示例#1
0
def function(params):

    common.runSystemChecks(
    )  # Run to ensure config.xml is copied across to user_settings.xml if needed. This line can be removed after 31/10/18.

    # Get inputs
    p = common.paramsAsText(params)
    scratchPath = p[1]
    developerMode = common.strToBool(p[2])

    if developerMode == True:
        developerMode = 'Yes'
    else:
        developerMode = 'No'

    # Override the default values from user settings file (if they exist in the file)
    try:
        configValues = [('scratchPath', scratchPath),
                        ('developerMode', developerMode)]

        common.writeXML(configuration.userSettingsFile, configValues)

        log.info('Scratch path updated: ' + scratchPath)
        log.info('Developer mode updated: ' + developerMode)

    except Exception:
        raise
示例#2
0
def function(params):

    try:
        pText = common.paramsAsText(params)

        # Get inputs
        runSystemChecks = common.strToBool(pText[1])
        outputFolder = pText[5]
        yearAFolder = pText[6]
        yearBFolder = pText[7]
        slopeOption = pText[8]
        slopeAngle = pText[9]
        yearARain = pText[10]
        yearBRain = pText[11]
        yearASupport = pText[12]
        yearBSupport = pText[13]

        # Set option for LS-factor
        if slopeOption == 'Calculate based on slope and length only':
            lsOption = 'SlopeLength'

        elif slopeOption == 'Include upslope contributing area':
            lsOption = 'UpslopeArea'

        else:
            log.error('Invalid LS-factor option')
            sys.exit()

        # System checks and setup
        if runSystemChecks:
            common.runSystemChecks()

        # Create output folder
        if not os.path.exists(outputFolder):
            os.mkdir(outputFolder)

        # Set up logging output to file
        log.setupLogging(outputFolder)

        # Call RUSLE_scen_acc function
        RUSLE_scen_acc.function(outputFolder, yearAFolder, yearBFolder,
                                lsOption, slopeAngle, yearARain, yearBRain,
                                yearASupport, yearBSupport)

        # Set up filenames for display purposes
        soilLossA = os.path.join(outputFolder, "soillossA")
        soilLossB = os.path.join(outputFolder, "soillossB")
        soilLossDiff = os.path.join(outputFolder, "soillossDiff")

        arcpy.SetParameter(2, soilLossA)
        arcpy.SetParameter(3, soilLossB)
        arcpy.SetParameter(4, soilLossDiff)

        log.info("RUSLE accounts operations completed successfully")

    except Exception:
        log.exception("RUSLE accounts tool failed")
        raise
示例#3
0
def function(params):

    try:
        pText = common.paramsAsText(params)

        runSystemChecks = common.strToBool(pText[1])

        if params[2].name == 'Output_folder':
            outputFolder = pText[2]
        elif params[2].name == 'Land_extent_accounts':
            outputFolder = os.path.join(arcpy.env.scratchFolder, 'LCaccounts')
            LCaccounts = pText[2]

        lcOption = pText[3]
        inputLC = pText[4]
        openingLC = pText[5]
        closingLC = pText[6]
        openingField = pText[7]
        closingField = pText[8]
        lcTable = pText[9]
        lcCodeField = pText[10]
        lcNameField = pText[11]

        # System checks and setup
        if runSystemChecks:
            common.runSystemChecks()

        # Create output folder
        if not os.path.exists(outputFolder):
            os.mkdir(outputFolder)

        # Set up logging output to file
        log.setupLogging(outputFolder)

        # Call aggregation function
        lcOutputs = land_accounts.function(outputFolder, lcOption, inputLC,
                                           openingLC, closingLC, openingField,
                                           closingField, lcTable, lcCodeField,
                                           lcNameField)

        # Set up filenames for display purposes
        lcOpening = lcOutputs[0]
        lcClosing = lcOutputs[1]
        lcOpeningWithAccounts = lcOutputs[2]
        outCSV = lcOutputs[3]

        arcpy.SetParameter(12, lcOpening)
        arcpy.SetParameter(13, lcClosing)
        arcpy.SetParameter(14, outCSV)

        return lcOpeningWithAccounts, lcClosing, outCSV

        log.info("Land extent accounting operations completed successfully")

    except Exception:
        log.exception("Land extent accounting tool failed")
        raise
示例#4
0
def function(params):

    try:
        pText = common.paramsAsText(params)

        runSystemChecks = common.strToBool(pText[1])
        # Get inputs
        if params[2].name == 'Output_folder':
            outputFolder = pText[2]
        elif params[2].name == 'Species_richness':
            outputFolder = os.path.join(arcpy.env.scratchFolder,
                                        'Species_richness')
            speciesRichness = pText[2]

        IUCN_rl_data = pText[4]
        studymask = pText[5]
        speciesdisplayname = pText[6]
        #aggregateMask = pText[7] # will add optional mask if want to calculate over aggregrate spatial units

        # System checks and setup
        if runSystemChecks:
            common.runSystemChecks()

        # Create output folder
        if not os.path.exists(outputFolder):
            os.mkdir(outputFolder)

        # Set up logging output to file
        log.setupLogging(outputFolder)

        # Call aggregation function
        outputStats = PAspeciesRIchness.function(outputFolder,
                                                 dataSetsToAggregate,
                                                 aggregateMask,
                                                 maskFullyWithinSAM,
                                                 dataToAggregate)

        # Set up filenames for display purposes
        RareSpeciesRichness = os.path.join(outputFolder,
                                           "RareSpeciesRichness.shp")
        arcpy.CopyFeatures_management(outputStats[0], RareSpeciesRichness)

        arcpy.SetParameter(3, SpeciesRichness)

        return outputStats[0], PAspeciesRIchness

        log.info("Rare species richness operations completed successfully")

    except Exception:
        log.exception("Rare species richness tool failed")
        raise
示例#5
0
def function(params):

    try:
        pText = common.paramsAsText(params)

        # Get inputs
        runSystemChecks = common.strToBool(pText[1])
        outputFolder = pText[2]
        inputRaster = pText[5]
        aggregationZones = pText[6]
        aggregationColumn = pText[7]

        rerun = False

        # Create output folder
        if not os.path.exists(outputFolder):
            os.mkdir(outputFolder)

        # System checks and setup
        if runSystemChecks:
            common.runSystemChecks(outputFolder, rerun)

        # Set up logging output to file
        log.setupLogging(outputFolder)

        # Set up progress log file
        progress.initProgress(outputFolder, rerun)

        # Write input params to XML
        common.writeParamsToXML(params, outputFolder)

        # Call zonal statistics function
        CalcZonal.function(outputFolder, inputRaster, aggregationZones,
                           aggregationColumn)

        # Set up filenames for display purposes
        outRaster = os.path.join(outputFolder, 'statRaster')
        outTable = os.path.join(outputFolder, 'statTable.dbf')

        # Set up outputs
        arcpy.SetParameter(3, outRaster)
        arcpy.SetParameter(4, outTable)

        log.info("Zonal statistics operations completed successfully")

    except Exception:
        log.exception("Zonal statistics tool failed")
        raise
示例#6
0
def function(params):

    try:
        pText = common.paramsAsText(params)

        # Get inputs
        runSystemChecks = common.strToBool(pText[1])
        outputFolder = pText[2]
        preprocessFolder = pText[4]

        # R-factor
        rData = pText[5]

        # LS-factor
        slopeOption = pText[6]
        slopeAngle = pText[7]

        # K-factor
        kOption = pText[8]
        soilData = pText[9]
        soilCode = pText[10]

        # C-factor
        cOption = pText[11]
        landCoverData = pText[12]
        landCoverCode = pText[13]

        # P-factor
        supportData = pText[14]

        saveFactors = common.strToBool(pText[15])

        # Rerun parameter may not present when tool run as part of a batch run tool. If it is not, set rerun to False.
        try:
            rerun = common.strToBool(pText[16])
        except IndexError:
            rerun = False
        except Exception:
            raise

        # Create output folder
        if not os.path.exists(outputFolder):
            os.mkdir(outputFolder)

        # System checks and setup
        if runSystemChecks:
            common.runSystemChecks(outputFolder, rerun)

        # Set up logging output to file
        log.setupLogging(outputFolder)

        # Set up progress log file
        progress.initProgress(outputFolder, rerun)

        # Write input params to XML
        common.writeParamsToXML(params, outputFolder)

        # Set option for LS-factor
        if slopeOption == 'Calculate based on slope and length only':
            lsOption = 'SlopeLength'

        elif slopeOption == 'Include upslope contributing area':
            lsOption = 'UpslopeArea'

        else:
            log.error('Invalid LS-factor option')
            sys.exit()

        # Set soilOption for K-factor
        if kOption == 'Use preprocessed soil data':
            soilOption = 'PreprocessSoil'

        elif kOption == 'Use local K-factor dataset':
            soilOption = 'LocalSoil'

        else:
            log.error('Invalid soil erodibility option')
            sys.exit()

        # Set lcOption for C-factor
        if cOption == 'Use preprocessed land cover data':
            lcOption = 'PrerocessLC'

        elif cOption == 'Use local C-factor dataset':
            lcOption = 'LocalCfactor'

        else:
            log.error('Invalid C-factor option')
            sys.exit()

        # Call RUSLE function
        soilLoss = RUSLE.function(outputFolder, preprocessFolder, lsOption,
                                  slopeAngle, soilOption, soilData, soilCode,
                                  lcOption, landCoverData, landCoverCode,
                                  rData, saveFactors, supportData, rerun)

        # Set up filenames for display purposes
        soilLoss = os.path.join(outputFolder, "soilloss")

        arcpy.SetParameter(3, soilLoss)

        return soilLoss

        log.info("RUSLE operations completed successfully")

    except Exception:
        log.exception("RUSLE tool failed")
        raise
示例#7
0
def function(params):

    try:
        ###################
        ### Read inputs ###
        ###################

        pText = common.paramsAsText(params)

        outputFolder = pText[1]
        inputDEM = common.fullPath(pText[2])
        inputStudyAreaMask = pText[3]
        inputLC = pText[4]
        lcCode = pText[5]
        inputSoil = pText[6]
        soilCode = pText[7]
        reconDEM = common.strToBool(pText[8])
        inputStreamNetwork = pText[9]
        streamAccThresh = pText[10]
        riverAccThresh = pText[11]
        smoothDropBuffer = pText[12]
        smoothDrop = pText[13]
        streamDrop = pText[14]
        rerun = common.strToBool(pText[15])

        log.info('Inputs read in')

        ###########################
        ### Tool initialisation ###
        ###########################

        # Create Baseline folder
        if not os.path.exists(outputFolder):
            os.mkdir(outputFolder)

        # Set up logging output to file
        log.setupLogging(outputFolder)

        # Run system checks
        common.runSystemChecks(outputFolder, rerun)

        # Set up progress log file
        progress.initProgress(outputFolder, rerun)

        # Write input params to XML
        common.writeParamsToXML(params, outputFolder, 'PreprocessDEM')

        log.info('Tool initialised')

        ########################
        ### Define filenames ###
        ########################

        files = common.getFilenames('preprocess', outputFolder)
        studyAreaMask = files.studyareamask
        outputLCras = files.lc_ras
        outputLCvec = files.lc_vec
        outputSoilras = files.soil_ras
        outputSoilvec = files.soil_vec

        ###############################
        ### Set temporary variables ###
        ###############################

        prefix = os.path.join(arcpy.env.scratchGDB, 'base_')

        DEMTemp = prefix + 'DEMTemp'
        clippedDEM = prefix + 'clippedDEM'
        clippedLC = prefix + 'clippedLC'
        clippedSoil = prefix + 'clippedSoil'
        clippedStreamNetwork = prefix + 'clippedStreamNetwork'

        studyAreaMaskTemp = prefix + "studyAreaMaskTemp"
        studyAreaMaskBuff = prefix + "studyAreaMaskBuff"
        studyAreaMaskDiss = prefix + "studyAreaMaskDiss"

        log.info('Temporary variables set')

        # Check formats of inputs
        lcFormat = arcpy.Describe(inputLC).dataType
        soilFormat = arcpy.Describe(inputSoil).dataType

        ###################
        ### Data checks ###
        ###################

        codeBlock = 'Data checks 1'
        if not progress.codeSuccessfullyRun(codeBlock, outputFolder, rerun):

            inputFiles = [inputDEM, inputStudyAreaMask, inputLC, inputSoil]
            if inputStreamNetwork is not None:
                inputFiles.append(inputStreamNetwork)

            for file in inputFiles:
                common.checkSpatialRef(file)

            # Set environment variables
            arcpy.env.snapRaster = inputDEM
            arcpy.env.cellSize = inputDEM
            arcpy.env.compression = "None"

            cellsizedem = float(
                arcpy.GetRasterProperties_management(inputDEM,
                                                     "CELLSIZEX").getOutput(0))

            # Get spatial references of DEM and study area mask
            DEMSpatRef = arcpy.Describe(inputDEM).SpatialReference
            maskSpatRef = arcpy.Describe(inputStudyAreaMask).SpatialReference

            # Reproject study area mask if it does not have the same coordinate system as the DEM
            if not common.equalProjections(DEMSpatRef, maskSpatRef):

                warning = "Study area mask does not have the same coordinate system as the DEM"
                log.warning(warning)
                common.logWarnings(outputFolder, warning)

                warning = "Mask coordinate system is " + maskSpatRef.Name + " while DEM coordinate system is " + DEMSpatRef.Name
                log.warning(warning)
                common.logWarnings(outputFolder, warning)

                warning = "Reprojecting study area mask to DEM coordinate system"
                log.warning(warning)
                common.logWarnings(outputFolder, warning)

                arcpy.Project_management(inputStudyAreaMask, studyAreaMaskTemp,
                                         DEMSpatRef)
                arcpy.CopyFeatures_management(studyAreaMaskTemp, studyAreaMask)
            else:
                arcpy.CopyFeatures_management(inputStudyAreaMask,
                                              studyAreaMask)

            # If DEM is large, clip it to a large buffer around the study area mask (~5km)
            inputDEM = baseline.clipLargeDEM(inputDEM, studyAreaMask)

            rasterInputFiles = []
            fcInputFiles = []

            # Sort land cover and soil into appropriate arrays based on data type
            if lcFormat in ['RasterDataset', 'RasterLayer']:
                rasterInputFiles.append(inputLC)
                outputLC = os.path.join(outputFolder, 'landcover')

            elif lcFormat in ['ShapeFile', 'FeatureClass']:
                fcInputFiles.append(inputLC)
                outputLC = os.path.join(outputFolder, 'landcover.shp')

            if soilFormat in ['RasterDataset', 'RasterLayer']:
                rasterInputFiles.append(inputSoil)
                outputSoil = os.path.join(outputFolder, 'soil')

            elif soilFormat in ['ShapeFile', 'FeatureClass']:
                fcInputFiles.append(inputSoil)
                outputSoil = os.path.join(outputFolder, 'soil.shp')

            if reconDEM is True and inputStreamNetwork is None:
                log.error(
                    'Cannot recondition the DEM without an input stream network'
                )
                log.error('Please provide an input stream network')
                sys.exit()

            # If the user has provided a stream network, add it to the list of inputs to check
            if inputStreamNetwork is not None:
                fcInputFiles.append(inputStreamNetwork)

            # Check that the inputs contain data
            for ras in rasterInputFiles:
                if ras is not None:

                    # Check file size
                    fileSizeGB = baseline.checkRasterSizeGB(ras)

                    if fileSizeGB < 1.0:
                        baseline.checkInputRaster(ras, outputFolder)

                    else:
                        log.warning(
                            "Cannot check if raster is empty or all NoData because it is too large"
                        )
                        log.warning(
                            "Please ensure this raster is not empty or all NoData: "
                            + str(ras))

            for fc in fcInputFiles:
                if fc is not None:
                    baseline.checkInputFC(fc, outputFolder)

            # Check that the land cover and soil FCs have the linking codes specified by the user
            if lcFormat in ['ShapeFile', 'FeatureClass']:
                if len(arcpy.ListFields(inputLC, lcCode)) != 1:
                    log.error('Field ' + lcCode +
                              'does not exist in feature class ' + inputLC)
                    sys.exit()

            if soilFormat in ['ShapeFile', 'FeatureClass']:
                if len(arcpy.ListFields(inputSoil, soilCode)) != 1:
                    log.error('Field ' + soilCode +
                              'does not exist in feature class ' + inputSoil)
                    sys.exit()

            progress.logProgress(codeBlock, outputFolder)

        ###############################
        ### Tidy up study area mask ###
        ###############################

        codeBlock = 'Tidy up study area mask'
        if not progress.codeSuccessfullyRun(codeBlock, outputFolder, rerun):

            # Check how many polygons are in the mask shapefile
            numPolysInMask = int(
                arcpy.GetCount_management(studyAreaMask).getOutput(0))
            if numPolysInMask > 1:

                # Reduce multiple features where possible
                arcpy.Union_analysis(studyAreaMask, studyAreaMaskDiss,
                                     "ONLY_FID", "", "NO_GAPS")
                arcpy.Dissolve_management(studyAreaMaskDiss, studyAreaMask, "",
                                          "", "SINGLE_PART", "DISSOLVE_LINES")

            # Buffer study area mask
            baseline.bufferMask(inputDEM,
                                studyAreaMask,
                                outputStudyAreaMaskBuff=studyAreaMaskBuff)
            log.info('Study area mask buffered')

            progress.logProgress(codeBlock, outputFolder)

        #######################
        ### Clip input data ###
        #######################

        codeBlock = 'Clip inputs'
        if not progress.codeSuccessfullyRun(codeBlock, outputFolder, rerun):

            baseline.clipInputs(outputFolder,
                                studyAreaMaskBuff,
                                inputDEM,
                                inputLC,
                                inputSoil,
                                inputStreamNetwork,
                                outputDEM=clippedDEM,
                                outputLC=clippedLC,
                                outputSoil=clippedSoil,
                                outputStream=clippedStreamNetwork)

            progress.logProgress(codeBlock, outputFolder)

        ##############################################
        ### Coverage checks on soil and land cover ###
        ##############################################

        codeBlock = 'Do coverage checks on clipped land cover and soil'
        if not progress.codeSuccessfullyRun(codeBlock, outputFolder, rerun):

            # Do coverage checks on land cover and soil and copy to outputFolder
            if lcFormat in ['RasterDataset', 'RasterLayer']:

                lcMask = common.extractRasterMask(clippedLC)
                common.checkCoverage(lcMask, studyAreaMaskBuff, inputLC)

                arcpy.CopyRaster_management(clippedLC, outputLCras)

            elif lcFormat in ['ShapeFile', 'FeatureClass']:
                lcMask = common.dissolvePolygon(clippedLC)
                common.checkCoverage(lcMask, studyAreaMaskBuff, inputLC)

                arcpy.CopyFeatures_management(clippedLC, outputLCvec)

            if soilFormat in ['RasterDataset', 'RasterLayer']:

                soilMask = common.extractRasterMask(clippedSoil)
                common.checkCoverage(soilMask, studyAreaMaskBuff, inputLC)

                arcpy.CopyRaster_management(clippedSoil, outputSoilras)

            elif soilFormat in ['ShapeFile', 'FeatureClass']:

                soilMask = common.dissolvePolygon(clippedSoil)
                common.checkCoverage(soilMask, studyAreaMaskBuff, inputSoil)

                arcpy.CopyFeatures_management(clippedSoil, outputSoilvec)

            progress.logProgress(codeBlock, outputFolder)

        ######################################
        ### Convert LC and soil to rasters ###
        ######################################

        # For the RUSLE tool, the LC and soil must be in raster format

        codeBlock = 'Convert land cover and soil to rasters'
        if not progress.codeSuccessfullyRun(codeBlock, outputFolder, rerun):

            if lcFormat in ['ShapeFile', 'FeatureClass']:
                arcpy.PolygonToRaster_conversion(clippedLC, lcCode,
                                                 outputLCras, "CELL_CENTER",
                                                 "", cellsizedem)
                log.info('Land cover raster produced')

            if soilFormat in ['ShapeFile', 'FeatureClass']:
                arcpy.PolygonToRaster_conversion(clippedSoil, soilCode,
                                                 outputSoilras, "CELL_CENTER",
                                                 "", cellsizedem)
                log.info('Soil raster produced')

            # Delete intermediate files
            arcpy.Delete_management(clippedLC)
            arcpy.Delete_management(clippedSoil)

            progress.logProgress(codeBlock, outputFolder)

        ###########################
        ### Run HydTopo process ###
        ###########################

        log.info("*** Preprocessing DEM ***")
        preprocess_dem.function(outputFolder, clippedDEM, studyAreaMask,
                                clippedStreamNetwork, streamAccThresh,
                                riverAccThresh, smoothDropBuffer, smoothDrop,
                                streamDrop, reconDEM, rerun)

    except Exception:
        arcpy.SetParameter(0, False)
        log.exception("Preprocessing DEM functions did not complete")
        raise
示例#8
0
def function(params):

    class DataToAggregate:
        def __init__(self, dataSet, linkCode):
            self.dataSet = dataSet
            self.linkCode = linkCode

    try:
        pText = common.paramsAsText(params)
        

        # Get inputs
        if params[2].name == 'Output_folder':
            outputFolder = pText[2]
        elif params[2].name == 'Aggregated_data':
            outputFolder = os.path.join(arcpy.env.scratchFolder, 'AggregatedData')
            aggregatedData = pText[2]
        
        runSystemChecks = common.strToBool(pText[1])
        dataToAggregate = pText[7]
        classificationColumn = pText[8]
        aggregateMask = pText[9]
        maskFullyWithinSAM = common.strToBool(pText[10])

        # System checks and setup
        if runSystemChecks:
            common.runSystemChecks()

        # Create output folder
        if not os.path.exists(outputFolder):
            os.mkdir(outputFolder)

        # Set up logging output to file
        log.setupLogging(outputFolder)

        # Initialise variables
        dataSetsToAggregate = [DataToAggregate(dataToAggregate, classificationColumn)]

        # Call aggregation function
        outputStats = aggregate_data.function(outputFolder, dataSetsToAggregate, aggregateMask, maskFullyWithinSAM, dataToAggregate)

        # Set up filenames for display purposes
        InvSimpson = os.path.join(outputFolder, "InverseSimpsonIndex.shp")
        Shannon = os.path.join(outputFolder, "ShannonIndex.shp")
        meanPatch = os.path.join(outputFolder, "MeanPatchSize.shp")
        numCovers = os.path.join(outputFolder, "NumCovers.shp")

        arcpy.CopyFeatures_management(outputStats[0], InvSimpson)
        arcpy.CopyFeatures_management(outputStats[0], Shannon)
        arcpy.CopyFeatures_management(outputStats[0], meanPatch)
        arcpy.CopyFeatures_management(outputStats[0], numCovers)

        arcpy.SetParameter(3, InvSimpson)
        arcpy.SetParameter(4, Shannon)
        arcpy.SetParameter(5, numCovers)
        arcpy.SetParameter(6, meanPatch)

        return outputStats[0], InvSimpson, Shannon, numCovers, meanPatch

        log.info("Aggregation operations completed successfully")

    except Exception:
        log.exception("Aggregate data tool failed")
        raise
示例#9
0
def function(params):

    try:
        pText = common.paramsAsText(params)
        # Get inputs
        runSystemChecks = common.strToBool(pText[1])
        outputFolder = pText[5]

        yearAFolder = pText[6]
        yearBFolder = pText[7]

        # Inputs constant between the two years
        slopeOption = pText[8]
        slopeAngle = pText[9]
        rData = pText[10]
        soilData = pText[11]
        soilCode = pText[12]

        # Land covers
        YearALCData = pText[13]
        YearALCCode = pText[14]
        YearBLCData = pText[15]
        YearBLCCode = pText[16]

        # Support factors
        YearAPData = pText[17]
        YearBPData = pText[18]

        saveFactors = False

        # Set option for LS-factor
        if slopeOption == 'Calculate based on slope and length only':
            lsOption = 'SlopeLength'

        elif slopeOption == 'Include upslope contributing area':
            lsOption = 'UpslopeArea'

        else:
            log.error('Invalid LS-factor option')
            sys.exit()

        # System checks and setup
        if runSystemChecks:
            common.runSystemChecks()

        # Create output folder
        if not os.path.exists(outputFolder):
            os.mkdir(outputFolder)

        # Set up logging output to file
        log.setupLogging(outputFolder)

        # Call RUSLE_accounts function

        RUSLE_accounts.function(outputFolder, yearAFolder, yearBFolder,
                                lsOption, slopeAngle, rData, soilData,
                                soilCode, YearALCData, YearALCCode,
                                YearBLCData, YearBLCCode, YearAPData,
                                YearBPData, saveFactors)

        # Set up filenames for display purposes
        soilLossA = os.path.join(outputFolder, "soillossA")
        soilLossB = os.path.join(outputFolder, "soillossB")
        soilLossDiff = os.path.join(outputFolder, "soillossDiff")

        arcpy.SetParameter(2, soilLossA)
        arcpy.SetParameter(3, soilLossB)
        arcpy.SetParameter(4, soilLossDiff)

        log.info("RUSLE accounts operations completed successfully")

    except Exception:
        log.exception("RUSLE accounts tool failed")
        raise