Pan-European infrastructure for ocean & marine data management

P01 Vocabulary - Facet Search on Semantic Components

P01 Vocabulary - Facet Search on Semantic Components

The P01 Parameter Usage Vocabulary is based on a semantic model. This model uses a defined set of controlled vocabularies (the semantic components). The Facet Search below facilitates you to search for specific existing P01 terms using components for drilling down.

Are you missing specific P01 terms in the vocabulary, then you can compose and submit new terms for review and uptake using the P01 Vocabulary Builder tool.

Conceptid (36)Preflabel
CMFLFR01Maximum in-vivo fluorescence (chlorophyll) {Fm} of the water body by in-situ fast repetition rate fluorometer (FRRF) and derivation from the raw data from the dark chamber
CMFLFR02Maximum in-vivo fluorescence (chlorophyll) {Fm} of the water body by in-situ fast repetition rate fluorometer (FRRF) and derivation from the raw data from the light chamber
CMFLPP01Maximum in-vivo fluorescence (chlorophyll) of the water body by in-situ pump and probe chlorophyll fluorometer
COFLFR01Minimum in-vivo fluorescence (chlorophyll) {Fo} of the water body by in-situ fast repetition rate fluorometer (FRRF) and derivation from the raw data from the dark chamber
COFLFR02Minimum in-vivo fluorescence (chlorophyll) {Fo} of the water body by in-situ fast repetition rate fluorometer (FRRF) and derivation from the raw data from the light chamber
COFLPP01Constant in-vivo fluorescence (chlorophyll) of the water body by in-situ pump and probe chlorophyll fluorometer
FMFIRB01Maximum in-vivo fluorescence (chlorophyll) {Fm} of the water body by fluorescence induction and relaxation (FIRe) fluorometer and derivation from the blank-corrected raw data from the dark chamber
FMMAXD01Maximum in-vivo fluorescence (chlorophyll) {Fm} of the water body by in-situ fast repetition rate fluorometer (FRRF) and derivation from the blank-corrected raw data from the dark chamber
FMMAXI01Maximum in-vivo fluorescence (chlorophyll) {Fm} of the water body by bench fast repetition rate fluorometer (FRRF) and derivation from the raw data from the dark chamber
FMMAXIBLMaximum in-vivo fluorescence (chlorophyll) {Fm} of the water body by bench fast repetition rate fluorometer (FRRF) and derivation from the blank-corrected raw data from the dark chamber
FMMAXL01Maximum in-vivo fluorescence (chlorophyll) {Fm} of the water body by in-situ fast repetition rate fluorometer (FRRF) and derivation from the blank-corrected raw data from the light chamber
FOFIRB01Minimum in-vivo fluorescence (chlorophyll) {Fo} of the water body by fluorescence induction and relaxation (FIRe) fluorometer and derivation from the blank-corrected raw data from the dark chamber
FOMIND01Minimum in-vivo fluorescence (chlorophyll) {Fo} of the water body by in-situ fast repetition rate fluorometer (FRRF) and derivation from the blank-corrected raw data from the dark chamber
FOMINI01Minimum in-vivo fluorescence (chlorophyll) {Fo} of the water body by bench fast repetition rate fluorometer (FRRF) and derivation from the raw data from the dark chamber
FOMINIBLMinimum in-vivo fluorescence (chlorophyll) {Fo} of the water body by bench fast repetition rate fluorometer (FRRF) and derivation from the blank-corrected raw data from the dark chamber
FOMINL01Minimum in-vivo fluorescence (chlorophyll) {Fo} of the water body by in-situ fast repetition rate fluorometer (FRRF) and derivation from the blank-corrected raw data from the light chamber
FVFMFIR1Photochemical quantum efficiency {Fv/Fm} in the water body by fluorescence induction and relaxation (FIRe) fluorometer and calculation from Fm and Fo fluorescence yields from the dark chamber
FVFMFIRXPhotochemical quantum efficiency {Fv/Fm} in the water body by fluorescence induction and relaxation (FIRe) fluorometer and calculation from blank-corrected Fm and Fo fluorescence yields from the dark chamber
FVFMFR01Photochemical quantum efficiency {Fv/Fm or Phi} in the water body by in-situ fast repetition rate fluorometer (FRRF) and calculation from Fm and Fo fluorescence yields from the dark chamber
FVFMFR02Photochemical quantum efficiency {Fv/Fm or Phi} in the water body by in-situ fast repetition rate fluorometer (FRRF) and calculation from Fm and Fo fluorescence yields from the light chamber
FVFMFR03Photochemical quantum efficiency {Fv/Fm} in the water body by in-situ fast repetition rate fluorometer (FRRF) and calculation from blank-corrected Fm and Fo fluorescence yields from the light chamber
FVFMFR04Photochemical quantum efficiency {Fv/Fm} in the water body by in-situ fast repetition rate fluorometer (FRRF) and calculation from blank-corrected Fm and Fo fluorescence yields from the dark chamber
FVFMMI01Photochemical quantum efficiency {Fv/Fm} in the water body by bench fast repetition rate fluorometer (FRRF) and calculation from Fm and Fo fluorescence yields from the dark chamber
FVFMMIBLPhotochemical quantum efficiency {Fv/Fm} in the water body by bench fast repetition rate fluorometer (FRRF) and calculation from blank-corrected Fm and Fo fluorescence yields from the dark chamber