around a synchrotron—a particle accelerator that generates intensely bright X-rays—to give UK scientists a tool several orders of magnitude more powerful than the current national source. Synchrotron radiation lets researchers see the atomic and molecular structure of materials, from proteins and viruses to battery components and catalysts. The existing UK facility, the SRS, is now decades old and cannot match the brightness or speed needed to study fast chemical reactions, fragile biological samples, or materials at the nanoscale. Without an upgrade, UK scientists would lose their ability to compete internationally in fields that depend on this technique. If successful, Diamond Phase 2 will provide a world-class, medium-energy synchrotron that rivals the best facilities in Europe. The new beamlines and custom-built detectors will allow researchers to probe matter on faster timescales and with greater reliability. This is fundamental infrastructure for science: it will support drug design, advanced materials development, and energy research. The impact is indirect but pervasive—better batteries, more effective medicines, and stronger alloys all depend on the kind of structural information these beamlines provide.

View original technical description
Diamond will be an outstanding source of synchrotron radiation and unique, for medium energy sources, in terms of the number and brightness of the insertion devices. It will be the main source for synchrotron radiation research in the UK. Its impact in world science and the support to the UK research community will be enhanced by the interaction with, and the support provided by other centres on the RAL site: ISIS, the Central Laser Facility and the Centre for Instrumentation Development. Phase II involves the construction of fourteen user beamlines and one test beamline. The beamlines will be of international standard and will support a wide and important research programme. Diamond will be several orders of magnitude brighter than the SRS, and competitive with the ESRF over much of the photon energy range. To maximise the return on investment, the beamlines must be designed as a whole, from the delivery of radiation to the processing of experimental data. To handle the high flux levels that will be delivered, and to probe matter on faster time scales and at greater levels of reliability, new detectors should be built that are matched to the source and the experiment.

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Original classification

Intramural

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