Synopsis
ID02 beamline is a combined ultra small-angle and wide-angle scattering instrument. The microstructure and non-equilibrium dynamics of soft matter and related systems can be probed from sub-nanometer to micron scale, and down to sub-millisecond time range.
Status:
open
Disciplines
- Life Sciences
- Physics
- Chemistry
- Materials and Engineering
- Environmental Sciences
- Medicine
Applications
- Soft condensed matter
- Noncrystalline structural biology
- Interdisciplinary areas of soft matter, biology, and nanoscience
Techniques
-
SAXS - small-angle X-ray scattering
-
Time-resolved SAXS
-
Time-resolved USAXS
-
USA-XPCS - ultra-small-angle XPCS
-
USAXS - ultra-small-angle X-ray scattering
-
WAXS - wide-angle X-ray scattering
Beam size
- Minimum (H x V) : 20.0
x 20.0
µm²
-
Maximum (H x V) : 200.0
x 60.0
µm²
Sample environments
- Stopped-flow rapid mixing device
- Stress controlled rheometer
- Fast pressure-jump setup
- Mettler Toledo heating stage (HS82/HS1)
- Linkam heating stage: (THMS600/TMS94)
- Peltier-controlled flow-through capillary cell
- Magnetic field (0.1 mT to 1.5 T)
- Oven (capillaries and flat cells, 25-300°C)
- Peltier-controlled automatic sample changer
Detectors
- SAXS: Eiger2-4M
- WAXS: Rayonix LX170
- USAXS: FReLoN / Eiger2-4M
- XPCS: Eiger 500K
Technical details
Combined USAXS/SAXS/WAXS: ID02 offers time-resolved ultrasmall-, small- & wide- angle X-ray scattering (combined USAXS/SAXS/WAXS) capabilities. The setup uses a monochromatic, highly collimated, and intense beam in the pinhole configuration with sample-to-detector distance variable from 0.8 m to 31 m. The collimation is achieved by exploiting the intrinsic low divergence of the source together with two slits placed farther apart. Using 1 Å X-ray wavelength, the q range covered by the instrument is roughly 10-3 nm-1< q < 60 nm-1.
More detailed information about the scattering techniques, sample environments, and detectors is available at the beamline home page, which also lists recent publications illustrating the capabilities of the instrument. An up-to-date reference for the beamline technical specifications and performance is Ref. [1]. Please note that the beamline web page is not a reference and the link is subject to change. For experiments carried out prior to 2020, the technical reference is still Ref. [2].
[1] T. Narayanan, M. Sztucki, T. Zinn, J. Kieffer, A. Homs-Puron, J. Gorini, P. Van Vaerenbergh and P. Boesecke, J. Appl. Cryst., 55, 98 (2022); https://doi.org/10.1107/S1600576721012693
[2] T. Narayanan, M. Sztucki, P. Van Vaerenbergh, J. Le´onardon, J. Gorini, L. Claustre, F. Sever, J. Morse and P. Boesecke, J. Appl. Cryst., 51, 1511 (2018); https://doi.org/10.1107/S1600576718012748.
Mapping anisotropic structure formation of soy protein during high-moisture extrusion
Garina E.D., Kuijpers S.A., Gobes M.I., Sein A., den Adel R., Smith G.N., Sztucki M., Hohlbein J., Terenzi C., van Duynhoven J.P.M., Bouwman W.G.,
Food Hydrocolloids 172, 112037-1-112037-11 (2026)
Protein-capped mesoporous silica SBA-15 enables protease-responsive and controlled antimicrobial peptide delivery
Guerrero-Florez V., Zattarin E., Khare L.P., Wiman E., Bengtsson T., Khalaf H., Junker J.P.E., Ojamäe L., Odén M., Aili D., Björk E.M.,
Journal of Colloid and Interface Science 703, 139151-1-139151-22 (2026)
Friction and wear reduction by glycerol oleates: The molecular basis for performance variations in the presence of water and acetic acid
Kicior I., Matthews L., Britton A.J., Willneff E.A., Hammersley C., Morina A., Dowding P.J., Honkimäki V., Schroeder S.L.M.,
Tribology International 214, 111140-1-111140-16 (2026)
Insights into formation of bicontinuous emulsion gels via in situ (ultra-)small angle X-ray scattering
Alting M.T., Thies-Weesie D.M.E., van Silfhout A.M., de Ruiter M., Narayanan T., Haase M.F., Petukhov A.V.,
Journal of Physical Chemistry B 129, 6419-6427 (2025)
Novel dimeric capsid assembly modulators as a unique class of highly potent anti-HBV agents
Amblard F., Chen Z., Kra K., Patel D., Bassit L., Gargowitsch L., Degrouard J., rat V., Arteni A.A., Matthews L., Ravichandran S.M., Jiang A., Athanasiadis A., Dangas G., Abate M., Tresset G., Pronost J., Salman M., Verma K., Kirby K.A., Michailidis E., de Rocquigny H., Durantel D., Bressanelli S., Sarafianos S.G., Schinazi R.F.,
Journal of Medicinal Chemistry 68, 24196-24212 (2025)
The impact of using different cationic polymers on the formation of efficient lipopolyplexes for pDNA delivery
Anderluzzi G., Mohamed T., Moschetti G., Del Favero E., Rizzello L., Magnaghi V., Franzé S., Cilurzo F.,
International Journal of Nanomedicine 20, 10021-10041 (2025)
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