% Last edited 28 Jun 2024  S.Poulos
%  in prep for PacIOOS first leg 
% Establishes glider calibration constants.

% This file is an example as well as documentation.
% Lines prefixed with %PARAM are parameters - remove "%PARAM " to enable
% Note - this file MUST be changed apprpriately for your vehicle and mission

% basic glider and mission params   - Latest flight model doesn't utilize
   volmax=51719;% cc
   rho0=1027.500;% kg/m3

   hd_a=3.83600000E-03;
   hd_b=1.00780000E-02;
   hd_c=9.85000000E-06;

% software limits from cal sheet     ADD IN THIS SECTION for diveplot
    pitch_min_cnts=420;
    pitch_max_cnts=3705;
    roll_min_cnts=160;
    roll_max_cnts=3940;
    vbd_min_cnts=650;
    vbd_max_cnts=3960;
    vbd_cnts_per_cc=-4.07671;

% REQUIRED
id_str = '148';

% REQUIRED
mission_title ='SG148 Mission 17 PacIOOS_1';

% REQUIRED
mass = 53.328; % (kg) scale weight

% Optional
%PARAM mass_comp = 0;

% NOTE:
% FlightModel will supply
%
%  volmax, vbdbias, hd_a, hd_b, hd_c, hd_s, rho0, abs_compress, therm_expan, temp_ref
%
% ignoring any settings here and issue a warning, unless
% --skip_flight_model is set, in which case processing will use these
% variables. To suppress warnings about these variables, insert FM_ignore anywhere in a comment on the same
% line as the variable
% 

%
% Seabird un-pumped CT
%

% REQUIRED - use the correct values from the Seabird cal sheet

    calibcomm=' Serial #: 0141  CAL: 14-Feb-24';%  Serial # and cal date
    t_g=4.40149962e-003;
    t_h=6.41401954e-004;
    t_i=2.58635352e-005;
    t_j=3.20090453e-006;
    c_g=-1.00259394e+000;
    c_h=1.15497614e+000;
    c_i=-1.09989576e-003;
    c_j=1.70943882e-004;
    cpcor =-9.5700000E-08;
    ctcor =3.2500000E-06;
    sbe_cond_freq_min=2.94854E+00;% kHz, from cal for 0 salinity
    sbe_cond_freq_max=7.79840E+00;% kHz, est for greater than 34.53 sal max T
    sbe_temp_freq_min=3.45800E+00;% kHz, from cal for 1 deg T
    sbe_temp_freq_max=6.51500E+00;% kHz, from cal for 32.5 deg T

% % Seabird oxygen cal constants
     comm_oxy_type='0';% spec "SBE_43f" or "Pumped_SBE_43f"q
     calibcomm_oxygen=' Serial #: 0086  CAL: 27-Jan-24';% Serial # and cal date
     Soc=2.4033e-004;
     Foffset=-768.53;
     o_a=-3.0939e-003;
     o_b=1.9715e-004;
     o_c=-2.9538e-006;
     o_e=0.036;
     Tau20=1.54;
     Pcor=0;

%
% Legato CTD
%

% Required
%PARAM sg_ct_type = 4;  % Indicates a legato CTD

%PARAM calibcomm = 'Legato s/n 0041, calibration 25 April 2016';

% Required for Legato as logdev or on the truck
%PARAM legato_sealevel = 10082.0; % Where this is sealevel presure setting.

% Set to 1 to use the Seaglider pressure sensor for CTD corrections
%PARAM legato_use_truck_pressure = 0; 

% For Kongsberg/HII gliders with legato as a logdev device
%PARAM legato_config=191;

% where the values to be logical or'd together are
% channel			flag
% -----------------------------------
% conductivity      0x01        1
% temperature       0x02        2
% pressure          0x04        4
% sea pressure      0x08        8
% depth             0x10        16
% salinity          0x20        32
% counts            0x40        64
% cond cell temp    0x80       128

% Misc legato settings

% ignore any legato columns from the truck
%PARAM ignore_truck_legato = 1; 

% Optode
% % Aanderaa 3830 cal constants
%     comm_oxy_type = ' AA3830 ';  % type and model
%     calibcomm_optode = ' Serial #: 21  CAL: 28-Mar-2017 '; % serial # and cal date
%
%    Swapped out s/n 21 flakey to sg626 s/n 596 for PacIOOS May2024
     comm_oxy_type=' AA4831 '; % make and model e.g. AA4831 or AA4330
     calibcomm_optode=' SN: 596  CAL: 10-Mar-2016 ';%  Serial # and cal date

     optode_PhaseCoef0=-1.36000E-01;
     optode_PhaseCoef1=1.00000E+00;
     optode_PhaseCoef2=0.0;
     optode_PhaseCoef3=0.0;

     optode_FoilCoefA0=-3.176837E-06;
     optode_FoilCoefA1=-6.413872E-06;
     optode_FoilCoefA2=1.743939E-03;
     optode_FoilCoefA3=-1.904569E-01;
     optode_FoilCoefA4=7.106918E-04;
     optode_FoilCoefA5=-5.010922E-07;
     optode_FoilCoefA6=1.056089E+01;
     optode_FoilCoefA7=-6.135393E-02;
     optode_FoilCoefA8=1.165880E-04;
     optode_FoilCoefA9=-3.871131E-07;
     optode_FoilCoefA10=-3.042181E+02;
     optode_FoilCoefA11=2.469668E+00;
     optode_FoilCoefA12=-7.050199E-03;
     optode_FoilCoefA13=-2.616267E-05;

     optode_FoilCoefB0=9.131562E-07;
     optode_FoilCoefB1=3.768247E+03;
     optode_FoilCoefB2=-4.024900E+01;
     optode_FoilCoefB3=1.506045E-01;
     optode_FoilCoefB4=1.097636E-03;
     optode_FoilCoefB5=-1.384983E-05;
     optode_FoilCoefB6=-3.184898E-07;
     optode_FoilCoefB7=0.0;
     optode_FoilCoefB8=0.0;
     optode_FoilCoefB9=0.0;
     optode_FoilCoefB10=0.0;
     optode_FoilCoefB11=0.0;
     optode_FoilCoefB12=0.0;
     optode_FoilCoefB13=0.0;

% % Aanderaa cal constants
%     comm_oxy_type=' AA4831 '; make and model e.g. AA4831 or AA4330
%     calibcomm_optode=' SN: 332  CAL: 13-Feb-2014 ';%  Serial # and cal date
% 
%     optode_PhaseCoef0=0.0;
%     optode_PhaseCoef1=1.0;
%     optode_PhaseCoef2=0.0;
%     optode_PhaseCoef3=0.0;
% 
%     optode_FoilCoefA0=-2.988314E-06;
%     optode_FoilCoefA1=-6.137785E-06;
%     optode_FoilCoefA2=0.001684659;
%     optode_FoilCoefA3=-0.1857173;
%     optode_FoilCoefA4=0.0006784399;
%     optode_FoilCoefA5=-5.597908E-07;
%     optode_FoilCoefA6=10.40158;
%     optode_FoilCoefA7=-0.05986907;
%     optode_FoilCoefA8=0.0001360425;
%     optode_FoilCoefA9=-4.776977E-07;
%     optode_FoilCoefA10=-303.2937;
%     optode_FoilCoefA11=2.530496;
%     optode_FoilCoefA12=-0.01267045;
%     optode_FoilCoefA13=0.0001040454;
% 
%     optode_FoilCoefB0=-3.56039E-07;
%     optode_FoilCoefB1=3816.713;
%     optode_FoilCoefB2=-44.75507;
%     optode_FoilCoefB3=0.4386164;
%     optode_FoilCoefB4=-0.007146342;
%     optode_FoilCoefB5=8.906236E-05;
%     optode_FoilCoefB6=-6.343012E-07;
%     optode_FoilCoefB7=0.0;
%     optode_FoilCoefB8=0.0;
%     optode_FoilCoefB9=0.0;
%     optode_FoilCoefB10=0.0;
%     optode_FoilCoefB11=0.0;
%     optode_FoilCoefB12=0.0;
%     optode_FoilCoefB13=0.0;

%
% Wetlabs
%

% iRobot/Kongsberg/HII followed differnt naming conventions for wetlabs column names.  If wetlabs data is to
% be propagated to the netcdf file, the columns must be remapped per the basestation system of naming
% See the list below for the canonical instrument names and calibration constant names
%

%PARAM remap_wetlabs_eng_cols="oldval1:newval1,oldval2:newval2"

% Note - in the "oldval", any "." should be converted to "_".
% So, if the column in the .eng file is "wlbb2fl.BB1ref", use "wlbb2fl_BB1ref" as value for the oldval.

% Example
% remap_wetlabs_eng_cols = "wlbbfl2_BB1ref:wlbbfl2_ref700nm,wlbbfl2_BB1sig:wlbbfl2_sig700nm,wlbbfl2_FL1ref:wlbbfl2_ref695nm,wlbbfl2_FL1sig:wlbbfl2_sig695nm,wlbbfl2_FL2ref:wlbbfl2_ref460nm,wlbbfl2_FL2sig:wlbbfl2_sig460nm" 
% where the channels are 700nm, Chl and CDOM
%
%   Last test 1 Jul 2024 showed this in *.dat
%        470nm                           700nm                               Chloro - 695      & 2nd bbfl2,  ref  0nm   1016nm   166nm (not really reading nm - just place holder)
%,wlbb2fl.BB1ref, wlbb2fl.BB1sig,  wlbb2fl.BB2ref,  wlbb2fl.BB2sig,  wlbb2fl.FL1ref, wlbb2fl.FL1sig,  wlbb2fl.temp, \  
%        wlbbfl2.BB1ref,wlbbfl2.BB1sig,wlbbfl2.FL1ref,wlbbfl2.FL1sig,wlbbfl2.FL2ref,wlbbfl2.FL2sig,wlbbfl2.temp

%remap_wetlabs_eng_cols="wlbb2fl_BB1ref:wlbb2fl_ref470nm,wlbb2fl_BB1sig:wlbb2fl_sig470nm,wlbb2fl_BB2ref:wlbb2fl_ref700nm,wlbb2fl_BB2sig:wlbb2fl_sig700nm,wlbb2fl_FL1ref:wlbb2fl_ref695nm,wlbb2fl_FL1sig:wlbb2fl_sig695nm,wlbb2fl_temp:wlbb2fl_temp,wlbbfl2_BB1ref:wlbbfl2_ref650nm,wlbbfl2_BB1sig:wlbbfl2_sig650nm,wlbbfl2_FL1ref:wlbbfl2_ref1016nm,wlbbfl2_FL1sig:wlbbfl2_sig1016nm,wlbbfl2_FL2ref:wlbbfl2_ref166nm,wlbbfl2_FL2sig:wlbbfl2_sig166nm,wlbbfl2_temp:wlbbfl2_temp"

% If present, the basestation will add additional columns to apply the "standard" correction to
% the wetlabs data per the cal sheet. Format for these entries is:
%
% <instrument>_<channelname>_dark_counts = <dark_counts>;
% <instrument>_<channelname>_max_counts = <max_counts>;
% <instrument>_<channelname>_resolution_counts = <resolution_counts>;
% <instrument>_<channelname>_scale_factor = <scale_factor>;

% Example

% wlbbfl2_sig695nm_dark_counts = 49.0;
% wlbbfl2_sig695nm_max_counts = 4130.0;
% wlbbfl2_sig695nm_resolution_counts = 1.0;
% wlbbfl2_sig695nm_scale_factor = 0.0121;

% Here is the complete list of canonical names and associated calibration constants for WETLabs instruments

%   WETLabs wlbb2fl calibration constants.
WETLabsCalData_wlbb2fl_calinfo = ' SN: BB2FLVMT-1016, CAL: 07-Jun-2017 ';

    % Backscattering cal constants - wavelength 470
wlbb2fl_sig470nm_dark_counts = 48.0; % For blue scattering channel
wlbb2fl_sig470nm_scale_factor = 1.348E-05; % For blue scattering channel
wlbb2fl_sig470nm_resolution_counts = 1.0; % For blue scattering channel
wlbb2fl_sig470nm_max_counts = 0.0; % For blue scattering channel
%
     % Backscattering cal constants - wavelength 700
wlbb2fl_sig700nm_dark_counts = 48.0; % For red scattering channel
wlbb2fl_sig700nm_scale_factor = 3.454E-06; % For red scattering channel
wlbb2fl_sig700nm_resolution_counts = 1.2; % For red scattering channel
wlbb2fl_sig700nm_max_counts = 0.0; % For red scattering channel

     % Chlorophyll cal constants
wlbb2fl_sig695nm_dark_counts = 47; % For chlorophyll fluorescence channel
wlbb2fl_sig695nm_scale_factor = 1.2500E-02; % For chlorophyll fluorescence channel
wlbb2fl_sig695nm_resolution_counts = 1.2; % For chlorophyll fluorescence channel
wlbb2fl_sig695nm_max_counts = 4130.0; % For chlorophyll fluorescence channel
wlbb2fl_sig695nm_caltemp = 22.3; % For chlorophyll fluorescence channel

%PARAM wlbb2fl_sig532nm_dark_counts = 0.0; % For green scattering channel
%PARAM wlbb2fl_sig532nm_scale_factor = 0.0; % For green scattering channel
%PARAM wlbb2fl_sig532nm_resolution_counts = 0.0; % For green scattering channel
%PARAM wlbb2fl_sig532nm_max_counts = 0.0; % For green scattering channel
%PARAM wlbb2fl_sig880nm_dark_counts = 0.0; % For infrared scattering channel
%PARAM wlbb2fl_sig880nm_scale_factor = 0.0; % For infrared scattering channel
%PARAM wlbb2fl_sig880nm_resolution_counts = 0.0; % For infrared scattering channel
%PARAM wlbb2fl_sig880nm_max_counts = 0.0; % For infrared scattering channel
%PARAM wlbb2fl_sig460nm_dark_counts = 0.0; % For CDOM fluorescence channel
%PARAM wlbb2fl_sig460nm_scale_factor = 0.0; % For CDOM fluorescence channel
%PARAM wlbb2fl_sig460nm_resolution_counts = 0.0; % For CDOM fluorescence channel
%PARAM wlbb2fl_sig460nm_max_counts = 0.0; % For CDOM fluorescence channel
%PARAM wlbb2fl_sig530nm_dark_counts = 0.0; % For uranine fluorescence channel
%PARAM wlbb2fl_sig530nm_scale_factor = 0.0; % For uranine fluorescence channel
%PARAM wlbb2fl_sig530nm_resolution_counts = 0.0; % For uranine fluorescence channel
%PARAM wlbb2fl_sig530nm_max_counts = 0.0; % For uranine fluorescence channel
%PARAM wlbb2fl_sig570nm_dark_counts = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlbb2fl_sig570nm_scale_factor = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlbb2fl_sig570nm_resolution_counts = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlbb2fl_sig570nm_max_counts = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlbb2fl_sig680nm_dark_counts = 0.0; % For phycocyanin fluorescence channel
%PARAM wlbb2fl_sig680nm_scale_factor = 0.0; % For phycocyanin fluorescence channel
%PARAM wlbb2fl_sig680nm_resolution_counts = 0.0; % For phycocyanin fluorescence channel
%PARAM wlbb2fl_sig680nm_max_counts = 0.0; % For phycocyanin fluorescence channel

% % % % % %   2nd Wetlabs  

WETLabsCalData_wlbbfl2_calinfo = ' SN: BBFL2VMT-402, CAL: 19-Jul-2017 ';

       % Backscattering cal constants - wavelength 650
wlbbfl2_sig650nm_dark_counts = 55.0; % For red scattering channel 
wlbbfl2_sig650nm_scale_factor = 4.444E-06; % For red scattering channel 
wlbbfl2_sig650nm_resolution_counts = 1.0; % For red scattering channel 
wlbbfl2_sig650nm_max_counts = 0.0; % For For red scattering channel 

        % CDOM cal constants  (for 460nm CDOM fluoroescence)
wlbbfl2_sig460nm_dark_counts = 55.0; % For CDOM fluorescence channel
wlbbfl2_sig460nm_scale_factor = 1.088E-01; % For CDOM fluorescence channel
wlbbfl2_sig460nm_resolution_counts = 2.4; % For CDOM fluorescence channel
wlbbfl2_sig460nm_max_counts = 4124.0; % For CDOM fluorescence channel
wlbbfl2_sig460nm_caltemp = 23.8; % For CDOM temp calibration channel

       % Chlorophyll cal constants
wlbbfl2_sig695nm_dark_counts = 40.0; % For chlorophyll fluorescence channel
wlbbfl2_sig695nm_scale_factor = 1.0900E-02; % For chlorophyll fluorescence channel
wlbbfl2_sig695nm_resolution_counts = 1.7; % For chlorophyll fluorescence channel
wlbbfl2_sig695nm_max_counts = 4130.0; % For chlorophyll fluorescence channel
wlbbfl2_sig695nm_caltemp = 23.8; % For chlorophyll fluorescence channel

%PARAM wlbbfl2_sig470nm_dark_counts = 0.0; % For blue scattering channel
%PARAM wlbbfl2_sig470nm_scale_factor = 0.0; % For blue scattering channel
%PARAM wlbbfl2_sig470nm_resolution_counts = 0.0; % For blue scattering channel
%PARAM wlbbfl2_sig470nm_max_counts = 0.0; % For blue scattering channel
%PARAM wlbbfl2_sig532nm_dark_counts = 0.0; % For green scattering channel
%PARAM wlbbfl2_sig532nm_scale_factor = 0.0; % For green scattering channel
%PARAM wlbbfl2_sig532nm_resolution_counts = 0.0; % For green scattering channel
%PARAM wlbbfl2_sig532nm_max_counts = 0.0; % For green scattering channel
%PARAM wlbbfl2_sig700nm_dark_counts = 0.0; % For red scattering channel
%PARAM wlbbfl2_sig700nm_scale_factor = 0.0; % For red scattering channel
%PARAM wlbbfl2_sig700nm_resolution_counts = 0.0; % For red scattering channel
%PARAM wlbbfl2_sig700nm_max_counts = 0.0; % For red scattering channel
%PARAM wlbbfl2_sig880nm_dark_counts = 0.0; % For infrared scattering channel
%PARAM wlbbfl2_sig880nm_scale_factor = 0.0; % For infrared scattering channel
%PARAM wlbbfl2_sig880nm_resolution_counts = 0.0; % For infrared scattering channel
%PARAM wlbbfl2_sig880nm_max_counts = 0.0; % For infrared scattering channel
%PARAM wlbbfl2_sig530nm_dark_counts = 0.0; % For uranine fluorescence channel
%PARAM wlbbfl2_sig530nm_scale_factor = 0.0; % For uranine fluorescence channel
%PARAM wlbbfl2_sig530nm_resolution_counts = 0.0; % For uranine fluorescence channel
%PARAM wlbbfl2_sig530nm_max_counts = 0.0; % For uranine fluorescence channel
%PARAM wlbbfl2_sig570nm_dark_counts = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlbbfl2_sig570nm_scale_factor = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlbbfl2_sig570nm_resolution_counts = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlbbfl2_sig570nm_max_counts = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlbbfl2_sig680nm_dark_counts = 0.0; % For phycocyanin fluorescence channel
%PARAM wlbbfl2_sig680nm_scale_factor = 0.0; % For phycocyanin fluorescence channel
%PARAM wlbbfl2_sig680nm_resolution_counts = 0.0; % For phycocyanin fluorescence channel
%PARAM wlbbfl2_sig680nm_max_counts = 0.0; % For phycocyanin fluorescence channel

%  3rd type of Wetlabs ECO Puck
%PARAM wlbb3_sig470nm_dark_counts = 0.0; % For blue scattering channel
%PARAM wlbb3_sig470nm_scale_factor = 0.0; % For blue scattering channel
%PARAM wlbb3_sig470nm_resolution_counts = 0.0; % For blue scattering channel
%PARAM wlbb3_sig470nm_max_counts = 0.0; % For blue scattering channel
%PARAM wlbb3_sig532nm_dark_counts = 0.0; % For green scattering channel
%PARAM wlbb3_sig532nm_scale_factor = 0.0; % For green scattering channel
%PARAM wlbb3_sig532nm_resolution_counts = 0.0; % For green scattering channel
%PARAM wlbb3_sig532nm_max_counts = 0.0; % For green scattering channel
%PARAM wlbb3_sig700nm_dark_counts = 0.0; % For red scattering channel
%PARAM wlbb3_sig700nm_scale_factor = 0.0; % For red scattering channel
%PARAM wlbb3_sig700nm_resolution_counts = 0.0; % For red scattering channel
%PARAM wlbb3_sig700nm_max_counts = 0.0; % For red scattering channel
%PARAM wlbb3_sig880nm_dark_counts = 0.0; % For infrared scattering channel
%PARAM wlbb3_sig880nm_scale_factor = 0.0; % For infrared scattering channel
%PARAM wlbb3_sig880nm_resolution_counts = 0.0; % For infrared scattering channel
%PARAM wlbb3_sig880nm_max_counts = 0.0; % For infrared scattering channel
%PARAM wlbb3_sig460nm_dark_counts = 0.0; % For CDOM fluorescence channel
%PARAM wlbb3_sig460nm_scale_factor = 0.0; % For CDOM fluorescence channel
%PARAM wlbb3_sig460nm_resolution_counts = 0.0; % For CDOM fluorescence channel
%PARAM wlbb3_sig460nm_max_counts = 0.0; % For CDOM fluorescence channel
%PARAM wlbb3_sig530nm_dark_counts = 0.0; % For uranine fluorescence channel
%PARAM wlbb3_sig530nm_scale_factor = 0.0; % For uranine fluorescence channel
%PARAM wlbb3_sig530nm_resolution_counts = 0.0; % For uranine fluorescence channel
%PARAM wlbb3_sig530nm_max_counts = 0.0; % For uranine fluorescence channel
%PARAM wlbb3_sig570nm_dark_counts = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlbb3_sig570nm_scale_factor = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlbb3_sig570nm_resolution_counts = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlbb3_sig570nm_max_counts = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlbb3_sig680nm_dark_counts = 0.0; % For phycocyanin fluorescence channel
%PARAM wlbb3_sig680nm_scale_factor = 0.0; % For phycocyanin fluorescence channel
%PARAM wlbb3_sig680nm_resolution_counts = 0.0; % For phycocyanin fluorescence channel
%PARAM wlbb3_sig680nm_max_counts = 0.0; % For phycocyanin fluorescence channel
%PARAM wlbb3_sig695nm_dark_counts = 0.0; % For chlorophyll fluorescence channel
%PARAM wlbb3_sig695nm_scale_factor = 0.0; % For chlorophyll fluorescence channel
%PARAM wlbb3_sig695nm_resolution_counts = 0.0; % For chlorophyll fluorescence channel
%PARAM wlbb3_sig695nm_max_counts = 0.0; % For chlorophyll fluorescence channel
%PARAM wlfl3_sig470nm_dark_counts = 0.0; % For blue scattering channel
%PARAM wlfl3_sig470nm_scale_factor = 0.0; % For blue scattering channel
%PARAM wlfl3_sig470nm_resolution_counts = 0.0; % For blue scattering channel
%PARAM wlfl3_sig470nm_max_counts = 0.0; % For blue scattering channel
%PARAM wlfl3_sig532nm_dark_counts = 0.0; % For green scattering channel
%PARAM wlfl3_sig532nm_scale_factor = 0.0; % For green scattering channel
%PARAM wlfl3_sig532nm_resolution_counts = 0.0; % For green scattering channel
%PARAM wlfl3_sig532nm_max_counts = 0.0; % For green scattering channel
%PARAM wlfl3_sig700nm_dark_counts = 0.0; % For red scattering channel
%PARAM wlfl3_sig700nm_scale_factor = 0.0; % For red scattering channel
%PARAM wlfl3_sig700nm_resolution_counts = 0.0; % For red scattering channel
%PARAM wlfl3_sig700nm_max_counts = 0.0; % For red scattering channel
%PARAM wlfl3_sig880nm_dark_counts = 0.0; % For infrared scattering channel
%PARAM wlfl3_sig880nm_scale_factor = 0.0; % For infrared scattering channel
%PARAM wlfl3_sig880nm_resolution_counts = 0.0; % For infrared scattering channel
%PARAM wlfl3_sig880nm_max_counts = 0.0; % For infrared scattering channel
%PARAM wlfl3_sig460nm_dark_counts = 0.0; % For CDOM fluorescence channel
%PARAM wlfl3_sig460nm_scale_factor = 0.0; % For CDOM fluorescence channel
%PARAM wlfl3_sig460nm_resolution_counts = 0.0; % For CDOM fluorescence channel
%PARAM wlfl3_sig460nm_max_counts = 0.0; % For CDOM fluorescence channel
%PARAM wlfl3_sig530nm_dark_counts = 0.0; % For uranine fluorescence channel
%PARAM wlfl3_sig530nm_scale_factor = 0.0; % For uranine fluorescence channel
%PARAM wlfl3_sig530nm_resolution_counts = 0.0; % For uranine fluorescence channel
%PARAM wlfl3_sig530nm_max_counts = 0.0; % For uranine fluorescence channel
%PARAM wlfl3_sig570nm_dark_counts = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlfl3_sig570nm_scale_factor = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlfl3_sig570nm_resolution_counts = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlfl3_sig570nm_max_counts = 0.0; % For phycoerythrin/rhodamine fluorescence channel
%PARAM wlfl3_sig680nm_dark_counts = 0.0; % For phycocyanin fluorescence channel
%PARAM wlfl3_sig680nm_scale_factor = 0.0; % For phycocyanin fluorescence channel
%PARAM wlfl3_sig680nm_resolution_counts = 0.0; % For phycocyanin fluorescence channel
%PARAM wlfl3_sig680nm_max_counts = 0.0; % For phycocyanin fluorescence channel
%PARAM wlfl3_sig695nm_dark_counts = 0.0; % For chlorophyll fluorescence channel
%PARAM wlfl3_sig695nm_scale_factor = 0.0; % For chlorophyll fluorescence channel
%PARAM wlfl3_sig695nm_resolution_counts = 0.0; % For chlorophyll fluorescence channel
%PARAM wlfl3_sig695nm_max_counts = 0.0; % For chlorophyll fluorescence channel

