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Applications in Industry and Science

Scientific high-sensitive cameras cameras from greateyes are qualified for imaging and spectroscopy from NIR, VIS, UV-range to EUV- and Xray-range. They combine highly sensitive sensors with ultra low noise electronics for optimal detection of weak signals. The following examples show a selection of applications with greateyes cameras involved.

Get in touch with our experts to find the most qualified greateyes camera for your application.

Detectors for XUV Spectroscopy: Phosphor-Screen camera versus greateyes XUV camera
greateyes XUV cameras deliver much higher sensitivity and spectral resolution in comparison to Phosphor-Screen based cameras systems. Thanks to Dr. Davide Bleiner, EMPA.
Plasma Spectroscopy and Emission Spectroscopy
At ISAS Dortmund a miniaturized plasma with a liquid electrode (Liquid Electrode Dielectric Barrier Discharge, LE-DBD) has been developed which can be operated in continous flow operation requiring only small sample volumes.
EUV transmission spectroscopy
The method of EUV transmission spectroscopy provides a fast thickness characterization for thin foils and is based on a laser induced plasma source which emits light in the EUV.
X-Ray Imaging and X-Ray Spectroscopy
At the Berlin Laboratory for innovative X-ray technologies (BLIX) - Technical University Berlin a modular Laser-Plasma Source for Spectroscopy emitting Soft X-Ray radiation is being developed.
Fluorescence in vivo imaging
Fluorescence in vivo imaging works on the basis of fluorochromes that are excited by an external light source, and which emit light of a different wavelength in response. The emitted fluorescence can be detected by using a camera which is sensitive in the spectral range of near-infrared.
LEED imaging
Low Energy Electron Diffraction is a technique used to determine the atom formation on surface structures and thin films of crystalline materials.
An external current is applied to the solar cell or module using its electrical contacts. The invisible electroluminscence radiation emitted by the solar cell or module is detected by a highly sensitive camera.
The solar cell or wafer is excited by an intensive light source. No electrical connections to the solar cell are necessary. The invisible photoluminescence radiation emitted by the wafer or solar cell is detected by a highly sensitive camera.
Additional examples
Chemiluminescence Fluorescence Spectroscopy
Electrochemiluminescence Phosphorescence Spectroscopy
Bioluminescence Laser induced Breakdown Spectroscopy
Biochip Reading Raman Spectroscopy
Gel Scanner Atom Absorption Spectroscopy
  Transient Absorption Spectroscopy

Selected references:

M. F. Nawaz, M. Nevrkla, A. Jancarek, A. Torrisi, T. Parkman, J. Turnova, L. Stolcova, M. Vrbova, J. Limpouch, L. Pina and P. Wachulak, Table-top water-window soft X-ray microscope using a Z-pinching capillary discharge source, JINST, 2016, Vol. 11 PO7002

I. Mantouvalou, K. Witte, W. Martyanov, A. Jonas, D. Grötzsch, C. Streeck, H. Löchel, I. Rudolph, A. Erko, H. Stiel and B. Kanngießer, Single shot near edge x-ray absorption fine structure spectroscopy in the laboratory, Appl. Phys. Lett. 108, 201106 (2016)

S. Fazinić, I. Božičević Mihalić, T. Tadić, D. Cosic, M. Jakšić, D. Mudronja, Wavelength dispersive µPIXE setup for the ion microprobe, Nucl. Instr. Meth. Phys. Res. Sec. B, 2015, Vol. 363, pages 61-65

A. Hafner, L. Anklamm, A. Firsov, A. Firsov, H. Löchel, A. Sokolov, R. Gubzhokov, and A. Erko, Reflection zone plate wavelength-dispersive spectrometer for ultra-light elements measurements, Opt. Express, 2015, Vol. 23, No. 23:29476-29483

P. W. Wachulak, A. Torrisi, A. Bartnik, D. Adjei, J. Kostecki, L. Wegrzynski, R. Jarocki, M. Szczurek, H. Fiedorowicz, Desktop water window microscope using a double‑stream gas puff target source, Applied Physics B, 2015, 118:573–578

I. Mantouvalou, K. Witte, D. Grötzsch, M. Neitzel, S. Günther, J. Baumann, R. Jung, H. Stiehl, B. Kanngießer, W. Sandner, High average power, highly brilliant laser-produced laser plasma source for soft X-ray spectroscopy, Review of Scientific Instruments, Vol. 86, Issue 3, 2015 

T. Krähling, A. Michels,S. Geisler, S. Florek, J. Franzke, Investigations into Modeling and Further Estimation of Detection Limits of the Liquid Electrode Dielectric Barrier Discharge, Analytical Chemistry, 2014, 86(12), 5822-8