Phytoplankton photosynthetic physiology can be investigated through single-turnover
variable chlorophyll fluorescence (ST-ChlF) approaches, which carry unique potential to …

The uptake and application of single turnover chlorophyll fluorometers to the study of
phytoplankton ecosystem status and microbial functions has grown considerably in the last …

A three‐channel excitation (435 nm, 470 nm, and 532 nm) Chlorophyll fluorometer (695 nm
emission) was calibrated and characterized to improve uncertainty in estimated in situ …

Photosystem II (PSII) photochemistry is the ultimate source of reducing power for
phytoplankton primary productivity (PhytoPP). Single turnover active chlorophyll fluorometry …

Different methods for the determination of the maximum and the effective quantum efficiency
of photochemistry using variable chlorophyll a (Chl-a) fluorescence (pump and probe [P&P] …

Phytoplankton photosynthesis links global ocean biology and climate-driven fluctuations in
the physical environment. These interactions are largely expressed through changes in …

In situ fluorometers are the optimal means of providing high-frequency estimates of
phytoplankton communities. However, they may be subjected to measurement biases …

The ocean is optically thin and lends itself to large-scale measurements of in vivo
chlorophyll fluorescence. In the open ocean, however, phytoplankton chlorophyll …

Chlorophyll fluorometry is one of the most commonly implemented approaches for
estimating phytoplankton biomass in situ, despite documented sources of natural variability …

In vivo chlorophyll a fluorescence is a proxy of chlorophyll a concentration, and is one of the
most frequently measured biogeochemical properties in the ocean. Thousands of profiles …