The phrase "average fluorescence lifetime" is correct and usable in written English.
It can be used in scientific contexts, particularly in fields like chemistry or biology, to describe the mean duration of fluorescence emission from a substance.
Example: "The average fluorescence lifetime of the dye was measured to be 4.5 nanoseconds."
Alternatives: "mean fluorescence lifetime" or "typical fluorescence lifetime".
In addition, the fluorescence decays of these phantoms were measured with a time-resolved fluorescence spectroscopy system and the average fluorescence lifetime was retrieved for comparison with that of other fluorescent dyes of biological importance.
In our case, the average fluorescence lifetime differs by only 0.0508 ns, and the decay curve remains almost unchanged.
Each pulse is digitized and used in algorithms to extract an average fluorescence lifetime inherent in the signal.
As indicated in Table 2, the average fluorescence lifetime of Trp-214 decreased slightly with increasing patulin concentration.
As the FPD only represents the average fluorescence lifetime, it is limited to the approximation of single-exponential fluorescence decay theory.
The methodology of nFLIC involves approximating the average fluorescence lifetime by performing signal processing on standard photodetector-based, correlated, and digitized fluorescence and scattering signals.
With the numerous measurements, the average fluorescence lifetimes in different cases were determined.
The average fluorescence lifetimes of uninfected cohorts was 270±30 ps (mean±SD; N = 45).
The average fluorescence lifetimes of uninfected cohorts was 270±30 ps (N = 43), and of IRBCs with ring-stage parasites was 267±13 ps (N = 10).
The analysis of the average fluorescence lifetimes (eq. S6) indicated a significant reduction in [Hb] (data not shown), but did not provide the necessary spatial resolution.
The average fluorescence lifetimes are shown in Fig. 4A: the fluorescence lifetime of calcein in the absence of hemoglobin was 4080±10 ps and the [Hb]-dependent quenching of calcein appeared to be consistent with the proposed model (eq. S2).
