R/stoxFunctionAttributes.R
In StoXProject/RstoxBase: Base StoX Functions
Defines functions
getIndividualNames
isCategorical
isCategorical <- function(x) {
is.character(x) || is.integer(x)
}
defaultPlotGeneralOptions <- list(
# Options for the labels and other text:
AxisTitleSize = 12,
AxisTickSize = 10,
LegendTitleSize = 12,
LegendTextSize = 10
)
defaultPlotFileOptions <- list(
# Options for the output file:
Format = "png",
# Using the ICES Journal og Marine Science recommendations (https://academic.oup.com/icesjms/pages/General_Instructions):
Width = 17,
Height = 10,
DotsPerInch = 500
)
defaultMapPlotOptions <- list(
# Options for the zoom and limits:
Zoom = 1,
LongitudeCenter = 0.5,
LatitudeCenter = 0.5,
LandColor = "#FDFECC", # rgb(253, 254, 204, maxColorValue = 255), as specified in the StoX GUI
BorderColor = "grey50",
OceanColor = "white",
GridColor = "#DFF2FF"# rgb(223, 242, 255, maxColorValue = 255), as specified in the StoX GUI
)
defaultMapPlotNASCOptions <- list(
# Options for the colors:
#PointColor = function(x) {
# if(isCategorical(x$SumNASCData$Data[[x$ColorVariable]])) {
# PointColor <- character()
# }
# else {
# PointColor <- "combined.color"
# }
# return(PointColor)
#},
# Use black vessel track:
TrackColor = "black",
# Options for the point sizes and shapes:
MaxPointSize = 10,
MinPointSize = 0.5,
TrackSize = 0.5
)
defaultAcousticPSUPlotOptions <- list(
# Options for AcousticPSU:
AcousticPSULabelSize = 4,
AcousticPSULabelColor = "black",
AcousticPSULabelPosition = "mean",
AcousticPSULabelHjust = 0.5,
AcousticPSULabelVjust = 0.5
)
#defaultStratumPolygonPlotOptions <- list(
# StratumPolygonColor = character(),
# StratumPolygonLabelSize = numeric(),
# StratumPolygonLabelColor = character(),
#)
defaultColorVariableOptions <- list(
ColorVariable = "NASC"
)
getIndividualNames <- function(SuperIndividualsData, remove = NULL, tables = c("Individual", "SpeciesCategory"), removeKeys = TRUE) {
individualNames <- unlist(attr(SuperIndividualsData, "stoxDataVariableNames")[tables])
if(removeKeys) {
individualNames <- individualNames[!endsWith(individualNames, "Key")]
}
# Remove the unique Individual ID:
individualNames <- setdiff(individualNames, "Individual")
# Remove the variables selected as remove:
individualNames <- setdiff(individualNames, remove)
return(individualNames)
}
#' A list of the attributes of the exported StoX functions:
#' The format describes the actual content, such as catchabilityTable, filePath, filter, etc. These are used by StoX to choose action on these parameters.
#' The primitive type (one of integer, double, logical, character) will be interpreted in the process property functions from the type of the function input or parameter.
#'
#' @export
#'
stoxFunctionAttributes <- list(
##### Survey: #####
DefineSurvey = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "Survey",
functionParameterFormat = list(
SurveyTable = "surveyTable",
FileName = "filePath"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
SurveyTable = list(
UseProcessData = FALSE,
DefinitionMethod = "Table"
),
FileName = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
)#,
# # StratumPolygon is shown in the GUI either if DefinitionMethod is "AllStrata" or "Table":
# StratumPolygon = list(
# UseProcessData = FALSE,
# DefinitionMethod = "AllStrata"
# ),
# StratumPolygon = list(
# UseProcessData = FALSE,
# DefinitionMethod = "Table"
# )
)
),
##########
##### Stratum polygons: #####
DefineStratumPolygon = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "StratumPolygon",
functionParameterFormat = list(
FileName = "filePath"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
# These two are joined with AND, and must both be fulfilled:
FileName = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
),
StratumNameLabel = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
),
SimplifyStratumPolygon = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
),
SimplificationFactor = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile",
SimplifyStratumPolygon = TRUE
)
)
),
StratumArea = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "StratumAreaData"
),
##########
##### PSUs: #####
DefineAcousticPSU = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "AcousticPSU",
functionParameterFormat = list(
FileName = "filePath"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
# Require UseProcessData = FALSE OR UseProcessData = TRUE and SavePSUByTime = TRUE for StoxAcousticData to show:
#StoxAcousticData = list(
# UseProcessData = FALSE
#),
#StoxAcousticData = list(
# UseProcessData = TRUE,
# SavePSUByTime = TRUE
#),
StratumPolygon = list(
UseProcessData = FALSE,
DefinitionMethod = "EDSUToPSU"
),
#IntervalVariable = list(
# UseProcessData = FALSE,
# DefinitionMethod = "Interval"
#),
#Interval = list(
# UseProcessData = FALSE,
# DefinitionMethod = "Interval"
#),
AcousticPSU = list(
UseProcessData = FALSE,
DefinitionMethod = "PreDefined"
),
FileName = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
)
)
),
#ExtractAcousticPSUByTime = list(
# functionType = "modelData",
# functionCategory = "baseline",
# functionOutputDataType = "AcousticPSUByTime"
#),
#BioticPSUByTime = list(
# functionType = "modelData",
# functionCategory = "baseline",
# functionOutputDataType = "AcousticPSUByTime"
#),
#DefineAcousticPSUFromPSUByTime = list(
# functionType = "modelData",
# functionCategory = "baseline",
# functionOutputDataType = "AcousticPSU"
#),
DefineBioticPSU = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "BioticPSU",
functionParameterFormat = list(
FileName = "filePath"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
StratumPolygon = list(
UseProcessData = FALSE,
DefinitionMethod = "StationToPSU"
),
FileName = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
)
)
),
##########
##### Layers: #####
DefineAcousticLayer = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "AcousticLayer",
functionParameterFormat = list(
LayerTable = "layerTable"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
# These two are joined with AND, and must both be fulfilled:
Resolution = list(
UseProcessData = FALSE,
DefinitionMethod = "Resolution"
),
# These two are joined with AND, and must both be fulfilled:
LayerTable = list(
UseProcessData = FALSE,
DefinitionMethod = "Table"
)
)
),
DefineBioticLayer = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "BioticLayer",
functionParameterFormat = list(
LayerTable = "layerTable"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
# These two are joined with AND, and must both be fulfilled:
Resolution = list(
UseProcessData = FALSE,
DefinitionMethod = "Resolution"
),
# These two are joined with AND, and must both be fulfilled:
LayerTable = list(
UseProcessData = FALSE,
DefinitionMethod = "Table"
)
)
),
##########
##### Biotic assignment: #####
DefineBioticAssignment = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "BioticAssignment",
functionParameterFormat = list(
LayerTable = "layerTable",
FileName = "filePath"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
#StoxBioticData = list(
# UseProcessData = FALSE
#),
#AcousticPSU = list(
# UseProcessData = FALSE
#),
LayerDefinition = list(
#UseProcessData = FALSE
),
AcousticLayer = list(
#UseProcessData = FALSE,
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
#UseProcessData = FALSE,
LayerDefinition = "FunctionParameter"
),
Resolution = list(
#UseProcessData = FALSE,
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
#UseProcessData = FALSE,
LayerDefinitionMethod = "Table"
),
#AcousticLayer = list(
# UseProcessData = FALSE
#),
# These two are joined with AND, and must both be fulfilled:
StratumPolygon = list(
UseProcessData = FALSE,
DefinitionMethod = "Stratum"
),
# These two are joined with AND, and must both be fulfilled:
StoxAcousticData = list(
#UseProcessData = FALSE,
DefinitionMethod = c("Radius", "EllipsoidalDistance")
),
StoxAcousticData = list(
#UseProcessData = FALSE,
LayerDefinition = "FunctionParameter"
),
# These two are joined with AND, and must both be fulfilled:
Radius = list(
UseProcessData = FALSE,
DefinitionMethod = "Radius"
),
# These two are joined with AND, and must both be fulfilled:
MinNumberOfHauls = list(
UseProcessData = FALSE,
DefinitionMethod = c("Radius", "EllipsoidalDistance")
),
# These two are joined with AND, and must both be fulfilled:
Distance = list(
UseProcessData = FALSE,
DefinitionMethod = "EllipsoidalDistance"
),
# These two are joined with AND, and must both be fulfilled:
TimeDifference = list(
UseProcessData = FALSE,
DefinitionMethod = "EllipsoidalDistance"
),
# These two are joined with AND, and must both be fulfilled:
BottomDepthDifference = list(
UseProcessData = FALSE,
DefinitionMethod = "EllipsoidalDistance"
),
# These two are joined with AND, and must both be fulfilled:
LongitudeDifference = list(
UseProcessData = FALSE,
DefinitionMethod = "EllipsoidalDistance"
),
# These two are joined with AND, and must both be fulfilled:
LatitudeDifference = list(
UseProcessData = FALSE,
DefinitionMethod = "EllipsoidalDistance"
),
# These two are joined with AND, and must both be fulfilled:
FileName = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
)
)
),
BioticAssignmentWeighting = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "BioticAssignment",
functionParameterFormat = list(
LengthExponent = "lengthExponentTable",
SpeciesLink = "speciesLinkTable_BioticAssignmentWeighting"
),
functionArgumentHierarchy = list(
StoxBioticData = list(
# The WeightingMethod can be any of these:
WeightingMethod = c("NumberOfLengthSamples", "NormalizedTotalWeight", "NormalizedTotalNumber")
),
LengthDistributionData = list(
# The WeightingMethod can be any of these:
WeightingMethod = c("SumWeightedNumber", "InverseSumWeightedNumber", "AcousticDensity")
),
MaxNumberOfLengthSamples = list(
WeightingMethod = c("NumberOfLengthSamples")
),
# Layer:
LayerDefinition = list(
WeightingMethod = c("AcousticDensity")
),
NASCData = list(
WeightingMethod = c("AcousticDensity"),
# The LayerDefinition can be any of these:
LayerDefinition = c(
"FunctionInput",
"FunctionParameter"
)
),
# Layer:
LayerDefinitionMethod = list(
WeightingMethod = c("AcousticDensity"),
LayerDefinition = "FunctionParameter"
),
Resolution = list(
WeightingMethod = c("AcousticDensity"),
LayerDefinition = "FunctionParameter",
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
WeightingMethod = c("AcousticDensity"),
LayerDefinition = "FunctionParameter",
LayerDefinitionMethod = "Table"
),
AcousticLayer = list(
WeightingMethod = c("AcousticDensity"),
LayerDefinition = "FunctionInput"
),
# AcousticDensity:
AcousticPSU = list(
WeightingMethod = c("AcousticDensity")
),
AcousticTargetStrength = list(
WeightingMethod = c("AcousticDensity")
),
SpeciesLink = list(
WeightingMethod = c("AcousticDensity")
),
Radius = list(
WeightingMethod = c("AcousticDensity")
),
MinNumberOfEDSUs = list(
WeightingMethod = c("AcousticDensity")
)
)
),
AssignmentLengthDistribution = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "AssignmentLengthDistributionData"
),
##########
##### Length distribution #####
LengthDistribution = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "LengthDistributionData"
),
RegroupLengthDistribution = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "LengthDistributionData"
),
GearDependentSpeciesCategoryCatchCompensation = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SpeciesCategoryCatchData",
functionParameterFormat = list(
CompensationTable = "gearCompensationTable_SpeciesCategoryCatchData"
)
),
GearDependentLengthDistributionCompensation = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "LengthDistributionData",
functionParameterFormat = list(
CompensationTable = "gearCompensationTable_LengthDistributionData"
)
),
LengthDependentLengthDistributionCompensation = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "LengthDistributionData",
functionParameterFormat = list(
LengthDependentSweepWidthParameters = "catchCompensationTable",
LengthDependentSelectivityParameters = "selectivityTable"
),
functionArgumentHierarchy = list(
LengthDependentSweepWidthParameters = list(
CompensationMethod = "LengthDependentSweepWidth"
),
LengthDependentSelectivityParameters = list(
CompensationMethod = "LengthDependentSelectivity"
)
)
),
RelativeLengthDistribution = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "LengthDistributionData"
),
SumLengthDistribution = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SumLengthDistributionData",
functionParameterFormat = list(
LayerTable = "layerTable"
),
functionArgumentHierarchy = list(
# Layer:
BioticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinitionMethod = "Table"
),
LayerProcessData = list(
LayerDefinition = "FunctionInput"
)
)
),
MeanLengthDistribution = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "MeanLengthDistributionData",
functionParameterFormat = list(
LayerTable = "layerTable",
SurveyTable = "surveyTable"
),
functionArgumentHierarchy = list(
# Layer:
LengthDistributionData = list(
# The LayerDefinition can be any of these:
LayerDefinition = c(
"FunctionInput",
"FunctionParameter"
)
),
SumLengthDistributionData = list(
LayerDefinition = "PreDefined"
),
BioticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinitionMethod = "Table"
),
# PSU:
BioticPSU = list(
PSUDefinition = "FunctionInput"
),
PSUDefinitionMethod = list(
PSUDefinition = "FunctionParameter"
),
StratumPolygon = list(
PSUDefinitionMethod = "StationToPSU"
),
StratumPolygon = list(
SurveyDefinitionMethod = "Table"
),
# Survey:
Survey = list(
SurveyDefinition = "FunctionInput"
),
SurveyDefinitionMethod = list(
SurveyDefinition = "FunctionParameter"
),
SurveyTable = list(
SurveyDefinition = "FunctionParameter",
SurveyDefinitionMethod = "Table"
)
)
),
##########
#########
###
### SpeciesCategoryDensity = list(
### functionType = "modelData",
### functionCategory = "baseline",
### functionOutputDataType = "SpeciesCategoryDensityData"
### ),
SpeciesCategoryCatch = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SpeciesCategoryCatchData"
),
#SpeciesCategoryCatch_Old = list(
# functionType = "modelData",
# functionCategory = "baseline",
# functionOutputDataType = "SpeciesCategoryCatchData"
#),
SumSpeciesCategoryCatch = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SumSpeciesCategoryCatchData",
functionParameterFormat = list(
LayerTable = "layerTable"
),
functionArgumentHierarchy = list(
# Layer:
BioticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinitionMethod = "Table"
),
LayerProcessData = list(
LayerDefinition = "FunctionInput"
)
)
),
MeanSpeciesCategoryCatch = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "MeanSpeciesCategoryCatchData",
functionParameterFormat = list(
LayerTable = "layerTable",
SurveyTable = "surveyTable"
),
functionArgumentHierarchy = list(
# Layer:
SpeciesCategoryCatchData = list(
# The LayerDefinition can be any of these:
LayerDefinition = c(
"FunctionInput",
"FunctionParameter"
)
),
SumSpeciesCategoryCatchData = list(
LayerDefinition = "PreDefined"
),
BioticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinitionMethod = "Table"
),
# PSU:
BioticPSU = list(
PSUDefinition = "FunctionInput"
),
PSUDefinitionMethod = list(
PSUDefinition = "FunctionParameter"
),
StratumPolygon = list(
PSUDefinitionMethod = "StationToPSU"
),
StratumPolygon = list(
SurveyDefinitionMethod = "Table"
),
# Survey:
Survey = list(
SurveyDefinition = "FunctionInput"
),
SurveyDefinitionMethod = list(
SurveyDefinition = "FunctionParameter"
),
SurveyTable = list(
SurveyDefinition = "FunctionParameter",
SurveyDefinitionMethod = "Table"
)
)
),
#########
##### NASC: #####
NASC = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "NASCData"
),
SumNASC = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SumNASCData",
functionParameterFormat = list(
LayerTable = "layerTable"
),
functionArgumentHierarchy = list(
AcousticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinitionMethod = "Table"
)
)
),
MeanNASC = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "MeanNASCData",
functionParameterFormat = list(
LayerTable = "layerTable",
SurveyTable = "surveyTable"
),
functionArgumentHierarchy = list(
# Layer:
NASCData = list(
# The LayerDefinition can be any of these:
LayerDefinition = c(
"FunctionInput",
"FunctionParameter"
)
),
SumNASCData = list(
LayerDefinition = "PreDefined"
),
AcousticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinition = "FunctionParameter",
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinition = "FunctionParameter",
LayerDefinitionMethod = "Table"
),
# PSU:
AcousticPSU = list(
PSUDefinition = "FunctionInput"
),
PSUDefinitionMethod = list(
PSUDefinition = "FunctionParameter"
),
StratumPolygon = list(
PSUDefinitionMethod = "EDSUToPSU"
),
StratumPolygon = list(
SurveyDefinitionMethod = "Table"
),
# Survey:
Survey = list(
SurveyDefinition = "FunctionInput"
),
SurveyDefinitionMethod = list(
SurveyDefinition = "FunctionParameter"
),
SurveyTable = list(
SurveyDefinition = "FunctionParameter",
SurveyDefinitionMethod = "Table"
)
)
),
SplitMeanNASC = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "NASCData",
functionParameterFormat = list(
SpeciesLink = "speciesLinkTable_AcousticDensity",
AcousticCategoryLink = "acousticCategoryLinkTable"
)
),
SplitNASC = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "NASCData",
functionParameterFormat = list(
SpeciesLink = "speciesLinkTable_Split",
AcousticCategoryLink = "acousticCategoryLinkTable"
)
),
NASCToStoxAcoustic = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "StoxAcousticData"
),
AppendNASC = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "NASCData"
),
PlotAcousticTrawlSurvey = list(
functionType = "modelData",
functionCategory = "report",
functionOutputDataType = "PlotAcousticTrawlSurveyData",
functionParameterFormat = list(
LayerTable = "layerTable"#,
#PointColor = "pointColor"
),
functionArgumentHierarchy = list(
# Options for the colors:
#ColorVariable = list(
# UseDefaultColorSettings = FALSE
#),
# PointColor cannot have a default, as it depends on whether the ColorVariable is categorical of continuous:
#PointColor = list(
# UseDefaultColorSettings = FALSE
#),
TrackColor = list(
UseDefaultColorSettings = FALSE
),
LandColor = list(
UseDefaultColorSettings = FALSE
),
BorderColor = list(
UseDefaultColorSettings = FALSE
),
OceanColor = list(
UseDefaultColorSettings = FALSE
),
GridColor = list(
UseDefaultColorSettings = FALSE
),
# Options for the point sizes and shapes:
MaxPointSize = list(
UseDefaultSizeSettings = FALSE
),
MinPointSize = list(
UseDefaultSizeSettings = FALSE
),
TrackSize = list(
UseDefaultSizeSettings = FALSE
),
# Options for zoom and limits:
Zoom = list(
UseDefaultAspectSettings = FALSE
),
LongitudeMin = list(
UseDefaultAspectSettings = FALSE
),
LongitudeMax = list(
UseDefaultAspectSettings = FALSE
),
LatitudeMin = list(
UseDefaultAspectSettings = FALSE
),
LatitudeMax = list(
UseDefaultAspectSettings = FALSE
),
LongitudeCenter = list(
UseDefaultAspectSettings = FALSE
),
LatitudeCenter = list(
UseDefaultAspectSettings = FALSE
),
# Options for the labels and other text:
Title = list(
UseDefaultTextSettings = FALSE
),
AxisTitleSize = list(
UseDefaultTextSettings = FALSE
),
AxisTickSize = list(
UseDefaultTextSettings = FALSE
),
LegendTitleSize = list(
UseDefaultTextSettings = FALSE
),
LegendTextSize = list(
UseDefaultTextSettings = FALSE
),
# Options for the output file:
Format = list(
UseDefaultFileSettings = FALSE
),
Width = list(
UseDefaultFileSettings = FALSE
),
Height = list(
UseDefaultFileSettings = FALSE
),
DotsPerInch = list(
UseDefaultFileSettings = FALSE
),
# Layer:
NASCData = list(
# The LayerDefinition can be any of these:
LayerDefinition = c(
"FunctionInput",
"FunctionParameter"
)
),
SumNASCData = list(
LayerDefinition = "PreDefined"
),
AcousticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinition = "FunctionParameter",
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinition = "FunctionParameter",
LayerDefinitionMethod = "Table"
),
# AcousticPSU:
AcousticPSU = list(
UseAcousticPSU = TRUE
),
UseDefaultAcousticPSUSettings <- list(
UseAcousticPSU = TRUE
),
AcousticPSULabelSize = list(
UseAcousticPSU = TRUE,
UseDefaultAcousticPSUSettings = FALSE
),
AcousticPSULabelColor = list(
UseAcousticPSU = TRUE,
UseDefaultAcousticPSUSettings = FALSE
),
AcousticPSULabelPosition = list(
UseAcousticPSU = TRUE,
UseDefaultAcousticPSUSettings = FALSE
),
AcousticPSULabelHjust = list(
UseAcousticPSU = TRUE,
UseDefaultAcousticPSUSettings = FALSE
),
AcousticPSULabelVjust = list(
UseAcousticPSU = TRUE,
UseDefaultAcousticPSUSettings = FALSE
)
),
functionParameterDefaults = c(
# Default general options:
defaultPlotGeneralOptions,
# Default file options:
defaultPlotFileOptions,
# Default map plotting options:
defaultMapPlotNASCOptions,
# Default NASC-plotting options:
defaultMapPlotOptions,
# Defaults for the AcousticPSU (potting PSU names) text size and shift (from the mean EDSU position):
defaultAcousticPSUPlotOptions,
# Defaults color variable:
defaultColorVariableOptions
)
),
##########
##### Density: #####
SweptAreaDensity = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "DensityData",
functionParameterFormat = list(
DensityType = "densityType_SweptAreaDensity"
),
functionArgumentHierarchy = list(
MeanLengthDistributionData = list(
SweptAreaDensityMethod = "LengthDistributed"
),
MeanSpeciesCategoryCatchData = list(
SweptAreaDensityMethod = "TotalCatch"
),
SweepWidth = list(
SweepWidthMethod = "Constant"
)
)
),
AcousticDensity = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "DensityData",
functionParameterFormat = list(
SpeciesLink = "speciesLinkTable_AcousticDensity"
)
),
MeanDensity = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "MeanDensityData"
),
##########
##### Quantity: #####
DefineRegression = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "Regression",
functionParameterFormat = list(
FileName = "filePath",
GroupingVariables = "groupingVariables",
RegressionTable = "regressionTable"
),
functionArgumentHierarchy = list(
RegressionModel = list(
UseProcessData = FALSE
),
DefinitionMethod = list(
UseProcessData = FALSE
),
GroupingVariables = list(
DefinitionMethod = "Table",
UseProcessData = FALSE
),
RegressionTable = list(
DefinitionMethod = "Table",
UseProcessData = FALSE
),
FileName = list(
DefinitionMethod = "ResourceFile",
UseProcessData = FALSE
)
)
),
EstimateBioticRegression = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "Regression",
functionParameterFormat = list(
RegressionTable = "regressionTable",
DependentVariable = "dependentVariable_EstimateBioticRegression",
DependentResolutionVariable = "dependentResolutionVariable_EstimateBioticRegression",
IndependentVariable = "independentVariable_EstimateBioticRegression",
IndependentResolutionVariable = "independentResolutionVariable_EstimateBioticRegression",
GroupingVariables = "groupingVariables_EstimateBioticRegression"
),
functionArgumentHierarchy = list(
IndividualsData = list(
InputDataType = "IndividualsData"
),
SuperIndividualsData = list(
InputDataType = "SuperIndividualsData"
)
)
),
Quantity = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "QuantityData"
),
Individuals = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "IndividualsData",
functionArgumentHierarchy = list(
BioticAssignment = list(
QuantityType = "Acoustic"
),
MeanLengthDistributionData = list(
QuantityType = "SweptArea"
)
)
),
SuperIndividuals = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SuperIndividualsData",
functionArgumentHierarchy = list(
LengthDistributionData = list(
DistributionMethod = "HaulDensity"
)
)
),
AddHaulDensityToSuperIndividuals = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SuperIndividualsData",
functionArgumentHierarchy = list(
SweepWidth = list(
SweepWidthMethod = "Constant"
)
)
),
ImputeSuperIndividuals = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SuperIndividualsData",
functionParameterFormat = list(
#ImputeAtMissing = "getIndividualVaiableNamesSingle",
ImputeAtMissing = "getImputeAtMissing",
ImputeByEqual = "getImputeByEqual",
ToImpute = "getToImpute",
GroupingVariables = "groupingVariables_ImputeSuperIndividuals",
RegressionTable = "regressionTable",
ImputationLevels = "imputationLevels"
),
functionArgumentHierarchy = list(
RegressionDefinition = list(
ImputationMethod = "Regression"
),
GroupingVariables = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionParameter"
),
RegressionModel = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionParameter"
),
RegressionTable = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionParameter"
),
Regression = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionInput"
),
ImputeAtMissing = list(
ImputationMethod = "RandomSampling"
),
ImputeByEqual = list(
ImputationMethod = "RandomSampling"
),
ToImpute = list(
ImputationMethod = "RandomSampling"
),
ImputationLevels = list(
ImputationMethod = "RandomSampling"
),
Seed = list(
ImputationMethod = "RandomSampling"
)
),
functionParameterDefaults = list(
ImputationLevels = c("Haul", "Stratum", "Survey")
)
),
ImputeSuperIndividuals_StoX3 = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SuperIndividualsData",
functionParameterFormat = list(
#ImputeAtMissing = "getIndividualVaiableNamesSingle",
ImputeAtMissing = "getImputeAtMissing",
ImputeByEqual = "getImputeByEqual",
ToImpute = "getToImpute",
GroupingVariables = "groupingVariables_ImputeSuperIndividuals",
RegressionTable = "regressionTable",
ImputationLevels = "imputationLevels"
),
functionArgumentHierarchy = list(
RegressionDefinition = list(
ImputationMethod = "Regression"
),
GroupingVariables = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionParameter"
),
RegressionModel = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionParameter"
),
RegressionTable = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionParameter"
),
Regression = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionInput"
),
ImputeAtMissing = list(
ImputationMethod = "RandomSampling"
),
ImputeByEqual = list(
ImputationMethod = "RandomSampling"
),
ToImpute = list(
ImputationMethod = "RandomSampling"
),
ImputationLevels = list(
ImputationMethod = "RandomSampling"
),
Seed = list(
ImputationMethod = "RandomSampling"
)
),
functionParameterDefaults = list(
ImputationLevels = c("Haul", "Stratum", "Survey")
)
),
##########
##### Other: #####
DefineAcousticTargetStrength = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "AcousticTargetStrength",
functionParameterFormat = list(
FileName = "filePath",
AcousticTargetStrengthTable = "targetStrengthTable"
),
functionArgumentHierarchy = list(
AcousticTargetStrengthModel = list(
UseProcessData = FALSE
),
DefinitionMethod = list(
UseProcessData = FALSE
),
AcousticTargetStrengthTable = list(
DefinitionMethod = "Table",
UseProcessData = FALSE
),
FileName = list(
DefinitionMethod = "ResourceFile",
UseProcessData = FALSE
)
)
),
ReportSuperIndividuals = list(
functionType = "modelData",
functionCategory = "report",
functionOutputDataType = "ReportSuperIndividualsData",
# This is an example of using an expression to determine when to show a parameter:
functionParameterFormat = list(
TargetVariable = "targetVariable_ReportSuperIndividuals",
GroupingVariables = "groupingVariables_ReportSuperIndividuals",
InformationVariables = "informationVariables_ReportSuperIndividuals",
TargetVariableUnit = "targetVariableUnit_ReportSuperIndividuals",
WeightingVariable = "weightingVariable_ReportSuperIndividuals",
FractionOverVariable = "fractionOverVariable",
ConditionOperator = "conditionOperator"
),
functionArgumentHierarchy = expression(
c(
getFunctionArgumentHierarchyForSpcificationParameters(
use = "Baseline",
functionName = "ReportFunction"
)
)
),
functionParameterDefaults = list(
GroupingVariables = c("Survey", "SpeciesCategory")
)
),
ReportQuantity = list(
functionType = "modelData",
functionCategory = "report",
functionOutputDataType = "ReportQuantityData",
# This is an example of using an expression to determine when to show a parameter:
functionParameterFormat = list(
GroupingVariables = "groupingVariables_ReportQuantity",
InformationVariables = "informationVariables_ReportQuantity",
TargetVariableUnit = "targetVariableUnit_ReportQuantity",
WeightingVariable = "weightingVariable_ReportQuantity",
FractionOverVariable = "fractionOverVariable",
ConditionOperator = "conditionOperator"
),
functionArgumentHierarchy = expression(
c(
getFunctionArgumentHierarchyForSpcificationParameters(
use = "Baseline",
functionName = "ReportFunction"
)
)
),
functionParameterDefaults = list(
GroupingVariables = c("Survey", "SpeciesCategory")
)
),
ReportDensity = list(
functionType = "modelData",
functionCategory = "report",
functionOutputDataType = "ReportDensityData",
# This is an example of using an expression to determine when to show a parameter:
functionParameterFormat = list(
GroupingVariables = "groupingVariables_ReportDensity",
InformationVariables = "informationVariables_ReportDensity",
DensityUnit = "densityUnit",
WeightingVariable = "weightingVariable_ReportDensity",
FractionOverVariable = "fractionOverVariable",
ConditionOperator = "conditionOperator"
),
functionArgumentHierarchy = expression(
c(
getFunctionArgumentHierarchyForSpcificationParameters(
use = "Baseline",
functionName = "ReportFunction"
)
)
),
functionParameterDefaults = list(
GroupingVariables = c("Survey", "SpeciesCategory")
)
),
ReportSpeciesCategoryCatch = list(
functionType = "modelData",
functionCategory = "report",
functionOutputDataType = "ReportSpeciesCategoryCatchData",
functionParameterFormat = list(
ReportVariableUnit = "reportVariableUnit_ReportSpeciesCategoryCatch"
)
)
#WriteStratumPolygon = list(
# functionType = "modelData",
# functionCategory = "report",
# functionOutputDataType = "WriteStratumPolygonData"
#)
##########
)
#' Define the process property formats:
#'
#' @export
#'
processPropertyFormats <- list(
filePath = list(
class = "single",
title = "The path to a single file"
),
dependentVariable_EstimateBioticRegression = list(
class = "single",
title = "Select DependentVariable for regression",
variableTypes = "character",
possibleValues = function(InputDataType, IndividualsData, SuperIndividualsData) {
data <- get(InputDataType)
intersect(names(data), attr(data, "stoxDataVariableNames")$Individual)
}
),
dependentResolutionVariable_EstimateBioticRegression = list(
class = "single",
title = "Select DependentResolutionVariable for regression",
variableTypes = "character",
possibleValues = function(DependentVariable, InputDataType, IndividualsData, SuperIndividualsData) {
data <- get(InputDataType)
setdiff(intersect(names(data), attr(data, "stoxDataVariableNames")$Individual), DependentVariable)
}
),
independentVariable_EstimateBioticRegression = list(
class = "single",
title = "Select IndependentVariable for regression",
variableTypes = "character",
possibleValues = function(DependentVariable, DependentResolutionVariable, InputDataType, IndividualsData, SuperIndividualsData) {
data <- get(InputDataType)
setdiff(intersect(names(data), attr(data, "stoxDataVariableNames")$Individual), c(DependentVariable, DependentResolutionVariable))
}
),
independentResolutionVariable_EstimateBioticRegression = list(
class = "single",
title = "Select IndependentResolutionVariable for regression",
variableTypes = "character",
possibleValues = function(DependentVariable, DependentResolutionVariable, IndependentVariable, InputDataType, IndividualsData, SuperIndividualsData) {
data <- get(InputDataType)
setdiff(intersect(names(data), attr(data, "stoxDataVariableNames")$Individual), c(DependentVariable, DependentResolutionVariable, IndependentVariable))
}
),
groupingVariables_EstimateBioticRegression = list(
class = "vector",
title = "Select GroupingVariables for regression",
variableTypes = "character",
possibleValues = function(DependentVariable, DependentResolutionVariable, IndependentVariable, IndependentResolutionVariable, InputDataType, IndividualsData, SuperIndividualsData) {
data <- get(InputDataType)
setdiff(
names(data),
c(DependentVariable, DependentResolutionVariable, IndependentVariable, IndependentResolutionVariable)
)
}
),
sweepWidthByCruiseTable = list(
class = "table",
title = "Define sweep width in meters for each cruise",
columnNames = c(
"Cruise",
"SweepWidth"
),
variableTypes = c(
"character",
"double"
)
),
catchCompensationTable = list(
class = "table",
title = "Define parameters for length dependent catch compensation",
columnNames = c(
"SpeciesCategory",
"Alpha",
"Beta",
"LMin",
"LMax"
),
variableTypes = c(
"character",
"double",
"double",
"double",
"double"
),
possibleValues = function(LengthDistributionData) {
if(!length(LengthDistributionData)) {
return(vector("list", 5))
}
# Get all unique combinations:
listOfUniqueCombinations <- as.list(unique(LengthDistributionData$SpeciesCategory))
# Output must be an unnamed list:
c(
list(unname(listOfUniqueCombinations)),
rep(list(list()), 4)
)
}
),
selectivityTable = list(
class = "table",
title = "Define parameters for length dependent selectivity",
columnNames = c(
"SpeciesCategory",
"Alpha",
"Beta",
"LMax"
),
variableTypes = c(
"character",
"double",
"double",
"double"
),
possibleValues = function(LengthDistributionData) {
if(!length(LengthDistributionData)) {
return(vector("list", 4))
}
# Get all unique combinations:
listOfUniqueCombinations <- as.list(unique(LengthDistributionData$SpeciesCategory))
# Output must be an unnamed list:
c(
list(unname(listOfUniqueCombinations)),
rep(list(list()), 3)
)
}
),
speciesLinkTable_AcousticDensity = list(
class = "table",
title = "Link acoustic categories and species categories",
columnNames = c(
"AcousticCategory",
"SpeciesCategory"
),
variableTypes = c(
#"integer", # This is how it is defined in the XSD, see http://www.imr.no/formats/nmdechosounder/v1/nmdechosounderv1.xsd
# Changed on 2020-06-30 from integer to character. There is no need to bring the integer definition of LUF20 on to StoxAcoustic!:
"character",
"character"
),
possibleValues = function(MeanNASCData, AssignmentLengthDistributionData) {
# Must be an unnamed list:
list(
unique(MeanNASCData$Data$AcousticCategory),
unique(AssignmentLengthDistributionData$SpeciesCategory)
)
}
),
speciesLinkTable_Split = list(
class = "table",
title = "Link acoustic categories and species categories",
columnNames = c(
"AcousticCategory",
"SpeciesCategory"
),
variableTypes = c(
#"integer", # This is how it is defined in the XSD, see http://www.imr.no/formats/nmdechosounder/v1/nmdechosounderv1.xsd
# Changed on 2020-06-30 from integer to character. There is no need to bring the integer definition of LUF20 on to StoxAcoustic!:
"character",
"character"
),
#possibleValues = function(NASCData, AssignmentLengthDistributionData) {
possibleValues = function(AssignmentLengthDistributionData, AcousticCategoryLink) {
# Must be an unnamed list:
list(
#unique(NASCData$AcousticCategory),
sort(unique(AcousticCategoryLink$SplitAcousticCategory)),
unique(AssignmentLengthDistributionData$SpeciesCategory)
)
}
),
speciesLinkTable_BioticAssignmentWeighting = list(
class = "table",
title = "Link acoustic categories and species categories",
columnNames = c(
"AcousticCategory",
"SpeciesCategory"
),
variableTypes = c(
#"integer", # This is how it is defined in the XSD, see http://www.imr.no/formats/nmdechosounder/v1/nmdechosounderv1.xsd
# Changed on 2020-06-30 from integer to character. There is no need to bring the integer definition of LUF20 on to StoxAcoustic!:
"character",
"character"
),
possibleValues = function(NASCData, LengthDistributionData) {
# Must be an unnamed list:
list(
unique(NASCData$AcousticCategory),
unique(LengthDistributionData$SpeciesCategory)
)
}
),
acousticCategoryLinkTable = list(
class = "table",
title = "Define acoustic categories to split mix categories into",
columnNames = c(
"AcousticCategory",
"SplitAcousticCategory"
),
variableTypes = c(
"character",
"character"
)
),
gearCompensationTable_LengthDistributionData = list(
class = "table",
title = "Sweep width for all gear",
columnNames = function(CompensationMethod = c("Gear", "Cruise", "GearAndCruise")) {
CompensationMethod <- RstoxData::match_arg_informative(CompensationMethod)
columnNames <- c(
strsplit(CompensationMethod, "And")[[1]],
"SweepWidth"
)
return(columnNames)
},
variableTypes = function(CompensationMethod = c("Gear", "Cruise", "GearAndCruise")) {
CompensationMethod <- RstoxData::match_arg_informative(CompensationMethod)
columnNames <- strsplit(CompensationMethod, "And")[[1]]
variableTypes <- c(
rep("character", length(columnNames)),
"double"
)
return(variableTypes)
},
possibleValues = function(LengthDistributionData, CompensationMethod = c("Gear", "Cruise", "GearAndCruise")) {
CompensationMethod <- RstoxData::match_arg_informative(CompensationMethod)
Variables <- strsplit(CompensationMethod, "And")[[1]]
if(!length(LengthDistributionData)) {
return(vector("list", length(Variables) + 1))
}
# Get all unique combinations:
#listOfUniqueCombinations <- as.list(unique(LengthDistributionData[, ..Variables]))
listOfUniqueCombinations <- lapply(Variables, function(var) as.list(unique(LengthDistributionData[[var]])))
# Output must be an unnamed list:
c(
#list(unname(listOfUniqueCombinations)),
listOfUniqueCombinations,
list(NULL)
)
}
),
gearCompensationTable_SpeciesCategoryCatchData = list(
class = "table",
title = "Sweep width for all gear",
columnNames = function(CompensationMethod = c("Gear", "Cruise", "GearAndCruise")) {
CompensationMethod <- RstoxData::match_arg_informative(CompensationMethod)
columnNames <- c(
strsplit(CompensationMethod, "And")[[1]],
"SweepWidth"
)
return(columnNames)
},
variableTypes = function(CompensationMethod = c("Gear", "Cruise", "GearAndCruise")) {
CompensationMethod <- RstoxData::match_arg_informative(CompensationMethod)
columnNames <- strsplit(CompensationMethod, "And")[[1]]
variableTypes <- c(
rep("character", length(columnNames)),
"double"
)
return(variableTypes)
},
possibleValues = function(SpeciesCategoryCatchData, CompensationMethod = c("Gear", "Cruise", "GearAndCruise")) {
CompensationMethod <- RstoxData::match_arg_informative(CompensationMethod)
Variables <- strsplit(CompensationMethod, "And")[[1]]
if(!length(SpeciesCategoryCatchData)) {
return(vector("list", length(Variables) + 1))
}
# Get all unique combinations:
#listOfUniqueCombinations <- as.list(unique(LengthDistributionData[, ..Variables]))
listOfUniqueCombinations <- lapply(Variables, function(var) as.list(unique(SpeciesCategoryCatchData[[var]])))
# Output must be an unnamed list:
c(
#list(unname(listOfUniqueCombinations)),
listOfUniqueCombinations,
list(NULL)
)
}
),
targetStrengthTable = list(
class = "table",
title = function(AcousticTargetStrengthModel = c("LengthDependent", "LengthAndDepthDependent", "TargetStrengthByLength", "LengthExponent")) {
AcousticTargetStrengthModel <- RstoxData::match_arg_informative(AcousticTargetStrengthModel)
if(identical(AcousticTargetStrengthModel, "LengthDependent")) {
title <- "Define parameters of (logarithmic) acoustic target strength as a function of length (TargetStrength = Targetstrength0 + LengthExponent * log10(Length))"
}
else if(identical(AcousticTargetStrengthModel, "LengthAndDepthDependent")) {
title <- "Define parameters of (logarithmic) acoustic target strength as a function of length (TargetStrength = Targetstrength0 + LengthExponent * log10(Length) + DepthExponent * log10(1 + Depth/10))"
}
else if(identical(AcousticTargetStrengthModel, "TargetStrengthByLength")) {
title <- "Define a table of IndividualTotalLength and TargetStrength for each AcousticCategory and Frequency"
}
else if(identical(AcousticTargetStrengthModel, "LengthExponent")) {
title <- "Define LengthExponent"
}
else {
stop("Wrong AcousticTargetStrengthModel")
}
return(title)
},
columnNames = function(AcousticTargetStrengthModel = c("LengthDependent", "LengthAndDepthDependent", "TargetStrengthByLength", "LengthExponent")) {
AcousticTargetStrengthModel <- RstoxData::match_arg_informative(AcousticTargetStrengthModel)
if(identical(AcousticTargetStrengthModel, "LengthDependent")) {
columnNames <- c(
"AcousticCategory",
"Frequency",
"TargetStrength0",
"LengthExponent"
)
}
else if(identical(AcousticTargetStrengthModel, "LengthAndDepthDependent")) {
columnNames <- c(
"AcousticCategory",
"Frequency",
"TargetStrength0",
"LengthExponent",
"DepthExponent"
)
}
else if(identical(AcousticTargetStrengthModel, "TargetStrengthByLength")) {
columnNames <- c(
"AcousticCategory",
"Frequency",
"TotalLength",
"TargetStrength"
)
}
else if(identical(AcousticTargetStrengthModel, "LengthExponent")) {
columnNames <- c(
"AcousticCategory",
"Frequency",
"LengthExponent"
)
}
else {
stop("Wrong AcousticTargetStrengthModel")
}
return(columnNames)
},
variableTypes = function(AcousticTargetStrengthModel = c("LengthDependent", "LengthAndDepthDependent", "TargetStrengthByLength", "LengthExponent")) {
AcousticTargetStrengthModel <- RstoxData::match_arg_informative(AcousticTargetStrengthModel
)
if(identical(AcousticTargetStrengthModel, "LengthDependent")) {
variableTypes <- c(
"character",
"double",
"double",
"double"
)
}
else if(identical(AcousticTargetStrengthModel, "LengthAndDepthDependent")) {
variableTypes <- c(
"character",
"double",
"double",
"double",
"double"
)
}
else if(identical(AcousticTargetStrengthModel, "TargetStrengthByLength")) {
variableTypes <- c(
"character",
"double",
"double",
"double"
)
}
else if(identical(AcousticTargetStrengthModel, "LengthExponent")) {
variableTypes <- c(
"character",
"double",
"double"
)
}
else {
stop("Wrong AcousticTargetStrengthModel")
}
return(variableTypes)
}
),
regressionTable = list(
class = "table",
title = function(RegressionModel = c("SimpleLinear", "Power")) {
RegressionModel <- RstoxData::match_arg_informative(RegressionModel)
if(identical(RegressionModel, "SimpleLinear")) {
title <- "Define parameters of the linear model ((DependentVariable + DependentResolutionVariable / 2) = Intercept + Slope * (IndependentVariable + IndependentResolutionVariable / 2))"
}
else if(identical(RegressionModel, "Power")) {
title <- "Define parameters of the power model ((DependentVariable + DependentResolutionVariable / 2) = Factor * (IndependentVariable + IndependentResolutionVariable / 2) ^ Exponent)"
}
else {
stop("Wrong RegressionModel")
}
return(title)
},
columnNames = function(RegressionModel = c("SimpleLinear", "Power"), GroupingVariables = character(), RegressionTable = data.table::data.table()) {
RegressionModel <- RstoxData::match_arg_informative(RegressionModel)
variableSpecification <- c(
"DependentVariable",
"DependentResolutionVariable",
"IndependentVariable",
"IndependentResolutionVariable"
)
metaColumns <- c(
"ResidualStandardError",
"EstimationMethod"
)
if(identical(RegressionModel, "SimpleLinear")) {
specificRegressionTableColumns <- c(
"Intercept",
"Slope"
)
}
else if(identical(RegressionModel, "Power")) {
specificRegressionTableColumns <- c(
"Factor",
"Exponent"
)
}
else {
stop("Wrong RegressionModel")
}
#if(length(GroupingVariables) && nchar(GroupingVariables)) {
GroupingVariables <- GroupingVariables[nchar(GroupingVariables) > 0]
columnNames <- c(
GroupingVariables,
variableSpecification,
specificRegressionTableColumns,
metaColumns
)
#}
# Warninig if there are columns in the existing table that are no longer valid:
invalidColumns <- c(
setdiff(names(RegressionTable), columnNames),
setdiff(columnNames, names(RegressionTable))
)
if(NROW(RegressionTable) & length(invalidColumns)) {
warning("StoX: RegressionTable no longer valid. Changing GroupingVariables or RegressionModel requires to create a new RegressionTable.")
}
return(columnNames)
},
variableTypes = function(RegressionModel = c("SimpleLinear", "Power"), GroupingVariables = character()) {
RegressionModel <- RstoxData::match_arg_informative(RegressionModel)
if(identical(RegressionModel, "SimpleLinear")) {
variableTypes <- c(
"character",
"character",
"character",
"character",
"double",
"double",
"double",
"character"
)
}
else if(identical(RegressionModel, "Power")) {
variableTypes <- c(
"character",
"character",
"character",
"character",
"double",
"double",
"double",
"character"
)
}
else {
stop("Wrong RegressionModel")
}
if(length(GroupingVariables[nchar(GroupingVariables) > 0])) {
variableTypes <- c(rep("character", length(GroupingVariables)), variableTypes)
}
return(variableTypes)
},
possibleValues = function(RegressionModel, SuperIndividualsData, GroupingVariables = character()) {
# Get all unique combinations:
if(RegressionModel == "SimpleLinear") {
EstimationMethod <- "SimpleLinear"
}
else if(RegressionModel == "Power") {
EstimationMethod <- c(
"LogLogLinear"#,
#"NonLinear"
)
}
# Output must be an unnamed list:
#c(
# rep(list(list()), 7 + as.numeric(length(GroupingVariables[nchar(GroupingVariables) > 0]))),
# list(EstimationMethod)
#)
c(
# Unique values of the grouping variables:
if(missing(SuperIndividualsData)) rep(list(list()), length(GroupingVariables)) else lapply(GroupingVariables, function(x) sort(unique(SuperIndividualsData[[x]]))),
# All columnn names:
if(missing(SuperIndividualsData)) rep(list(list()), 4) else rep(list(names(SuperIndividualsData)), 4),
# Empty for numeric fields:
rep(list(list()), 3),
list(EstimationMethod)
)
}
),
densityType_SweptAreaDensity = list(
class = "single",
title = "Select the type of swept area density.",
possibleValues = function(SweptAreaDensityMethod) {
if(SweptAreaDensityMethod == "LengthDistributed") {
"AreaNumberDensity"
}
else if(SweptAreaDensityMethod == "TotalCatch") {
c("AreaNumberDensity", "AreaWeightDensity")
}
}
),
# ReportSuperIndividuals:
targetVariable_ReportSuperIndividuals = list(
class = "single",
title = "One variable to group report from SuperIndividualsData",
possibleValues = function(SuperIndividualsData) {
#sort(subset(names(SuperIndividualsData), sapply(SuperIndividualsData, class) %in% c("numeric", "integer")))
sort(names(SuperIndividualsData))
},
variableTypes = "character"
),
groupingVariables_ReportSuperIndividuals = list(
class = "vector",
title = "One or more variables to group super-individuals by when reporting SuperIndividualsData",
possibleValues = function(SuperIndividualsData, TargetVariable) {
setdiff(sort(names(SuperIndividualsData)), TargetVariable)
},
variableTypes = "character"
),
informationVariables_ReportSuperIndividuals = list(
class = "vector",
title = "One or more columns to inlcude as information in ReportSuperIndividualsData",
possibleValues = function(SuperIndividualsData, TargetVariable, GroupingVariables) {
sort(setdiff(names(SuperIndividualsData), c(TargetVariable, GroupingVariables)))
},
variableTypes = "character"
),
targetVariableUnit_ReportSuperIndividuals = list(
class = "single",
title = "Select Unit for the TargetVariable",
possibleValues = function(TargetVariable) {
dataType <- "SuperIndividualsData"
quantity <- getBaseUnit(dataType = dataType, variableName = TargetVariable, element = "quantity")
if(!length(quantity) || is.na(quantity)) {
warning("StoX: No units defined for the variable ", TargetVariable, " of datatype ", dataType)
list()
}
else {
RstoxData::getUnitOptions(quantity)
}
}
),
weightingVariable_ReportSuperIndividuals = list(
class = "single",
title = "Select weighting variable",
possibleValues = function(SuperIndividualsData, TargetVariable, GroupingVariables, InformationVariables) {
# Keep only the numeric:
possibleVariables <- names(SuperIndividualsData)[sapply(SuperIndividualsData, inherits, c("numeric", "integer"))]
# Get the columns not used as TargetVariable, GroupingVariables or InformationVariables:
possibleVariables <-
sort(setdiff(possibleVariables, c(TargetVariable, GroupingVariables, InformationVariables)))
return(possibleVariables)
},
variableTypes = "character"
),
fractionOverVariable = list(
class = "single",
title = "Select variable to sum over in the denominator of the fraction",
possibleValues = function(GroupingVariables) {
GroupingVariables
},
variableTypes = "character"
),
# ReportQuantity:
groupingVariables_ReportQuantity = list(
class = "vector",
title = "One or more variables to group by when reporting QuantityData",
possibleValues = function(QuantityData) {
sort(names(QuantityData$Data))
},
variableTypes = "character"
),
informationVariables_ReportQuantity = list(
class = "vector",
title = "One or more columns to inlcude as information in ReportQuantityData",
possibleValues = function(QuantityData, GroupingVariables) {
sort(setdiff(names(QuantityData$Data), GroupingVariables))
},
variableTypes = "character"
),
targetVariableUnit_ReportQuantity = list(
class = "single",
title = "Select Unit for the TargetVariable",
possibleValues = function(TargetVariable) {
dataType <- "QuantityData"
quantity <- getBaseUnit(dataType = dataType, variableName = TargetVariable, element = "quantity")
if(!length(quantity) || is.na(quantity)) {
warning("StoX: No units defined for the variable ", TargetVariable, " of datatype ", dataType)
list()
}
else {
RstoxData::getUnitOptions(quantity)
}
}
),
weightingVariable_ReportQuantity = list(
class = "single",
title = "Select weighting variable",
possibleValues = function(QuantityData, GroupingVariables, InformationVariables) {
# Keep only the numeric:
possibleVariables <- names(QuantityData)[sapply(QuantityData, inherits, c("numeric", "integer"))]
# Get the columns not used as TargetVariable, GroupingVariables or InformationVariables:
possibleVariables <-
sort(setdiff(possibleVariables, c(GroupingVariables, InformationVariables)))
return(possibleVariables)
#sort(setdiff(names(QuantityData), c(GroupingVariables, InformationVariables)))
},
variableTypes = "character"
),
# ReportDensity:
groupingVariables_ReportDensity = list(
class = "vector",
title = "One or more variables to group by when reporting DensityData",
possibleValues = function(DensityData) {
sort(names(DensityData$Data))
},
variableTypes = "character"
),
informationVariables_ReportDensity = list(
class = "vector",
title = "One or more columns to inlcude as information in ReportDensityData",
possibleValues = function(DensityData, GroupingVariables) {
sort(setdiff(names(DensityData$Data), GroupingVariables))
},
variableTypes = "character"
),
densityUnit = list(
class = "single",
title = "Select unit for the Density",
possibleValues = function() {
dataType <- "DensityData"
quantity <- getBaseUnit(dataType = dataType, variableName = "Density", element = "quantity")
if(!length(quantity) || is.na(quantity)) {
warning("StoX: No units defined for the variable Density of datatype ", dataType)
list()
}
else {
RstoxData::getUnitOptions(quantity)
}
}
),
weightingVariable_ReportDensity = list(
class = "single",
title = "Select weighting variable",
possibleValues = function(DensityData, GroupingVariables, InformationVariables) {
# Keep only the numeric:
possibleVariables <- names(DensityData)[sapply(DensityData, inherits, c("numeric", "integer"))]
# Get the columns not used as TargetVariable, GroupingVariables or InformationVariables:
possibleVariables <-
sort(setdiff(possibleVariables, c(GroupingVariables, InformationVariables)))
return(possibleVariables)
#sort(setdiff(names(DensityData), c(GroupingVariables, InformationVariables)))
},
variableTypes = "character"
),
surveyTable = list(
class = "table",
title = "Link strata to different surveys",
columnNames = c(
"Stratum",
"Survey"
),
variableTypes = c(
"character",
"character"
),
possibleValues = function(StratumPolygon) {
if(!length(StratumPolygon)) {
return(vector("list", 2))
}
# Must be an unnamed list:
list(
getStratumNames(StratumPolygon), # Stratum
# This results in the JSON string "[]" as is expected by the GUI:
list() # Survey
)
}
),
layerTable = list(
class = "table",
title = "Define Layers by depth intervals",
columnNames = c(
"Layer",
"MinLayerDepth",
"MaxLayerDepth"
),
variableTypes = c(
"character",
"double",
"double"
)
),
#getIndividualVaiableNamesSingle = list(
# class = "single",
# title = "Select variable",
# possibleValues = getIndividualNames
#),
getImputeAtMissing = list(
class = "single",
title = "Select a variable to impute",
possibleValues = function(SuperIndividualsData) {
getIndividualNames(SuperIndividualsData, tables = "Individual", removeKeys = TRUE)
}
),
getImputeByEqual = list(
class = "vector",
title = "Select variables which when equal to the those of the individual defines the individuals to impute from",
possibleValues = function(SuperIndividualsData, ImputeAtMissing) {
getIndividualNames(SuperIndividualsData, remove = ImputeAtMissing, tables = c("Individual", "SpeciesCategory"), removeKeys = TRUE)
}
),
getToImpute = list(
class = "vector",
title = "Select variables to impute",
#possibleValues = function(SuperIndividualsData, ImputeByEqual, ImputeAtMissing) {
# getIndividualNames(SuperIndividualsData, remove = c(ImputeByEqual, ImputeAtMissing), tables = "Individual", removeKeys = TRUE)
#}
possibleValues = function(SuperIndividualsData, ImputeByEqual) {
getIndividualNames(SuperIndividualsData, remove = ImputeByEqual, tables = "Individual", removeKeys = TRUE)
}
),
groupingVariables = list(
class = "vector",
title = "Select GroupingVariables for regression"
),
groupingVariables_ImputeSuperIndividuals = list(
class = "vector",
title = "One or more variables to group by when defining Regression for imputation",
possibleValues = function(SuperIndividualsData) {
sort(names(SuperIndividualsData))
},
variableTypes = "character"
),
pointColor = list(
class = "single",
title = "Select color/color scale for the points",
possibleValues = function(NASCData, SumNASCData, ColorVariable) {
if(missing(SumNASCData)) {
var <- NASCData[[ColorVariable]]
}
else {
var <- SumNASCData$Data[[ColorVariable]]
}
if(isCategorical(var)) {
PointColor <- list()
}
else {
PointColor <- "combined.color"
}
return(PointColor)
}
),
reportVariableUnit_ReportSpeciesCategoryCatch = list(
class = "single",
title = "Select unit for the ReportVariable",
possibleValues = function(ReportVariable) {
dataType <- "SpeciesCategoryCatchData"
quantity <- getBaseUnit(dataType = dataType, variableName = ReportVariable, element = "quantity")
if(!length(quantity) || is.na(quantity)) {
warning("StoX: No units defined for the variable ", ReportVariable, " of datatype ", dataType)
list()
}
else {
RstoxData::getUnitOptions(quantity)
}
}
),
imputationLevels = list(
class = "vector",
title = "Select ImputationLevels",
possibleValues =
c(
"Haul",
"Stratum",
"Survey"
)
),
conditionOperator = list(
class = "single",
title = "Select ConditionOperator",
possibleValues = c("%in%", "%notin%", "==", "!=", "%notequal%", "<", "<=", ">=", ">")
)
)
StoXProject/RstoxBase documentation built on July 14, 2024, 9:39 a.m.
R Package Documentation
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Defines functions getIndividualNames isCategorical
isCategorical <- function(x) {
is.character(x) || is.integer(x)
}
defaultPlotGeneralOptions <- list(
# Options for the labels and other text:
AxisTitleSize = 12,
AxisTickSize = 10,
LegendTitleSize = 12,
LegendTextSize = 10
)
defaultPlotFileOptions <- list(
# Options for the output file:
Format = "png",
# Using the ICES Journal og Marine Science recommendations (https://academic.oup.com/icesjms/pages/General_Instructions):
Width = 17,
Height = 10,
DotsPerInch = 500
)
defaultMapPlotOptions <- list(
# Options for the zoom and limits:
Zoom = 1,
LongitudeCenter = 0.5,
LatitudeCenter = 0.5,
LandColor = "#FDFECC", # rgb(253, 254, 204, maxColorValue = 255), as specified in the StoX GUI
BorderColor = "grey50",
OceanColor = "white",
GridColor = "#DFF2FF"# rgb(223, 242, 255, maxColorValue = 255), as specified in the StoX GUI
)
defaultMapPlotNASCOptions <- list(
# Options for the colors:
#PointColor = function(x) {
# if(isCategorical(x$SumNASCData$Data[[x$ColorVariable]])) {
# PointColor <- character()
# }
# else {
# PointColor <- "combined.color"
# }
# return(PointColor)
#},
# Use black vessel track:
TrackColor = "black",
# Options for the point sizes and shapes:
MaxPointSize = 10,
MinPointSize = 0.5,
TrackSize = 0.5
)
defaultAcousticPSUPlotOptions <- list(
# Options for AcousticPSU:
AcousticPSULabelSize = 4,
AcousticPSULabelColor = "black",
AcousticPSULabelPosition = "mean",
AcousticPSULabelHjust = 0.5,
AcousticPSULabelVjust = 0.5
)
#defaultStratumPolygonPlotOptions <- list(
# StratumPolygonColor = character(),
# StratumPolygonLabelSize = numeric(),
# StratumPolygonLabelColor = character(),
#)
defaultColorVariableOptions <- list(
ColorVariable = "NASC"
)
getIndividualNames <- function(SuperIndividualsData, remove = NULL, tables = c("Individual", "SpeciesCategory"), removeKeys = TRUE) {
individualNames <- unlist(attr(SuperIndividualsData, "stoxDataVariableNames")[tables])
if(removeKeys) {
individualNames <- individualNames[!endsWith(individualNames, "Key")]
}
# Remove the unique Individual ID:
individualNames <- setdiff(individualNames, "Individual")
# Remove the variables selected as remove:
individualNames <- setdiff(individualNames, remove)
return(individualNames)
}
#' A list of the attributes of the exported StoX functions:
#' The format describes the actual content, such as catchabilityTable, filePath, filter, etc. These are used by StoX to choose action on these parameters.
#' The primitive type (one of integer, double, logical, character) will be interpreted in the process property functions from the type of the function input or parameter.
#'
#' @export
#'
stoxFunctionAttributes <- list(
##### Survey: #####
DefineSurvey = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "Survey",
functionParameterFormat = list(
SurveyTable = "surveyTable",
FileName = "filePath"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
SurveyTable = list(
UseProcessData = FALSE,
DefinitionMethod = "Table"
),
FileName = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
)#,
# # StratumPolygon is shown in the GUI either if DefinitionMethod is "AllStrata" or "Table":
# StratumPolygon = list(
# UseProcessData = FALSE,
# DefinitionMethod = "AllStrata"
# ),
# StratumPolygon = list(
# UseProcessData = FALSE,
# DefinitionMethod = "Table"
# )
)
),
##########
##### Stratum polygons: #####
DefineStratumPolygon = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "StratumPolygon",
functionParameterFormat = list(
FileName = "filePath"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
# These two are joined with AND, and must both be fulfilled:
FileName = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
),
StratumNameLabel = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
),
SimplifyStratumPolygon = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
),
SimplificationFactor = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile",
SimplifyStratumPolygon = TRUE
)
)
),
StratumArea = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "StratumAreaData"
),
##########
##### PSUs: #####
DefineAcousticPSU = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "AcousticPSU",
functionParameterFormat = list(
FileName = "filePath"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
# Require UseProcessData = FALSE OR UseProcessData = TRUE and SavePSUByTime = TRUE for StoxAcousticData to show:
#StoxAcousticData = list(
# UseProcessData = FALSE
#),
#StoxAcousticData = list(
# UseProcessData = TRUE,
# SavePSUByTime = TRUE
#),
StratumPolygon = list(
UseProcessData = FALSE,
DefinitionMethod = "EDSUToPSU"
),
#IntervalVariable = list(
# UseProcessData = FALSE,
# DefinitionMethod = "Interval"
#),
#Interval = list(
# UseProcessData = FALSE,
# DefinitionMethod = "Interval"
#),
AcousticPSU = list(
UseProcessData = FALSE,
DefinitionMethod = "PreDefined"
),
FileName = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
)
)
),
#ExtractAcousticPSUByTime = list(
# functionType = "modelData",
# functionCategory = "baseline",
# functionOutputDataType = "AcousticPSUByTime"
#),
#BioticPSUByTime = list(
# functionType = "modelData",
# functionCategory = "baseline",
# functionOutputDataType = "AcousticPSUByTime"
#),
#DefineAcousticPSUFromPSUByTime = list(
# functionType = "modelData",
# functionCategory = "baseline",
# functionOutputDataType = "AcousticPSU"
#),
DefineBioticPSU = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "BioticPSU",
functionParameterFormat = list(
FileName = "filePath"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
StratumPolygon = list(
UseProcessData = FALSE,
DefinitionMethod = "StationToPSU"
),
FileName = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
)
)
),
##########
##### Layers: #####
DefineAcousticLayer = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "AcousticLayer",
functionParameterFormat = list(
LayerTable = "layerTable"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
# These two are joined with AND, and must both be fulfilled:
Resolution = list(
UseProcessData = FALSE,
DefinitionMethod = "Resolution"
),
# These two are joined with AND, and must both be fulfilled:
LayerTable = list(
UseProcessData = FALSE,
DefinitionMethod = "Table"
)
)
),
DefineBioticLayer = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "BioticLayer",
functionParameterFormat = list(
LayerTable = "layerTable"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
# These two are joined with AND, and must both be fulfilled:
Resolution = list(
UseProcessData = FALSE,
DefinitionMethod = "Resolution"
),
# These two are joined with AND, and must both be fulfilled:
LayerTable = list(
UseProcessData = FALSE,
DefinitionMethod = "Table"
)
)
),
##########
##### Biotic assignment: #####
DefineBioticAssignment = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "BioticAssignment",
functionParameterFormat = list(
LayerTable = "layerTable",
FileName = "filePath"
),
functionArgumentHierarchy = list(
DefinitionMethod = list(
UseProcessData = FALSE
),
#StoxBioticData = list(
# UseProcessData = FALSE
#),
#AcousticPSU = list(
# UseProcessData = FALSE
#),
LayerDefinition = list(
#UseProcessData = FALSE
),
AcousticLayer = list(
#UseProcessData = FALSE,
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
#UseProcessData = FALSE,
LayerDefinition = "FunctionParameter"
),
Resolution = list(
#UseProcessData = FALSE,
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
#UseProcessData = FALSE,
LayerDefinitionMethod = "Table"
),
#AcousticLayer = list(
# UseProcessData = FALSE
#),
# These two are joined with AND, and must both be fulfilled:
StratumPolygon = list(
UseProcessData = FALSE,
DefinitionMethod = "Stratum"
),
# These two are joined with AND, and must both be fulfilled:
StoxAcousticData = list(
#UseProcessData = FALSE,
DefinitionMethod = c("Radius", "EllipsoidalDistance")
),
StoxAcousticData = list(
#UseProcessData = FALSE,
LayerDefinition = "FunctionParameter"
),
# These two are joined with AND, and must both be fulfilled:
Radius = list(
UseProcessData = FALSE,
DefinitionMethod = "Radius"
),
# These two are joined with AND, and must both be fulfilled:
MinNumberOfHauls = list(
UseProcessData = FALSE,
DefinitionMethod = c("Radius", "EllipsoidalDistance")
),
# These two are joined with AND, and must both be fulfilled:
Distance = list(
UseProcessData = FALSE,
DefinitionMethod = "EllipsoidalDistance"
),
# These two are joined with AND, and must both be fulfilled:
TimeDifference = list(
UseProcessData = FALSE,
DefinitionMethod = "EllipsoidalDistance"
),
# These two are joined with AND, and must both be fulfilled:
BottomDepthDifference = list(
UseProcessData = FALSE,
DefinitionMethod = "EllipsoidalDistance"
),
# These two are joined with AND, and must both be fulfilled:
LongitudeDifference = list(
UseProcessData = FALSE,
DefinitionMethod = "EllipsoidalDistance"
),
# These two are joined with AND, and must both be fulfilled:
LatitudeDifference = list(
UseProcessData = FALSE,
DefinitionMethod = "EllipsoidalDistance"
),
# These two are joined with AND, and must both be fulfilled:
FileName = list(
UseProcessData = FALSE,
DefinitionMethod = "ResourceFile"
)
)
),
BioticAssignmentWeighting = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "BioticAssignment",
functionParameterFormat = list(
LengthExponent = "lengthExponentTable",
SpeciesLink = "speciesLinkTable_BioticAssignmentWeighting"
),
functionArgumentHierarchy = list(
StoxBioticData = list(
# The WeightingMethod can be any of these:
WeightingMethod = c("NumberOfLengthSamples", "NormalizedTotalWeight", "NormalizedTotalNumber")
),
LengthDistributionData = list(
# The WeightingMethod can be any of these:
WeightingMethod = c("SumWeightedNumber", "InverseSumWeightedNumber", "AcousticDensity")
),
MaxNumberOfLengthSamples = list(
WeightingMethod = c("NumberOfLengthSamples")
),
# Layer:
LayerDefinition = list(
WeightingMethod = c("AcousticDensity")
),
NASCData = list(
WeightingMethod = c("AcousticDensity"),
# The LayerDefinition can be any of these:
LayerDefinition = c(
"FunctionInput",
"FunctionParameter"
)
),
# Layer:
LayerDefinitionMethod = list(
WeightingMethod = c("AcousticDensity"),
LayerDefinition = "FunctionParameter"
),
Resolution = list(
WeightingMethod = c("AcousticDensity"),
LayerDefinition = "FunctionParameter",
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
WeightingMethod = c("AcousticDensity"),
LayerDefinition = "FunctionParameter",
LayerDefinitionMethod = "Table"
),
AcousticLayer = list(
WeightingMethod = c("AcousticDensity"),
LayerDefinition = "FunctionInput"
),
# AcousticDensity:
AcousticPSU = list(
WeightingMethod = c("AcousticDensity")
),
AcousticTargetStrength = list(
WeightingMethod = c("AcousticDensity")
),
SpeciesLink = list(
WeightingMethod = c("AcousticDensity")
),
Radius = list(
WeightingMethod = c("AcousticDensity")
),
MinNumberOfEDSUs = list(
WeightingMethod = c("AcousticDensity")
)
)
),
AssignmentLengthDistribution = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "AssignmentLengthDistributionData"
),
##########
##### Length distribution #####
LengthDistribution = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "LengthDistributionData"
),
RegroupLengthDistribution = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "LengthDistributionData"
),
GearDependentSpeciesCategoryCatchCompensation = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SpeciesCategoryCatchData",
functionParameterFormat = list(
CompensationTable = "gearCompensationTable_SpeciesCategoryCatchData"
)
),
GearDependentLengthDistributionCompensation = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "LengthDistributionData",
functionParameterFormat = list(
CompensationTable = "gearCompensationTable_LengthDistributionData"
)
),
LengthDependentLengthDistributionCompensation = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "LengthDistributionData",
functionParameterFormat = list(
LengthDependentSweepWidthParameters = "catchCompensationTable",
LengthDependentSelectivityParameters = "selectivityTable"
),
functionArgumentHierarchy = list(
LengthDependentSweepWidthParameters = list(
CompensationMethod = "LengthDependentSweepWidth"
),
LengthDependentSelectivityParameters = list(
CompensationMethod = "LengthDependentSelectivity"
)
)
),
RelativeLengthDistribution = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "LengthDistributionData"
),
SumLengthDistribution = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SumLengthDistributionData",
functionParameterFormat = list(
LayerTable = "layerTable"
),
functionArgumentHierarchy = list(
# Layer:
BioticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinitionMethod = "Table"
),
LayerProcessData = list(
LayerDefinition = "FunctionInput"
)
)
),
MeanLengthDistribution = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "MeanLengthDistributionData",
functionParameterFormat = list(
LayerTable = "layerTable",
SurveyTable = "surveyTable"
),
functionArgumentHierarchy = list(
# Layer:
LengthDistributionData = list(
# The LayerDefinition can be any of these:
LayerDefinition = c(
"FunctionInput",
"FunctionParameter"
)
),
SumLengthDistributionData = list(
LayerDefinition = "PreDefined"
),
BioticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinitionMethod = "Table"
),
# PSU:
BioticPSU = list(
PSUDefinition = "FunctionInput"
),
PSUDefinitionMethod = list(
PSUDefinition = "FunctionParameter"
),
StratumPolygon = list(
PSUDefinitionMethod = "StationToPSU"
),
StratumPolygon = list(
SurveyDefinitionMethod = "Table"
),
# Survey:
Survey = list(
SurveyDefinition = "FunctionInput"
),
SurveyDefinitionMethod = list(
SurveyDefinition = "FunctionParameter"
),
SurveyTable = list(
SurveyDefinition = "FunctionParameter",
SurveyDefinitionMethod = "Table"
)
)
),
##########
#########
###
### SpeciesCategoryDensity = list(
### functionType = "modelData",
### functionCategory = "baseline",
### functionOutputDataType = "SpeciesCategoryDensityData"
### ),
SpeciesCategoryCatch = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SpeciesCategoryCatchData"
),
#SpeciesCategoryCatch_Old = list(
# functionType = "modelData",
# functionCategory = "baseline",
# functionOutputDataType = "SpeciesCategoryCatchData"
#),
SumSpeciesCategoryCatch = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SumSpeciesCategoryCatchData",
functionParameterFormat = list(
LayerTable = "layerTable"
),
functionArgumentHierarchy = list(
# Layer:
BioticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinitionMethod = "Table"
),
LayerProcessData = list(
LayerDefinition = "FunctionInput"
)
)
),
MeanSpeciesCategoryCatch = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "MeanSpeciesCategoryCatchData",
functionParameterFormat = list(
LayerTable = "layerTable",
SurveyTable = "surveyTable"
),
functionArgumentHierarchy = list(
# Layer:
SpeciesCategoryCatchData = list(
# The LayerDefinition can be any of these:
LayerDefinition = c(
"FunctionInput",
"FunctionParameter"
)
),
SumSpeciesCategoryCatchData = list(
LayerDefinition = "PreDefined"
),
BioticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinitionMethod = "Table"
),
# PSU:
BioticPSU = list(
PSUDefinition = "FunctionInput"
),
PSUDefinitionMethod = list(
PSUDefinition = "FunctionParameter"
),
StratumPolygon = list(
PSUDefinitionMethod = "StationToPSU"
),
StratumPolygon = list(
SurveyDefinitionMethod = "Table"
),
# Survey:
Survey = list(
SurveyDefinition = "FunctionInput"
),
SurveyDefinitionMethod = list(
SurveyDefinition = "FunctionParameter"
),
SurveyTable = list(
SurveyDefinition = "FunctionParameter",
SurveyDefinitionMethod = "Table"
)
)
),
#########
##### NASC: #####
NASC = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "NASCData"
),
SumNASC = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SumNASCData",
functionParameterFormat = list(
LayerTable = "layerTable"
),
functionArgumentHierarchy = list(
AcousticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinitionMethod = "Table"
)
)
),
MeanNASC = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "MeanNASCData",
functionParameterFormat = list(
LayerTable = "layerTable",
SurveyTable = "surveyTable"
),
functionArgumentHierarchy = list(
# Layer:
NASCData = list(
# The LayerDefinition can be any of these:
LayerDefinition = c(
"FunctionInput",
"FunctionParameter"
)
),
SumNASCData = list(
LayerDefinition = "PreDefined"
),
AcousticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinition = "FunctionParameter",
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinition = "FunctionParameter",
LayerDefinitionMethod = "Table"
),
# PSU:
AcousticPSU = list(
PSUDefinition = "FunctionInput"
),
PSUDefinitionMethod = list(
PSUDefinition = "FunctionParameter"
),
StratumPolygon = list(
PSUDefinitionMethod = "EDSUToPSU"
),
StratumPolygon = list(
SurveyDefinitionMethod = "Table"
),
# Survey:
Survey = list(
SurveyDefinition = "FunctionInput"
),
SurveyDefinitionMethod = list(
SurveyDefinition = "FunctionParameter"
),
SurveyTable = list(
SurveyDefinition = "FunctionParameter",
SurveyDefinitionMethod = "Table"
)
)
),
SplitMeanNASC = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "NASCData",
functionParameterFormat = list(
SpeciesLink = "speciesLinkTable_AcousticDensity",
AcousticCategoryLink = "acousticCategoryLinkTable"
)
),
SplitNASC = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "NASCData",
functionParameterFormat = list(
SpeciesLink = "speciesLinkTable_Split",
AcousticCategoryLink = "acousticCategoryLinkTable"
)
),
NASCToStoxAcoustic = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "StoxAcousticData"
),
AppendNASC = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "NASCData"
),
PlotAcousticTrawlSurvey = list(
functionType = "modelData",
functionCategory = "report",
functionOutputDataType = "PlotAcousticTrawlSurveyData",
functionParameterFormat = list(
LayerTable = "layerTable"#,
#PointColor = "pointColor"
),
functionArgumentHierarchy = list(
# Options for the colors:
#ColorVariable = list(
# UseDefaultColorSettings = FALSE
#),
# PointColor cannot have a default, as it depends on whether the ColorVariable is categorical of continuous:
#PointColor = list(
# UseDefaultColorSettings = FALSE
#),
TrackColor = list(
UseDefaultColorSettings = FALSE
),
LandColor = list(
UseDefaultColorSettings = FALSE
),
BorderColor = list(
UseDefaultColorSettings = FALSE
),
OceanColor = list(
UseDefaultColorSettings = FALSE
),
GridColor = list(
UseDefaultColorSettings = FALSE
),
# Options for the point sizes and shapes:
MaxPointSize = list(
UseDefaultSizeSettings = FALSE
),
MinPointSize = list(
UseDefaultSizeSettings = FALSE
),
TrackSize = list(
UseDefaultSizeSettings = FALSE
),
# Options for zoom and limits:
Zoom = list(
UseDefaultAspectSettings = FALSE
),
LongitudeMin = list(
UseDefaultAspectSettings = FALSE
),
LongitudeMax = list(
UseDefaultAspectSettings = FALSE
),
LatitudeMin = list(
UseDefaultAspectSettings = FALSE
),
LatitudeMax = list(
UseDefaultAspectSettings = FALSE
),
LongitudeCenter = list(
UseDefaultAspectSettings = FALSE
),
LatitudeCenter = list(
UseDefaultAspectSettings = FALSE
),
# Options for the labels and other text:
Title = list(
UseDefaultTextSettings = FALSE
),
AxisTitleSize = list(
UseDefaultTextSettings = FALSE
),
AxisTickSize = list(
UseDefaultTextSettings = FALSE
),
LegendTitleSize = list(
UseDefaultTextSettings = FALSE
),
LegendTextSize = list(
UseDefaultTextSettings = FALSE
),
# Options for the output file:
Format = list(
UseDefaultFileSettings = FALSE
),
Width = list(
UseDefaultFileSettings = FALSE
),
Height = list(
UseDefaultFileSettings = FALSE
),
DotsPerInch = list(
UseDefaultFileSettings = FALSE
),
# Layer:
NASCData = list(
# The LayerDefinition can be any of these:
LayerDefinition = c(
"FunctionInput",
"FunctionParameter"
)
),
SumNASCData = list(
LayerDefinition = "PreDefined"
),
AcousticLayer = list(
LayerDefinition = "FunctionInput"
),
LayerDefinitionMethod = list(
LayerDefinition = "FunctionParameter"
),
Resolution = list(
LayerDefinition = "FunctionParameter",
LayerDefinitionMethod = "Resolution"
),
LayerTable = list(
LayerDefinition = "FunctionParameter",
LayerDefinitionMethod = "Table"
),
# AcousticPSU:
AcousticPSU = list(
UseAcousticPSU = TRUE
),
UseDefaultAcousticPSUSettings <- list(
UseAcousticPSU = TRUE
),
AcousticPSULabelSize = list(
UseAcousticPSU = TRUE,
UseDefaultAcousticPSUSettings = FALSE
),
AcousticPSULabelColor = list(
UseAcousticPSU = TRUE,
UseDefaultAcousticPSUSettings = FALSE
),
AcousticPSULabelPosition = list(
UseAcousticPSU = TRUE,
UseDefaultAcousticPSUSettings = FALSE
),
AcousticPSULabelHjust = list(
UseAcousticPSU = TRUE,
UseDefaultAcousticPSUSettings = FALSE
),
AcousticPSULabelVjust = list(
UseAcousticPSU = TRUE,
UseDefaultAcousticPSUSettings = FALSE
)
),
functionParameterDefaults = c(
# Default general options:
defaultPlotGeneralOptions,
# Default file options:
defaultPlotFileOptions,
# Default map plotting options:
defaultMapPlotNASCOptions,
# Default NASC-plotting options:
defaultMapPlotOptions,
# Defaults for the AcousticPSU (potting PSU names) text size and shift (from the mean EDSU position):
defaultAcousticPSUPlotOptions,
# Defaults color variable:
defaultColorVariableOptions
)
),
##########
##### Density: #####
SweptAreaDensity = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "DensityData",
functionParameterFormat = list(
DensityType = "densityType_SweptAreaDensity"
),
functionArgumentHierarchy = list(
MeanLengthDistributionData = list(
SweptAreaDensityMethod = "LengthDistributed"
),
MeanSpeciesCategoryCatchData = list(
SweptAreaDensityMethod = "TotalCatch"
),
SweepWidth = list(
SweepWidthMethod = "Constant"
)
)
),
AcousticDensity = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "DensityData",
functionParameterFormat = list(
SpeciesLink = "speciesLinkTable_AcousticDensity"
)
),
MeanDensity = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "MeanDensityData"
),
##########
##### Quantity: #####
DefineRegression = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "Regression",
functionParameterFormat = list(
FileName = "filePath",
GroupingVariables = "groupingVariables",
RegressionTable = "regressionTable"
),
functionArgumentHierarchy = list(
RegressionModel = list(
UseProcessData = FALSE
),
DefinitionMethod = list(
UseProcessData = FALSE
),
GroupingVariables = list(
DefinitionMethod = "Table",
UseProcessData = FALSE
),
RegressionTable = list(
DefinitionMethod = "Table",
UseProcessData = FALSE
),
FileName = list(
DefinitionMethod = "ResourceFile",
UseProcessData = FALSE
)
)
),
EstimateBioticRegression = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "Regression",
functionParameterFormat = list(
RegressionTable = "regressionTable",
DependentVariable = "dependentVariable_EstimateBioticRegression",
DependentResolutionVariable = "dependentResolutionVariable_EstimateBioticRegression",
IndependentVariable = "independentVariable_EstimateBioticRegression",
IndependentResolutionVariable = "independentResolutionVariable_EstimateBioticRegression",
GroupingVariables = "groupingVariables_EstimateBioticRegression"
),
functionArgumentHierarchy = list(
IndividualsData = list(
InputDataType = "IndividualsData"
),
SuperIndividualsData = list(
InputDataType = "SuperIndividualsData"
)
)
),
Quantity = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "QuantityData"
),
Individuals = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "IndividualsData",
functionArgumentHierarchy = list(
BioticAssignment = list(
QuantityType = "Acoustic"
),
MeanLengthDistributionData = list(
QuantityType = "SweptArea"
)
)
),
SuperIndividuals = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SuperIndividualsData",
functionArgumentHierarchy = list(
LengthDistributionData = list(
DistributionMethod = "HaulDensity"
)
)
),
AddHaulDensityToSuperIndividuals = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SuperIndividualsData",
functionArgumentHierarchy = list(
SweepWidth = list(
SweepWidthMethod = "Constant"
)
)
),
ImputeSuperIndividuals = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SuperIndividualsData",
functionParameterFormat = list(
#ImputeAtMissing = "getIndividualVaiableNamesSingle",
ImputeAtMissing = "getImputeAtMissing",
ImputeByEqual = "getImputeByEqual",
ToImpute = "getToImpute",
GroupingVariables = "groupingVariables_ImputeSuperIndividuals",
RegressionTable = "regressionTable",
ImputationLevels = "imputationLevels"
),
functionArgumentHierarchy = list(
RegressionDefinition = list(
ImputationMethod = "Regression"
),
GroupingVariables = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionParameter"
),
RegressionModel = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionParameter"
),
RegressionTable = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionParameter"
),
Regression = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionInput"
),
ImputeAtMissing = list(
ImputationMethod = "RandomSampling"
),
ImputeByEqual = list(
ImputationMethod = "RandomSampling"
),
ToImpute = list(
ImputationMethod = "RandomSampling"
),
ImputationLevels = list(
ImputationMethod = "RandomSampling"
),
Seed = list(
ImputationMethod = "RandomSampling"
)
),
functionParameterDefaults = list(
ImputationLevels = c("Haul", "Stratum", "Survey")
)
),
ImputeSuperIndividuals_StoX3 = list(
functionType = "modelData",
functionCategory = "baseline",
functionOutputDataType = "SuperIndividualsData",
functionParameterFormat = list(
#ImputeAtMissing = "getIndividualVaiableNamesSingle",
ImputeAtMissing = "getImputeAtMissing",
ImputeByEqual = "getImputeByEqual",
ToImpute = "getToImpute",
GroupingVariables = "groupingVariables_ImputeSuperIndividuals",
RegressionTable = "regressionTable",
ImputationLevels = "imputationLevels"
),
functionArgumentHierarchy = list(
RegressionDefinition = list(
ImputationMethod = "Regression"
),
GroupingVariables = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionParameter"
),
RegressionModel = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionParameter"
),
RegressionTable = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionParameter"
),
Regression = list(
ImputationMethod = "Regression",
RegressionDefinition = "FunctionInput"
),
ImputeAtMissing = list(
ImputationMethod = "RandomSampling"
),
ImputeByEqual = list(
ImputationMethod = "RandomSampling"
),
ToImpute = list(
ImputationMethod = "RandomSampling"
),
ImputationLevels = list(
ImputationMethod = "RandomSampling"
),
Seed = list(
ImputationMethod = "RandomSampling"
)
),
functionParameterDefaults = list(
ImputationLevels = c("Haul", "Stratum", "Survey")
)
),
##########
##### Other: #####
DefineAcousticTargetStrength = list(
functionType = "processData",
functionCategory = "baseline",
functionOutputDataType = "AcousticTargetStrength",
functionParameterFormat = list(
FileName = "filePath",
AcousticTargetStrengthTable = "targetStrengthTable"
),
functionArgumentHierarchy = list(
AcousticTargetStrengthModel = list(
UseProcessData = FALSE
),
DefinitionMethod = list(
UseProcessData = FALSE
),
AcousticTargetStrengthTable = list(
DefinitionMethod = "Table",
UseProcessData = FALSE
),
FileName = list(
DefinitionMethod = "ResourceFile",
UseProcessData = FALSE
)
)
),
ReportSuperIndividuals = list(
functionType = "modelData",
functionCategory = "report",
functionOutputDataType = "ReportSuperIndividualsData",
# This is an example of using an expression to determine when to show a parameter:
functionParameterFormat = list(
TargetVariable = "targetVariable_ReportSuperIndividuals",
GroupingVariables = "groupingVariables_ReportSuperIndividuals",
InformationVariables = "informationVariables_ReportSuperIndividuals",
TargetVariableUnit = "targetVariableUnit_ReportSuperIndividuals",
WeightingVariable = "weightingVariable_ReportSuperIndividuals",
FractionOverVariable = "fractionOverVariable",
ConditionOperator = "conditionOperator"
),
functionArgumentHierarchy = expression(
c(
getFunctionArgumentHierarchyForSpcificationParameters(
use = "Baseline",
functionName = "ReportFunction"
)
)
),
functionParameterDefaults = list(
GroupingVariables = c("Survey", "SpeciesCategory")
)
),
ReportQuantity = list(
functionType = "modelData",
functionCategory = "report",
functionOutputDataType = "ReportQuantityData",
# This is an example of using an expression to determine when to show a parameter:
functionParameterFormat = list(
GroupingVariables = "groupingVariables_ReportQuantity",
InformationVariables = "informationVariables_ReportQuantity",
TargetVariableUnit = "targetVariableUnit_ReportQuantity",
WeightingVariable = "weightingVariable_ReportQuantity",
FractionOverVariable = "fractionOverVariable",
ConditionOperator = "conditionOperator"
),
functionArgumentHierarchy = expression(
c(
getFunctionArgumentHierarchyForSpcificationParameters(
use = "Baseline",
functionName = "ReportFunction"
)
)
),
functionParameterDefaults = list(
GroupingVariables = c("Survey", "SpeciesCategory")
)
),
ReportDensity = list(
functionType = "modelData",
functionCategory = "report",
functionOutputDataType = "ReportDensityData",
# This is an example of using an expression to determine when to show a parameter:
functionParameterFormat = list(
GroupingVariables = "groupingVariables_ReportDensity",
InformationVariables = "informationVariables_ReportDensity",
DensityUnit = "densityUnit",
WeightingVariable = "weightingVariable_ReportDensity",
FractionOverVariable = "fractionOverVariable",
ConditionOperator = "conditionOperator"
),
functionArgumentHierarchy = expression(
c(
getFunctionArgumentHierarchyForSpcificationParameters(
use = "Baseline",
functionName = "ReportFunction"
)
)
),
functionParameterDefaults = list(
GroupingVariables = c("Survey", "SpeciesCategory")
)
),
ReportSpeciesCategoryCatch = list(
functionType = "modelData",
functionCategory = "report",
functionOutputDataType = "ReportSpeciesCategoryCatchData",
functionParameterFormat = list(
ReportVariableUnit = "reportVariableUnit_ReportSpeciesCategoryCatch"
)
)
#WriteStratumPolygon = list(
# functionType = "modelData",
# functionCategory = "report",
# functionOutputDataType = "WriteStratumPolygonData"
#)
##########
)
#' Define the process property formats:
#'
#' @export
#'
processPropertyFormats <- list(
filePath = list(
class = "single",
title = "The path to a single file"
),
dependentVariable_EstimateBioticRegression = list(
class = "single",
title = "Select DependentVariable for regression",
variableTypes = "character",
possibleValues = function(InputDataType, IndividualsData, SuperIndividualsData) {
data <- get(InputDataType)
intersect(names(data), attr(data, "stoxDataVariableNames")$Individual)
}
),
dependentResolutionVariable_EstimateBioticRegression = list(
class = "single",
title = "Select DependentResolutionVariable for regression",
variableTypes = "character",
possibleValues = function(DependentVariable, InputDataType, IndividualsData, SuperIndividualsData) {
data <- get(InputDataType)
setdiff(intersect(names(data), attr(data, "stoxDataVariableNames")$Individual), DependentVariable)
}
),
independentVariable_EstimateBioticRegression = list(
class = "single",
title = "Select IndependentVariable for regression",
variableTypes = "character",
possibleValues = function(DependentVariable, DependentResolutionVariable, InputDataType, IndividualsData, SuperIndividualsData) {
data <- get(InputDataType)
setdiff(intersect(names(data), attr(data, "stoxDataVariableNames")$Individual), c(DependentVariable, DependentResolutionVariable))
}
),
independentResolutionVariable_EstimateBioticRegression = list(
class = "single",
title = "Select IndependentResolutionVariable for regression",
variableTypes = "character",
possibleValues = function(DependentVariable, DependentResolutionVariable, IndependentVariable, InputDataType, IndividualsData, SuperIndividualsData) {
data <- get(InputDataType)
setdiff(intersect(names(data), attr(data, "stoxDataVariableNames")$Individual), c(DependentVariable, DependentResolutionVariable, IndependentVariable))
}
),
groupingVariables_EstimateBioticRegression = list(
class = "vector",
title = "Select GroupingVariables for regression",
variableTypes = "character",
possibleValues = function(DependentVariable, DependentResolutionVariable, IndependentVariable, IndependentResolutionVariable, InputDataType, IndividualsData, SuperIndividualsData) {
data <- get(InputDataType)
setdiff(
names(data),
c(DependentVariable, DependentResolutionVariable, IndependentVariable, IndependentResolutionVariable)
)
}
),
sweepWidthByCruiseTable = list(
class = "table",
title = "Define sweep width in meters for each cruise",
columnNames = c(
"Cruise",
"SweepWidth"
),
variableTypes = c(
"character",
"double"
)
),
catchCompensationTable = list(
class = "table",
title = "Define parameters for length dependent catch compensation",
columnNames = c(
"SpeciesCategory",
"Alpha",
"Beta",
"LMin",
"LMax"
),
variableTypes = c(
"character",
"double",
"double",
"double",
"double"
),
possibleValues = function(LengthDistributionData) {
if(!length(LengthDistributionData)) {
return(vector("list", 5))
}
# Get all unique combinations:
listOfUniqueCombinations <- as.list(unique(LengthDistributionData$SpeciesCategory))
# Output must be an unnamed list:
c(
list(unname(listOfUniqueCombinations)),
rep(list(list()), 4)
)
}
),
selectivityTable = list(
class = "table",
title = "Define parameters for length dependent selectivity",
columnNames = c(
"SpeciesCategory",
"Alpha",
"Beta",
"LMax"
),
variableTypes = c(
"character",
"double",
"double",
"double"
),
possibleValues = function(LengthDistributionData) {
if(!length(LengthDistributionData)) {
return(vector("list", 4))
}
# Get all unique combinations:
listOfUniqueCombinations <- as.list(unique(LengthDistributionData$SpeciesCategory))
# Output must be an unnamed list:
c(
list(unname(listOfUniqueCombinations)),
rep(list(list()), 3)
)
}
),
speciesLinkTable_AcousticDensity = list(
class = "table",
title = "Link acoustic categories and species categories",
columnNames = c(
"AcousticCategory",
"SpeciesCategory"
),
variableTypes = c(
#"integer", # This is how it is defined in the XSD, see http://www.imr.no/formats/nmdechosounder/v1/nmdechosounderv1.xsd
# Changed on 2020-06-30 from integer to character. There is no need to bring the integer definition of LUF20 on to StoxAcoustic!:
"character",
"character"
),
possibleValues = function(MeanNASCData, AssignmentLengthDistributionData) {
# Must be an unnamed list:
list(
unique(MeanNASCData$Data$AcousticCategory),
unique(AssignmentLengthDistributionData$SpeciesCategory)
)
}
),
speciesLinkTable_Split = list(
class = "table",
title = "Link acoustic categories and species categories",
columnNames = c(
"AcousticCategory",
"SpeciesCategory"
),
variableTypes = c(
#"integer", # This is how it is defined in the XSD, see http://www.imr.no/formats/nmdechosounder/v1/nmdechosounderv1.xsd
# Changed on 2020-06-30 from integer to character. There is no need to bring the integer definition of LUF20 on to StoxAcoustic!:
"character",
"character"
),
#possibleValues = function(NASCData, AssignmentLengthDistributionData) {
possibleValues = function(AssignmentLengthDistributionData, AcousticCategoryLink) {
# Must be an unnamed list:
list(
#unique(NASCData$AcousticCategory),
sort(unique(AcousticCategoryLink$SplitAcousticCategory)),
unique(AssignmentLengthDistributionData$SpeciesCategory)
)
}
),
speciesLinkTable_BioticAssignmentWeighting = list(
class = "table",
title = "Link acoustic categories and species categories",
columnNames = c(
"AcousticCategory",
"SpeciesCategory"
),
variableTypes = c(
#"integer", # This is how it is defined in the XSD, see http://www.imr.no/formats/nmdechosounder/v1/nmdechosounderv1.xsd
# Changed on 2020-06-30 from integer to character. There is no need to bring the integer definition of LUF20 on to StoxAcoustic!:
"character",
"character"
),
possibleValues = function(NASCData, LengthDistributionData) {
# Must be an unnamed list:
list(
unique(NASCData$AcousticCategory),
unique(LengthDistributionData$SpeciesCategory)
)
}
),
acousticCategoryLinkTable = list(
class = "table",
title = "Define acoustic categories to split mix categories into",
columnNames = c(
"AcousticCategory",
"SplitAcousticCategory"
),
variableTypes = c(
"character",
"character"
)
),
gearCompensationTable_LengthDistributionData = list(
class = "table",
title = "Sweep width for all gear",
columnNames = function(CompensationMethod = c("Gear", "Cruise", "GearAndCruise")) {
CompensationMethod <- RstoxData::match_arg_informative(CompensationMethod)
columnNames <- c(
strsplit(CompensationMethod, "And")[[1]],
"SweepWidth"
)
return(columnNames)
},
variableTypes = function(CompensationMethod = c("Gear", "Cruise", "GearAndCruise")) {
CompensationMethod <- RstoxData::match_arg_informative(CompensationMethod)
columnNames <- strsplit(CompensationMethod, "And")[[1]]
variableTypes <- c(
rep("character", length(columnNames)),
"double"
)
return(variableTypes)
},
possibleValues = function(LengthDistributionData, CompensationMethod = c("Gear", "Cruise", "GearAndCruise")) {
CompensationMethod <- RstoxData::match_arg_informative(CompensationMethod)
Variables <- strsplit(CompensationMethod, "And")[[1]]
if(!length(LengthDistributionData)) {
return(vector("list", length(Variables) + 1))
}
# Get all unique combinations:
#listOfUniqueCombinations <- as.list(unique(LengthDistributionData[, ..Variables]))
listOfUniqueCombinations <- lapply(Variables, function(var) as.list(unique(LengthDistributionData[[var]])))
# Output must be an unnamed list:
c(
#list(unname(listOfUniqueCombinations)),
listOfUniqueCombinations,
list(NULL)
)
}
),
gearCompensationTable_SpeciesCategoryCatchData = list(
class = "table",
title = "Sweep width for all gear",
columnNames = function(CompensationMethod = c("Gear", "Cruise", "GearAndCruise")) {
CompensationMethod <- RstoxData::match_arg_informative(CompensationMethod)
columnNames <- c(
strsplit(CompensationMethod, "And")[[1]],
"SweepWidth"
)
return(columnNames)
},
variableTypes = function(CompensationMethod = c("Gear", "Cruise", "GearAndCruise")) {
CompensationMethod <- RstoxData::match_arg_informative(CompensationMethod)
columnNames <- strsplit(CompensationMethod, "And")[[1]]
variableTypes <- c(
rep("character", length(columnNames)),
"double"
)
return(variableTypes)
},
possibleValues = function(SpeciesCategoryCatchData, CompensationMethod = c("Gear", "Cruise", "GearAndCruise")) {
CompensationMethod <- RstoxData::match_arg_informative(CompensationMethod)
Variables <- strsplit(CompensationMethod, "And")[[1]]
if(!length(SpeciesCategoryCatchData)) {
return(vector("list", length(Variables) + 1))
}
# Get all unique combinations:
#listOfUniqueCombinations <- as.list(unique(LengthDistributionData[, ..Variables]))
listOfUniqueCombinations <- lapply(Variables, function(var) as.list(unique(SpeciesCategoryCatchData[[var]])))
# Output must be an unnamed list:
c(
#list(unname(listOfUniqueCombinations)),
listOfUniqueCombinations,
list(NULL)
)
}
),
targetStrengthTable = list(
class = "table",
title = function(AcousticTargetStrengthModel = c("LengthDependent", "LengthAndDepthDependent", "TargetStrengthByLength", "LengthExponent")) {
AcousticTargetStrengthModel <- RstoxData::match_arg_informative(AcousticTargetStrengthModel)
if(identical(AcousticTargetStrengthModel, "LengthDependent")) {
title <- "Define parameters of (logarithmic) acoustic target strength as a function of length (TargetStrength = Targetstrength0 + LengthExponent * log10(Length))"
}
else if(identical(AcousticTargetStrengthModel, "LengthAndDepthDependent")) {
title <- "Define parameters of (logarithmic) acoustic target strength as a function of length (TargetStrength = Targetstrength0 + LengthExponent * log10(Length) + DepthExponent * log10(1 + Depth/10))"
}
else if(identical(AcousticTargetStrengthModel, "TargetStrengthByLength")) {
title <- "Define a table of IndividualTotalLength and TargetStrength for each AcousticCategory and Frequency"
}
else if(identical(AcousticTargetStrengthModel, "LengthExponent")) {
title <- "Define LengthExponent"
}
else {
stop("Wrong AcousticTargetStrengthModel")
}
return(title)
},
columnNames = function(AcousticTargetStrengthModel = c("LengthDependent", "LengthAndDepthDependent", "TargetStrengthByLength", "LengthExponent")) {
AcousticTargetStrengthModel <- RstoxData::match_arg_informative(AcousticTargetStrengthModel)
if(identical(AcousticTargetStrengthModel, "LengthDependent")) {
columnNames <- c(
"AcousticCategory",
"Frequency",
"TargetStrength0",
"LengthExponent"
)
}
else if(identical(AcousticTargetStrengthModel, "LengthAndDepthDependent")) {
columnNames <- c(
"AcousticCategory",
"Frequency",
"TargetStrength0",
"LengthExponent",
"DepthExponent"
)
}
else if(identical(AcousticTargetStrengthModel, "TargetStrengthByLength")) {
columnNames <- c(
"AcousticCategory",
"Frequency",
"TotalLength",
"TargetStrength"
)
}
else if(identical(AcousticTargetStrengthModel, "LengthExponent")) {
columnNames <- c(
"AcousticCategory",
"Frequency",
"LengthExponent"
)
}
else {
stop("Wrong AcousticTargetStrengthModel")
}
return(columnNames)
},
variableTypes = function(AcousticTargetStrengthModel = c("LengthDependent", "LengthAndDepthDependent", "TargetStrengthByLength", "LengthExponent")) {
AcousticTargetStrengthModel <- RstoxData::match_arg_informative(AcousticTargetStrengthModel
)
if(identical(AcousticTargetStrengthModel, "LengthDependent")) {
variableTypes <- c(
"character",
"double",
"double",
"double"
)
}
else if(identical(AcousticTargetStrengthModel, "LengthAndDepthDependent")) {
variableTypes <- c(
"character",
"double",
"double",
"double",
"double"
)
}
else if(identical(AcousticTargetStrengthModel, "TargetStrengthByLength")) {
variableTypes <- c(
"character",
"double",
"double",
"double"
)
}
else if(identical(AcousticTargetStrengthModel, "LengthExponent")) {
variableTypes <- c(
"character",
"double",
"double"
)
}
else {
stop("Wrong AcousticTargetStrengthModel")
}
return(variableTypes)
}
),
regressionTable = list(
class = "table",
title = function(RegressionModel = c("SimpleLinear", "Power")) {
RegressionModel <- RstoxData::match_arg_informative(RegressionModel)
if(identical(RegressionModel, "SimpleLinear")) {
title <- "Define parameters of the linear model ((DependentVariable + DependentResolutionVariable / 2) = Intercept + Slope * (IndependentVariable + IndependentResolutionVariable / 2))"
}
else if(identical(RegressionModel, "Power")) {
title <- "Define parameters of the power model ((DependentVariable + DependentResolutionVariable / 2) = Factor * (IndependentVariable + IndependentResolutionVariable / 2) ^ Exponent)"
}
else {
stop("Wrong RegressionModel")
}
return(title)
},
columnNames = function(RegressionModel = c("SimpleLinear", "Power"), GroupingVariables = character(), RegressionTable = data.table::data.table()) {
RegressionModel <- RstoxData::match_arg_informative(RegressionModel)
variableSpecification <- c(
"DependentVariable",
"DependentResolutionVariable",
"IndependentVariable",
"IndependentResolutionVariable"
)
metaColumns <- c(
"ResidualStandardError",
"EstimationMethod"
)
if(identical(RegressionModel, "SimpleLinear")) {
specificRegressionTableColumns <- c(
"Intercept",
"Slope"
)
}
else if(identical(RegressionModel, "Power")) {
specificRegressionTableColumns <- c(
"Factor",
"Exponent"
)
}
else {
stop("Wrong RegressionModel")
}
#if(length(GroupingVariables) && nchar(GroupingVariables)) {
GroupingVariables <- GroupingVariables[nchar(GroupingVariables) > 0]
columnNames <- c(
GroupingVariables,
variableSpecification,
specificRegressionTableColumns,
metaColumns
)
#}
# Warninig if there are columns in the existing table that are no longer valid:
invalidColumns <- c(
setdiff(names(RegressionTable), columnNames),
setdiff(columnNames, names(RegressionTable))
)
if(NROW(RegressionTable) & length(invalidColumns)) {
warning("StoX: RegressionTable no longer valid. Changing GroupingVariables or RegressionModel requires to create a new RegressionTable.")
}
return(columnNames)
},
variableTypes = function(RegressionModel = c("SimpleLinear", "Power"), GroupingVariables = character()) {
RegressionModel <- RstoxData::match_arg_informative(RegressionModel)
if(identical(RegressionModel, "SimpleLinear")) {
variableTypes <- c(
"character",
"character",
"character",
"character",
"double",
"double",
"double",
"character"
)
}
else if(identical(RegressionModel, "Power")) {
variableTypes <- c(
"character",
"character",
"character",
"character",
"double",
"double",
"double",
"character"
)
}
else {
stop("Wrong RegressionModel")
}
if(length(GroupingVariables[nchar(GroupingVariables) > 0])) {
variableTypes <- c(rep("character", length(GroupingVariables)), variableTypes)
}
return(variableTypes)
},
possibleValues = function(RegressionModel, SuperIndividualsData, GroupingVariables = character()) {
# Get all unique combinations:
if(RegressionModel == "SimpleLinear") {
EstimationMethod <- "SimpleLinear"
}
else if(RegressionModel == "Power") {
EstimationMethod <- c(
"LogLogLinear"#,
#"NonLinear"
)
}
# Output must be an unnamed list:
#c(
# rep(list(list()), 7 + as.numeric(length(GroupingVariables[nchar(GroupingVariables) > 0]))),
# list(EstimationMethod)
#)
c(
# Unique values of the grouping variables:
if(missing(SuperIndividualsData)) rep(list(list()), length(GroupingVariables)) else lapply(GroupingVariables, function(x) sort(unique(SuperIndividualsData[[x]]))),
# All columnn names:
if(missing(SuperIndividualsData)) rep(list(list()), 4) else rep(list(names(SuperIndividualsData)), 4),
# Empty for numeric fields:
rep(list(list()), 3),
list(EstimationMethod)
)
}
),
densityType_SweptAreaDensity = list(
class = "single",
title = "Select the type of swept area density.",
possibleValues = function(SweptAreaDensityMethod) {
if(SweptAreaDensityMethod == "LengthDistributed") {
"AreaNumberDensity"
}
else if(SweptAreaDensityMethod == "TotalCatch") {
c("AreaNumberDensity", "AreaWeightDensity")
}
}
),
# ReportSuperIndividuals:
targetVariable_ReportSuperIndividuals = list(
class = "single",
title = "One variable to group report from SuperIndividualsData",
possibleValues = function(SuperIndividualsData) {
#sort(subset(names(SuperIndividualsData), sapply(SuperIndividualsData, class) %in% c("numeric", "integer")))
sort(names(SuperIndividualsData))
},
variableTypes = "character"
),
groupingVariables_ReportSuperIndividuals = list(
class = "vector",
title = "One or more variables to group super-individuals by when reporting SuperIndividualsData",
possibleValues = function(SuperIndividualsData, TargetVariable) {
setdiff(sort(names(SuperIndividualsData)), TargetVariable)
},
variableTypes = "character"
),
informationVariables_ReportSuperIndividuals = list(
class = "vector",
title = "One or more columns to inlcude as information in ReportSuperIndividualsData",
possibleValues = function(SuperIndividualsData, TargetVariable, GroupingVariables) {
sort(setdiff(names(SuperIndividualsData), c(TargetVariable, GroupingVariables)))
},
variableTypes = "character"
),
targetVariableUnit_ReportSuperIndividuals = list(
class = "single",
title = "Select Unit for the TargetVariable",
possibleValues = function(TargetVariable) {
dataType <- "SuperIndividualsData"
quantity <- getBaseUnit(dataType = dataType, variableName = TargetVariable, element = "quantity")
if(!length(quantity) || is.na(quantity)) {
warning("StoX: No units defined for the variable ", TargetVariable, " of datatype ", dataType)
list()
}
else {
RstoxData::getUnitOptions(quantity)
}
}
),
weightingVariable_ReportSuperIndividuals = list(
class = "single",
title = "Select weighting variable",
possibleValues = function(SuperIndividualsData, TargetVariable, GroupingVariables, InformationVariables) {
# Keep only the numeric:
possibleVariables <- names(SuperIndividualsData)[sapply(SuperIndividualsData, inherits, c("numeric", "integer"))]
# Get the columns not used as TargetVariable, GroupingVariables or InformationVariables:
possibleVariables <-
sort(setdiff(possibleVariables, c(TargetVariable, GroupingVariables, InformationVariables)))
return(possibleVariables)
},
variableTypes = "character"
),
fractionOverVariable = list(
class = "single",
title = "Select variable to sum over in the denominator of the fraction",
possibleValues = function(GroupingVariables) {
GroupingVariables
},
variableTypes = "character"
),
# ReportQuantity:
groupingVariables_ReportQuantity = list(
class = "vector",
title = "One or more variables to group by when reporting QuantityData",
possibleValues = function(QuantityData) {
sort(names(QuantityData$Data))
},
variableTypes = "character"
),
informationVariables_ReportQuantity = list(
class = "vector",
title = "One or more columns to inlcude as information in ReportQuantityData",
possibleValues = function(QuantityData, GroupingVariables) {
sort(setdiff(names(QuantityData$Data), GroupingVariables))
},
variableTypes = "character"
),
targetVariableUnit_ReportQuantity = list(
class = "single",
title = "Select Unit for the TargetVariable",
possibleValues = function(TargetVariable) {
dataType <- "QuantityData"
quantity <- getBaseUnit(dataType = dataType, variableName = TargetVariable, element = "quantity")
if(!length(quantity) || is.na(quantity)) {
warning("StoX: No units defined for the variable ", TargetVariable, " of datatype ", dataType)
list()
}
else {
RstoxData::getUnitOptions(quantity)
}
}
),
weightingVariable_ReportQuantity = list(
class = "single",
title = "Select weighting variable",
possibleValues = function(QuantityData, GroupingVariables, InformationVariables) {
# Keep only the numeric:
possibleVariables <- names(QuantityData)[sapply(QuantityData, inherits, c("numeric", "integer"))]
# Get the columns not used as TargetVariable, GroupingVariables or InformationVariables:
possibleVariables <-
sort(setdiff(possibleVariables, c(GroupingVariables, InformationVariables)))
return(possibleVariables)
#sort(setdiff(names(QuantityData), c(GroupingVariables, InformationVariables)))
},
variableTypes = "character"
),
# ReportDensity:
groupingVariables_ReportDensity = list(
class = "vector",
title = "One or more variables to group by when reporting DensityData",
possibleValues = function(DensityData) {
sort(names(DensityData$Data))
},
variableTypes = "character"
),
informationVariables_ReportDensity = list(
class = "vector",
title = "One or more columns to inlcude as information in ReportDensityData",
possibleValues = function(DensityData, GroupingVariables) {
sort(setdiff(names(DensityData$Data), GroupingVariables))
},
variableTypes = "character"
),
densityUnit = list(
class = "single",
title = "Select unit for the Density",
possibleValues = function() {
dataType <- "DensityData"
quantity <- getBaseUnit(dataType = dataType, variableName = "Density", element = "quantity")
if(!length(quantity) || is.na(quantity)) {
warning("StoX: No units defined for the variable Density of datatype ", dataType)
list()
}
else {
RstoxData::getUnitOptions(quantity)
}
}
),
weightingVariable_ReportDensity = list(
class = "single",
title = "Select weighting variable",
possibleValues = function(DensityData, GroupingVariables, InformationVariables) {
# Keep only the numeric:
possibleVariables <- names(DensityData)[sapply(DensityData, inherits, c("numeric", "integer"))]
# Get the columns not used as TargetVariable, GroupingVariables or InformationVariables:
possibleVariables <-
sort(setdiff(possibleVariables, c(GroupingVariables, InformationVariables)))
return(possibleVariables)
#sort(setdiff(names(DensityData), c(GroupingVariables, InformationVariables)))
},
variableTypes = "character"
),
surveyTable = list(
class = "table",
title = "Link strata to different surveys",
columnNames = c(
"Stratum",
"Survey"
),
variableTypes = c(
"character",
"character"
),
possibleValues = function(StratumPolygon) {
if(!length(StratumPolygon)) {
return(vector("list", 2))
}
# Must be an unnamed list:
list(
getStratumNames(StratumPolygon), # Stratum
# This results in the JSON string "[]" as is expected by the GUI:
list() # Survey
)
}
),
layerTable = list(
class = "table",
title = "Define Layers by depth intervals",
columnNames = c(
"Layer",
"MinLayerDepth",
"MaxLayerDepth"
),
variableTypes = c(
"character",
"double",
"double"
)
),
#getIndividualVaiableNamesSingle = list(
# class = "single",
# title = "Select variable",
# possibleValues = getIndividualNames
#),
getImputeAtMissing = list(
class = "single",
title = "Select a variable to impute",
possibleValues = function(SuperIndividualsData) {
getIndividualNames(SuperIndividualsData, tables = "Individual", removeKeys = TRUE)
}
),
getImputeByEqual = list(
class = "vector",
title = "Select variables which when equal to the those of the individual defines the individuals to impute from",
possibleValues = function(SuperIndividualsData, ImputeAtMissing) {
getIndividualNames(SuperIndividualsData, remove = ImputeAtMissing, tables = c("Individual", "SpeciesCategory"), removeKeys = TRUE)
}
),
getToImpute = list(
class = "vector",
title = "Select variables to impute",
#possibleValues = function(SuperIndividualsData, ImputeByEqual, ImputeAtMissing) {
# getIndividualNames(SuperIndividualsData, remove = c(ImputeByEqual, ImputeAtMissing), tables = "Individual", removeKeys = TRUE)
#}
possibleValues = function(SuperIndividualsData, ImputeByEqual) {
getIndividualNames(SuperIndividualsData, remove = ImputeByEqual, tables = "Individual", removeKeys = TRUE)
}
),
groupingVariables = list(
class = "vector",
title = "Select GroupingVariables for regression"
),
groupingVariables_ImputeSuperIndividuals = list(
class = "vector",
title = "One or more variables to group by when defining Regression for imputation",
possibleValues = function(SuperIndividualsData) {
sort(names(SuperIndividualsData))
},
variableTypes = "character"
),
pointColor = list(
class = "single",
title = "Select color/color scale for the points",
possibleValues = function(NASCData, SumNASCData, ColorVariable) {
if(missing(SumNASCData)) {
var <- NASCData[[ColorVariable]]
}
else {
var <- SumNASCData$Data[[ColorVariable]]
}
if(isCategorical(var)) {
PointColor <- list()
}
else {
PointColor <- "combined.color"
}
return(PointColor)
}
),
reportVariableUnit_ReportSpeciesCategoryCatch = list(
class = "single",
title = "Select unit for the ReportVariable",
possibleValues = function(ReportVariable) {
dataType <- "SpeciesCategoryCatchData"
quantity <- getBaseUnit(dataType = dataType, variableName = ReportVariable, element = "quantity")
if(!length(quantity) || is.na(quantity)) {
warning("StoX: No units defined for the variable ", ReportVariable, " of datatype ", dataType)
list()
}
else {
RstoxData::getUnitOptions(quantity)
}
}
),
imputationLevels = list(
class = "vector",
title = "Select ImputationLevels",
possibleValues =
c(
"Haul",
"Stratum",
"Survey"
)
),
conditionOperator = list(
class = "single",
title = "Select ConditionOperator",
possibleValues = c("%in%", "%notin%", "==", "!=", "%notequal%", "<", "<=", ">=", ">")
)
)
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