Table 2.

Description of the available spectroscopy, diffraction and scattering, and imaging techniques for each beamline. Also indicated is the principal detection from each beamline, whereas visible light (vis), photoelectron (e-), or X-rays. The last column provides a link to a beamline article, if available

Beamline	Techniques	Detection	Ref.
R1–1.5 GeV storage ring
FinEstBeAMS	XPS, PLS${}^1$, UV-VUV spectro. (PEPICO${}^2$, TOFMS${}^3$)	e-, vis	[55]
Bloch	ARPES, spin-ARPES, STM, XPS	e-	–
MaxPEEM	SPELEEM${}^4$, $\mu$-XPS, $\mu$-XAS, nano-ARPES	e-	[56]
FlexPES	XPS, XAS, PEPICO	e-	–
SPECIES	AP-XPS${}^5$, RIXS	e-	[57]
R3–3 GeV storage ring
SoftiMAX	STXM, CXDI, Imaging	X-ray	[58, 59]
VERITAS	RIXS	e-	–
HIPPIE	AP-XPS${}^5$	e-	[60]
BioMAX	High-throughput MX, MAD, SAD, XRF	X-ray	[61]
NanoMAX	Imaging, $\mu$-XRF,$\mu$-XRD, Tomogr	X-ray	[62]
CoSAXS	SAXS, WAXS, Bio-SAXS, XPCS	X-ray	[63]
DanMAX	XRD,PRD, PDF, TS, $\mu$-XRF,$\mu$-XRD, Tomogr	X-ray	–
BALDER	Q-EXAFS,XAS, XRF, XES, XRD	X-ray	[64]
ForMAX	SAXS, WAXS, Imaging, Tomogr	X-ray	–
MicroMAX	MX, Serial-MX	X-ray	–
SPF–Short Pulse Facility
FemtoMAX	Pump-Probe XRD & XRF	X-ray	[65]

¹Photo Luminescence Spectroscopy

²PhotoElectron Photo-Ion Coincidence Spectroscopy

³Time Of Flight Mass Spectroscopy

⁴Spectroscopic PhotoElectron Low Energy Electron Microscope

⁵Ambient Pressure PhotoElectron Spectroscopy