Beamline ID16B is dedicated to hard X-ray nano-analysis. It offers a versatile and unique combination of 2D and 3D techniques: X-ray fluorescence (XRF), X-ray absorption spectroscopy (XAS), X-ray excited optical luminescence (XEOL & TR-XEOL), X-ray diffraction (XRD), X-ray Beam Induced Current (XBIC) and 3D/4D X-ray nano-imaging (nano-tomography). These techniques can be employed individually or simultaneously within a multimodal 2D and/or 3D framework to investigate, in a non-destructive manner, nanostructures, trace-element distributions, phase composition and behavior, microstructures, and functional properties. With a wide energy range of 5–33 keV and beam sizes routinely reaching 50 nm, the instrument supports cutting-edge research in materials science, nanotechnology, Earth and environmental sciences, and biomedical applications, including studies of energy materials, additive manufacturing, and bio-inspired materials. 
The experimental set-up can accommodate sample environments (furnace, cryostat, electrochemical cells…) providing unique in situ and operando nano-analysis capabilities.

 

 

Video presentation of the beamline: 

                                    

https://www.youtube.com/watch?v=QPp1O2mMQog

 

Techniques available:

  • 2D/3D nano X-ray fluorescence (XRF)
  • Nano X-ray absorption spectroscopy (nano-XAS)
  • 3D phase-contrast nano-imaging (holo-tomography)
  • 2D/3D nano X-ray diffraction (nano-XRD)
  • 2D & Time-resolved Nano X-ray excited optical luminescence (nano-XEOL/TR-XEOL)
  • Nano X-ray beam induced current (nano-XBIC)

Beam modes:

  1. Pink beam (from 17 to 33 keV): ∆E/E=10-2 , flux = 1011-1012ph/s
  2. Monochromatic beam (from 6 to 14 and 17 to 33 keV): ∆E/E=10-4 , flux = 1010-1011 ph/s

Energy range:

  1. Nano-XRF, nano-XAS, nano-XRD, nano-XEOL: from 6 to 33 keV
  2. Nano-tomography: 17 or 33 keV

Beam size:

  1. Pink or Monochromatic mode (from 17 to 33 keV): 50x50 nm2
  2. Monochromatic mode (from 6 to 14 keV): from 80 to 100 nm2

Detectors:

  • One single element Si Drift Detector
  • One 3-element Si Drift Detector
  • One 7-element Si Drift Detector
  • PCOedge 4.2 (2048 × 2048 px) - PCOedge 5.5 (2560 × 2160 px) cameras
  • Dectris CdTe Eiger1M
  • QEPro and Hamamatsu spectrometers for XEOL
  • Streak camera for TR-XEOL

In-situ environments*

*If your experiment requires a user-provided sample environment, you must contact the beamline staff before submitting your proposal. This discussion is essential to assess whether your sample environment is compatible with the beamline. Without prior consultation with the beamline staff, your proposal will be automatically rejected as not technically feasible. It will not be evaluated for scientific merit and no beamtime will be allocated.

The beamline can accommodate specific setups developed by users. Please get in touch with the beamline staff for more details. Examples of user environments are shown below:

 

Tomography compatible setups: (a) very high temperature furnace (1500°C) (SIMAP Laboratory, Villanova et al. Materials Today, 2017), (b) Tensile device compatible with the high temperature furnace (SIMAP Laboratory), (c) Compression cell for clay samples (Chalmers University), (d) Loading rig (KU Leuven), (e) Remote-controlled portable ERG recording system (University of Sheffield), and (f) Nanox2: Tensile device (Mines de Paris, Sensini et al. 2024 (preprint)).

 

XRF & XANES compatible setups: nano-calorimeter adapted for the specialized operation of ID16B in close collaboration with Martin Rosenthal. General overview of the sensor holder; and close-up view of the commercial XEN-3933 chip, highlighting the SiNx membrane with integrated resistive heating elements and differential thermopiles. (Segura-Ruiz et al. Journal of Alloys and Compounds, 2025)