An Introduction to Diamond and the Harwell Campus. Martin Walsh

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Transcription:

An Introduction to Diamond and the Harwell Campus Martin Walsh

The Diamond Project Diamond Light Source Ltd set up in April 2002 and created through a Joint Venture Agreement (JVA) between the UK Government and the Wellcome Trust; Construction completed 2006; Machine commissioned from June 2006 First Users Jan 2007 Electron Beam Energy Circumference Diameter of outer wall Beam current 3 GeV 561.6 m 235 m 300 (500) ma

Harwell Campus Your role in all this... - SAC is the advisory body for Diamond: how do we Mary Lyon centre make the most of your collective mouse functional knowledge, genomics experience and wisdom? ISIS CLF - Providing the information you need - Organisation and content of meetings - The most effective forum for discussion - Efficient transmission of your advice to us - Informing you how Diamond has acted on your advice and (ISIC) what the result has been RAL Space MRC Harwell Public Health England Research Complex International Space Innovation Centre Rutherford Appleton Laboratory The European Centre for Space Applications and Telecommunications (ECSAT)

Beamlines by Village Macromolecular Crystallography Soft Condensed Matter Spectroscopy Materials Engineering and Environment Surfaces and Interfaces

SR & Life Science Provision of state of the art technologies for structural and cellular biology Challenge now is to understand how proteins function dynamically within Multi-complex macromolecular assemblies Cellular pathways...ultimately at the organism level Requires a multifaceted approach across different resolutions scales to achieve: X-ray diffraction, SAXS, X-ray microscopy, X-ray spectroscopy, X-ray fluorescence, CD, IR imaging etc.. Harwell campus infrastructure a unique resource: RC@H, OPPF-UK, CCP4, MPL@DLS, Central Laser Facility, ISIS...

Life Science & DLS I08 X-ray STXM I13 X-ray tomography & coherent diffraction Cell/tissue B22 Infrared B24 Cryo X-ray microscopy I18, I20, B18, I14 X-ray spectroscopy UK Hub for XFEL sample and software developments XFEL Solution I22/B21 SAXS B23 CD Spectroscopy National facility for EM in life & Physical Sciences Electron Microscopy Crystalline MX village ( I02, I03, I04) (I24, I04-1) (I23, VMX)

MX@DLS I02 &VMXi Thomas Sorensen I03 Katherine McAuley I04 Dave Hall I04-1 Frank von Delft I24 Robin Owen I23 Armin Wagner & VMXm Gwyndaf Evans

Synchlink - IOS app for ISPyB Ginn et al J. Appl. Cryst. 47, 1781-3 (2014)

DLS-CCP4 Data Collection & Analysis Workshop A note on potential success of participants projects... If you publish results that stem directly from work done during this workshop we would very much appreciate an appropriate acknowledgement in the paper. Please also inform the organisers of the publication of your papers. These will be listed on the CCP4 website for the workshop and will help to ensure that CCP4 can keep funding future workshops like this

BIOSAXS B21 B21 HATSAXS Rob Rambo Katsuaki Inoue, James Doutch Mark Tully

What is solution SAXS? Small-angle x-ray scattering offers the ability to build low resolution models of macromolecular structures in solution (~20 Å resolution) Gives us information on shape and quaternary structure Samples can be studied under a variety of conditions first user December 2013 range 0.004 to 0.42 Å -1 (1570 Å) at 4 m implementing biosaxs training workshops developing software: piloting mail-in SAXS Services 1) plate screening 2) size-exclusion Coupled SAXS

BIOSAXS automation EMBL robot Sample exposure unit (in vacuum capillary pod) 96 well plate (shallow) 96 well plate (deep) Eppendorf tube holder SAXS flight tube Sample storage unit (temperature controlled) Fully automated routines; inject exposure flush wash dry inject exposure... 1 minute Maximum number of measurements: 55 /hour!!

B23 Circular Dichroism Giuliano Siligardi @diamond.ac.uk

B23 - applications Qualitative and quantitative analysis of protein-protein and protein-ligand interactions B23 station A B23 station B Characterisation of IMP s Protein stability B23 station B Quality control /drug formulations and delivery Experimental cabin of B23 beamline. B23 consists of two stations with wavelength range of 125-550nm for B23-A, and 170-650nm for B23-B. Insert) Beam profile of the light beam of B23 module B at the sample in the sample house compartment measured with beam profile monitor Beamage USB.

Cryo transmission X-ray microscopy B24 Liz Duke @diamond.ac.uk

B24: Soft X-ray Microscope Soft X-ray tomography allows to image whole hydrated cells in 3-D to resolutions of 50 nm or better. Provides for imaging of thick samples ~up to 10 µm Contrast provided by the differential absorption of X-rays hence imaging of cells in a close-to-native state possible Amiable to high-throughput Correlated imaging posssible with light microscopy - allowing tagged molecules to be localized in the high resolution 3-D image of a cell Visualisation of 3D structural details Complementary to cryo-em Correlative light microscopy

B24 Cryo soft x-ray tomography From data collected in-house with plasma source N: Nucleus C: Cytoplasm Cell membrane Nuclear envelope Nucleoli N C Cytoskeleton Endoplasmic reticulum Mitochondria Lysosomes

A National User Facility for Biological Electron Cryomicroscopy Wellcome Trust Strategic Award/MRC/BBSRC, applicants: Helen Saibil, Kay Grünewald, David Stuart, Gerhard Materlik Funded by the Wellcome Trust, MRC and BBSRC at level of 15.6 M over 5 years

3.3 Å Cryo-EM Structure of a Nonenveloped Virus Aims: Establish state-of-the art facilities for single particle analysis and cryo-tomography Uniquely provide these via a beamline-like access programme Provide ancillary facilities to increase the ambitions of the UK community Grow/train the user community, especially structural biologists and cell biologists Foster the development of Integrated Structural Biology in the UK, linking with other developments

The EM-synchrotron concept Direct electron detectors a revolution Major microscopes ordered 2015 delivery Dual-beam machine (milling) now commissioning Beamtime via Oxford, offered in 2014 Building:

UK and femtosecond crystallography at the European X-FEL - SFX James Naismith David I Stuart Jan Löwe Martin A Walsh Henry N Chapman On behalf of the UK Structural Biology Community via Instruct & CCP4

Funded by Wellcome Trust, BBSRC and MRC to make the UK the largest partner in the consortium at the European XFEL (http://www.xfel.eu) for this dedicated crystallography instrument Enable diffraction from nanocrystals.time resolved experiments ultimate goal image single particles

photon flux Potential of XFEL XFEL 10 12 photons 30 fs 50 GW peak power Synchrotron 10 6 photons 30 ps 50 W peak power time 30 fs pulse, X-ray doses exceeding 1 GGy Unique: diffraction before sample destruction Structures from smaller & sensitive crystals not currently tractable: paradigm shift for Membrane proteins Protein protein complexes

Serial Femtosecond Crystallography The technique Single shot diffraction patterns are obtained from a stream of fully hydrated nanocrystals injected at room temperature into the intense X-ray pulses from the XFEL source. Each intense pulse lasts for ~30 Femtoseconds and allows the diffraction data to be collected before the crystal is destroyed

UK Hub at Diamond - establishing an open XFEL user programme LCLS UK HuB EU-XFEL Software Developments for automated data analysis SACLA Facilitate access to XFELS/UK User Program for SFX Development of Sample delivery & Environments UK XFEL HuB High Performance Computing and Data curation Integrated Structural Biology Infrastructure @RAL

Research Complex at Harwell Funded by Research Councils UK and Diamond

The Research Complex (RCaH) Joint venture of UK research councils (RCUK) and Diamond A multidisciplinary laboratory in the life and physical sciences Mission To carry out research optimising use of the combination of large facilities at RAL To encourage scientists from different subjects to work together

Research Themes in RCaH Imaging - Materials - Nanotechnology - Biologists interested in spanning length scales Ultra Fast laser technologies LSF, both biology and chemistry Structural biology Protein crystallography, solution scattering, cell imaging Materials - Magnetic materials, extreme conditions, hydrogen storage, materials engineering, thin films Catalysis - In chemistry and biology

Central Laser Facility ASTRA GEMINI VULCAN ARTEMIS ULTRA OCTOPUS High Power Lasers Ultrafast vibrational spectroscopy Imaging, laser tweezers and microscopy A multidisciplinary laboratory that provides facilities for researchers to undertake new and cutting edge scientific research in both life and physical sciences and the interface between them. Lasers for Science Facility in the Research Complex at Harwell

ULTRA to investigate Molecular Dynamics Ultrafast spectroscopy techniques to probe the links between molecular structure and function, in the real world environment. DNA damage. DNA is chemically very stable but is still subject to damage by UV light, leading to genetic mutation and skin cancer. ULTRA UV lasers can be used to initiate changes, which are then monitored using time-resolved infrared spectroscopy (picoseconds to milliseconds). Protein folding and dynamics. The function of proteins is determined by their 3-dimensional structures. ULTRA is able to investigate how these structures form by initiating folding using laser temperature-jump, and following the process with infrared or UV probes (nanoseconds to milliseconds). Chemical reactions in solution. Most industrially and biologically relevant chemical reactions occur in the solution phase. The very high sensitivity of ULTRA allows reactions to be investigated in these real life conditions (femtoseconds to nanoseconds). ULTRA s combination of tunable laser sources allows processes to be initiated with one pulse (pump), and monitored with another (probe). Processes can be monitored on the femtosecond to millisecond timescale.

An integrated Approach to Structural Biology Cell Biology OPPF-UK MPL RC@H UK XFEL Hub@Diamond Fluorescence microscopy (CLF(STFC & DLS) Computational environment / CCP4, CCP-EM Synchrotron Imaging Diamond Beamlines: Macromolecular Crystallography, Scattering, X-ray spectroscopy ISIS beamlines: SANS Neutron Reflection (NR) HPC Cryo-EM/ET Electron Bio- Imaging Centre (ebic)

Overview -First Impressions Thanks for your attention - Science highlights - Technical developments - Industrial engagement And thanks to our - Plans for the future course sponsors: - Finance