lighting the path to innovation australian synchrotron initial suite of beamlines
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Australian Synchrotron
Proposed initial beamlinesCrystallography & Diffraction
1 High-throughput Protein Crystallography 2-23 keV
2 Protein Microcrystal & Small Molecule X-ray Diffraction 5.5-20 keV
3 Powder X-ray Diffraction 4-60 keV
4 Small and Wide Angle X-ray Scattering 5.5-20 keV
Spectroscopy
5 X-ray Absorption Spectroscopy 4-65 keV
6 Soft X-ray Spectroscopy 0.1-2.5 keV
7 Vacuum Ultraviolet (VUV) 10-350 eV
8 Infrared Spectroscopy 0.001-1eV
9 Microspectroscopy (submicron-XAS, XANES, & XRF) 5-20 keV
Imaging
10 Imaging & Medical Therapy 10-120 keV
11 Microdiffraction and Fluorescence Probe (XRD & XRF mapping) 4-37 keV
Polarimetry
12 Circular Dichroism 2-10 eV
Advanced Manufacturing
13 Lithography 2-25 keV
About the facility
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
X-ray diffraction
Beamline 1 – High throughput protein crystallography
a dedicated facility for crystallography of large protein crystals, set up with robotic loading and centring, and for remote operation
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
X-ray diffraction
Beamline 1 – High throughput protein crystallography
Beamline 2 – Protein microcrystal and small molecule diffraction
finely focussed x-ray beam for determining the crystal structure and electron density maps of weakly diffracting, hard–to-crystallise proteins, nucleic acids, and for small molecules
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
X-ray diffraction
Beamline 1 – High throughput protein crystallography
Beamline 2 – Protein microcrystal and small molecule diffraction
Beamline 3 – Powder diffraction
a general purpose facility for determining the crystal structures of powdered samples – useful for identifying and quality control of pharmaceuticals
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
X-ray diffraction
Beamline 1 – High throughput protein crystallography
Beamline 2 – Protein microcrystal and small molecule diffraction
Beamline 3 – Powder diffraction
Beamline 4 – Small and wide angle x-ray diffraction
for measurement of long range order in complex molecules and materials – e.g. the shape and conformational structure of protein molecules
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
Spectroscopy
Beamline 6 – Hard x-ray absorption spectroscopy
for measurement of short and medium range order, bond lengths, and the oxidation state of atoms from atomic number Z=20 upwards (calcium and above)
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
Spectroscopy
Beamline 5 – Hard x-ray absorption spectroscopy
Beamline 6 – Soft x-ray absorption spectroscopy
for measurement of short and medium range order, bond lengths, and the oxidation state of atoms below atomic number Z=20 (below calcium)
also for surface studies
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
Spectroscopy
Beamline 5 – Hard x-ray absorption spectroscopy
Beamline 6 – Soft x-ray absorption spectroscopy
Beamline 7 – Ultra violet spectroscopy
for determination of the electronic structure and surface characteristics of solids, soft matter and gas phase substances - could be valuable for the development of biosensors
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
Spectroscopy
Beamline 5 – Hard x-ray absorption spectroscopy
Beamline 6 – Soft x-ray absorption spectroscopy
Beamline 7 – Ultra violet spectroscopy
Beamline 8 – Infra red spectroscopy
for analysis of bond structures in complex molecules, biological materials, minerals and band structures in certain semiconductorsfor imaging the constituents of cells down to 5 microns resolution (conventional IR imaging is limited to 30 microns)
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
Spectroscopy
Beamline 5 – Hard x-ray absorption spectroscopy
Beamline 6 – Soft x-ray absorption spectroscopy
Beamline 7 – Ultra violet spectroscopy
Beamline 8 – Infra red spectroscopy
Beamline 9 – Microspectroscopyultra fine focussed x-ray probe (less than 0.5 microns) that enables the imaging of the distribution of heavy elements in samples – important for development of metal-containing drugs and for following the take up of heavy metals into biological tissue
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
Imaging
Beamline 10 – Imaging and medical therapya versatile beamline for research into high contrast imaging of objects from small animals through to engineering components.
also for research into the physics and biophysics of cancer therapy techniques
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
Imaging
Beamline 10 – Imaging and medical therapy
Beamline 11 – Microdiffraction and fluorescence probe
designed particularly for the minerals exploration and minerals processing industry
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
Imaging
Beamline 10 – Imaging and medical therapy
Beamline 11 – Microdiffraction and fluorescence probe
Polarimetry
Beamline 12 – Circular dichroism
for determining the secondary structure of proteins and other biological molecules – extends conventional circular dichroism deeper into the UV region
Australian Synchrotron
Proposed initial suite of beamlines
What techniques will be possible?
Imaging
Beamline 10 – Imaging and medical therapy
Beamline 11 – Microdiffraction and fluorescence probe
Polarimetry
Beamline 12 – Circular dichroism
Micromachining
Beamline 13 – Lithography beamline
for manufacturing micro-devices with very high depth to width ratio and excellent surface finish – important for the development of advanced biosensors
Australian Synchrotron
High-throughput Protein Crystallography
Energy range2 keV to 23 keV
Property accessiblecrystalline structure
Measurementsx-ray diffraction patterns at varying energymultiple wavelength anomalous dispersion (MAD) measurements
Informationprotein (macromolecule) structure
Synchrotron benefitsenergy tuning, signal to noise, beam focus
Key contactsJose Varghese, CSIRO
Ribotoxin Laue pattern Moffat et al, BioCARS
Neuraminidase:Colman & Varghese, CSIRO
Australian Synchrotron
Protein Micro-crystal and Small Molecule X-ray Diffraction
Energy range5.5 keV to 20 keV
Property accessiblecrystalline structure
Measurementsx-ray diffraction patterns at varying energymultiple anomalous dispersion (MAD) measurements
Informationstructure of small crystals (proteins inorganics)
Synchrotron benefitsenergy tuning, signal to noise, beam focus
Key contactsJose Varghese, CSIROColin Raston, UWA
bis-metalloporphyrin P. Turner, U. Sydney
Australian Synchrotron
Powder DiffractionEnergy range
4 keV to 60 keV
Property accessiblecrystalline structure
Measurementsx-ray diffraction patterns
Informationphase analysis
Synchrotron benefitssignal to noise, resolution, timing (fast data acquisition)
Key contactsBrendan Kennedy, Sydney; Ian Madsen, CSIRO
Australian Synchrotron
Energy range5.5 keV to 20 keV
Property accessiblelong range order (SAXS), short range order (WAXS)
Measurementsx-ray scattering patterns
Informationstructure analysis, including longer scale than conventional XRD
Synchrotron benefitssignal to noise, resolution, small samples
Key contactsIan Gentle, U of Q; David Cookson, ASRP
SAXS/WAXS
Australian Synchrotron
X-ray Absorption SpectroscopyEnergy range
4 keV to 65 keV
Elements accessibleatomic number 20, calcium and heavier
Measurementsx-ray absorption spectra (transmission)x-ray fluorescence (emission)
Informationchemical composition, chemical state, local structure
Synchrotron benefitsunique method because of energy scanning and tuning, as well as intensity
Key contactsMark Ridgeway, ANU
XANES spectra of Cr III (relatively benign) and Cr VI, a known carcinogen
Amorphous GaAs EXAFS and Fourier transform
Australian Synchrotron
Soft X-ray Spectroscopy
Energy range0.1 – 2.5 keV
Elements accessibleatomic number 3, lithium and heavier by XPSatomic number 4, beryllium and heavier by XAS
Measurementsx-ray photoelectron spectrax-ray absorption spectra
Informationsurface analysis, including depth profiles
Synchrotron benefitsenergy scanning, signal to noise, resolution
Key contactsAlan Buckley, UNSW
S 2p in FeS2
(Nesbitt & Bancroft et al)
Australian Synchrotron
Vacuum Ultraviolet (VUV)Energy range
10 eV - 350 eV
Property accessibleelectron density in valence band and low binding energy orbitals
Measurementsphotoemission spectra
Informationfundamental information on electrical and magnetic properties of atoms, molecules and solids
Synchrotron benefitsenergy range, intensity, polarisation (circular with variable polarisation undulator)
Key contactsRobert Leckey, LaTrobe
Australian Synchrotron
Infrared SpectroscopyEnergy range
0.001 eV to 1 eV (10 cm-1 to 10,000 cm-1)
Property accessiblemolecular vibrations
Measurementsvibrational spectra
Informationmolecular structure, chemical analysis
Synchrotron Benefitssignal to noise, spatial resolution(down to the diffraction limit)
Key contactsDudley Creagh, Canberra; Don McNaughton, Monash
Australian Synchrotron
MicrospectroscopyEnergy range
5 keV to 20 keV
Elements accessibleatomic number 14, silicon and heavier by XRF atomic number 24, chromium and heavier by XAS
Measurementsx-ray fluorescence (XRF), X-ray absorption spectra (XAS), X-ray diffraction (XRD)
Informationelemental analysis, chemical state, long range & short range structure
Synchrotron Benefitsenergy scanning, spot size (100s of nm), intensity
Key contactsDavid Cohen, ANSTO
Pt spectrum located in a tumour cellHambley et al, U Syd
Australian Synchrotron
Imaging and Medical Therapy
Energy range10 keV to 120 keV
Property accessiblex-ray contrast and refraction
Measurementsx-ray images (contrast, phase contrast, diffraction enhanced)
Informationmacroscopic structure
Synchrotron Benefitsintensity, partial coherence, energy range, collimation
Key contactsRob Lewis, Monash; Steve Wilkins, CSIRO
Bird’s head, phase contrast imageLewis, Monash University
Australian Synchrotron
Microdiffraction & Fluorescence ProbeEnergy range
4 keV to 37 keV
Elements accessibleatomic number 14, silicon and heavier(lighter elements under vacuum)
Measurementssimultaneous Laue X-ray diffraction and X-ray fluorescence
Informationelemental composition, phase analysis
Synchrotron benefitsenergy range, spot size (around a micron2), intensity
Key contactsAndrea Gerson, IWRI
Australian Synchrotron
Circular DichroismEnergy range
2 eV to 10 eV
Property accessiblestructural order
Measurementsabsorption as varying energies for left and right circularly polarised light
Informationsecondary structure of peptides and proteins
Synchrotron benefitspolarisation, energy range, intensity
Key contactsMibel Aguilar, Monash University