proposal for a beamline on non crystalline diffraction for life and material sciences with modular...

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Proposal for a beamline on Non Crystalline Diffraction for Life and Material Sciences with Modular Microfocus Option on ALBA SAC presentation, Barcelona 21st February 2005 Presented on behalf of the working group by: T.A. Ezquerra Instituto de Estructura de la Materia, CSIC Serrano 119, Madrid 28006 l c T=7ºC l c T=15ºC l c T=7ºC l c T=7ºC l c T=15ºC l c l c T=15ºC T=30ºC w ater w ater surfactant oil T=30ºC w ater w ater surfactant oil Y Z Y Z 30m

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Proposal for a beamline on

Non Crystalline Diffraction for Life and Material Sciences

with Modular Microfocus Option on ALBA

SAC presentation, Barcelona 21st February 2005

Presented on behalf of the working group by:

T.A. EzquerraInstituto de Estructura de la Materia, CSIC

Serrano 119, Madrid 28006

lc

T=7ºC

lc

T=15ºClc

T=7ºC

lc

T=7ºC

lc

T=15ºC

lclc

T=15ºC

T=30ºCwater

watersurfactant

oil

T=30ºCwater

watersurfactant

oil

lc

T=7ºC

lc

T=15ºClc

T=7ºC

lc

T=7ºC

lc

T=15ºC

lclc

T=15ºC

T=30ºCwater

watersurfactant

oil

T=30ºCwater

watersurfactant

oil

Y

Z 30m

Y

Z 30m

Y

Z 30m

• What?

• Why?

• Who?

Outline

Non Crystalline Diffraction Beamline

Small Angle X-ray Scattering

Wide Angle X-ray Scattering

Microfocus Option

What?

Requirements

Brilliance: 1017-1018 photons/s/(mrad)2/(mm)2

Energy range: Continuous from 0.2 nm (6 keV) to 0.07 nm (20 keV) optimized for 0.1 nm (12.4 keV).Photon flux: 1012 Ph/sBand Pass: 10-4

With standard focusing Beam size at sample/detector: 10m (V), 150 m (H) Divergence at sample/detector: 0.02mrad(V), 0.04 mrad (H)

With microfocus Beam size at sample/detector < 5m diameter. Divergence at sample/detector: 0.05 mrad Positional stability: 1 % RMS during 1-10 seconds

What?

Microfocus optics

Mirror ID

Vacuum undulator will be required due to the higher flux and to the lower divergence

Monochromator

A double crystal Si (111) monochromator or Multilayer

Toroidal focusing mirror (vertical and horizontal focusing).

Pin-hole collimation (5 and 10 m collimators).Kirkpatrick-Baez mirror. ≤ 1 m Fresnel lenses (0.1-0.5 m with a 109 ph/s flux).Beryllium Compound Refractive Lenses.

Tentative layout

What? Tentative layout

SAXS detector

WAXS detector

•A fast single photon counting area detector area approximately 20 x 20 cm2, large dynamic range maximum count rate of 10 x 106 counts/sec spatial resolution of 200 – 250 m efficiency between 60 – 80 %

•CCD Area detector for SAXS and WAXS (MAR CCD, diameter ~ 300 mm)•Fast linear one dimensional detectors (1-D microstrip gas chamber curved arrangement)•(1-D wire detectors) diffractometry.

What? Tentative layout

Sample environment•Scanning set-up: - x/y translation stage

•Micro-hexapod: rotation range ±5º with 2 mrad increment•Video microscope.•Microgoniometer: rotating arm

•Temperature furnaces.•High pressure cells.•Heating/cooling stage for DSC•Heating/cooling shear cell.•Tensile stretching machine.•Magnetic field. Electric field.•Stopped flow and continuous flow equipment.

Engagement of Users!!

Why? The scientific Case

Biological systems Materials Science

Time-resolved X-ray fibre diffraction studies on “live” muscle tissues

Time-resolved studies and organization of the photosynthetic apparatus

Condensed chromatin within metaphase chromosomes

Amyloid fibril formation: biophysical studies

Structure and lipid organization of cutaneous tissues

All cases supported by “real” groups neither “virtual” nor “potential”

Current topics¡¡¡

Why? The scientific Case

Biological systemsMaterials Science

Polymer Science•Polymer Crystallization: necessity for millisecond resolution and microfocus•Structure formation in liquid crystalline polymers•Multi-component materials: Polymer blends & Microstructure of interphases•Multi-component materials: Polymer foams•Multi-component materials: Block and graft polymers•Mechanically induced structure modification•Electrically induced structure formation•Mechanical Surface Deformation •Non-conventional polymer processing

Ezquerra, T.A.; et al., Phys. Rev. E, 1996, 54, 989……………………..61 cites

S. Sánchez-Cortés et al. Biomacromolecules, 3, 655 (2002)………8 Flores, A. J. Macromol. Sci. Phys. B40(1), 749 (2001)………….……….5M.L. Cerrada et al Polymer, 43, 2803-2810 (2002)……………………….3

Why? The scientific Case

Biological systemsMaterials Science

Microdiffractometry

Micro and Nanotechnology Nanocomposites in food packaging Carbon nanotube reinforced composites Nanostructured Composites Based on Thermoplastic Polymer Blends Nanofilms: Ordering phenomena in confined environments (GISAX)

Carbon fibers Colloidal systems Interfacial transport phenomena Microfocus approximation to single particle scattering/diffraction Phase transitions induced by temperature jumps in colloidal systems Dynamics of phase transitions induced by compositional change Kinetics of liposome-surfactant interaction

G. Zolotukhin, F.J. Baltá Calleja, D.R. Rueda et al. Acta Polymer. (1997) 48, 269.........2 citesLagaron JM et al. Polymer 2001;42:9531……………………………………………………………………………..13Lozano-Castelló D et al. Carbon 2002;40: 2727……………………………………………………………………3

Why? The scientific Case

Biological systemsMaterials Science

Microdiffractometry

Micro and Nanotechnology Nanocomposites in food packaging Carbon nanotube reinforced composites Nanostructured Composites Based on Thermoplastic Polymer Blends Nanofilms: Ordering phenomena in confined environments (GISAX)

Carbon fibers Colloidal systems Interfacial transport phenomena Microfocus approximation to single particle scattering/diffraction Phase transitions induced by temperature jumps in colloidal systems Dynamics of phase transitions induced by compositional change Kinetics of liposome-surfactant interaction

O. López et al. J. Phys. Chem. B 105: 9879 (2001)…………………………….………………..8 citesMA Urbaneja et al.Biochem. J. 270: 305 (1990)…………………………………………….84

M. Cócera et al Langmuir, 20(8): 3074 (2004)……………………………………………………..1

Who? The group

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1

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1

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2

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1

1

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F. Fernández-Sibón, REPSOL YPF S.A.I. Angulo ,GlaxoSmithKline, I+D

S. Bergmann,NanoBioMatters SL

Supporting groups

Potential groups

Who? The group

Year

1999 2000 2001 2002 2003 2004 2005

Num

ber

of P

ubli

cati

ons

0

20

40

60

80

100

120

Who? Support letters

•REPSOL YPF S.A:•President of the Spanish Polymer Group (GEP) of the Spanish Royal Society of Chemistry (RSEQ) and Physics (RSEF)•President of the Specialized Group of Colloids and Interfaces (GECI) of the RSEQ and RSEF•Director of the Institute of Science and Technology of Polymers, CSIC•Director of the Institute of Chemical and Environmental Research, CSIC

Who? Support letters

Summary

•The beamline is feasible

•The scientific case represents the real activity of the supporting groups

•The scientific case covers a significant area of what is being done in the outer world

•Both the supporting groups and the potential groups are very precise, with experience in both science and instrumentation and ready to start working in this beamline today ! !

•Significant potential industrial interest