Abstract
We review various methods for analysing time-resolved fluorescence data acquired using the time-correlated single photon counting method in an attempt to evaluate their benefits and limitations. We have applied these methods to both experimental and simulated data. The relative merits of using deterministic approaches, such as the commonly used iterative reconvolution method, and probabilistic approaches, such as the smoothed exponential series method, the maximum entropy method and recently proposed basis pursuit denoising (compressed sensing) method, are outlined. In particular, we show the value of using multiple methods to arrive at the most appropriate choice of model. We show that the use of probabilistic analysis methods can indicate whether a discrete component or distribution analysis provides the better representation of the data.
Original language | English |
---|---|
Article number | 042001 |
Number of pages | 18 |
Journal | Methods and Applications in Fluorescence |
Volume | 5 |
Issue number | 4 |
Early online date | 31 Jul 2017 |
DOIs | |
Publication status | E-pub ahead of print - 31 Jul 2017 |
Keywords
- TCSPC
- deterministic and probabilistic analysis
- exponential series method
- maximum entropy method
- basis pursuit denoising
- iterative reconvolution
- 2-aminopurine
- MAXIMUM-ENTROPY METHOD
- FLUORESCENCE DECAY CURVES
- RESOLVED FLUORESCENCE
- LIFETIME DISTRIBUTION
- UNDERLYING DISTRIBUTIONS
- ELASTIC NET
- REGULARIZATION
- DECONVOLUTION
- PARAMETERS
- RECOVERY