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Department Spin and Topology in Quantum Materials

Diamond


User Access

Diamond runs call for proposal every six months in the spring and the autumn, aiming for peer review meetings in May and November. 

The call goes out to users via email and the deadline will be listed on the proposal submission webpage.

The peer review meetings  will review proposals submitted for the following allocation periods which are set as:
1st week of April - end of September
1st week of October - end of March

Guidelines for a beamtime application can be found online

 


Instruments of Diamond especially suited for quantum technology research

I06, I06-1

I10, I10-1

I16

I21

I05

AC-PEEM, laserPEEM

XAS, XMCD, XMLD

Magnetic Scattering

XAS, XMCD, XMLD

Magnetic Scattering, XFMR, RSXS

RXS, NRMS, CDI, BCDI

RIXS, REXS, XAS

High resolution-ARPES, nano-ARPES

Mainline with AC-PEEM for spectro-microscopy using polarized x-rays. Branchline with magnet endstation for x-ray absorption spectroscopy using polarized light and endstation for magnetic scattering. Offline-facility for LEEM and PEEM using deep-UV laser source.

Mainline with soft x-ray diffractometer equipped with a full polarization analysis and low-temperature capability. Branchline with x-ray absorption using  x-ray dichroism effect.

Versatile diffraction facility fully optimised to combine high flux and high resolution over a wide and continuously tuneable energy range, for diffraction and scattering experiments in resonant and non-resonant conditions.

A dedicated Resonant Inelastic soft X-ray Scattering (RIXS) beamline that provides a highly monochromatised, focused and tunable X-ray beam onto materials, while detecting and energy-analysing scattered X-rays using a spatially-resolved 2D detector.

Dedicated angle-resolved photoemission spectroscopy (ARPES) beamline for the study of energy versus momentum maps, yielding the band dispersions, Fermi surfaces and the spectral function of electrons near the Fermi level.

•Energy range:
80 – 2100  eV

•Resolving power: 10,000 @ 400 eV

PEEM endstation:

•Temperature range: 100K – 1000 K

•Resolution: 20 nm

•Detector: Medipix3

Magnet endstation:

•Temperature range: 2 – 300 K

•Magnetic field: 6T/2T vector

•Detector: TEY / TFY / transmission

DD endstation:

•Temperature range: 15 – 400 K

•Detector: TEY / TFY/ CCD camera

•Energy range:
250 – 2000 eV

Magnet endstation:

•Temperature range: 3 – 350 K

•Magnetic field:
14T along beam direction

•Detector:
TEY, TFY, transmission

Diffractometer:

•Temperature range: 12 – 300 K

•Magnetic field: <0.2 T

•Detector: photodiode, channeltron, polarization analyzer

Electromagnet:

•Temperature range: 5 – 300 K

•Magnetic field:
2T along beam direction

•Detector:
TEY, TFY, transmission

 

•Energy range:
3 – 15 keV
•Temperature range: 5 – 800 K
•Diffractometer:
6-circle kappa Magnetic field: <1.5T
•Detector:
Pilatus 3_100K, Merlin, 2M
•Environments: electric field < 5kV, Razorbill strain cell
•Energy range:
280 –  3000 eV
•Energy resolution: 16 – 35 meV
•Temperature range: 10 – 380 K
•Diffractometer: 
6-axis manipulator
•Detector: Andor CCD detector
•Energy range:
18 – 240 eV
•Energy resolution: 2 meV (HR-ARPES)
30 meV (nano-ARPES)
•Energy analyzer: Scienta R4000
•Temperature range: 6 – 336 K