Abstract
Fluorescence techniques are widely used as sensitive detection methods in bio-analytics. The use of the bio-physical parameter fluorescence lifetime additional to the spectral characteristics of fluorescence has the potential to improve fluorescence-related detection methods in terms of selectivity in signal recognition, robustness against disturbing influences, and the accessibility of novel bio-chemical process parameters. This article describes the technical set up of a time-resolving instrument with either a fixed time-gated detection principle for improved evaluation of tissue metabolism by an online monitoring of the tissue autofluorescence or a direct fluorescence lifetime detection principle for lifetime-based fluorescent assays.
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C. Ince, J. M. C. C. Coremans, and H. A. Bruining (1992). In vivo NADH fluorescence. Adv. Exp. Med. Biol. 317, pp. 277–296.
I. J. Bigio and J. R. Mourant (1997). Ultraviolett and visible spectroscopies for tissue diagnostics: Fluorescence spectroscopy and elastic-scattering spectroscopy. Phys. Med. Biol. 42, 803–814
R. R. Alfano, G. C. Tang, A. Pradhan, W. Lam, D. S. J. Choy, and E. Opher (1987). Fluorescence spectra from cancerous and normal human breast and lung tissus. IEEE J. Quant. Electr. QE-23(10), 1806–1811.
K. Svanberg, S. Andersson-Engels, L. Baert, E. Bak-Jensen, R. Berg, A. Brun, S. Colleen, I. Idvall, M.-A. D’Hallewin, C. Ingvar, A. Johansson, S.-E. Karlsson, R. Lundgren, L. G. Salford, U. Stenram, L.-G. Str¨mblad, S. Svanberg, and I. Wang (1994). Tissue charakterization in some clinical specialities utilizing laser-induced fluorescence. in R. R. Alfano and A. Katzir (Eds.), Proceedings of the Advances in Laser and Light Spectroscopy to Diagnose Cancer and Other Diseases, SPIE Vol 2135 pp. 2– 15
K. T. Schomacker, J. K. Frisoli, C. C. Compton, T. J. Flotte, J. M. Richter, N. S. Nishioka, and T. F. Deutsch (1992). Ultraviolett laser-induced fluorescence of colonic tissue: Basic biology and diagnostic potential. Laser Surg. Med. 12, 63–78.
A. Fowler, D. Swift, E. Longman, A. Acornley, P. Hemsley, D. Murray, J. Unitt, I. Dale, E. Sullivan, and M. Coldwell (2002). An evaluation of fluorescence polarization and lifetime discriminated polarization for high throughput screening of serine/threonine kinases. Anal. Biochem. 308, 223–231.
C. Eggeling L. Brand, D. Ullmann, and S. J¨ger (2003). Highly sensitive fluorescence detection technology currently available for HTS. DDT 8(14), 632–641.
J. R. Lakowicz (1999). Principles of Fluorescence Spectroscopy, 2nd edn. Plenum Press, New York.
B. Chance, P. Cohen, F. J¨bsis, and B. Schoener (1962). Intracellular oxidation–reduction states in vivo Science 137(3529), 499– 507.
H. A. Bruining, G. J. M. Pierik, C. Ince, and F. Ashruf (1992). Optical spectroscopic imaging for non-invasive evaluation of tissue oxygenation Chirurgie 118, 317–323.
J. Eng, R. M. Lynch, and R. S Balaban (1989). Nicotinamide adenine dinucleotide fluorescence spectroscopy and imaging of isolated cardiac myocytes. Biophys. J. 55, 621–630.
M. W. Riepe, K. Schmalzigaug, F. Fink, K. Oexle, and A. C. Ludolph (1996). NADH in the pyramidal cell layer of hippocampal regions CA1 and CA3 upon selective inhibition and uncoupling of oxidative phosphorylation. Brain Res. 710, 21–27.
M. B¨chner, R. Huber, C. Sturchler-Pierrat, M. Staufenbiel, and M. W. Riepe (2002). Impaired hypoxic tolerance and altered protein binding of nadh in presymptomatic App23 transgenic mice. Neuroscience 14(2), 285–289.
S. Schuchmann, R. Kovacs, O. Kann, U. Heinemann, and K. Buchheim (2001). Monitoring NAD(P)H autofluorescence to assess mitochondrial metabolic function in rat hippocampal-entorinal cortex slices. Brain Res. Protocols 7, 267–276.
J. R. Lakowicz, H. Szmacinski, K. Nowaczyk, and M. L. Johnson (1992). Fluorescence lifetime imaging of free and protein-bound NADH Proc. Natl. Acad. Sci. USA 89, 1271–1275.
W. S. Kunz, A. V. Kuznetsov, K. Winkler, F. N. Gellerich, S. Neuhof, and H. W. Neumann (1994). Measurement of fluorescence changes of NAD(P)H and of fluorescent flavoproteins in saponin-skinned human skeletal muscle fibers. Anal. Biochem. 216, 322–327.
L. Pfeifer, A. Welker, I. Gr¨nwald, K. Willoh, K. Stein, and R. Hetzer (2004). Fluorometric characterisation of Metabolism in Isolated pig hearts, using Time-Resolved Spectroscopy, (Submitted for publication)
E. Chinchoy, C. L. Soule, A. J. Houlton, W. J. Gallagher, M. A. Hjelle, T. G. Laske, J. Morissette, and P. A. Iaizzo (2000). Isolated four-chamber working swine heart model. Ann. Thorac. Surg. 70(5), 1607–1614.
H. Von Baeyer, K. Stahl, M. H¨usler, M. Meissler, V. Unger, J. Frank, Ch. Grosse-Siestrup, G. Kaczmarczyk, K. Affeld, H.-J. Flaig, and B. Steinbach (1997). Eine neue methode zur ex-vivo-vollblut-perfusion isolierter warmblutorgane, dargestellt an der niere von schweinen. Biomedizinische Technik 42, 61–68.
D. A. Scott, L. W. Grotyohann, J. Y. Cheung, and Jr. R. C. Scaduto (1994). Ratiometric methodology for NAD(P)H measurement in the perfused rat heart using surface fluorescence. Am. J. Physiol. 267 (Heart Circ. Physiol. 36), 636–644.
B. Wetzl, M. Gruber, P. Bastian, L. Pfeifer, K. Stein, and O. S. Wolfbeis (2004). Homogenous bioassays based on measurements of fluorescence lifetime. Miptec conference Basel, Poster presentation.
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Pfeifer, L., Stein, K., Fink, U. et al. Improved Routine Bio-Medical and Bio-Analytical Online Fluorescence Measurements Using Fluorescence Lifetime Resolution. J Fluoresc 15, 423–432 (2005). https://doi.org/10.1007/s10895-005-2634-z
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DOI: https://doi.org/10.1007/s10895-005-2634-z