GXGU class

class GXGU(handle=0)

GXGU class.

Not a class. A catch-all group of functions performing various geophysical processes, including the calculation of simple EM model responses, certain instrument dump file imports, and 2D Euler deconvolution.

__init__(handle=0)

classmethod despike_em_array(vv_in, vv_noise, vv_out, num_removed)

Despike a time-series with individual noise levels

Parameters:

• vv_in (GXVV) – GXVV input time series)

• vv_noise (GXVV) – GXVV individual noise values)

• vv_out (GXVV) – GXVV despiked output time series

• num_removed (int_ref) – Number of spikes removed - returned

New in version 9.5.

License: Geosoft End-User License

Note: Remove spikes from a single EM time-series decay curve. Each point has its own noise level. The algorithm is to be determined.

classmethod dipole_mag(xyz_file, depth, inc, nx, ny, dx, dy)

Calculate a dipole magnetic field into XYZ file

Parameters:

• xyz_file (str) – sXYZ

• depth (float) – rDepth

• inc (float) – rInc

• nx (int) – iNX

• ny (int) – iNY

• dx (float) – rDX

• dy (float) – rDY

New in version 5.1.6.

License: Geosoft End-User License

classmethod em_half_space_inv(coil_spacing, coil_frequency, coil_configuration, tol, threshold, vv_height, vv_in_phase, vv_quadrature, vv_res, inv, err, start_val)

Inverts EM responses to the best halfspace model.

Parameters:

• coil_spacing (float) – Coil spacing: error if == 0

• coil_frequency (float) – Frequency

• coil_configuration (int) – EMLAY_GEOMETRY constants

• tol (float) – Fractional error in best fit resistivity

• threshold (float) – Don’t invert values below this

• vv_height (GXVV) – Height above ground

• vv_in_phase (GXVV) – In-phase part (ppm)

• vv_quadrature (GXVV) – Quadrature part (ppm)

• vv_res (GXVV) – On return - inverted halfspace resistivities

• inv (int) – EM_INV constants

• err (int) – EM_ERR constants

• start_val (float) – Starting value for inversion (can be rDUMMY)

New in version 5.0.

License: Geosoft End-User License

classmethod em_half_space_vv(coil_spacing, coil_frequency, coil_configuration, rvv, hvv, ivv, qvv)

EM Halfspace forward model response.

Parameters:

• coil_spacing (float) – Coil separation

• coil_frequency (float) – Frequency

• coil_configuration (int) – EMLAY_GEOMETRY constants

• rvv (GXVV) – Input resistivity values

• hvv (GXVV) – Input height values

• ivv (GXVV) – Output In-phase

• qvv (GXVV) – Output Quadrature-phase

New in version 5.0.

License: Geosoft End-User License

classmethod em_layer(coil_spacing, coil_frequency, coil_height, coil_configuration, n_layers, vv_thickness, vv_sigma, in_phase, quadrature)

Calculate the EM response of a layered earth model.

Parameters:

• coil_spacing (float) – Coil spacing, error if == 0

• coil_frequency (float) – Coil frequency

• coil_height (float) – Coil height above layer [0]

• coil_configuration (int) – EMLAY_GEOMETRY constants

• n_layers (int) – Number of layers (including lower halfspace)

• vv_thickness (GXVV) – sNLayer-1 thicknesses [0] to [sNLayer-2]

• vv_sigma (GXVV) – sNLayer conductivities [0] to [sNLayer-1]

• in_phase (float_ref) – On return - in-phase part (ppm)

• quadrature (float_ref) – On return - quadrature part (ppm)

Returns:

0 of OK 1 if some error

Return type:

int

New in version 5.0.

License: Geosoft End-User License

classmethod em_plate(strike_length, dip_length, strike, dip, plunge, x_off, y_off, z_off, plate_depth, n_spons, sig_tvv, tx_orient, tx_freq, tx_dt, params, xivv, yivv, zivv, xqvv, yqvv, zqvv)

Calculate the conductance of a thin plate model.

Parameters:

• strike_length (float) – Plate strike length (m)

• dip_length (float) – Plate dip length (m)

• strike (float) – Plate strike (degrees) from X axis

• dip (float) – Plate dip (degrees) from horizontal

• plunge (float) – Plate plunge (degrees) from horizontal

• x_off (float) – Rx offset in X from Tx

• y_off (float) – Rx offset in Y from Tx

• z_off (float) – Rx offset in Z from Tx (+’ve down)

• plate_depth (float) – Depth below Tx

• n_spons (int) – EMPLATE_DOMAIN constants

• sig_tvv (GXVV) – The plate conductances (GXVV length <= 100)

• tx_orient (int) – EMPLATE_TX constants

• tx_freq (float) – Tx frequency (for EMPLATE_TIME)

• tx_dt (float) – Tx time window spacing (for EMPLATE_TIME)

• params (float) – The frequency/time parameters (SI units: f[Hz] or t[s])

• xivv (GXVV) – On return - X in-phase part (ppm)

• yivv (GXVV) – On return - Y in-phase part (ppm)

• zivv (GXVV) – On return - Z in-phase part (ppm)

• xqvv (GXVV) – On return - X quadrature part (ppm)

• yqvv (GXVV) – On return - Y quadrature part (ppm)

• zqvv (GXVV) – On return - Z quadrature part (ppm)

Returns:

0 of OK 1 if some error

Return type:

int

New in version 5.0.

License: Geosoft End-User License

classmethod gen_ux_detect_symbols_group_name(target_gdb, targets, ostr)

Generate a group name string for UX-Detect symbols

Parameters:

• target_gdb (str) – Input Targets database name

• targets (str) – Input Targets group (line) name

• ostr (str_ref) – Output group name string

New in version 6.3.

License: Geosoft Open License

Note: Start a new group for the symbols in the UX-Detect system. The Target GDB is often in the form “GDB_Targets”, where “GDB” is the original data. Cut off the part including the underscore when creating the map, so you don’t get map group Names like “SYMBOLS_UxData_Targets_Targets”.

See also

GXSTR.gen_group_name

classmethod geometrics2_db(db, ra, log_wa, survey_mode, line_dir, corner, bi_uni, corner_x, corner_y, mark_space, line_space)

Convert a Geometrics STN file to a database.

Parameters:

• db (GXDB) – GXDB handle

• ra (GXRA) – GXRA handle, STN file

• log_wa (GXWA) – Log file GXWA handle

• survey_mode (int) – Simple mode (1) or Mapped mode (2)

• line_dir (int) – Survey line orientation: North-south - 0 East-west - 1

• corner (int) – Starting survey position: SW - 0, NW - 1, SE - 2, NE - 3,

• bi_uni (int) – Bidirectional (0) or Unidirectional (1)

• corner_x (float) – Starting position X

• corner_y (float) – Starting position Y

• mark_space (float) – Mark spacing

• line_space (float) – Line spacing

New in version 5.0.

License: Geosoft End-User License

Note: Assumes that the database is new and empty. If not, existing channels with names X, Y, Mag1, Mag2, Time, Date, and Mark will deleted and then created. Existing lines will be erased and then created if they are the same as the new ones.

classmethod geometrics2_tbl(ra, wa, log_wa)

Convert a Geometrics station file (STN) to a table file (TBL)

Parameters:

• ra (GXRA) – GXRA handle, input station file

• wa (GXWA) – Output TBL file

• log_wa (GXWA) – Log file GXWA handle

New in version 5.0.

License: Geosoft End-User License

classmethod geometrics_qc(wa, line, in_vv, tol, min_coord, max_coord, out_vv, flag_vv)

Correct reading positions in a database.

Parameters:

• wa (GXWA) – Output error log file

• line (str) – Database line number. For output to log file only

• in_vv (GXVV) – Input GXVV, GS_DOUBLE

• tol (float) – Tolerance defined as percentage, say 50.0 means 50%. Must be >=0.0 Lower bound = (Normal Density) - (Normal Density)*Tolerance Upper bound = (Normal Density) + (Normal Density)*Tolerance

• min_coord (float) – Minimum coordinate (X or Y)

• max_coord (float) – Maximum coordinate (X or Y)

• out_vv (GXVV) – Output GXVV, GS_DOUBLE

• flag_vv (GXVV) – Output Flag GXVV, GS_LONG

New in version 5.0.

License: Geosoft End-User License

Note: There are six cases to consider:

Case	Flag	Solutions	Symptoms
CASE 1A:	0	No correction	Recorded and actual Line lengths same Reading densities vary slightly (passed the tolerance test)
CASE 1B	-1	No correction	Line lengths same Reading densities vary and cannot pass the tolerance test
CASE 2A	1	Corrected by extension	Recorded line length too short Possible high readings in segment(s) Corrected (by extending) and actual lengths become the same
CASE 2B	2	Corrected by interpolation	Recorded line length too short Possible high readings in segment(s) Corrected (by extending) and actual lengths are not same. Interpolation is then applied
CASE 3A	1	Corrected by shifting or (shrank)	Recorded line length too long Possible low readings in segment(s) Corrected (by shifting) and actual lengths are same
CASE 3B	2	Corrected by interpolation	Recorded line length too long Possible low readings in segment(s) Corrected (by shifting) and actual lengths are not same. Interpolation is then applied

TERMINOLOGY:

Segments

A segment refers to the distance and its contents between two adjacent fiducial markers

Normal Density

The density (number of readings) shared by the segments in a survey line. The number of segments with the density is greater than the number of segments having a different density in a line.

Tolerance and Bound:

Tolerance is defined as a percentage, say 50% (=0.5). Based on the tolerance, a lower bound and upper bound

can be defined:

Lower bound = (Normal Density) - (Normal Density)*Tolerance
Upper bound = (Normal Density) - (Normal Density)*Tolerance

Segments will pass the tolerance test if the number of readings falls within the Lower and Upper Bounds.

classmethod geonics3138_dump2_db(db, r_ah, r_ad, log_wa, line_mult, stat_mult)

Convert a Geonics EM31/EM38 file in dump format to a database.

Parameters:

• db (GXDB) – GXDB handle

• r_ah (GXRA) – GXRA handle, Header file

• r_ad (GXRA) – GXRA handle, Dump file

• log_wa (GXWA) – Log file GXWA handle

• line_mult (float) – Line multiplier

• stat_mult (float) – Station multiplier

New in version 5.0.

License: Geosoft End-User License

Note: Assumes that the database is new and empty. If not, existing channels with names X, Y, Station, Conductivity, Inphase, Quadrature, and Time will deleted and then created. Existing lines will be erased and then created if they are the same as the new ones.

classmethod geonics61_dump2_db(db, ra, log_wa, line_mult, stat_mult)

Convert a Geonics EM61 file in dump format to a database.

Parameters:

• db (GXDB) – GXDB handle

• ra (GXRA) – GXRA handle, dump file

• log_wa (GXWA) – Log file GXWA handle

• line_mult (float) – Line multiplier

• stat_mult (float) – Station multiplier - Not used in the calculation

New in version 5.0.

License: Geosoft End-User License

Note: Assumes that the database is new and empty. If not, existing channels with names X, Y, Station, Conductivity, Inphase, Quadrature, and Time will deleted and then created. Existing lines will be erased and then created if they are the same as the new ones.

classmethod geonics_dat2_db(db, ra, log_wa, line_mult, stat_mult)

Convert a Geonics EM31/EM38/EM61 file in GXDAT format to a database.

Parameters:

• db (GXDB) – GXDB handle

• ra (GXRA) – GXRA handle

• log_wa (GXWA) – Log file GXWA handle

• line_mult (float) – Line multiplier

• stat_mult (float) – Station multiplier - Not used in the calculation

New in version 5.0.

License: Geosoft End-User License

Note: Assumes that the database is new and empty. If not, existing channels with names X, Y, Station, Conductivity, Inphase, Quadrature, and Time will deleted and then created. Existing lines will be erased and then created if they are the same as the new ones.

classmethod gr_curv_cor(vv_elev, vv_lat, vv_boug)

Gravity Curvature (Bullard B) Correction to Bouguer anomaly

Parameters:

• vv_elev (GXVV) – Input Elevation GXVV

• vv_lat (GXVV) – Input Latitude GXVV

• vv_boug (GXVV) – Bouguer GXVV for Curvature Correction

New in version 5.0.

License: Geosoft End-User License

classmethod gr_curv_cor_ex(vv_elev, vv_lat, vv_boug, rho)

Gravity Curvature (Bullard B) Correction to Bouguer anomaly, with user input cap density.

Parameters:

• vv_elev (GXVV) – Input Elevation GXVV

• vv_lat (GXVV) – Input Latitude GXVV

• vv_boug (GXVV) – Bouguer GXVV for Curvature Correction

• rho (float) – Cap Density (g/cm^3

New in version 8.0.1.

License: Geosoft End-User License

classmethod gr_demvv(im_gdem, vv_x, vv_y, vv_z)

Get gravity DEM grid GXVV for Bouguer anomaly

Parameters:

• im_gdem (GXIMG) – DEM grid

• vv_x (GXVV) – Input X GXVV

• vv_y (GXVV) – Input Y GXVV

• vv_z (GXVV) – Output DEM GXVV for Bouguer Correction

New in version 6.2.

License: Geosoft End-User License

classmethod gr_test(xm, ym, zm, vv_x, vv_y, vv_g3, vv_g4, vv_g1, vv_g2)

Test triangular prism gravity calculation

Parameters:

• xm (float) – dXm - model dimension x

• ym (float) – dYm - model dimension y

• zm (float) – dZm - model depth

• vv_x (GXVV) – VVx - stations x

• vv_y (GXVV) – VVy - stations y

• vv_g3 (GXVV) – VVg3 - 2 triangular prism gravity results

• vv_g4 (GXVV) – VVg4 - regtangular prism gravity results

• vv_g1 (GXVV) – VVg1 - lower triangular prism gravity results

• vv_g2 (GXVV) – VVg2 - upper triangular prism gravity results

New in version 5.1.4.

License: Geosoft End-User License

classmethod gravity_still_reading_correction(db, grav_in, date, time, still, grav_out)

Gravity Still Reading Correction on selected lines.

Parameters:

• db (GXDB) – Database

• grav_in (int) – Input gravity channel handle [DB_LOCK_READONLY]

• date (int) – Input date channel handle [DB_LOCK_READONLY]

• time (int) – Input time channel handle [DB_LOCK_READONLY]

• still (str) – Still readings file

• grav_out (int) – Output gravity channel handle [DB_LOCK_READWRITE]

New in version 8.5.

License: Geosoft End-User License

classmethod gravity_still_reading_database_correction(db, grav_in, date, time, stillDB, station_channel, date_channel, time_channel, readings_channel, grav_out)

Gravity Still Reading Correction on selected lines, using a still readings database

Parameters:

• db (GXDB) – Database

• grav_in (int) – Input gravity channel handle [DB_LOCK_READONLY]

• date (int) – Input date channel handle [DB_LOCK_READONLY]

• time (int) – Input time channel handle [DB_LOCK_READONLY]

• stillDB (GXDB) – Still readings database

• station_channel (str) – station channel in still readings database

• date_channel (str) – date channel in still readings database

• time_channel (str) – time channel in still readings database

• readings_channel (str) – readings (gravity) channel in still readings database

• grav_out (int) – Output gravity channel handle [DB_LOCK_READWRITE]

New in version 9.7.

License: Geosoft End-User License

classmethod import_daarc500_ethernet(file, output, bytes)

Import Ethernet data from the RMS Instruments DAARC500.

Parameters:

• file (str) – File to import

• output (str) – Output binary file

• bytes (int_ref) – Returned number of bytes per block

New in version 7.2.

License: Geosoft Open License

Note: Imports Ethernet data recorded by the RMS Instruments DAARC500 instrument, and outputs the data to a new binary file, returning the number of bytes per block, to make it easier to import the data using the regular binary import.

classmethod import_daarc500_serial(file, channel, output, bytes)

Import Serial data from the RMS Instruments DAARC500.

Parameters:

• file (str) – File to import

• channel (int) – Channel to import, 1-8

• output (str) – Output binary file

• bytes (int_ref) – Returned number of bytes per block

New in version 7.2.

License: Geosoft Open License

Note: Imports a single channel of the up to 8 serial data channels recorded by the RMS Instruments DAARC500 instrument, and outputs the data for that channel to a new binary file, returning the number of bytes per block, to make it easier to import the data using the regular binary import.

classmethod import_p190(db, file, rec_type, wa)

Import navigation data in the P190 format.

Parameters:

• db (GXDB) – Database handle

• file (str) – P190 file name

• rec_type (str) – Single letter code, e.g. “C”, “E”, “S”, “T” or “V”, or blank for all records.

• wa (GXWA) – Log file

New in version 6.3.

License: Geosoft End-User License

Note: Imports the data, and, if projection information is included set the “X” and “Y” channel projection info. (Note: the last file imported always takes precedence). Different record types are imported to separate lines, but in the same order as in the file. Data in existing lines is overwritten. If the record type is specified, only records beginning with that letter are imported, otherwise all records (except for the header “H” records) are imported.

is_null()

Check if this is a null (undefined) instance

Returns:

True if this is a null (undefined) instance, False otherwise.

Return type:

bool

classmethod lag_daarc500_gps(mag_fid_vv, mag_event_vv, gps_fid_vv)

Lag the GPS fid values for the DAARC500 import.

Parameters:

• mag_fid_vv (GXVV) – Mag fid values (GS_DOUBLE)

• mag_event_vv (GXVV) – Mag event values (GS_LONG)

• gps_fid_vv (GXVV) – GPS fid values (GS_DOUBLE, altered on return)

New in version 7.2.

License: Geosoft Open License

Note: The fiducial times recorded for the GPS in the RMS Instrument DAARC500 are delayed, and associated with the “wrong” fid value. They should actually be moved to the previous fid value in the mag data where the event flag is non-zero.

classmethod magnetic_tilt_depth(tilt_deriv_grid, horiz_deriv_grid, database)

Calculate the depth of magnetic sources based on the tilt depth method by Ahmed Salem et al.

Parameters:

• tilt_deriv_grid (str) – Tilt derivative grid

• horiz_deriv_grid (str) – Horizontal derivative grid

• database (str) – Output database name (will overwrite existing)

New in version 9.9.

License: Geosoft End-User License

Note: Tilt-Depth is a magnetic depth estimation method that lends itself to rapid mapping of sedimentary basins without the complexity of unraveling the depth solutions from methods that give multiple solutions (e.g. Euler deconvolution). Reference: Sedimentary basins reconnaissance using the magnetic Tilt-Depth method by Ahmed Salem et al. Exploration Geophysics, 2010, 41, 198-209. Rick Blakely & Gerry Connard have extended and improved this method, as have other authors. The 0-value contour of the tilt derivative grid is sampled to a new database, and the horizontal derivative grid is sampled at those locations. The inverse of the horizontal derivative values are output to the Tilt_Depth channel.

classmethod maxwell_plate_corners(x, y, z, dip, dip_dir, plunge, length, width, x1, y1, z1, x2, y2, z2, x3, y3, z3, x4, y4, z4)

Calculate the corner point locations for a Maxwell Plate.

Parameters:

• x (float) – Top-center point, X

• y (float) – Top-center point, Y

• z (float) – Top-center point, Z

• dip (float) – Dip

• dip_dir (float) – Dip-direction

• plunge (float) – Plunge

• length (float) – Length

• width (float) – Width (height)

• x1 (float_ref) – [returned] Corner 1 X

• y1 (float_ref) – [returned] Corner 1 Y

• z1 (float_ref) – [returned] Corner 1 Z

• x2 (float_ref) – [returned] Corner 2 X

• y2 (float_ref) – [returned] Corner 2 Y

• z2 (float_ref) – [returned] Corner 2 Z

• x3 (float_ref) – [returned] Corner 3 X

• y3 (float_ref) – [returned] Corner 3 Y

• z3 (float_ref) – [returned] Corner 3 Z

• x4 (float_ref) – [returned] Corner 4 X

• y4 (float_ref) – [returned] Corner 4 Y

• z4 (float_ref) – [returned] Corner 4 Z

New in version 6.1.

License: Geosoft End-User License

Note: This routine calculates the corner locations of plates defined in the Maxwell Plate program, given the top-center location and plate geometry parameters.

classmethod null()

A null (undefined) instance of GXGU

Returns:

A null GXGU

Return type:

GXGU

classmethod scan_daarc500_ethernet(file, type, items)

Scan Ethernet data from the RMS Instruments DAARC500.

Parameters:

• file (str) – File to import

• type (int_ref) – Recognized type

• items (int_ref) – Number of items

New in version 7.2.

License: Geosoft Open License

Note: Scans the file to see what data type is in the Ethernet file. Currently only detects GR820 types.

classmethod scan_daarc500_serial(file, vv_type, vv_items)

Scan Serial data from the RMS Instruments DAARC500.

Parameters:

• file (str) – File to import

• vv_type (GXVV) – 8 Recognized types - GS_LONG

• vv_items (GXVV) – 8 Numbers of items - GS_LONG

New in version 7.2.

License: Geosoft Open License

Note: Scans the file to see which of the 8 serial channels were used to store data.

classmethod vv_euler(vv_xin, vv_yin, img_data, imgx, imgy, imgz, vv_xout, vv_yout, vv_depth, vvdc, vv_zer, vvx_yer, wnd_sz, si, wt_pow, x_yfit)

Get Euler solutions of depth from VVs and grids.

Parameters:

• vv_xin (GXVV) – Input X GXVV

• vv_yin (GXVV) – Input Y GXVV

• img_data (GXIMG) – Field grid

• imgx (GXIMG) – dF/dX grid

• imgy (GXIMG) – dF/dY grid

• imgz (GXIMG) – dF/dZ grid

• vv_xout (GXVV) – Output X GXVV

• vv_yout (GXVV) – Output Y GXVV

• vv_depth (GXVV) – Output depth GXVV

• vvdc (GXVV) – Output background field GXVV

• vv_zer (GXVV) – Output depth uncertainty GXVV

• vvx_yer (GXVV) – Output XY uncertainty GXVV

• wnd_sz (int) – Window size

• si (float) – Structure index

• wt_pow (float) – Weighting factor

• x_yfit (int) – PEAKEULER_XY constants

New in version 5.0.

License: Geosoft End-User License

Note: All VVs must be REAL

The output X and Y values are the same as the inputs, except if PEAKEULER_XY_FIT is selected. All other output values are set to dummy if:

1. The input X or Y is a dummy

2. The derived window size is a dummy.

3. The derived solution is outside the range

4. The solution is invalid (singular matrix)

classmethod vv_euler2(vv_xin, vv_yin, img_data, imgx, imgy, imgz, vv_xout, vv_yout, vv_depth, vvdc, vv_zer, vvx_yer, vv_wnd, si, wt_pow, x_yfit)

Get Euler solutions of depth from VVs and grids (method 2).

Parameters:

• vv_xin (GXVV) – Input X GXVV

• vv_yin (GXVV) – Input Y GXVV

• img_data (GXIMG) – Field grid

• imgx (GXIMG) – dF/dX grid

• imgy (GXIMG) – dF/dY grid

• imgz (GXIMG) – dF/dZ grid

• vv_xout (GXVV) – Output X GXVV

• vv_yout (GXVV) – Output Y GXVV

• vv_depth (GXVV) – Output depth GXVV

• vvdc (GXVV) – Output background field GXVV

• vv_zer (GXVV) – Output depth uncertainty GXVV

• vvx_yer (GXVV) – Output XY uncertainty GXVV

• vv_wnd (GXVV) – Window size (diameters of targets)

• si (float) – Structure index

• wt_pow (float) – Weighting factor

• x_yfit (int) – PEAKEULER_XY constants

New in version 5.0.

License: Geosoft End-User License

Note: All VVs must be REAL

See also

vv_euler

EM_ERR constants

Error Scaling

EM_ERR_UNSCALED

Unscaled

gxapi.EM_ERR_UNSCALED = 0

EM_ERR_LOGSCALING

Logscaling

gxapi.EM_ERR_LOGSCALING = 1

EM_INV constants

Type of Inversion

EM_INV_INPHASE

Inphase

gxapi.EM_INV_INPHASE = 0

EM_INV_QUADRATURE

Quadrature

gxapi.EM_INV_QUADRATURE = 1

EM_INV_BOTH

Both

gxapi.EM_INV_BOTH = 2

EMPLATE_DOMAIN constants

Type of Domain

EMPLATE_FREQUENCY

Emplate frequency

gxapi.EMPLATE_FREQUENCY = 1

EMPLATE_TIME

Emplate time

gxapi.EMPLATE_TIME = 9

EMPLATE_TX constants

Orientation

EMPLATE_TX_X

X

gxapi.EMPLATE_TX_X = 1

EMPLATE_TX_Y

Y

gxapi.EMPLATE_TX_Y = 2

EMPLATE_TX_Z

Z

gxapi.EMPLATE_TX_Z = 3

GU_DAARC500_DATATYPE constants

Supported serial data types for import

GU_DAARC500_UNKNOWN

Gu daarc500 unknown

gxapi.GU_DAARC500_UNKNOWN = 0

GU_DAARC500_GENERIC_ASCII

Gu daarc500 generic ascii

gxapi.GU_DAARC500_GENERIC_ASCII = 1

GU_DAARC500_GPS

Gu daarc500 gps

gxapi.GU_DAARC500_GPS = 2

GU_DAARC500_GR820_256D

Gu daarc500 gr820 256d

gxapi.GU_DAARC500_GR820_256D = 3

GU_DAARC500_GR820_256DU

Gu daarc500 gr820 256du

gxapi.GU_DAARC500_GR820_256DU = 4

GU_DAARC500_GR820_512DU

Gu daarc500 gr820 512du

gxapi.GU_DAARC500_GR820_512DU = 5

GU_DAARC500_NAV

Gu daarc500 nav

gxapi.GU_DAARC500_NAV = 6

PEAKEULER_XY constants

Fit Options

PEAKEULER_XY_NOFIT

Nofit

gxapi.PEAKEULER_XY_NOFIT = 0

PEAKEULER_XY_FIT

Fit

gxapi.PEAKEULER_XY_FIT = 1